diff --git a/.idea/RollOut.iml b/.idea/RollOut.iml
new file mode 100644
index 0000000000000000000000000000000000000000..39acb879044d0524872dc97ee45860783b7fd797
--- /dev/null
+++ b/.idea/RollOut.iml
@@ -0,0 +1,15 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<module type="PYTHON_MODULE" version="4">
+ <component name="NewModuleRootManager">
+ <content url="file://$MODULE_DIR$" />
+ <orderEntry type="jdk" jdkName="RollOut" jdkType="Python SDK" />
+ <orderEntry type="sourceFolder" forTests="false" />
+ </component>
+ <component name="PyDocumentationSettings">
+ <option name="format" value="PLAIN" />
+ <option name="myDocStringFormat" value="Plain" />
+ </component>
+ <component name="TestRunnerService">
+ <option name="PROJECT_TEST_RUNNER" value="py.test" />
+ </component>
+</module>
\ No newline at end of file
diff --git a/.idea/inspectionProfiles/profiles_settings.xml b/.idea/inspectionProfiles/profiles_settings.xml
new file mode 100644
index 0000000000000000000000000000000000000000..105ce2da2d6447d11dfe32bfb846c3d5b199fc99
--- /dev/null
+++ b/.idea/inspectionProfiles/profiles_settings.xml
@@ -0,0 +1,6 @@
+<component name="InspectionProjectProfileManager">
+ <settings>
+ <option name="USE_PROJECT_PROFILE" value="false" />
+ <version value="1.0" />
+ </settings>
+</component>
\ No newline at end of file
diff --git a/.idea/misc.xml b/.idea/misc.xml
new file mode 100644
index 0000000000000000000000000000000000000000..4d87dbaa23ff25003af0f3f529beb41147a48454
--- /dev/null
+++ b/.idea/misc.xml
@@ -0,0 +1,7 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<project version="4">
+ <component name="Black">
+ <option name="sdkName" value="TEASER_RollOut" />
+ </component>
+ <component name="ProjectRootManager" version="2" project-jdk-name="RollOut" project-jdk-type="Python SDK" />
+</project>
\ No newline at end of file
diff --git a/.idea/modules.xml b/.idea/modules.xml
new file mode 100644
index 0000000000000000000000000000000000000000..a072bd7e9e0adef830e055318564b223c269ab4c
--- /dev/null
+++ b/.idea/modules.xml
@@ -0,0 +1,8 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<project version="4">
+ <component name="ProjectModuleManager">
+ <modules>
+ <module fileurl="file://$PROJECT_DIR$/.idea/RollOut.iml" filepath="$PROJECT_DIR$/.idea/RollOut.iml" />
+ </modules>
+ </component>
+</project>
\ No newline at end of file
diff --git a/.idea/vcs.xml b/.idea/vcs.xml
new file mode 100644
index 0000000000000000000000000000000000000000..bd0d64eb763096675de2b720203f7a4260a3f4f8
--- /dev/null
+++ b/.idea/vcs.xml
@@ -0,0 +1,8 @@
+<?xml version="1.0" encoding="UTF-8"?>
+<project version="4">
+ <component name="VcsDirectoryMappings">
+ <mapping directory="" vcs="Git" />
+ <mapping directory="$PROJECT_DIR$/BuildingSim/BESMod" vcs="Git" />
+ <mapping directory="$PROJECT_DIR$/BuildingSim/TEASER" vcs="Git" />
+ </component>
+</project>
\ No newline at end of file
diff --git a/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/SimpleDefrost.mo b/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/SimpleDefrost.mo
new file mode 100644
index 0000000000000000000000000000000000000000..98953866b13134440d9014ad38805600eb9fe695
--- /dev/null
+++ b/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/SimpleDefrost.mo
@@ -0,0 +1,33 @@
+within BESRules.Components.Frosting;
+model SimpleDefrost "Simple defrost based on iceFac"
+ extends
+ BESMod.Systems.Hydraulical.Control.Components.Defrost.BaseClasses.PartialDefrost;
+ parameter Real minIceFac=0.5
+ "Minimal allowed icing Factor to trigger the defrost";
+
+ Modelica.Blocks.Logical.Hysteresis hys(
+ uLow=minIceFac,
+ uHigh=0.99,
+ pre_y_start=true)
+ "For the iceFac control. Output signal is used internally"
+ annotation (Placement(transformation(extent={{-10,-10},{10,10}})));
+
+ parameter Real derIceFac_min=1e-10
+ "Minimal change of iceFac to be considered as increasing frost"
+ annotation (Dialog(tab="Advanced"));
+
+equation
+
+ connect(hys.u, sigBus.icefacHPMea) annotation (Line(points={{-12,0},{-108,0}},
+ color={0,0,127}), Text(
+ string="%second",
+ index=1,
+ extent={{-6,3},{-6,3}},
+ horizontalAlignment=TextAlignment.Right));
+ connect(hys.y, hea)
+ annotation (Line(points={{11,0},{110,0}}, color={255,0,255}));
+ annotation (Icon(graphics={Text(
+ extent={{-64,46},{78,-56}},
+ lineColor={0,0,0},
+ textString="f(CICO)")}), experiment(StopTime=2592000, Interval=500));
+end SimpleDefrost;
diff --git a/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/package.order b/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/package.order
index a04a959ad098226b051b0d4ced88874f7d4b8185..9caeaa0c86185c89e0722f2b8bb6998e5db2d22e 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/package.order
+++ b/BuildingSim/working_dir/Modelica_RollOut/BESRules/Components/Frosting/package.order
@@ -7,3 +7,4 @@ HysteresisVariableLowerBound
OptimalDefrostWuEtAl
OptimalDefrostTimeWangEtAl
ZhuTimeBasedDefrost
+SimpleDefrost
diff --git a/BuildingSim/working_dir/Modelica_RollOut/RollOut.Systems.Hydraulical.Generation.HeatPumpAndElectricHeater.mof b/BuildingSim/working_dir/Modelica_RollOut/RollOut.Systems.Hydraulical.Generation.HeatPumpAndElectricHeater.mof
new file mode 100644
index 0000000000000000000000000000000000000000..46cfd90eb4cea6ba9e7e137699fed0f2a8354e97
--- /dev/null
+++ b/BuildingSim/working_dir/Modelica_RollOut/RollOut.Systems.Hydraulical.Generation.HeatPumpAndElectricHeater.mof
@@ -0,0 +1,7986 @@
+model HeatPumpAndElectricHeater
+ constant Modelica.Fluid.Types.Dynamics energyDynamics = Modelica.Fluid.Types.Dynamics.
+ DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics massDynamics = energyDynamics
+ "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ parameter Modelica.Fluid.Types.Dynamics substanceDynamics = energyDynamics
+ "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics traceDynamics = energyDynamics
+ "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure p_start = 101325
+ "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature T_start = 293.15
+ "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction X_start[1] = {1.0}
+ "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty C_start[0](start =
+ fill(1.0, size(C_start, 1))) = fill(0, 0) "Start value of trace substances";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty C_nominal[0](start =
+ fill(1.0, size(C_nominal, 1))) = fill(0.01, 0) "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real mSenFac(min = 1.0) = 1 "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean wrongEnergyMassBalanceConfiguration = not (energyDynamics
+ <> Modelica.Fluid.Types.Dynamics.SteadyState or massDynamics ==
+ Modelica.Fluid.Types.Dynamics.SteadyState) "True if configuration of energy and mass balance is wrong.";
+ constant Boolean use_openModelica = false "=true to disable features which
+ are not available in open modelica";
+ constant Boolean allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ constant Boolean show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.Density rho = density_Unique1(
+ sta_nominal) "Density of medium / fluid in heat distribution system";
+ parameter Modelica.Units.SI.SpecificHeatCapacity cp = specificHeatCapacityCp_Unique2
+ (
+ sta_nominal) "Specific heat capacaity of medium / fluid in heat distribution system";
+ constant Integer nParallelDem(min = 1.0) = 1 "Number of parallel demand systems of this system";
+ parameter Integer nParallelSup(min = 1.0) = nParallelDem "Number of parallel supply systems of this system";
+ parameter Modelica.Units.SI.Temperature TSup_nominal[nParallelSup](start =
+ fill(288.15, size(TSup_nominal, 1))) = TDem_nominal.+dTLoss_nominal
+ "Nominal supply temperature";
+ parameter Modelica.Units.SI.Temperature TSupOld_design[nParallelSup](start =
+ fill(288.15, size(TSupOld_design, 1))) = TDemOld_design.+dTLoss_nominal
+ "Old design supply temperature";
+ constant Modelica.Units.SI.TemperatureDifference dTTra_nominal[1] = {5}
+ "Nominal temperature difference for heat transfer";
+ parameter Modelica.Units.SI.TemperatureDifference dTTraOld_design[1] = {(if
+ TDemOld_design[1] > 328.15 then 10 else (if TDemOld_design[1] >
+ 318.04999999999995 then 8 else 5))} "Old design temperature difference for heat transfer";
+ parameter Modelica.Units.SI.MassFlowRate m_flow_nominal[nParallelDem](min =
+ 1E-15) = Q_flow_nominal.*f_design./dTTra_nominal./4184 "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate mOld_flow_design[nParallelDem](min =
+ 1E-15) = QOld_flow_design.*f_design./dTTraOld_design./4184 "Old design mass flow rate of old design";
+ parameter Modelica.Units.SI.PressureDifference dp_nominal[nParallelDem] = {
+ heatPump.dpCon_nominal+dpEleHea_nominal} "Nominal pressure difference at m_flow_nominal";
+ parameter Modelica.Units.SI.TemperatureDifference dTLoss_nominal[nParallelDem]
+ = fill(0, nParallelDem) "Nominal temperature difference due to heat losses";
+ constant Real f_design[1] = {1.0} "Factor for oversizing due to heat losses";
+ parameter Modelica.Units.SI.HeatFlowRate QLoss_flow_nominal[nParallelDem] =
+ f_design.*Q_flow_nominal.-Q_flow_nominal "Nominal heat flow rate due to heat losses";
+ parameter Modelica.Units.SI.HeatFlowRate Q_flow_nominal[1](min = 1E-15)
+ "Nominal heat flow rate";
+ parameter Modelica.Units.SI.HeatFlowRate QOld_flow_design[1](min = 1E-15) = {
+ Q_flow_nominal[1]} "Old design heat flow rate";
+ constant Modelica.Units.SI.Temperature TOda_nominal = 288.15 "Nominal outdoor air temperature";
+ constant Modelica.Units.SI.Temperature TDem_nominal[1] = {288.15}
+ "Nominal demand temperature";
+ parameter Modelica.Units.SI.Temperature TDemOld_design[1](start = {288.15}) =
+ {TDem_nominal[1]} "Old design demand temperature";
+ parameter Modelica.Units.SI.Temperature TAmb = 288.15 "Ambient temperature of system. Used to calculate default heat loss.";
+ parameter Modelica.Units.SI.HeatFlowRate Q_flow_design[1](min = 1E-15) = {(if
+ use_old_design[1] then QOld_flow_design[1] else Q_flow_nominal[1])}
+ "Nominal design heat flow rate";
+ parameter Modelica.Units.SI.MassFlowRate m_flow_design[1](min = 1E-15) = {
+ 0.0002390057361376673*(Q_flow_design[1]*f_design[1])/dTTra_design[1]}
+ "Nominal design mass flow rate";
+ constant Modelica.Units.SI.TemperatureDifference dTTra_design[1] = {5.0}
+ "Nominal design temperature difference for heat transfer";
+ parameter Modelica.Units.SI.PressureDifference dp_design[nParallelDem] =
+ dp_nominal "Nominal design pressure difference at m_flow_design";
+ parameter Modelica.Units.SI.PressureDifference dpDem_nominal[nParallelDem]
+ "Nominal pressure loss of resistances in the demand system of the generation";
+ parameter Modelica.Units.SI.PressureDifference dpDemOld_design[nParallelDem]
+ "Nominal design pressure loss of resistances in the old demand system of the generation";
+ parameter Modelica.Units.SI.PressureDifference parHeaPum.dpCon_nominal
+ "Pressure drop at nominal mass flow rate";
+ parameter Modelica.Units.SI.Time parHeaPum.tauCon = 30 "Condenser heat transfer time constant at nominal flow";
+ constant Boolean parHeaPum.use_conCap = false "=true if using capacitor model for condenser heat loss estimation";
+ parameter Modelica.Units.SI.HeatCapacity parHeaPum.CCon = 0 "Heat capacity of the condenser";
+ parameter Modelica.Units.SI.ThermalConductance parHeaPum.GConOut = 0
+ "Outer thermal conductance for condenser heat loss calculations";
+ parameter Modelica.Units.SI.ThermalConductance parHeaPum.GConIns = 0
+ "Inner thermal conductance for condenser heat loss calculations";
+ parameter Modelica.Units.SI.TemperatureDifference parHeaPum.dTEva_nominal
+ "Nominal temperature difference in evaporator medium, used to calculate mass flow rate";
+ parameter Modelica.Units.SI.PressureDifference parHeaPum.dpEva_nominal
+ "Pressure drop at nominal mass flow rate";
+ parameter Modelica.Units.SI.Time parHeaPum.tauEva = 30 "Evaporator heat transfer time constant at nominal flow";
+ constant Boolean parHeaPum.use_evaCap = false "=true if using capacitor model for evaporator heat loss estimation";
+ parameter Modelica.Units.SI.HeatCapacity parHeaPum.CEva = 0 "Heat capacity of the evaporator";
+ parameter Modelica.Units.SI.ThermalConductance parHeaPum.GEvaOut = 0
+ "Outer thermal conductance for evaporator heat loss calculations";
+ parameter Modelica.Units.SI.ThermalConductance parHeaPum.GEvaIns = 0
+ "Inner thermal conductance for evaporator heat loss calculations";
+ constant Boolean safCtrPar.use_minOnTime = true "=false to ignore minimum on-time constraint";
+ parameter Modelica.Units.SI.Time safCtrPar.minOnTime = 600 "Mimimum on-time";
+ parameter Real safCtrPar.ySetRed(unit = "1") = 0.3 "Reduced relative compressor speed to allow longer on-time";
+ constant Boolean safCtrPar.use_minOffTime = true "=false to ignore minimum off time";
+ parameter Modelica.Units.SI.Time safCtrPar.minOffTime = 1200 "Minimum off time";
+ constant Boolean safCtrPar.use_maxCycRat = true "=false to ignore maximum cycle rate constraint";
+ parameter Integer safCtrPar.maxCycRat = 3 "Maximum cycle rate";
+ parameter Boolean safCtrPar.onOffMea_start = false "Start value for the on-off signal of the device, true for on";
+ constant Boolean safCtrPar.use_opeEnv = true "=true to use a the operational envelope";
+ parameter Modelica.Units.SI.Temperature safCtrPar.tabUppHea[:, 2](start = fill
+ (288.15, size(safCtrPar.tabUppHea, 1), size(safCtrPar.tabUppHea, 2))) = [
+ 233.15, 343.15; 313.15, 343.15] "Upper temperature boundary for heating with second column as useful temperature side";
+ parameter Modelica.Units.SI.Temperature safCtrPar.tabLowCoo[:, 2](start = fill
+ (288.15, size(safCtrPar.tabLowCoo, 1), size(safCtrPar.tabLowCoo, 2))) = [
+ 263.15, 283.15; 333.15, 283.15] "Lower temperature boundary for cooling with second column as useful temperature side";
+ parameter Modelica.Units.SI.TemperatureDifference safCtrPar.dTHysOpeEnv = 5
+ "Hysteresis for operational envelopes of both upper and lower boundaries";
+ parameter Boolean safCtrPar.use_TConOutHea = true "=true to use condenser outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean safCtrPar.use_TEvaOutHea = false "=true to use evaporator outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean safCtrPar.use_TConOutCoo = false "=true to use useful side outlet temperature for envelope in cooling mode, false for inlet";
+ parameter Boolean safCtrPar.use_TEvaOutCoo = true "=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet";
+ constant Boolean safCtrPar.use_antFre = false "=true to enable antifreeze control";
+ parameter Modelica.Units.SI.ThermodynamicTemperature safCtrPar.TAntFre =
+ 273.15 "Limit temperature for antifreeze control";
+ parameter Modelica.Units.SI.TemperatureDifference safCtrPar.dTHysAntFre = 2
+ "Hysteresis interval width for antifreeze control";
+ constant Boolean safCtrPar.use_minFlowCtr = true "=false to disable minimum mass flow rate requirements";
+ parameter Real safCtrPar.r_mEvaMinPer_flow = 0.1 "Percentage of mass flow rate in evaporator required to operate the device";
+ parameter Real safCtrPar.r_mConMinPer_flow = 0.1 "Percentage of mass flow rate in condenser required to operate the device";
+ parameter Boolean parPum.addPowerToMedium "Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations)";
+ parameter Boolean parPum.use_riseTime "= true, if speed is filtered with a 2nd order CriticalDamping filter";
+ parameter Modelica.Units.SI.Time parPum.riseTimeInpFilter "Rise time of the filter (time to reach 99.6 % of the speed)";
+ parameter Modelica.Units.SI.Time parPum.tau "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic";
+ parameter Modelica.Units.SI.Time parTemSen.tau "Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems)";
+ parameter Modelica.Blocks.Types.Init parTemSen.initType "Type of initialization (InitialState and InitialOutput are identical)";
+ parameter Boolean parTemSen.transferHeat = true "if true, temperature T converges towards TAmb when no flow";
+ parameter Modelica.Units.SI.Time parTemSen.tauHeaTra "Time constant for heat transfer, default 20 minutes";
+ parameter Modelica.Units.SI.Temperature parTemSen.TAmb = 288.15
+ "Fixed ambient temperature for heat transfer";
+ constant Boolean use_old_design[1] = {false} "If true, design parameters of the building with no retrofit (old state) are used";
+ constant Modelica.Units.SI.Temperature TBiv = 288.15 "Bivalence temperature. Equals TOda_nominal for monovalent systems.";
+ constant Modelica.Units.SI.Temperature THeaTresh = 293.15 "Heating treshhold temperature for bivalent design";
+ parameter Modelica.Units.SI.Temperature TSupAtBiv = BESMod.Systems.Hydraulical.Control.Components.BuildingSupplyTemperatureSetpoints.BaseClasses.Functions.ConstantGradientHeatCurve
+ (TBiv, THeaTresh, 293.15, TSup_nominal[1], TSup_nominal[1]-10, TOda_nominal,
+ 1.24) "Supply temperature at bivalence point for design";
+ constant BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign
+ genDesTyp = BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.
+ BivalentParallel "Type of generation system design";
+ parameter Modelica.Units.SI.HeatFlowRate QPriAtTOdaNom_flow_nominal = 0
+ "Nominal heat flow rate of primary generation device at
+ nominal outdoor air temperature, required for bivalent parallel design.
+ Default of 0 equals a part-parallel design with cut-off equal to TOda_nominal";
+ parameter Modelica.Units.SI.HeatFlowRate QGenBiv_flow_nominal =
+ Q_flow_design[1]*(TBiv-THeaTresh)/(TOda_nominal-THeaTresh) "Nominal heat flow rate at bivalence temperature";
+ parameter Modelica.Units.SI.HeatFlowRate QPri_flow_nominal = (if genDesTyp ==
+ BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.Monovalent
+ then Q_flow_design[1] else QGenBiv_flow_nominal) "Nominal heat flow rate of primary generation component (e.g. heat pump)";
+ parameter Modelica.Units.SI.HeatFlowRate QSec_flow_nominal = (if genDesTyp ==
+ BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.Monovalent
+ then 0 else (if genDesTyp == BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.
+ BivalentAlternativ then Q_flow_design[1] else (if genDesTyp ==
+ BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.
+ BivalentParallel then max(0, Q_flow_design[1]-QPriAtTOdaNom_flow_nominal)
+ else Q_flow_design[1]))) "Nominal heat flow rate of secondary generation component (e.g. auxilliar heater)";
+ constant Boolean use_airSource = true "Turn false to use water as temperature source";
+ parameter Modelica.Media.Interfaces.Types.Temperature TSoilConst = 283.15
+ "Constant soil temperature for ground source heat pumps";
+ constant Boolean use_rev = true "=true if the heat pump is reversible";
+ parameter Boolean defCtrl.booCon.k = true "Constant output value";
+ parameter Modelica.Units.SI.Temperature TConCoo_nominal = 291.15
+ "Nominal temperature of the cooled fluid";
+ parameter Modelica.Units.SI.Temperature TEvaCoo_nominal = 303.15
+ "Nominal temperature of the heated fluid";
+ parameter Modelica.Units.SI.HeatFlowRate QCoo_flow_nominal = 0
+ "Nominal cooling capacity";
+ constant Boolean heatPump.allowFlowReversal1 = true "= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 1";
+ constant Boolean heatPump.allowFlowReversal2 = true "= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 2";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.m1_flow_nominal(min = 0.0)
+ = heatPump.mCon_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.m2_flow_nominal(min = 0.0)
+ = heatPump.mEva_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Media.Interfaces.PartialMedium.MassFlowRate
+ heatPump.m1_flow_small(min = 0.0) = 0.0001*abs(heatPump.mCon_flow_nominal)
+ "Small mass flow rate for regularization of zero flow";
+ parameter Modelica.Media.Interfaces.PartialMedium.MassFlowRate
+ heatPump.m2_flow_small(min = 0.0) = 0.0001*abs(heatPump.mEva_flow_nominal)
+ "Small mass flow rate for regularization of zero flow";
+ constant Boolean heatPump.show_T = false "= true, if actual temperature at port is computed";
+ parameter Boolean heatPump.refCyc.use_rev = heatPump.use_rev "True if the refrigerant machine is reversible";
+ parameter Boolean heatPump.refCyc.allowDifferentDeviceIdentifiers =
+ heatPump.allowDifferentDeviceIdentifiers "if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde";
+ parameter Modelica.Units.SI.Power heatPump.refCyc.refCycHeaPumHea.PEle_nominal
+ = 0 "Nominal electrical power consumption";
+ parameter Modelica.Units.SI.Temperature heatPump.refCyc.refCycHeaPumHea.TCon_nominal
+ = heatPump.TConHea_nominal "Nominal temperature at secondary condenser side";
+ parameter Modelica.Units.SI.Temperature heatPump.refCyc.refCycHeaPumHea.TEva_nominal
+ = heatPump.TEvaHea_nominal "Nominal temperature at secondary evaporator side";
+ parameter String heatPump.refCyc.refCycHeaPumHea.devIde = "" "Indicates the data source, used to warn users
+ about different vapor compression devices in reversible models";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.refCyc.refCycHeaPumHea.cpCon
+ = heatPump.cpCon "Evaporator medium specific heat capacity";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.refCyc.refCycHeaPumHea.cpEva
+ = heatPump.cpEva "Evaporator medium specific heat capacity";
+ parameter Real heatPump.refCyc.refCycHeaPumHea.redQCon.k1 = -1
+ "Gain of input signal 1";
+ parameter Real heatPump.refCyc.refCycHeaPumHea.redQCon.k2 = 1 "Gain of input signal 2";
+ parameter Modelica.Units.SI.HeatFlowRate heatPump.refCyc.refCycHeaPumHea.QHea_flow_nominal
+ = heatPump.QHea_flow_nominal "Nominal heating capacity";
+ parameter Boolean heatPump.refCyc.refCycHeaPumHea.useInHeaPum = true
+ "=false to indicate that this model is used in a chiller";
+ parameter Modelica.Units.SI.Power heatPump.refCyc.refCycHeaPumCoo.PEle_nominal
+ = 2000 "Nominal electrical power consumption";
+ parameter Modelica.Units.SI.Temperature heatPump.refCyc.refCycHeaPumCoo.TCon_nominal
+ = 288.15 "Nominal temperature at secondary condenser side";
+ parameter Modelica.Units.SI.Temperature heatPump.refCyc.refCycHeaPumCoo.TEva_nominal
+ = 288.15 "Nominal temperature at secondary evaporator side";
+ parameter String heatPump.refCyc.refCycHeaPumCoo.devIde = "DefrostEfficiency"
+ "Indicates the data source, used to warn users
+ about different vapor compression devices in reversible models";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.refCyc.refCycHeaPumCoo.cpCon
+ "Evaporator medium specific heat capacity";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.refCyc.refCycHeaPumCoo.cpEva
+ "Evaporator medium specific heat capacity";
+ parameter Real heatPump.refCyc.refCycHeaPumCoo.redQCon.k1 = -1
+ "Gain of input signal 1";
+ parameter Real heatPump.refCyc.refCycHeaPumCoo.redQCon.k2 = 1 "Gain of input signal 2";
+ parameter Modelica.Units.SI.HeatFlowRate heatPump.refCyc.refCycHeaPumCoo.QCoo_flow_nominal
+ = heatPump.refCyc.refCycHeaPumCoo.PEle_nominal*heatPump.refCyc.refCycHeaPumCoo.COP_constant
+ "Nominal cooling capacity";
+ parameter Boolean heatPump.refCyc.refCycHeaPumCoo.useInChi = false
+ "=false to indicate that this model is used as a heat pump";
+ parameter Real heatPump.refCyc.refCycHeaPumCoo.COP_constant = 6.25
+ "COP during defrost (useful side is the evaporator)";
+ parameter Real heatPump.refCyc.refCycHeaPumCoo.y_constant = 0.275
+ "Constant defrost compressor speed";
+ parameter Real heatPump.refCyc.refCycHeaPumCoo.conPEle.k(start = 1) =
+ heatPump.refCyc.refCycHeaPumCoo.PEle_nominal*heatPump.refCyc.refCycHeaPumCoo.y_constant
+ "Constant output value";
+ parameter Real heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k(start = 1) = -
+ heatPump.refCyc.refCycHeaPumCoo.PEle_nominal*heatPump.refCyc.refCycHeaPumCoo.COP_constant
+ *heatPump.refCyc.refCycHeaPumCoo.y_constant "Constant output value";
+ parameter String heatPump.refCyc.devIde = (if heatPump.refCyc.use_rev then
+ heatPump.refCyc.refCycHeaPumCoo.devIde else heatPump.refCyc.refCycHeaPumHea.devIde)
+ "Data source for refrigerant cycle";
+ parameter Modelica.Units.SI.HeatFlowRate heatPump.PEle_nominal =
+ heatPump.refCyc.refCycHeaPumHea.PEle_nominal "Nominal electrical power consumption";
+ constant Boolean heatPump.use_rev = true "=true if the chiller or heat pump is reversible";
+ parameter Boolean heatPump.allowDifferentDeviceIdentifiers = true
+ "if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde";
+ parameter Modelica.Units.SI.Time heatPump.tauCon = parHeaPum.tauCon
+ "Condenser heat transfer time constant at nominal flow";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.dTCon_nominal =
+ dTTra_nominal[1] "Nominal temperature difference in condenser medium, used to calculate mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.mCon_flow_nominal =
+ m_flow_design[1] "Nominal mass flow rate of the condenser medium";
+ parameter Modelica.Units.SI.PressureDifference heatPump.dpCon_nominal(
+ displayUnit = "Pa") = parHeaPum.dpCon_nominal "Pressure drop at nominal mass flow rate";
+ parameter Real heatPump.deltaMCon = 0.1 "Fraction of nominal mass flow rate where transition to turbulent occurs";
+ constant Boolean heatPump.use_conCap = false "=true if using capacitor model for condenser heat loss estimation";
+ parameter Modelica.Units.SI.HeatCapacity heatPump.CCon = parHeaPum.CCon
+ "Heat capacity of the condenser";
+ parameter Modelica.Units.SI.ThermalConductance heatPump.GConOut =
+ parHeaPum.GConOut "Outer thermal conductance for condenser heat loss calculations";
+ parameter Modelica.Units.SI.ThermalConductance heatPump.GConIns =
+ parHeaPum.GConIns "Inner thermal conductance for condenser heat loss calculations";
+ parameter Modelica.Units.SI.Density heatPump.rhoCon = density_Unique1(
+ heatPump.staCon_nominal) "Condenser medium density";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.cpCon =
+ specificHeatCapacityCp_Unique2(
+ heatPump.staCon_nominal) "Condenser medium specific heat capacity";
+ parameter Modelica.Units.SI.Time heatPump.tauEva = parHeaPum.tauEva
+ "Evaporator heat transfer time constant at nominal flow";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.dTEva_nominal =
+ parHeaPum.dTEva_nominal "Nominal temperature difference in evaporator medium, used to calculate mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.mEva_flow_nominal = (
+ heatPump.QHea_flow_nominal-heatPump.PEle_nominal)/(heatPump.dTEva_nominal*
+ heatPump.cpEva) "Nominal mass flow rate of the evaporator medium";
+ parameter Modelica.Units.SI.PressureDifference heatPump.dpEva_nominal(
+ displayUnit = "Pa") = parHeaPum.dpEva_nominal "Pressure drop at nominal mass flow rate";
+ parameter Real heatPump.deltaMEva = 0.1 "Fraction of nominal mass flow rate where transition to turbulent occurs";
+ constant Boolean heatPump.use_evaCap = false "=true if using capacitor model for evaporator heat loss estimation";
+ parameter Modelica.Units.SI.HeatCapacity heatPump.CEva = parHeaPum.CEva
+ "Heat capacity of the evaporator";
+ parameter Modelica.Units.SI.ThermalConductance heatPump.GEvaOut =
+ parHeaPum.GEvaOut "Outer thermal conductance for evaporator heat loss calculations";
+ parameter Modelica.Units.SI.ThermalConductance heatPump.GEvaIns =
+ parHeaPum.GEvaIns "Inner thermal conductance for evaporator heat loss calculations";
+ parameter Modelica.Units.SI.Density heatPump.rhoEva = density_Unique15(
+ heatPump.staEva_nominal) "Evaporator medium density";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.cpEva =
+ specificHeatCapacityCp_Unique16(
+ heatPump.staEva_nominal) "Evaporator medium specific heat capacity";
+ constant Boolean heatPump.use_intSafCtr = true "=true to enable internal safety control";
+ constant Boolean heatPump.safCtrPar.use_minOnTime = true "=false to ignore minimum on-time constraint";
+ parameter Modelica.Units.SI.Time heatPump.safCtrPar.minOnTime "Mimimum on-time";
+ parameter Real heatPump.safCtrPar.ySetRed(unit = "1") "Reduced relative compressor speed to allow longer on-time";
+ constant Boolean heatPump.safCtrPar.use_minOffTime = true "=false to ignore minimum off time";
+ parameter Modelica.Units.SI.Time heatPump.safCtrPar.minOffTime
+ "Minimum off time";
+ constant Boolean heatPump.safCtrPar.use_maxCycRat = true "=false to ignore maximum cycle rate constraint";
+ parameter Integer heatPump.safCtrPar.maxCycRat "Maximum cycle rate";
+ parameter Boolean heatPump.safCtrPar.onOffMea_start "Start value for the on-off signal of the device, true for on";
+ constant Boolean heatPump.safCtrPar.use_opeEnv = true "=true to use a the operational envelope";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtrPar.tabUppHea[:, 2] =
+ fill(288.15, size(heatPump.safCtrPar.tabUppHea, 1), size(heatPump.safCtrPar.tabUppHea,
+ 2)) "Upper temperature boundary for heating with second column as useful temperature side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtrPar.tabLowCoo[:, 2] =
+ fill(288.15, size(heatPump.safCtrPar.tabLowCoo, 1), size(heatPump.safCtrPar.tabLowCoo,
+ 2)) "Lower temperature boundary for cooling with second column as useful temperature side";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtrPar.dTHysOpeEnv
+ "Hysteresis for operational envelopes of both upper and lower boundaries";
+ parameter Boolean heatPump.safCtrPar.use_TConOutHea "=true to use condenser outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean heatPump.safCtrPar.use_TEvaOutHea "=true to use evaporator outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean heatPump.safCtrPar.use_TConOutCoo "=true to use useful side outlet temperature for envelope in cooling mode, false for inlet";
+ parameter Boolean heatPump.safCtrPar.use_TEvaOutCoo "=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet";
+ constant Boolean heatPump.safCtrPar.use_antFre = false "=true to enable antifreeze control";
+ parameter Modelica.Units.SI.ThermodynamicTemperature heatPump.safCtrPar.TAntFre
+ = 288.15 "Limit temperature for antifreeze control";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtrPar.dTHysAntFre
+ "Hysteresis interval width for antifreeze control";
+ constant Boolean heatPump.safCtrPar.use_minFlowCtr = true "=false to disable minimum mass flow rate requirements";
+ parameter Real heatPump.safCtrPar.r_mEvaMinPer_flow "Percentage of mass flow rate in evaporator required to operate the device";
+ parameter Real heatPump.safCtrPar.r_mConMinPer_flow "Percentage of mass flow rate in condenser required to operate the device";
+ constant Boolean heatPump.allowFlowReversalEva = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ constant Boolean heatPump.allowFlowReversalCon = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Blocks.Types.Init heatPump.initType = Modelica.Blocks.Types.Init.
+ InitialState "Type of initialization for refrigerant cycle dynamics (InitialState and InitialOutput are identical)";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.pCon_start
+ = p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.TCon_start =
+ T_start "Start value of temperature";
+ parameter Modelica.Units.SI.Temperature heatPump.TConCap_start = 293.15
+ "Initial temperature of heat capacity of condenser";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.XCon_start[1]
+ = {1.0} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.pEva_start
+ = 101325 "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.TEva_start =
+ TOda_nominal "Start value of temperature";
+ parameter Modelica.Units.SI.Temperature heatPump.TEvaCap_start = 293.15
+ "Initial temperature of heat capacity at evaporator";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.XEva_start[2]
+ = {0.01, 0.99} "Start value of mass fractions m_i/m";
+ constant Modelica.Fluid.Types.Dynamics heatPump.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options)
+ or steady state (only affects fluid-models)";
+ parameter Boolean heatPump.from_dp = false "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Boolean heatPump.linearized = false "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Real heatPump.ySet_small(min = 0.002) = 0.01 "Threshold for relative speed for the device to be considered on";
+ constant Boolean heatPump.calEff = true "=false to disable efficiency calculation, may speed up the simulation";
+ parameter Real heatPump.limWarSca(unit = "1") = 0.05 "Allowed difference in scaling '|scaFacHea - scaFacCoo| / scaFacHea', if exceeded, a warning will be issued";
+ constant Boolean heatPump.con.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.m_flow_nominal =
+ heatPump.mCon_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.m_flow_small(min = 0.0)
+ = 0.0001*abs(heatPump.mCon_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ constant Boolean heatPump.con.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference heatPump.con._dp_start(
+ displayUnit = "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ parameter Boolean heatPump.con.computeFlowResistance = true "=true, compute flow resistance. Set to false to assume no friction";
+ parameter Boolean heatPump.con.from_dp = heatPump.from_dp "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Modelica.Units.SI.PressureDifference heatPump.con.dp_nominal(
+ displayUnit = "Pa", min = 0.0) = heatPump.dpCon_nominal "Pressure difference";
+ parameter Boolean heatPump.con.linearizeFlowResistance = false
+ "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Real heatPump.con.deltaM = heatPump.deltaMCon "Fraction of nominal flow rate where flow transitions to laminar";
+ constant Boolean heatPump.con.homotopyInitialization = true "= true, use homotopy method";
+ parameter Modelica.Units.SI.Time heatPump.con.tau = heatPump.tauCon
+ "Time constant at nominal flow (if energyDynamics <> SteadyState)";
+ constant Modelica.Fluid.Types.Dynamics heatPump.con.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.p_start
+ = heatPump.pCon_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.con.T_start =
+ heatPump.TCon_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.con.X_start[1]
+ = {heatPump.XCon_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.C_start[0]
+ (start = fill(1.0, size(heatPump.con.C_start, 1))) = fill(0, 0)
+ "Start value of trace substances";
+ constant Modelica.Fluid.Types.Dynamics heatPump.con.vol.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.con.vol.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.con.vol.substanceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.con.vol.traceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.vol.p_start
+ = heatPump.con.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.con.vol.T_start
+ = heatPump.con.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.X_start
+ [1] = {heatPump.con.X_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.C_start
+ [0](start = fill(1.0, size(heatPump.con.vol.C_start, 1))) = heatPump.con.C_start
+ "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.C_nominal
+ [0] = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real heatPump.con.vol.mSenFac(min = 1.0) = 1 "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean heatPump.con.vol.wrongEnergyMassBalanceConfiguration = not
+ (heatPump.con.vol.energyDynamics <> Modelica.Fluid.Types.Dynamics.
+ SteadyState or heatPump.con.vol.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean heatPump.con.vol.initialize_p = not _GlobalScope.singleState
+ "= true to set up initial equations for pressure";
+ constant Boolean heatPump.con.vol.prescribedHeatFlowRate = true
+ "Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false";
+ constant Boolean heatPump.con.vol.simplify_mWat_flow = true "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.vol.m_flow_nominal(
+ min = 0.0) = heatPump.con.m_flow_nominal "Nominal mass flow rate";
+ constant Integer heatPump.con.vol.nPorts = 2 "Number of ports";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.vol.m_flow_small(min =
+ 0.0) = 0.0001*abs(heatPump.con.vol.m_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ parameter Boolean heatPump.con.vol.allowFlowReversal = heatPump.con.allowFlowReversal
+ "= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports.";
+ parameter Modelica.Units.SI.Volume heatPump.con.vol.V = heatPump.con.m_flow_nominal
+ *heatPump.con.tau/heatPump.con.rho_default "Volume";
+ parameter Modelica.Units.SI.Density heatPump.con.vol.rho_start =
+ density_Unique1(
+ heatPump.con.vol.state_start) "Density, used to compute start and guess values";
+ parameter Modelica.Units.SI.Density heatPump.con.vol.rho_default =
+ density_Unique1(
+ heatPump.con.vol.state_default) "Density, used to compute fluid mass";
+ constant Boolean heatPump.con.vol.useSteadyStateTwoPort = false
+ "Flag, true if the model has two ports only and uses a steady state balance";
+ constant Boolean heatPump.con.vol.use_C_flow = false "Set to true to enable input connector for trace substance";
+ parameter Modelica.Fluid.Types.Dynamics heatPump.con.vol.dynBal.energyDynamics
+ = heatPump.con.vol.energyDynamics "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.con.vol.dynBal.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ parameter Modelica.Fluid.Types.Dynamics heatPump.con.vol.dynBal.substanceDynamics
+ = heatPump.con.vol.dynBal.energyDynamics "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics heatPump.con.vol.dynBal.traceDynamics
+ = heatPump.con.vol.dynBal.energyDynamics "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.vol.dynBal.p_start
+ = heatPump.con.vol.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.con.vol.dynBal.T_start
+ = heatPump.con.vol.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.dynBal.X_start
+ [1] = {heatPump.con.vol.X_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.dynBal.C_start
+ [0](start = fill(1.0, size(heatPump.con.vol.dynBal.C_start, 1))) =
+ heatPump.con.vol.C_start "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.dynBal.C_nominal
+ [0] = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real heatPump.con.vol.dynBal.mSenFac(min = 1.0) = heatPump.con.vol.mSenFac
+ "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean heatPump.con.vol.dynBal.wrongEnergyMassBalanceConfiguration
+ = not (heatPump.con.vol.dynBal.energyDynamics <> Modelica.Fluid.Types.Dynamics.
+ SteadyState or heatPump.con.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean heatPump.con.vol.dynBal.initialize_p = heatPump.con.vol.initialize_p
+ "= true to set up initial equations for pressure";
+ constant Boolean heatPump.con.vol.dynBal.simplify_mWat_flow = heatPump.con.vol.simplify_mWat_flow
+ "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1";
+ constant Integer heatPump.con.vol.dynBal.nPorts = 2 "Number of ports";
+ constant Boolean heatPump.con.vol.dynBal.use_mWat_flow = false
+ "Set to true to enable input connector for moisture mass flow rate";
+ constant Boolean heatPump.con.vol.dynBal.use_C_flow = false "Set to true to enable input connector for trace substance";
+ constant Boolean heatPump.con.vol.dynBal.medium.preferredMediumStates = false
+ "= true if StateSelect.prefer shall be used for the independent property variables of the medium";
+ parameter Boolean heatPump.con.vol.dynBal.medium.standardOrderComponents =
+ true "If true, and reducedX = true, the last element of X will be computed from the other ones";
+ parameter Modelica.Units.SI.Volume heatPump.con.vol.dynBal.fluidVolume =
+ heatPump.con.vol.V "Volume";
+ parameter Modelica.Units.SI.HeatCapacity heatPump.con.vol.dynBal.CSen = (
+ heatPump.con.vol.dynBal.mSenFac-1)*heatPump.con.vol.dynBal.rho_default*
+ heatPump.con.vol.dynBal.cp_default*heatPump.con.vol.dynBal.fluidVolume
+ "Aditional heat capacity for implementing mFactor";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.con.vol.dynBal.cp_default
+ = specificHeatCapacityCp_Unique2(
+ heatPump.con.vol.dynBal.state_default) "Heat capacity, to compute additional dry mass";
+ parameter Modelica.Units.SI.Density heatPump.con.vol.dynBal.rho_start =
+ density_Unique1(
+ setState_pTX_Unique3(heatPump.con.vol.dynBal.p_start, heatPump.con.vol.dynBal.T_start,
+ heatPump.con.vol.dynBal.X_start[1:0])) "Density, used to compute fluid mass";
+ parameter Boolean heatPump.con.vol.dynBal.computeCSen = abs(heatPump.con.vol.dynBal.mSenFac
+ -1) > 1E-15;
+ parameter Modelica.Units.SI.Density heatPump.con.vol.dynBal.rho_default =
+ density_Unique1(
+ heatPump.con.vol.dynBal.state_default) "Density, used to compute fluid mass";
+ parameter Real heatPump.con.vol.dynBal.s[0] = array((if Modelica.Utilities.Strings.isEqual
+ (({"unusablePartialMedium"})[i], "Water", false) then 1 else 0) for i in 1:0)
+ "Vector with zero everywhere except where species is";
+ parameter Modelica.Units.SI.SpecificEnthalpy heatPump.con.vol.dynBal.hStart =
+ specificEnthalpy_pTX_Unique4(heatPump.con.vol.dynBal.p_start,
+ heatPump.con.vol.dynBal.T_start, heatPump.con.vol.dynBal.X_start)
+ "Start value for specific enthalpy";
+ constant Boolean heatPump.con.vol.dynBal._simplify_mWat_flow =
+ heatPump.con.vol.dynBal.simplify_mWat_flow and false "If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified";
+ constant Boolean heatPump.con.preDro.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.preDro.m_flow_nominal =
+ heatPump.con.m_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.preDro.m_flow_small(
+ min = 0.0) = 0.0001*abs(heatPump.con.preDro.m_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ constant Boolean heatPump.con.preDro.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.preDro._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference heatPump.con.preDro._dp_start(
+ displayUnit = "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ constant Boolean heatPump.con.preDro.homotopyInitialization = heatPump.con.homotopyInitialization
+ "= true, use homotopy method";
+ parameter Boolean heatPump.con.preDro.from_dp = heatPump.con.from_dp
+ "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Modelica.Units.SI.PressureDifference heatPump.con.preDro.dp_nominal(
+ displayUnit = "Pa") = heatPump.con.dp_nominal "Pressure drop at nominal mass flow rate";
+ parameter Boolean heatPump.con.preDro.linearized = heatPump.con.linearizeFlowResistance
+ "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.preDro.m_flow_turbulent(
+ min = 0.0) = (if heatPump.con.preDro.computeFlowResistance then
+ heatPump.con.preDro.deltaM*heatPump.con.preDro.m_flow_nominal_pos else 0)
+ "Turbulent flow if |m_flow| >= m_flow_turbulent";
+ parameter Modelica.Units.SI.DynamicViscosity heatPump.con.preDro.eta_default
+ = dynamicViscosity_Unique18(
+ heatPump.con.preDro.sta_default) "Dynamic viscosity, used to compute transition to turbulent flow regime";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.con.preDro.m_flow_nominal_pos
+ = abs(heatPump.con.preDro.m_flow_nominal) "Absolute value of nominal flow rate";
+ parameter Modelica.Units.SI.PressureDifference heatPump.con.preDro.dp_nominal_pos
+ (displayUnit = "Pa") = abs(heatPump.con.preDro.dp_nominal) "Absolute value of nominal pressure difference";
+ parameter Real heatPump.con.preDro.deltaM(min = 1E-06) = heatPump.con.deltaM
+ "Fraction of nominal mass flow rate where transition to turbulent occurs";
+ parameter Real heatPump.con.preDro.k = (if heatPump.con.preDro.computeFlowResistance
+ then heatPump.con.preDro.m_flow_nominal_pos/sqrt(heatPump.con.preDro.dp_nominal_pos)
+ else 0) "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)";
+ parameter Boolean heatPump.con.preDro.computeFlowResistance = heatPump.con.preDro.dp_nominal_pos
+ > 1E-15 "Flag to enable/disable computation of flow resistance";
+ parameter Real heatPump.con.preDro.coeff = (if heatPump.con.preDro.linearized
+ and heatPump.con.preDro.computeFlowResistance then (if heatPump.con.preDro.from_dp
+ then heatPump.con.preDro.k^2/heatPump.con.preDro.m_flow_nominal_pos else
+ heatPump.con.preDro.m_flow_nominal_pos/heatPump.con.preDro.k^2) else 0)
+ "Precomputed coefficient to avoid division by parameter";
+ parameter Modelica.Units.SI.Density heatPump.con.rho_default = density_Unique1
+ (
+ heatPump.con.sta_default) "Density, used to compute fluid volume";
+ parameter Modelica.Units.SI.SpecificEnthalpy heatPump.con.h_outflow_start =
+ specificEnthalpy_Unique5(
+ heatPump.con.sta_start) "Start value for outflowing enthalpy";
+ parameter Boolean heatPump.con.isCon = true "=true for condenser, false for evaporator";
+ constant Boolean heatPump.con.use_cap = false "False if capacity and heat losses are neglected";
+ parameter Modelica.Units.SI.HeatCapacity heatPump.con.C = heatPump.CCon
+ "Capacity of heat exchanger, set to zero to ignore its dry mass";
+ parameter Modelica.Units.SI.Temperature heatPump.con.TCap_start =
+ heatPump.TConCap_start "Initial temperature of heat capacity";
+ parameter Modelica.Units.SI.Temperature heatPump.con.preHea.T_ref = 293.15
+ "Reference temperature";
+ parameter Modelica.Units.SI.LinearTemperatureCoefficient heatPump.con.preHea.alpha
+ = 0 "Temperature coefficient of heat flow rate";
+ constant Boolean heatPump.eva.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.m_flow_nominal =
+ heatPump.mEva_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.m_flow_small(min = 0.0)
+ = 0.0001*abs(heatPump.mEva_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ constant Boolean heatPump.eva.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference heatPump.eva._dp_start(
+ displayUnit = "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ parameter Boolean heatPump.eva.computeFlowResistance = true "=true, compute flow resistance. Set to false to assume no friction";
+ parameter Boolean heatPump.eva.from_dp = heatPump.from_dp "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Modelica.Units.SI.PressureDifference heatPump.eva.dp_nominal(
+ displayUnit = "Pa", min = 0.0) = heatPump.dpEva_nominal "Pressure difference";
+ parameter Boolean heatPump.eva.linearizeFlowResistance = false
+ "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Real heatPump.eva.deltaM = heatPump.deltaMEva "Fraction of nominal flow rate where flow transitions to laminar";
+ constant Boolean heatPump.eva.homotopyInitialization = true "= true, use homotopy method";
+ parameter Modelica.Units.SI.Time heatPump.eva.tau = heatPump.tauEva
+ "Time constant at nominal flow (if energyDynamics <> SteadyState)";
+ constant Modelica.Fluid.Types.Dynamics heatPump.eva.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.p_start
+ (start = 101325) = heatPump.pEva_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.T_start(
+ start = 293.15) = heatPump.TEva_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.X_start[2]
+ = heatPump.XEva_start "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.C_start[0]
+ (start = fill(1.0, size(heatPump.eva.C_start, 1))) = fill(0, 0)
+ "Start value of trace substances";
+ constant Modelica.Fluid.Types.Dynamics heatPump.eva.vol.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.eva.vol.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.eva.vol.substanceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.eva.vol.traceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.p_start
+ (start = 101325) = heatPump.eva.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.T_start
+ (start = 293.15) = heatPump.eva.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.X_start
+ [2] = heatPump.eva.X_start "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.C_start
+ [0](start = fill(1.0, size(heatPump.eva.vol.C_start, 1))) = heatPump.eva.C_start
+ "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.C_nominal
+ [0] = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real heatPump.eva.vol.mSenFac(min = 1.0) = 1 "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean heatPump.eva.vol.wrongEnergyMassBalanceConfiguration = not
+ (heatPump.eva.vol.energyDynamics <> Modelica.Fluid.Types.Dynamics.
+ SteadyState or heatPump.eva.vol.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean heatPump.eva.vol.initialize_p = true "= true to set up initial equations for pressure";
+ constant Boolean heatPump.eva.vol.prescribedHeatFlowRate = true
+ "Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false";
+ constant Boolean heatPump.eva.vol.simplify_mWat_flow = true "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.vol.m_flow_nominal(
+ min = 0.0) = heatPump.eva.m_flow_nominal "Nominal mass flow rate";
+ constant Integer heatPump.eva.vol.nPorts = 2 "Number of ports";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.vol.m_flow_small(min =
+ 0.0) = 0.0001*abs(heatPump.eva.vol.m_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ parameter Boolean heatPump.eva.vol.allowFlowReversal = heatPump.eva.allowFlowReversal
+ "= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports.";
+ parameter Modelica.Units.SI.Volume heatPump.eva.vol.V = heatPump.eva.m_flow_nominal
+ *heatPump.eva.tau/heatPump.eva.rho_default "Volume";
+ parameter Modelica.Units.SI.Density heatPump.eva.vol.rho_start =
+ density_Unique15(
+ heatPump.eva.vol.state_start) "Density, used to compute start and guess values";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.state_default.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.state_default.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.state_default.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ parameter Modelica.Units.SI.Density heatPump.eva.vol.rho_default =
+ density_Unique15(
+ heatPump.eva.vol.state_default) "Density, used to compute fluid mass";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.state_start.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.state_start.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.state_start.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ constant Boolean heatPump.eva.vol.useSteadyStateTwoPort = false
+ "Flag, true if the model has two ports only and uses a steady state balance";
+ constant Boolean heatPump.eva.vol.use_C_flow = false "Set to true to enable input connector for trace substance";
+ parameter Modelica.Fluid.Types.Dynamics heatPump.eva.vol.dynBal.energyDynamics
+ = heatPump.eva.vol.energyDynamics "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics heatPump.eva.vol.dynBal.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ parameter Modelica.Fluid.Types.Dynamics heatPump.eva.vol.dynBal.substanceDynamics
+ = heatPump.eva.vol.dynBal.energyDynamics "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics heatPump.eva.vol.dynBal.traceDynamics
+ = heatPump.eva.vol.dynBal.energyDynamics "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.dynBal.p_start
+ (start = 101325) = heatPump.eva.vol.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.dynBal.T_start
+ (start = 293.15) = heatPump.eva.vol.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.dynBal.X_start
+ [2] = heatPump.eva.vol.X_start "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.dynBal.C_start
+ [0](start = fill(1.0, size(heatPump.eva.vol.dynBal.C_start, 1))) =
+ heatPump.eva.vol.C_start "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.dynBal.C_nominal
+ [0] = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real heatPump.eva.vol.dynBal.mSenFac(min = 1.0) = heatPump.eva.vol.mSenFac
+ "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean heatPump.eva.vol.dynBal.wrongEnergyMassBalanceConfiguration
+ = not (heatPump.eva.vol.dynBal.energyDynamics <> Modelica.Fluid.Types.Dynamics.
+ SteadyState or heatPump.eva.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean heatPump.eva.vol.dynBal.initialize_p = heatPump.eva.vol.initialize_p
+ "= true to set up initial equations for pressure";
+ constant Boolean heatPump.eva.vol.dynBal.simplify_mWat_flow = heatPump.eva.vol.simplify_mWat_flow
+ "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1";
+ constant Integer heatPump.eva.vol.dynBal.nPorts = 2 "Number of ports";
+ constant Boolean heatPump.eva.vol.dynBal.use_mWat_flow = false
+ "Set to true to enable input connector for moisture mass flow rate";
+ constant Boolean heatPump.eva.vol.dynBal.use_C_flow = false "Set to true to enable input connector for trace substance";
+ constant Boolean heatPump.eva.vol.dynBal.medium.preferredMediumStates = false
+ "= true if StateSelect.prefer shall be used for the independent property variables of the medium";
+ parameter Boolean heatPump.eva.vol.dynBal.medium.standardOrderComponents =
+ true "If true, and reducedX = true, the last element of X will be computed from the other ones";
+ parameter Modelica.Units.SI.Volume heatPump.eva.vol.dynBal.fluidVolume =
+ heatPump.eva.vol.V "Volume";
+ parameter Modelica.Units.SI.HeatCapacity heatPump.eva.vol.dynBal.CSen = (
+ heatPump.eva.vol.dynBal.mSenFac-1)*heatPump.eva.vol.dynBal.rho_default*
+ heatPump.eva.vol.dynBal.cp_default*heatPump.eva.vol.dynBal.fluidVolume
+ "Aditional heat capacity for implementing mFactor";
+ parameter Modelica.Units.SI.SpecificHeatCapacity heatPump.eva.vol.dynBal.cp_default
+ = specificHeatCapacityCp_Unique16(
+ heatPump.eva.vol.dynBal.state_default) "Heat capacity, to compute additional dry mass";
+ parameter Modelica.Units.SI.Density heatPump.eva.vol.dynBal.rho_start =
+ density_Unique15(
+ setState_pTX_Unique11(heatPump.eva.vol.dynBal.p_start, heatPump.eva.vol.dynBal.T_start,
+ heatPump.eva.vol.dynBal.X_start[1:1])) "Density, used to compute fluid mass";
+ parameter Boolean heatPump.eva.vol.dynBal.computeCSen = abs(heatPump.eva.vol.dynBal.mSenFac
+ -1) > 1E-15;
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.dynBal.state_default.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.dynBal.state_default.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.dynBal.state_default.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ parameter Modelica.Units.SI.Density heatPump.eva.vol.dynBal.rho_default =
+ density_Unique15(
+ heatPump.eva.vol.dynBal.state_default) "Density, used to compute fluid mass";
+ parameter Real heatPump.eva.vol.dynBal.s[1] = array((if Modelica.Utilities.Strings.isEqual
+ (({"water", "air"})[i], "Water", false) then 1 else 0) for i in 1:1)
+ "Vector with zero everywhere except where species is";
+ parameter Modelica.Units.SI.SpecificEnthalpy heatPump.eva.vol.dynBal.hStart =
+ specificEnthalpy_pTX_Unique9(heatPump.eva.vol.dynBal.p_start,
+ heatPump.eva.vol.dynBal.T_start, heatPump.eva.vol.dynBal.X_start)
+ "Start value for specific enthalpy";
+ constant Boolean heatPump.eva.vol.dynBal._simplify_mWat_flow =
+ heatPump.eva.vol.dynBal.simplify_mWat_flow and true "If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified";
+ constant Boolean heatPump.eva.preDro.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.preDro.m_flow_nominal =
+ heatPump.eva.m_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.preDro.m_flow_small(
+ min = 0.0) = 0.0001*abs(heatPump.eva.preDro.m_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ constant Boolean heatPump.eva.preDro.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.preDro._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference heatPump.eva.preDro._dp_start(
+ displayUnit = "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ constant Boolean heatPump.eva.preDro.homotopyInitialization = heatPump.eva.homotopyInitialization
+ "= true, use homotopy method";
+ parameter Boolean heatPump.eva.preDro.from_dp = heatPump.eva.from_dp
+ "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Modelica.Units.SI.PressureDifference heatPump.eva.preDro.dp_nominal(
+ displayUnit = "Pa") = heatPump.eva.dp_nominal "Pressure drop at nominal mass flow rate";
+ parameter Boolean heatPump.eva.preDro.linearized = heatPump.eva.linearizeFlowResistance
+ "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.preDro.m_flow_turbulent(
+ min = 0.0) = (if heatPump.eva.preDro.computeFlowResistance then
+ heatPump.eva.preDro.deltaM*heatPump.eva.preDro.m_flow_nominal_pos else 0)
+ "Turbulent flow if |m_flow| >= m_flow_turbulent";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.preDro.sta_default.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.preDro.sta_default.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.preDro.sta_default.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ parameter Modelica.Units.SI.DynamicViscosity heatPump.eva.preDro.eta_default
+ = dynamicViscosity_Unique19(
+ heatPump.eva.preDro.sta_default) "Dynamic viscosity, used to compute transition to turbulent flow regime";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.eva.preDro.m_flow_nominal_pos
+ = abs(heatPump.eva.preDro.m_flow_nominal) "Absolute value of nominal flow rate";
+ parameter Modelica.Units.SI.PressureDifference heatPump.eva.preDro.dp_nominal_pos
+ (displayUnit = "Pa") = abs(heatPump.eva.preDro.dp_nominal) "Absolute value of nominal pressure difference";
+ parameter Real heatPump.eva.preDro.deltaM(min = 1E-06) = heatPump.eva.deltaM
+ "Fraction of nominal mass flow rate where transition to turbulent occurs";
+ parameter Real heatPump.eva.preDro.k = (if heatPump.eva.preDro.computeFlowResistance
+ then heatPump.eva.preDro.m_flow_nominal_pos/sqrt(heatPump.eva.preDro.dp_nominal_pos)
+ else 0) "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)";
+ parameter Boolean heatPump.eva.preDro.computeFlowResistance = heatPump.eva.preDro.dp_nominal_pos
+ > 1E-15 "Flag to enable/disable computation of flow resistance";
+ parameter Real heatPump.eva.preDro.coeff = (if heatPump.eva.preDro.linearized
+ and heatPump.eva.preDro.computeFlowResistance then (if heatPump.eva.preDro.from_dp
+ then heatPump.eva.preDro.k^2/heatPump.eva.preDro.m_flow_nominal_pos else
+ heatPump.eva.preDro.m_flow_nominal_pos/heatPump.eva.preDro.k^2) else 0)
+ "Precomputed coefficient to avoid division by parameter";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.sta_default.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.sta_default.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.sta_default.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ parameter Modelica.Units.SI.Density heatPump.eva.rho_default =
+ density_Unique15(
+ heatPump.eva.sta_default) "Density, used to compute fluid volume";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.sta_start.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.eva.sta_start.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.sta_start.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ parameter Modelica.Units.SI.SpecificEnthalpy heatPump.eva.h_outflow_start =
+ specificEnthalpy_Unique10(
+ heatPump.eva.sta_start) "Start value for outflowing enthalpy";
+ parameter Boolean heatPump.eva.isCon = false "=true for condenser, false for evaporator";
+ constant Boolean heatPump.eva.use_cap = false "False if capacity and heat losses are neglected";
+ parameter Modelica.Units.SI.HeatCapacity heatPump.eva.C = heatPump.CEva
+ "Capacity of heat exchanger, set to zero to ignore its dry mass";
+ parameter Modelica.Units.SI.Temperature heatPump.eva.TCap_start =
+ heatPump.TEvaCap_start "Initial temperature of heat capacity";
+ parameter Modelica.Units.SI.Temperature heatPump.eva.preHea.T_ref = 293.15
+ "Reference temperature";
+ parameter Modelica.Units.SI.LinearTemperatureCoefficient heatPump.eva.preHea.alpha
+ = 0 "Temperature coefficient of heat flow rate";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.safCtr.mEva_flow_nominal =
+ heatPump.mEva_flow_nominal "Nominal mass flow rate in evaporator medium";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.safCtr.mCon_flow_nominal =
+ heatPump.mCon_flow_nominal "Nominal mass flow rate in condenser medium";
+ parameter Real heatPump.safCtr.ySet_small = heatPump.ySet_small
+ "Threshold for relative speed for the device to be considered on";
+ constant Boolean heatPump.safCtr.safCtrPar.use_minOnTime = true
+ "=false to ignore minimum on-time constraint";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.safCtrPar.minOnTime
+ "Mimimum on-time";
+ parameter Real heatPump.safCtr.safCtrPar.ySetRed(unit = "1") "Reduced relative compressor speed to allow longer on-time";
+ constant Boolean heatPump.safCtr.safCtrPar.use_minOffTime = true
+ "=false to ignore minimum off time";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.safCtrPar.minOffTime
+ "Minimum off time";
+ constant Boolean heatPump.safCtr.safCtrPar.use_maxCycRat = true
+ "=false to ignore maximum cycle rate constraint";
+ parameter Integer heatPump.safCtr.safCtrPar.maxCycRat "Maximum cycle rate";
+ parameter Boolean heatPump.safCtr.safCtrPar.onOffMea_start "Start value for the on-off signal of the device, true for on";
+ constant Boolean heatPump.safCtr.safCtrPar.use_opeEnv = true "=true to use a the operational envelope";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.safCtrPar.tabUppHea[:,
+ 2] = fill(288.15, size(heatPump.safCtr.safCtrPar.tabUppHea, 1), size(
+ heatPump.safCtr.safCtrPar.tabUppHea, 2)) "Upper temperature boundary for heating with second column as useful temperature side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.safCtrPar.tabLowCoo[:,
+ 2] = fill(288.15, size(heatPump.safCtr.safCtrPar.tabLowCoo, 1), size(
+ heatPump.safCtr.safCtrPar.tabLowCoo, 2)) "Lower temperature boundary for cooling with second column as useful temperature side";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtr.safCtrPar.dTHysOpeEnv
+ "Hysteresis for operational envelopes of both upper and lower boundaries";
+ parameter Boolean heatPump.safCtr.safCtrPar.use_TConOutHea "=true to use condenser outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean heatPump.safCtr.safCtrPar.use_TEvaOutHea "=true to use evaporator outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean heatPump.safCtr.safCtrPar.use_TConOutCoo "=true to use useful side outlet temperature for envelope in cooling mode, false for inlet";
+ parameter Boolean heatPump.safCtr.safCtrPar.use_TEvaOutCoo "=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet";
+ constant Boolean heatPump.safCtr.safCtrPar.use_antFre = false "=true to enable antifreeze control";
+ parameter Modelica.Units.SI.ThermodynamicTemperature heatPump.safCtr.safCtrPar.TAntFre
+ = 288.15 "Limit temperature for antifreeze control";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtr.safCtrPar.dTHysAntFre
+ "Hysteresis interval width for antifreeze control";
+ constant Boolean heatPump.safCtr.safCtrPar.use_minFlowCtr = true
+ "=false to disable minimum mass flow rate requirements";
+ parameter Real heatPump.safCtr.safCtrPar.r_mEvaMinPer_flow "Percentage of mass flow rate in evaporator required to operate the device";
+ parameter Real heatPump.safCtr.safCtrPar.r_mConMinPer_flow "Percentage of mass flow rate in condenser required to operate the device";
+ parameter Real heatPump.safCtr.opeEnv.conZer.k(start = 1) = 0 "Constant output value";
+ constant Boolean heatPump.safCtr.opeEnv.disErr.use_reset = false
+ "= true, if reset port enabled";
+ constant Boolean heatPump.safCtr.opeEnv.disErr.use_set = false
+ "= true, if set port enabled and used as default value when reset";
+ parameter Integer heatPump.safCtr.opeEnv.disErr.y_start = 0 "Initial and reset value of y if set port is not used";
+ parameter Integer heatPump.safCtr.opeEnv.intConOne.k(start = 1) = 1
+ "Constant output value";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.tabUppHea[:, 2]
+ (start = fill(288.15, size(heatPump.safCtr.opeEnv.tabUppHea, 1), size(
+ heatPump.safCtr.opeEnv.tabUppHea, 2))) = heatPump.safCtr.safCtrPar.tabUppHea
+ "Upper boundary for heating with second column as useful temperature side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.tabLowCoo[:, 2]
+ (start = fill(288.15, size(heatPump.safCtr.opeEnv.tabLowCoo, 1), size(
+ heatPump.safCtr.opeEnv.tabLowCoo, 2))) = heatPump.safCtr.safCtrPar.tabLowCoo
+ "Lower boundary for cooling with second column as useful temperature side";
+ parameter Boolean heatPump.safCtr.opeEnv.use_TConOutHea = heatPump.safCtr.safCtrPar.use_TConOutHea
+ "=true to use condenser outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean heatPump.safCtr.opeEnv.use_TEvaOutHea = heatPump.safCtr.safCtrPar.use_TEvaOutHea
+ "=true to use evaporator outlet temperature for envelope in heating mode, false for inlet";
+ parameter Boolean heatPump.safCtr.opeEnv.use_TConOutCoo = heatPump.safCtr.safCtrPar.use_TConOutCoo
+ "=true to use useful side outlet temperature for envelope in cooling mode, false for inlet";
+ parameter Boolean heatPump.safCtr.opeEnv.use_TEvaOutCoo = heatPump.safCtr.safCtrPar.use_TEvaOutCoo
+ "=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtr.opeEnv.dTHys
+ = heatPump.safCtr.safCtrPar.dTHysOpeEnv "Temperature deadband in the operational envelope";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.tab[:, 2] = heatPump.safCtr.opeEnv.tabUppHea
+ "Table for boundary with second column as useful temperature side";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtr.opeEnv.bouMapHea.dT
+ = heatPump.safCtr.opeEnv.dTHys "Delta value used to avoid state events when used as a safety control";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.isUppBou = true
+ "=true if it is an upper boundary, false for lower";
+ parameter Integer heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout = size(
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.columns, 1) "Number of outputs";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile = false
+ "= true, if table is defined on file or in function usertab";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.tabBou.table[:, :] =
+ heatPump.safCtr.opeEnv.bouMapHea.tab "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])";
+ parameter String heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableName = "NoName"
+ "Table name on file or in function usertab (see docu)";
+ parameter String heatPump.safCtr.opeEnv.bouMapHea.tabBou.fileName = "NoName"
+ "File where matrix is stored";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.tabBou.verboseRead = true
+ "= true, if info message that file is loading is to be printed";
+ parameter Integer heatPump.safCtr.opeEnv.bouMapHea.tabBou.columns[:] = 2:size(
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.table, 2) "Columns of table to be interpolated";
+ parameter Modelica.Blocks.Types.Smoothness heatPump.safCtr.opeEnv.bouMapHea.tabBou.smoothness
+ = Modelica.Blocks.Types.Smoothness.LinearSegments "Smoothness of table interpolation";
+ parameter Modelica.Blocks.Types.Extrapolation heatPump.safCtr.opeEnv.bouMapHea.tabBou.extrapolation
+ = Modelica.Blocks.Types.Extrapolation.LastTwoPoints "Extrapolation of data outside the definition range";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.tabBou.verboseExtrapolation
+ = false "= true, if warning messages are to be printed if table input is outside the definition range";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_min =
+ Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID) "Minimum abscissa value defined in table";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_max =
+ Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID) "Maximum abscissa value defined in table";
+ parameter Integer heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID.id;
+ parameter Integer heatPump.safCtr.opeEnv.bouMapHea.nor.nu(min = 0.0) = 3
+ "Number of input connections";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.hysLef.uLow(start = 0) = -0.05
+ "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.hysLef.uHigh(start = 1) = 0
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.hysLef.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.hysRig.uLow(start = 0) = -0.05
+ "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.hysRig.uHigh(start = 1) = 0
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.hysRig.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.k(start = 1) =
+ heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin "Constant output value";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.k(start = 1) =
+ heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax "Constant output value";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.subMax.k1 = 1 "Gain of input signal 1";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.subMax.k2 = -1
+ "Gain of input signal 2";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.sub.k1 = -1 "Gain of input signal 1";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.sub.k2 = 1 "Gain of input signal 2";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.subBou.k1 = (if
+ heatPump.safCtr.opeEnv.bouMapHea.isUppBou then 1 else -1) "Gain of input signal 1";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.subBou.k2 = (if
+ heatPump.safCtr.opeEnv.bouMapHea.isUppBou then -1 else 1) "Gain of input signal 2";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow(start = 0) = -
+ heatPump.safCtr.opeEnv.bouMapHea.dT "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.hysBou.uHigh(start = 1) = 0
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapHea.hysBou.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.icoMin = -70 "Used to set the frame where the icon should appear";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.icoMax = 70 "Used to set the frame where the icon should appear";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax
+ = heatPump.safCtr.opeEnv.bouMapHea.tab[end, 1] "Maximal value of ambient side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin
+ = heatPump.safCtr.opeEnv.bouMapHea.tab[1, 1] "Minimal temperature at ambient side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax
+ = max(heatPump.safCtr.opeEnv.bouMapHea.tab[:, 2]) "Maximal temperature of useful side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin
+ = 0 "Minimal value of useful side";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.poi[size(heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid,
+ 1), 2] = transpose({heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSidToPoi,
+ heatPump.safCtr.opeEnv.bouMapHea.scaTUseSidToPoi}) "Points for dynamic annotation";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid
+ [:](start = fill(288.15, size(heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid, 1)))
+ = heatPump.safCtr.opeEnv.bouMapHea.tab[:, 1] "Helper array with only not ambient side temperature values";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid
+ [:](start = fill(288.15, size(heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid, 1)))
+ = heatPump.safCtr.opeEnv.bouMapHea.tab[:, 2] "Helper array with only useful side temperature values";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSidToPoi[size(
+ heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid, 1)](min = -100.0, max = 100.0)
+ = (heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid-fill(heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin,
+ size(heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid, 1)))*(heatPump.safCtr.opeEnv.bouMapHea.icoMax
+ -heatPump.safCtr.opeEnv.bouMapHea.icoMin)/(heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax
+ -heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin)+fill(heatPump.safCtr.opeEnv.bouMapHea.icoMin,
+ size(heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid, 1)) "Scale ambient side to icon size";
+ parameter Real heatPump.safCtr.opeEnv.bouMapHea.scaTUseSidToPoi[size(
+ heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid, 1)](min = -100.0, max = 100.0)
+ = (heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid-fill(heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin,
+ size(heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid, 1)))*(heatPump.safCtr.opeEnv.bouMapHea.icoMax
+ -heatPump.safCtr.opeEnv.bouMapHea.icoMin)/(heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax
+ -heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin)+fill(heatPump.safCtr.opeEnv.bouMapHea.icoMin,
+ size(heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid, 1)) "Scale useful side to icon size";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.tab[:, 2] = heatPump.safCtr.opeEnv.tabLowCoo
+ "Table for boundary with second column as useful temperature side";
+ parameter Modelica.Units.SI.TemperatureDifference heatPump.safCtr.opeEnv.bouMapCoo.dT
+ = heatPump.safCtr.opeEnv.dTHys "Delta value used to avoid state events when used as a safety control";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.isUppBou = false
+ "=true if it is an upper boundary, false for lower";
+ parameter Integer heatPump.safCtr.opeEnv.bouMapCoo.tabBou.nout = size(
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.columns, 1) "Number of outputs";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableOnFile = false
+ "= true, if table is defined on file or in function usertab";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table[:, :] =
+ heatPump.safCtr.opeEnv.bouMapCoo.tab "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])";
+ parameter String heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableName = "NoName"
+ "Table name on file or in function usertab (see docu)";
+ parameter String heatPump.safCtr.opeEnv.bouMapCoo.tabBou.fileName = "NoName"
+ "File where matrix is stored";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.tabBou.verboseRead = true
+ "= true, if info message that file is loading is to be printed";
+ parameter Integer heatPump.safCtr.opeEnv.bouMapCoo.tabBou.columns[:] = 2:size(
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table, 2) "Columns of table to be interpolated";
+ parameter Modelica.Blocks.Types.Smoothness heatPump.safCtr.opeEnv.bouMapCoo.tabBou.smoothness
+ = Modelica.Blocks.Types.Smoothness.LinearSegments "Smoothness of table interpolation";
+ parameter Modelica.Blocks.Types.Extrapolation heatPump.safCtr.opeEnv.bouMapCoo.tabBou.extrapolation
+ = Modelica.Blocks.Types.Extrapolation.LastTwoPoints "Extrapolation of data outside the definition range";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.tabBou.verboseExtrapolation
+ = false "= true, if warning messages are to be printed if table input is outside the definition range";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_min =
+ Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID) "Minimum abscissa value defined in table";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_max =
+ Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID) "Maximum abscissa value defined in table";
+ parameter Integer heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID.id;
+ parameter Integer heatPump.safCtr.opeEnv.bouMapCoo.nor.nu(min = 0.0) = 3
+ "Number of input connections";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uLow(start = 0) = -0.05
+ "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uHigh(start = 1) = 0
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.hysLef.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uLow(start = 0) = -0.05
+ "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uHigh(start = 1) = 0
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.hysRig.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.k(start = 1) =
+ heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin "Constant output value";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.k(start = 1) =
+ heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax "Constant output value";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.subMax.k1 = 1 "Gain of input signal 1";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.subMax.k2 = -1
+ "Gain of input signal 2";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.sub.k1 = -1 "Gain of input signal 1";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.sub.k2 = 1 "Gain of input signal 2";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.subBou.k1 = (if
+ heatPump.safCtr.opeEnv.bouMapCoo.isUppBou then 1 else -1) "Gain of input signal 1";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.subBou.k2 = (if
+ heatPump.safCtr.opeEnv.bouMapCoo.isUppBou then -1 else 1) "Gain of input signal 2";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow(start = 0) = -
+ heatPump.safCtr.opeEnv.bouMapCoo.dT "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uHigh(start = 1) = 0
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.opeEnv.bouMapCoo.hysBou.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.icoMin = -70 "Used to set the frame where the icon should appear";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.icoMax = 70 "Used to set the frame where the icon should appear";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax
+ = heatPump.safCtr.opeEnv.bouMapCoo.tab[end, 1] "Maximal value of ambient side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin
+ = heatPump.safCtr.opeEnv.bouMapCoo.tab[1, 1] "Minimal temperature at ambient side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax
+ = max(heatPump.safCtr.opeEnv.bouMapCoo.tab[:, 2]) "Maximal temperature of useful side";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin
+ = 0 "Minimal value of useful side";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.poi[size(heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid,
+ 1), 2] = transpose({heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi,
+ heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi}) "Points for dynamic annotation";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid
+ [:](start = fill(288.15, size(heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid, 1)))
+ = heatPump.safCtr.opeEnv.bouMapCoo.tab[:, 1] "Helper array with only not ambient side temperature values";
+ parameter Modelica.Units.SI.Temperature heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid
+ [:](start = fill(288.15, size(heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid, 1)))
+ = heatPump.safCtr.opeEnv.bouMapCoo.tab[:, 2] "Helper array with only useful side temperature values";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[size(
+ heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid, 1)](min = -100.0, max = 100.0)
+ = (heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid-fill(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin,
+ size(heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid, 1)))*(heatPump.safCtr.opeEnv.bouMapCoo.icoMax
+ -heatPump.safCtr.opeEnv.bouMapCoo.icoMin)/(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax
+ -heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin)+fill(heatPump.safCtr.opeEnv.bouMapCoo.icoMin,
+ size(heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid, 1)) "Scale ambient side to icon size";
+ parameter Real heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[size(
+ heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid, 1)](min = -100.0, max = 100.0)
+ = (heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid-fill(heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin,
+ size(heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid, 1)))*(heatPump.safCtr.opeEnv.bouMapCoo.icoMax
+ -heatPump.safCtr.opeEnv.bouMapCoo.icoMin)/(heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax
+ -heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin)+fill(heatPump.safCtr.opeEnv.bouMapCoo.icoMin,
+ size(heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid, 1)) "Scale useful side to icon size";
+ constant Boolean heatPump.safCtr.onOffCtr.use_minOnTime = true
+ "=false to ignore minimum on-time constraint";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.minOnTime(
+ displayUnit = "min") = heatPump.safCtr.safCtrPar.minOnTime "Minimum on-time";
+ constant Boolean heatPump.safCtr.onOffCtr.use_minOffTime = true
+ "=false to ignore minimum off time constraint";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.minOffTime(
+ displayUnit = "min") = heatPump.safCtr.safCtrPar.minOffTime "Minimum off time";
+ constant Boolean heatPump.safCtr.onOffCtr.use_maxCycRat = true
+ "=false to ignore maximal cycle rate constraint";
+ parameter Integer heatPump.safCtr.onOffCtr.maxCycRat = heatPump.safCtr.safCtrPar.maxCycRat
+ "Maximum cycle rate";
+ parameter Boolean heatPump.safCtr.onOffCtr.onOffMea_start = heatPump.safCtr.safCtrPar.onOffMea_start
+ "Start value for the on-off signal of the device, true for on";
+ parameter Real heatPump.safCtr.onOffCtr.ySet_small = heatPump.safCtr.ySet_small
+ "Threshold for relative speed for the device to be considered on";
+ parameter Real heatPump.safCtr.onOffCtr.ySetRed = heatPump.safCtr.safCtrPar.ySetRed
+ "Reduced relative compressor speed to allow longer on-time";
+ parameter Real heatPump.safCtr.onOffCtr.ySetOn.uLow(start = 0) =
+ heatPump.safCtr.onOffCtr.ySet_small/2 "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.onOffCtr.ySetOn.uHigh(start = 1) =
+ heatPump.safCtr.onOffCtr.ySet_small "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.onOffCtr.ySetOn.pre_y_start =
+ heatPump.safCtr.onOffCtr.onOffMea_start "Value of pre(y) at initial time";
+ parameter Boolean heatPump.safCtr.onOffCtr.preOnOff.pre_u_start =
+ heatPump.safCtr.onOffCtr.onOffMea_start "Start value of pre(u) at initial time";
+ parameter Integer heatPump.safCtr.onOffCtr.cycRatBou.maxCycRat =
+ heatPump.safCtr.onOffCtr.maxCycRat "Maximal cycle rate";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.cycRatBou.delTim(
+ displayUnit = "h") = 3600 "Delay time of output with respect to input signal";
+ parameter Real heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.threshold =
+ heatPump.safCtr.onOffCtr.cycRatBou.maxCycRat "Comparison with respect to threshold";
+ constant Boolean heatPump.safCtr.onOffCtr.cycRatBou.triAdd.use_reset = false
+ "= true, if reset port enabled";
+ constant Boolean heatPump.safCtr.onOffCtr.cycRatBou.triAdd.use_set = false
+ "= true, if set port enabled and used as default value when reset";
+ parameter Integer heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y_start = 0
+ "Initial and reset value of y if set port is not used";
+ parameter Integer heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.k(start = 1)
+ = 1 "Constant output value";
+ parameter Real heatPump.safCtr.onOffCtr.cycRatBou.sub.k1 = 1 "Gain of input signal 1";
+ parameter Real heatPump.safCtr.onOffCtr.cycRatBou.sub.k2 = -1 "Gain of input signal 2";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.cycRatBou.fixDel.delayTime
+ (start = 1) = heatPump.safCtr.onOffCtr.cycRatBou.delTim "Delay time of output with respect to input signal";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.locTimCtr.minOnTime
+ = heatPump.safCtr.onOffCtr.minOffTime "Minimal time the device is turned on or off";
+ parameter Real heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.threshold =
+ heatPump.safCtr.onOffCtr.locTimCtr.minOnTime "Comparison with respect to threshold";
+ parameter Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.runTimCtr.minOnTime
+ = heatPump.safCtr.onOffCtr.minOnTime "Minimal time the device is turned on or off";
+ parameter Real heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.threshold =
+ heatPump.safCtr.onOffCtr.runTimCtr.minOnTime "Comparison with respect to threshold";
+ parameter Real heatPump.safCtr.onOffCtr.onOffFuzLog.ySetRed = heatPump.safCtr.onOffCtr.ySetRed
+ "Reduced relative compressor speed to allow longer on-time";
+ parameter Real heatPump.safCtr.minVolFloRatSaf.conZer.k(start = 1) = 0
+ "Constant output value";
+ constant Boolean heatPump.safCtr.minVolFloRatSaf.disErr.use_reset = false
+ "= true, if reset port enabled";
+ constant Boolean heatPump.safCtr.minVolFloRatSaf.disErr.use_set = false
+ "= true, if set port enabled and used as default value when reset";
+ parameter Integer heatPump.safCtr.minVolFloRatSaf.disErr.y_start = 0
+ "Initial and reset value of y if set port is not used";
+ parameter Integer heatPump.safCtr.minVolFloRatSaf.intConOne.k(start = 1) = 1
+ "Constant output value";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.safCtr.minVolFloRatSaf.mEvaMin_flow
+ = heatPump.safCtr.safCtrPar.r_mEvaMinPer_flow*heatPump.safCtr.mEva_flow_nominal
+ "Minimal mass flow rate in evaporator required to operate the device";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.safCtr.minVolFloRatSaf.mConMin_flow
+ = heatPump.safCtr.safCtrPar.r_mConMinPer_flow*heatPump.safCtr.mCon_flow_nominal
+ "Minimal mass flow rate in condenser required to operate the device";
+ parameter Real heatPump.safCtr.minVolFloRatSaf.hysCon.uLow(start = 0) =
+ heatPump.safCtr.minVolFloRatSaf.mConMin_flow "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh(start = 1) = max(
+ heatPump.safCtr.minVolFloRatSaf.mConMin_flow*1.1, 1E-15) "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.minVolFloRatSaf.hysCon.pre_y_start = false
+ "Value of pre(y) at initial time";
+ parameter Real heatPump.safCtr.minVolFloRatSaf.hysEva.uLow(start = 0) =
+ heatPump.safCtr.minVolFloRatSaf.mEvaMin_flow "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.safCtr.minVolFloRatSaf.hysEva.uHigh(start = 1) = max(
+ heatPump.safCtr.minVolFloRatSaf.mEvaMin_flow*1.1, 1E-15) "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.safCtr.minVolFloRatSaf.hysEva.pre_y_start = false
+ "Value of pre(y) at initial time";
+ constant Boolean heatPump.mEva_flow.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.mEva_flow.m_flow_nominal(
+ min = 0.0) = 0 "Nominal mass flow rate, used for regularization near zero flow";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.mEva_flow.m_flow_small(
+ min = 0.0) = 0 "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required)";
+ constant Boolean heatPump.mCon_flow.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.mCon_flow.m_flow_nominal(
+ min = 0.0) = 0 "Nominal mass flow rate, used for regularization near zero flow";
+ parameter Modelica.Units.SI.MassFlowRate heatPump.mCon_flow.m_flow_small(
+ min = 0.0) = 0 "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required)";
+ parameter Real heatPump.hys.uLow(start = 0) = 0.001 "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.hys.uHigh(start = 1) = heatPump.ySet_small
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.hys.pre_y_start = false "Value of pre(y) at initial time";
+ parameter Modelica.Units.SI.Power heatPump.eff.PEleMin(min = 1E-15) =
+ heatPump.PEle_nominal*0.1 "If eletrical power consumption falls below this value, COP will be set to zero";
+ parameter Real heatPump.eff.hys.uLow(start = 0) = heatPump.eff.PEleMin
+ "If y=true and u<uLow, switch to y=false";
+ parameter Real heatPump.eff.hys.uHigh(start = 1) = heatPump.eff.PEleMin*1.1
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean heatPump.eff.hys.pre_y_start = false "Value of pre(y) at initial time";
+ parameter Real heatPump.eff.invXReg.delta(min = 0.0) = heatPump.eff.PEleMin
+ "Abscissa value below which approximation occurs";
+ parameter Real heatPump.eff.zer.k(start = 1) = 0 "Constant output value";
+ parameter Boolean heatPump.eff.absQEva_flow.generateEvent = false
+ "Choose whether events shall be generated";
+ constant Boolean heatPump.use_busConOnl = false "=true to allow input to bus connector,
+ not applicable with internal safety control";
+ constant Boolean heatPump.use_COP = true "=true to enable COP output";
+ constant Boolean heatPump.use_EER = true "=true to enable EER output";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.staEva_nominal.p
+ = 101325 "Absolute pressure of medium";
+ parameter Modelica.Media.Interfaces.Types.Temperature heatPump.staEva_nominal.T
+ = 293.15 "Temperature of medium";
+ parameter Modelica.Media.Interfaces.Types.MassFraction heatPump.staEva_nominal.X
+ [2] = {0.01, 0.99} "Mass fractions (= (component mass)/total mass m_i/m)";
+ parameter Modelica.Units.SI.HeatFlowRate heatPump.QHea_flow_nominal(min =
+ 1E-15) = QPri_flow_nominal "Nominal heating capacity";
+ parameter Modelica.Units.SI.HeatFlowRate heatPump.QCoo_flow_nominal(max = 0.0)
+ = QCoo_flow_nominal "Nominal cooling capacity";
+ parameter Modelica.Units.SI.Temperature heatPump.TConHea_nominal = (if
+ genDesTyp == BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.
+ Monovalent then TSup_nominal[1] else TSupAtBiv) "Nominal temperature of the heated fluid";
+ parameter Modelica.Units.SI.Temperature heatPump.TEvaHea_nominal = TBiv
+ "Nominal temperature of the cooled fluid";
+ parameter Modelica.Units.SI.Temperature heatPump.TConCoo_nominal =
+ TConCoo_nominal "Nominal temperature of the cooled fluid";
+ parameter Modelica.Units.SI.Temperature heatPump.TEvaCoo_nominal =
+ TEvaCoo_nominal "Nominal temperature of the heated fluid";
+ constant Integer bou_sinkAir.nPorts = 1 "Number of ports";
+ constant Boolean bou_sinkAir.verifyInputs = false "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range";
+ constant Modelica.Fluid.Types.PortFlowDirection bou_sinkAir.flowDirection =
+ Modelica.Fluid.Types.PortFlowDirection.Bidirectional "Allowed flow direction";
+ constant Boolean bou_sinkAir.use_X_in = false "Get the composition (all fractions) from the input connector";
+ constant Boolean bou_sinkAir.use_Xi_in = false "Get the composition (independent fractions) from the input connector";
+ constant Boolean bou_sinkAir.use_C_in = false "Get the trace substances from the input connector";
+ parameter Modelica.Media.Interfaces.Types.MassFraction bou_sinkAir.X[2] = {
+ 0.01, 0.99} "Fixed value of composition";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty bou_sinkAir.C[0](
+ start = fill(1.0, size(bou_sinkAir.C, 1))) = fill(0, 0) "Fixed values of trace substances";
+ constant Boolean bou_sinkAir.use_p_in = false "Get the pressure from the input connector";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure bou_sinkAir.p(
+ start = 101325) = 101325 "Fixed value of pressure";
+ constant Boolean bou_sinkAir.use_h_in = false "Get the specific enthalpy from the input connector";
+ parameter Modelica.Media.Interfaces.Types.SpecificEnthalpy bou_sinkAir.h =
+ 45300.945 "Fixed value of specific enthalpy";
+ constant Boolean bou_sinkAir.checkWaterPressure = false "Evaluates to true if the pressure should be checked";
+ constant Boolean bou_sinkAir.checkAirPressure = true "Evaluates to true if the pressure should be checked";
+ constant Integer bouEva.nPorts = 1 "Number of ports";
+ constant Boolean bouEva.verifyInputs = false "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range";
+ constant Modelica.Fluid.Types.PortFlowDirection bouEva.flowDirection =
+ Modelica.Fluid.Types.PortFlowDirection.Bidirectional "Allowed flow direction";
+ constant Boolean bouEva.use_X_in = false "Get the composition (all fractions) from the input connector";
+ constant Boolean bouEva.use_Xi_in = false "Get the composition (independent fractions) from the input connector";
+ constant Boolean bouEva.use_C_in = false "Get the trace substances from the input connector";
+ parameter Modelica.Media.Interfaces.Types.MassFraction bouEva.X[2] = {0.01,
+ 0.99} "Fixed value of composition";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty bouEva.C[0](start =
+ fill(1.0, size(bouEva.C, 1))) = fill(0, 0) "Fixed values of trace substances";
+ constant Boolean bouEva.use_m_flow_in = false "Get the mass flow rate from the input connector";
+ parameter Modelica.Units.SI.MassFlowRate bouEva.m_flow = heatPump.mEva_flow_nominal
+ "Fixed mass flow rate going out of the fluid port";
+ constant Boolean bouEva.use_T_in = true "Get the temperature from the input connector";
+ parameter Modelica.Media.Interfaces.Types.Temperature bouEva.T(start = 293.15)
+ = 293.15 "Fixed value of temperature";
+ parameter Boolean AirOrSoil.k = use_airSource "Constant output value";
+ constant Boolean KPIWel.use_inpCon = true "= false to use an internal variable as input";
+ parameter Real KPIWel.integrator2.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIWel.integrator2.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIWel.integrator2.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIWel.integrator2.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIWel.integrator2.y_start = 1E-15 "Initial or guess value of output (= state)";
+ constant Modelica.Fluid.Types.Dynamics pump.energyDynamics = Modelica.Fluid.Types.Dynamics.
+ DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics pump.massDynamics = pump.energyDynamics
+ "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ parameter Modelica.Fluid.Types.Dynamics pump.substanceDynamics =
+ pump.energyDynamics "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics pump.traceDynamics = pump.energyDynamics
+ "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure pump.p_start =
+ p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature pump.T_start = T_start
+ "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction pump.X_start[1] = {1.0}
+ "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty pump.C_start[0](
+ start = fill(1.0, size(pump.C_start, 1))) = fill(0, 0) "Start value of trace substances";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty pump.C_nominal[0](
+ start = fill(1.0, size(pump.C_nominal, 1))) = fill(0.01, 0) "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real pump.mSenFac(min = 1.0) = 1 "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean pump.wrongEnergyMassBalanceConfiguration = not (
+ pump.energyDynamics <> Modelica.Fluid.Types.Dynamics.SteadyState or
+ pump.massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState)
+ "True if configuration of energy and mass balance is wrong.";
+ constant Boolean pump.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.pressure.V_flow[:](min =
+ 0.0) = pump.m_flow_nominal/pump.rho_default*{0, 1, 2} "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.PressureDifference pump.per.pressure.dp[size(
+ pump.per.pressure.V_flow, 1)](displayUnit = "Pa", min = 0.0) = (if
+ pump.rho_default < 500 then pump.dp_nominal*{1.12, 1, 0} else
+ pump.dp_nominal*{1.14, 1, 0.42}) "Fan or pump total pressure at these flow rates";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.V_flow_max = (if
+ pump.per.havePressureCurve then pump.per.pressure.V_flow[end]-(
+ pump.per.pressure.V_flow[end]-pump.per.pressure.V_flow[end-1])/(
+ pump.per.pressure.dp[end]-pump.per.pressure.dp[end-1])*pump.per.pressure.dp[
+ end] else 0) "Volume flow rate on the curve when pressure rise is zero";
+ parameter Modelica.Units.SI.PressureDifference pump.per.dpMax(displayUnit =
+ "Pa") = (if pump.per.havePressureCurve then pump.per.pressure.dp[1]-(
+ pump.per.pressure.dp[1]-pump.per.pressure.dp[2])/(pump.per.pressure.V_flow[1]
+ -pump.per.pressure.V_flow[2])*pump.per.pressure.V_flow[1] else 0)
+ "Pressure rise on the curve when flow rate is zero";
+ parameter IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod
+ pump.per.etaHydMet = IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ EulerNumber "Efficiency computation method for the hydraulic efficiency etaHyd";
+ parameter IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod
+ pump.per.etaMotMet = IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ GenericCurve "Efficiency computation method for the motor efficiency etaMot";
+ parameter Boolean pump.per.powerOrEfficiencyIsHydraulic = true
+ "=true if hydraulic power or efficiency is provided, instead of total";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.efficiency.V_flow[:](
+ min = 0.0) = {0} "Volumetric flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Efficiency pump.per.efficiency.eta[size(
+ pump.per.efficiency.V_flow, 1)](max = 1.0) = {0.7} "Fan or pump efficiency at these flow rates";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.motorEfficiency.V_flow[:](
+ min = 0.0) = {0} "Volumetric flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Efficiency pump.per.motorEfficiency.eta[size(
+ pump.per.motorEfficiency.V_flow, 1)](max = 1.0) = {0.7} "Fan or pump efficiency at these flow rates";
+ parameter Real pump.per.motorEfficiency_yMot.y[:](min = 0.0) = {0}
+ "Part load ratio, y = PEle/PEle_nominal";
+ parameter Modelica.Units.SI.Efficiency pump.per.motorEfficiency_yMot.eta[size(
+ pump.per.motorEfficiency_yMot.y, 1)](max = 1.0) = {0.7} "Fan or pump efficiency at these part load ratios";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.power.V_flow[:](min = 0.0)
+ = {0} "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Power pump.per.power.P[size(pump.per.power.V_flow,
+ 1)](min = 0.0) = {0} "Fan or pump electrical power at these flow rates";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.peak.V_flow(min = 0.0) =
+ pump.per.peak_internal.V_flow "Volume flow rate at peak efficiency";
+ parameter Modelica.Units.SI.PressureDifference pump.per.peak.dp(displayUnit =
+ "Pa", min = 0.0) = pump.per.peak_internal.dp "Pressure rise at peak efficiency";
+ parameter Modelica.Units.SI.Efficiency pump.per.peak.eta = pump.per.peak_internal.eta
+ "Peak efficiency";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.per.peak_internal.V_flow(
+ min = 0.0) "Volume flow rate at peak efficiency";
+ parameter Modelica.Units.SI.PressureDifference pump.per.peak_internal.dp(
+ displayUnit = "Pa", min = 0.0) "Pressure rise at peak efficiency";
+ parameter Modelica.Units.SI.Efficiency pump.per.peak_internal.eta
+ "Peak efficiency";
+ parameter Boolean pump.per.motorCooledByFluid = true "If true, then motor heat is added to fluid stream";
+ parameter Modelica.Units.SI.Power pump.per.WMot_nominal = (if max(
+ pump.per.power.P) > 1E-15 then (if pump.per.powerOrEfficiencyIsHydraulic
+ then max(pump.per.power.P)*1.2 else max(pump.per.power.P)) else (if
+ pump.per.havePressureCurve then (if pump.per.powerOrEfficiencyIsHydraulic
+ then pump.per.V_flow_max/2*pump.per.dpMax/2/pump.per.peak.eta*1.2 else
+ pump.per.V_flow_max/2*pump.per.dpMax/2/0.7*1.2) else 0)) "Rated motor power";
+ parameter Modelica.Units.SI.Efficiency pump.per.etaMot_max(max = 1.0) = 0.7
+ "Maximum motor efficiency";
+ parameter Real pump.per.motorEfficiency_yMot_generic.y[:](min = 0.0)
+ "Part load ratio, y = PEle/PEle_nominal";
+ parameter Modelica.Units.SI.Efficiency pump.per.motorEfficiency_yMot_generic.eta
+ [size(pump.per.motorEfficiency_yMot_generic.y, 1)](max = 1.0)
+ "Fan or pump efficiency at these part load ratios";
+ parameter Boolean pump.per.haveWMot_nominal = pump.per.WMot_nominal > 1E-15
+ "= true, if the rated motor power is provided";
+ parameter Real pump.per.speed_nominal(unit = "1", min = 0.0) = 1
+ "Nominal rotational speed for flow characteristic";
+ parameter Real pump.per.constantSpeed(unit = "1", min = 0.0) = 1
+ "Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant";
+ parameter Real pump.per.speeds[:](unit = "1", min = 0.0) = {1}
+ "Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages";
+ parameter Boolean pump.per.havePressureCurve = sum(pump.per.pressure.V_flow)
+ > 1E-15 and sum(pump.per.pressure.dp) > 1E-15 "= true, if default record values are being used";
+ constant IBPSA.Fluid.Types.InputType pump.inputType = IBPSA.Fluid.Types.InputType.
+ Continuous "Control input type";
+ parameter Real pump.constInput(unit = "1") = pump.per.constantSpeed
+ "Constant input set point";
+ parameter Real pump.stageInputs[:](unit = "1") = pump.per.speeds
+ "Vector of input set points corresponding to stages";
+ parameter Boolean pump.computePowerUsingSimilarityLaws = true "= true, compute power exactly, using similarity laws. Otherwise approximate.";
+ parameter Boolean pump.addPowerToMedium = parPum.addPowerToMedium
+ "Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations)";
+ parameter Boolean pump.nominalValuesDefineDefaultPressureCurve = false
+ "Set to true to avoid warning if m_flow_nominal and dp_nominal are used to construct the default pressure curve";
+ parameter Modelica.Units.SI.Time pump.tau = parPum.tau "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic";
+ parameter Boolean pump.use_riseTime = parPum.use_riseTime "Set to true to continuously change motor speed";
+ parameter Modelica.Units.SI.Time pump.riseTime = parPum.riseTimeInpFilter
+ "Time needed to change motor speed between zero and full speed";
+ parameter Modelica.Blocks.Types.Init pump.init = Modelica.Blocks.Types.Init.
+ InitialOutput "Type of initialization (no init/steady state/initial state/initial output)";
+ parameter Modelica.Units.SI.MassFlowRate pump.m_flow_small(min = 0.0) = 0.0001
+ *abs(pump._m_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ constant Boolean pump.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate pump._m_flow_nominal = max(
+ pump.eff.per.pressure.V_flow)*pump.rho_default "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate pump._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference pump._dp_start(displayUnit =
+ "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ parameter Modelica.Units.SI.VolumeFlowRate pump._VMachine_flow = 0
+ "Start value for VMachine_flow, used to avoid a warning if not specified";
+ constant IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable pump.preVar
+ = IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable.Speed
+ "Type of prescribed variable";
+ parameter Boolean pump.speedIsInput = pump.preVar == IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable.
+ Speed "Parameter that is true if speed is the controlled variables";
+ parameter Integer pump.nOri = size(pump.per.pressure.V_flow, 1)
+ "Number of data points for pressure curve";
+ parameter Boolean pump.haveVMax = pump.eff.haveVMax "Flag, true if user specified data that contain V_flow_max";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.V_flow_max = pump.eff.V_flow_max;
+ parameter Modelica.Units.SI.Density pump.rho_default = density_pTX_Unique32(101325,
+ 293.15, {1.0}) "Default medium density";
+ parameter Modelica.Units.SI.SpecificEnthalpy pump.h_outflow_start =
+ specificEnthalpy_Unique5(
+ pump.sta_start) "Start value for outflowing enthalpy";
+ constant Modelica.Fluid.Types.Dynamics pump.vol.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics pump.vol.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ constant Modelica.Fluid.Types.Dynamics pump.vol.substanceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics pump.vol.traceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure pump.vol.p_start =
+ pump.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature pump.vol.T_start =
+ pump.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction pump.vol.X_start[1] = {
+ pump.X_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.C_start[0](
+ start = fill(1.0, size(pump.vol.C_start, 1))) = pump.C_start
+ "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.C_nominal[0]
+ = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real pump.vol.mSenFac(min = 1.0) = 1 "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean pump.vol.wrongEnergyMassBalanceConfiguration = not (
+ pump.vol.energyDynamics <> Modelica.Fluid.Types.Dynamics.SteadyState or
+ pump.vol.massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState)
+ "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean pump.vol.initialize_p = not _GlobalScope.singleState
+ "= true to set up initial equations for pressure";
+ constant Boolean pump.vol.prescribedHeatFlowRate = true "Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false";
+ constant Boolean pump.vol.simplify_mWat_flow = true "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero";
+ parameter Modelica.Units.SI.MassFlowRate pump.vol.m_flow_nominal(min = 0.0) =
+ pump._m_flow_nominal "Nominal mass flow rate";
+ constant Integer pump.vol.nPorts = 2 "Number of ports";
+ parameter Modelica.Units.SI.MassFlowRate pump.vol.m_flow_small(min = 0.0) =
+ pump.m_flow_small "Small mass flow rate for regularization of zero flow";
+ parameter Boolean pump.vol.allowFlowReversal = pump.allowFlowReversal
+ "= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports.";
+ parameter Modelica.Units.SI.Volume pump.vol.V = pump.vol.V_nominal "Volume";
+ parameter Modelica.Units.SI.Density pump.vol.rho_start = density_Unique1(
+ pump.vol.state_start) "Density, used to compute start and guess values";
+ parameter Modelica.Units.SI.Density pump.vol.rho_default = density_Unique1(
+ pump.vol.state_default) "Density, used to compute fluid mass";
+ constant Boolean pump.vol.useSteadyStateTwoPort = false "Flag, true if the model has two ports only and uses a steady state balance";
+ constant Boolean pump.vol.use_C_flow = false "Set to true to enable input connector for trace substance";
+ parameter Modelica.Units.SI.Time pump.vol.tau = pump.tau "Time constant at nominal flow";
+ parameter Modelica.Units.SI.Volume pump.vol.V_nominal = pump.vol.m_flow_nominal
+ *pump.vol.tau/pump.vol.rho_default "Volume of delay element";
+ parameter Modelica.Fluid.Types.Dynamics pump.vol.dynBal.energyDynamics =
+ pump.vol.energyDynamics "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics pump.vol.dynBal.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ parameter Modelica.Fluid.Types.Dynamics pump.vol.dynBal.substanceDynamics =
+ pump.vol.dynBal.energyDynamics "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics pump.vol.dynBal.traceDynamics =
+ pump.vol.dynBal.energyDynamics "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure pump.vol.dynBal.p_start
+ = pump.vol.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature pump.vol.dynBal.T_start
+ = pump.vol.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction pump.vol.dynBal.X_start
+ [1] = {pump.vol.X_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.dynBal.C_start
+ [0](start = fill(1.0, size(pump.vol.dynBal.C_start, 1))) = pump.vol.C_start
+ "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.dynBal.C_nominal
+ [0] = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real pump.vol.dynBal.mSenFac(min = 1.0) = pump.vol.mSenFac
+ "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean pump.vol.dynBal.wrongEnergyMassBalanceConfiguration = not (
+ pump.vol.dynBal.energyDynamics <> Modelica.Fluid.Types.Dynamics.SteadyState
+ or pump.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean pump.vol.dynBal.initialize_p = pump.vol.initialize_p
+ "= true to set up initial equations for pressure";
+ constant Boolean pump.vol.dynBal.simplify_mWat_flow = pump.vol.simplify_mWat_flow
+ "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1";
+ constant Integer pump.vol.dynBal.nPorts = 2 "Number of ports";
+ constant Boolean pump.vol.dynBal.use_mWat_flow = false "Set to true to enable input connector for moisture mass flow rate";
+ constant Boolean pump.vol.dynBal.use_C_flow = false "Set to true to enable input connector for trace substance";
+ constant Boolean pump.vol.dynBal.medium.preferredMediumStates = false
+ "= true if StateSelect.prefer shall be used for the independent property variables of the medium";
+ parameter Boolean pump.vol.dynBal.medium.standardOrderComponents = true
+ "If true, and reducedX = true, the last element of X will be computed from the other ones";
+ parameter Modelica.Units.SI.Volume pump.vol.dynBal.fluidVolume = pump.vol.V
+ "Volume";
+ parameter Modelica.Units.SI.HeatCapacity pump.vol.dynBal.CSen = (
+ pump.vol.dynBal.mSenFac-1)*pump.vol.dynBal.rho_default*pump.vol.dynBal.cp_default
+ *pump.vol.dynBal.fluidVolume "Aditional heat capacity for implementing mFactor";
+ parameter Modelica.Units.SI.SpecificHeatCapacity pump.vol.dynBal.cp_default =
+ specificHeatCapacityCp_Unique2(
+ pump.vol.dynBal.state_default) "Heat capacity, to compute additional dry mass";
+ parameter Modelica.Units.SI.Density pump.vol.dynBal.rho_start =
+ density_Unique1(
+ setState_pTX_Unique3(pump.vol.dynBal.p_start, pump.vol.dynBal.T_start,
+ pump.vol.dynBal.X_start[1:0])) "Density, used to compute fluid mass";
+ parameter Boolean pump.vol.dynBal.computeCSen = abs(pump.vol.dynBal.mSenFac-1)
+ > 1E-15;
+ parameter Modelica.Units.SI.Density pump.vol.dynBal.rho_default =
+ density_Unique1(
+ pump.vol.dynBal.state_default) "Density, used to compute fluid mass";
+ parameter Real pump.vol.dynBal.s[0] = array((if Modelica.Utilities.Strings.isEqual
+ (({"unusablePartialMedium"})[i], "Water", false) then 1 else 0) for i in 1:0)
+ "Vector with zero everywhere except where species is";
+ parameter Modelica.Units.SI.SpecificEnthalpy pump.vol.dynBal.hStart =
+ specificEnthalpy_pTX_Unique4(pump.vol.dynBal.p_start, pump.vol.dynBal.T_start,
+ pump.vol.dynBal.X_start) "Start value for specific enthalpy";
+ constant Boolean pump.vol.dynBal._simplify_mWat_flow = pump.vol.dynBal.simplify_mWat_flow
+ and false "If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified";
+ constant Boolean pump.preSou.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.PressureDifference pump.preSou.dp_start(
+ displayUnit = "Pa") = 0 "Guess value of dp = port_a.p - port_b.p";
+ parameter Modelica.Media.Interfaces.PartialMedium.MassFlowRate
+ pump.preSou.m_flow_start = 0 "Guess value of m_flow = port_a.m_flow";
+ parameter Modelica.Media.Interfaces.PartialMedium.MassFlowRate
+ pump.preSou.m_flow_small = pump.m_flow_small "Small mass flow rate for regularization of zero flow";
+ constant Boolean pump.preSou.show_T = false "= true, if temperatures at port_a and port_b are computed";
+ constant Boolean pump.preSou.show_V_flow = true "= true, if volume flow rate at inflowing port is computed";
+ constant Boolean pump.preSou.control_m_flow = false "if true, then the mass flow rate is equal to the value of m_flow_in";
+ constant Boolean pump.preSou.control_dp = true "if true, then the head is equal to the value of dp_in";
+ constant Boolean pump.senMasFlo.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate pump.senMasFlo.m_flow_nominal(min =
+ 0.0) = 0 "Nominal mass flow rate, used for regularization near zero flow";
+ parameter Modelica.Units.SI.MassFlowRate pump.senMasFlo.m_flow_small(min = 0.0)
+ = 0 "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required)";
+ constant Boolean pump.eff.homotopyInitialization = true "= true, use homotopy method";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.pressure.V_flow[:](
+ min = 0.0) "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.per.pressure.dp[size(
+ pump.eff.per.pressure.V_flow, 1)](displayUnit = "Pa", min = 0.0)
+ "Fan or pump total pressure at these flow rates";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.V_flow_max = (if
+ pump.eff.per.havePressureCurve then pump.eff.per.pressure.V_flow[end]-(
+ pump.eff.per.pressure.V_flow[end]-pump.eff.per.pressure.V_flow[end-1])/(
+ pump.eff.per.pressure.dp[end]-pump.eff.per.pressure.dp[end-1])*
+ pump.eff.per.pressure.dp[end] else 0) "Volume flow rate on the curve when pressure rise is zero";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.per.dpMax(
+ displayUnit = "Pa") = (if pump.eff.per.havePressureCurve then
+ pump.eff.per.pressure.dp[1]-(pump.eff.per.pressure.dp[1]-pump.eff.per.pressure.dp
+ [2])/(pump.eff.per.pressure.V_flow[1]-pump.eff.per.pressure.V_flow[2])*
+ pump.eff.per.pressure.V_flow[1] else 0) "Pressure rise on the curve when flow rate is zero";
+ parameter IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod
+ pump.eff.per.etaHydMet = pump.per.etaHydMet "Efficiency computation method for the hydraulic efficiency etaHyd";
+ parameter IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod
+ pump.eff.per.etaMotMet = pump.per.etaMotMet "Efficiency computation method for the motor efficiency etaMot";
+ parameter Boolean pump.eff.per.powerOrEfficiencyIsHydraulic = pump.per.powerOrEfficiencyIsHydraulic
+ "=true if hydraulic power or efficiency is provided, instead of total";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.efficiency.V_flow[:](
+ min = 0.0) "Volumetric flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.efficiency.eta[size(
+ pump.eff.per.efficiency.V_flow, 1)](max = 1.0) "Fan or pump efficiency at these flow rates";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.motorEfficiency.V_flow
+ [:](min = 0.0) "Volumetric flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.motorEfficiency.eta[size(
+ pump.eff.per.motorEfficiency.V_flow, 1)](max = 1.0) "Fan or pump efficiency at these flow rates";
+ parameter Real pump.eff.per.motorEfficiency_yMot.y[:](min = 0.0)
+ "Part load ratio, y = PEle/PEle_nominal";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.motorEfficiency_yMot.eta[
+ size(pump.eff.per.motorEfficiency_yMot.y, 1)](max = 1.0) "Fan or pump efficiency at these part load ratios";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.power.V_flow[:](min =
+ 0.0) "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Power pump.eff.per.power.P[size(pump.eff.per.power.V_flow,
+ 1)](min = 0.0) "Fan or pump electrical power at these flow rates";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.peak.V_flow(min = 0.0)
+ "Volume flow rate at peak efficiency";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.per.peak.dp(
+ displayUnit = "Pa", min = 0.0) "Pressure rise at peak efficiency";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.peak.eta "Peak efficiency";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.per.peak_internal.V_flow(
+ min = 0.0) "Volume flow rate at peak efficiency";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.per.peak_internal.dp(
+ displayUnit = "Pa", min = 0.0) "Pressure rise at peak efficiency";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.peak_internal.eta
+ "Peak efficiency";
+ parameter Boolean pump.eff.per.motorCooledByFluid = pump.per.motorCooledByFluid
+ "If true, then motor heat is added to fluid stream";
+ parameter Modelica.Units.SI.Power pump.eff.per.WMot_nominal = (if max(
+ pump.eff.per.power.P) > 1E-15 then (if pump.eff.per.powerOrEfficiencyIsHydraulic
+ then max(pump.eff.per.power.P)*1.2 else max(pump.eff.per.power.P)) else (
+ if pump.eff.per.havePressureCurve then (if pump.eff.per.powerOrEfficiencyIsHydraulic
+ then pump.eff.per.V_flow_max/2*pump.eff.per.dpMax/2/pump.eff.per.peak.eta*
+ 1.2 else pump.eff.per.V_flow_max/2*pump.eff.per.dpMax/2/0.7*1.2) else 0))
+ "Rated motor power";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.etaMot_max(max = 1.0) =
+ 0.7 "Maximum motor efficiency";
+ parameter Real pump.eff.per.motorEfficiency_yMot_generic.y[:](min = 0.0)
+ "Part load ratio, y = PEle/PEle_nominal";
+ parameter Modelica.Units.SI.Efficiency pump.eff.per.motorEfficiency_yMot_generic.eta
+ [size(pump.eff.per.motorEfficiency_yMot_generic.y, 1)](max = 1.0)
+ "Fan or pump efficiency at these part load ratios";
+ parameter Boolean pump.eff.per.haveWMot_nominal = pump.eff.per.WMot_nominal >
+ 1E-15 "= true, if the rated motor power is provided";
+ parameter Real pump.eff.per.speed_nominal(unit = "1", min = 0.0) = 0
+ "Nominal rotational speed for flow characteristic";
+ parameter Real pump.eff.per.constantSpeed(unit = "1", min = 0.0) = 0
+ "Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant";
+ parameter Real pump.eff.per.speeds[:](unit = "1", min = 0.0) = {0}
+ "Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages";
+ parameter Boolean pump.eff.per.havePressureCurve = sum(pump.eff.per.pressure.V_flow)
+ > 1E-15 and sum(pump.eff.per.pressure.dp) > 1E-15 "= true, if default record values are being used";
+ constant IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable
+ pump.eff.preVar = IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable.
+ Speed "Type of prescribed variable";
+ parameter Boolean pump.eff.computePowerUsingSimilarityLaws = pump.computePowerUsingSimilarityLaws
+ "= true, compute power exactly, using similarity laws. Otherwise approximate.";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.V_flow_nominal =
+ pump.eff.per.pressure.V_flow[pump.eff.nOri] "Nominal volume flow rate, used for homotopy";
+ parameter Modelica.Units.SI.Density pump.eff.rho_default = pump.rho_default
+ "Fluid density at medium default state";
+ parameter Boolean pump.eff.haveVMax = abs(pump.eff.per.pressure.dp[
+ pump.eff.nOri]) < 1E-15 "Flag, true if user specified data that contain V_flow_max";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.V_flow_max = (if
+ pump.eff.per.V_flow_max > 1E-15 then pump.eff.per.V_flow_max else
+ pump.eff.V_flow_nominal) "Maximum volume flow rate, used for smoothing";
+ parameter Integer pump.eff.nOri(min = 1.0) = pump.nOri "Number of data points for pressure curve";
+ constant Boolean pump.eff.preSpe = true "True if speed is a prescribed variable of this block";
+ constant Boolean pump.eff.prePre = false "True if pressure head is a prescribed variable of this block";
+ parameter Real pump.eff.etaDer[size(pump.eff.per.efficiency.V_flow, 1)] = (if
+ not (pump.eff.per.etaHydMet == IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ Efficiency_VolumeFlowRate) then zeros(size(pump.eff.per.efficiency.V_flow, 1))
+ else (if size(pump.eff.per.efficiency.V_flow, 1) == 1 then {0} else
+ IBPSA.Utilities.Math.Functions.splineDerivatives(pump.eff.per.efficiency.V_flow,
+ pump.eff.per.efficiency.eta, IBPSA.Utilities.Math.Functions.isMonotonic(
+ pump.eff.per.efficiency.eta, false)))) "Coefficients for cubic spline of total or hydraulic efficiency vs. volume flow rate";
+ parameter Real pump.eff.motDer[size(pump.eff.per.motorEfficiency.V_flow, 1)]
+ = (if not (pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_VolumeFlowRate) then zeros(size(pump.eff.per.motorEfficiency.V_flow,
+ 1)) else (if size(pump.eff.per.motorEfficiency.V_flow, 1) == 1 then {0}
+ else IBPSA.Utilities.Math.Functions.splineDerivatives(pump.eff.per.motorEfficiency.V_flow,
+ pump.eff.per.motorEfficiency.eta, IBPSA.Utilities.Math.Functions.isMonotonic
+ (pump.eff.per.motorEfficiency.eta, false)))) "Coefficients for cubic spline of motor efficiency vs. volume flow rate";
+ parameter Real pump.eff.motDer_yMot[size(pump.eff.per.motorEfficiency_yMot.y, 1)]
+ = (if not (pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_MotorPartLoadRatio) then zeros(size(pump.eff.per.motorEfficiency_yMot.y,
+ 1)) else (if size(pump.eff.per.motorEfficiency_yMot.y, 1) == 1 then {0}
+ else IBPSA.Utilities.Math.Functions.splineDerivatives(pump.eff.per.motorEfficiency_yMot.y,
+ pump.eff.per.motorEfficiency_yMot.eta, IBPSA.Utilities.Math.Functions.isMonotonic
+ (pump.eff.per.motorEfficiency_yMot.eta, false)))) "Coefficients for cubic spline of motor efficiency vs. motor PLR";
+ parameter Real pump.eff.motDer_yMot_generic[9] = (if pump.eff.per.etaMotMet
+ == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.GenericCurve
+ or pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ NotProvided and pump.eff.per.haveWMot_nominal then IBPSA.Utilities.Math.Functions.splineDerivatives
+ (pump.eff.per.motorEfficiency_yMot_generic.y, pump.eff.per.motorEfficiency_yMot_generic.eta,
+ true) else zeros(9)) "Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.dpMax(displayUnit =
+ "Pa") = pump.eff.per.dpMax "Maximum head";
+ parameter Real pump.eff.delta = 0.05 "Small value used to for regularization and to approximate an internal flow resistance of the fan";
+ parameter Real pump.eff.kRes(unit = "kg/(s.m4)", min = 0.0) = pump.eff.dpMax/
+ pump.eff.V_flow_max*pump.eff.delta^2/10 "Coefficient for internal pressure drop of the fan or pump";
+ parameter Integer pump.eff.curve = (if pump.eff.haveVMax and pump.eff.haveDPMax
+ or pump.eff.nOri == 2 then 1 else (if pump.eff.haveVMax or pump.eff.haveDPMax
+ then 2 else 3)) "Flag, used to pick the right representation of the fan or pump's pressure curve";
+ parameter Integer pump.eff.pCur1.n = pump.eff.nOri "Number of elements in each array";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.pCur1.V_flow[
+ pump.eff.pCur1.n](min = 0.0) = (if pump.eff.haveVMax and pump.eff.haveDPMax
+ or pump.eff.nOri == 2 then (array(pump.eff.per.pressure.V_flow[i] for i in 1
+ :pump.eff.nOri)) else zeros(pump.eff.nOri)) "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.pCur1.dp[
+ pump.eff.pCur1.n](displayUnit = "Pa", min = 0.0) = (if pump.eff.haveVMax
+ and pump.eff.haveDPMax or pump.eff.nOri == 2 then (array(pump.eff.per.pressure.dp
+ [i]+pump.eff.per.pressure.V_flow[i]*pump.eff.kRes for i in 1:pump.eff.nOri))
+ else zeros(pump.eff.nOri)) "Fan or pump total pressure at these flow rates";
+ parameter Integer pump.eff.pCur2.n = pump.eff.nOri+1 "Number of elements in each array";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.pCur2.V_flow[
+ pump.eff.pCur2.n](min = 0.0) = (if pump.eff.haveVMax and pump.eff.haveDPMax
+ or pump.eff.nOri == 2 then zeros(pump.eff.nOri+1) else (if pump.eff.haveVMax
+ then cat(1, {0}, array(pump.eff.per.pressure.V_flow[i] for i in 1:
+ pump.eff.nOri)) else (if pump.eff.haveDPMax then cat(1, array(
+ pump.eff.per.pressure.V_flow[i] for i in 1:pump.eff.nOri), {pump.eff.V_flow_max})
+ else zeros(pump.eff.nOri+1)))) "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.pCur2.dp[
+ pump.eff.pCur2.n](displayUnit = "Pa", min = 0.0) = (if pump.eff.haveVMax
+ and pump.eff.haveDPMax or pump.eff.nOri == 2 then zeros(pump.eff.nOri+1)
+ else (if pump.eff.haveVMax then cat(1, {pump.eff.dpMax}, array(
+ pump.eff.per.pressure.dp[i]+pump.eff.per.pressure.V_flow[i]*pump.eff.kRes
+ for i in 1:pump.eff.nOri)) else (if pump.eff.haveDPMax then cat(1, array(
+ pump.eff.per.pressure.dp[i]+pump.eff.per.pressure.V_flow[i]*pump.eff.kRes
+ for i in 1:pump.eff.nOri), {0}) else zeros(pump.eff.nOri+1))))
+ "Fan or pump total pressure at these flow rates";
+ parameter Integer pump.eff.pCur3.n = pump.eff.nOri+2 "Number of elements in each array";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.pCur3.V_flow[
+ pump.eff.pCur3.n](min = 0.0) = (if pump.eff.haveVMax and pump.eff.haveDPMax
+ or pump.eff.nOri == 2 then zeros(pump.eff.nOri+2) else (if pump.eff.haveVMax
+ or pump.eff.haveDPMax then zeros(pump.eff.nOri+2) else cat(1, {0}, array(
+ pump.eff.per.pressure.V_flow[i] for i in 1:pump.eff.nOri), {pump.eff.V_flow_max})))
+ "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.PressureDifference pump.eff.pCur3.dp[
+ pump.eff.pCur3.n](displayUnit = "Pa", min = 0.0) = (if pump.eff.haveVMax
+ and pump.eff.haveDPMax or pump.eff.nOri == 2 then zeros(pump.eff.nOri+2)
+ else (if pump.eff.haveVMax or pump.eff.haveDPMax then zeros(pump.eff.nOri+2)
+ else cat(1, {pump.eff.dpMax}, array(pump.eff.per.pressure.dp[i]+
+ pump.eff.per.pressure.V_flow[i]*pump.eff.kRes for i in 1:pump.eff.nOri), {0})))
+ "Fan or pump total pressure at these flow rates";
+ parameter Real pump.eff.preDer1[pump.eff.nOri](fixed = false) "Derivatives of flow rate vs. pressure at the support points";
+ parameter Real pump.eff.preDer2[pump.eff.nOri+1](fixed = false)
+ "Derivatives of flow rate vs. pressure at the support points";
+ parameter Real pump.eff.preDer3[pump.eff.nOri+2](fixed = false)
+ "Derivatives of flow rate vs. pressure at the support points";
+ parameter Real pump.eff.powDer[size(pump.eff.per.power.V_flow, 1)] = (if
+ pump.eff.per.etaHydMet == IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ Power_VolumeFlowRate then IBPSA.Utilities.Math.Functions.splineDerivatives(
+ pump.eff.per.power.V_flow, pump.eff.per.power.P, IBPSA.Utilities.Math.Functions.isMonotonic
+ (pump.eff.per.power.P, false)) else zeros(size(pump.eff.per.power.V_flow, 1)))
+ "Coefficients for polynomial of power vs. flow rate";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.powEu_internal.V_flow[11](
+ min = 0.0) "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Power pump.eff.powEu_internal.P[11](min = 0.0)
+ "Fan or pump electrical power at these flow rates";
+ parameter Real pump.eff.powEu_internal.d[11](unit = "J/m3") "Derivative of power with respect to volume flow rate";
+ parameter Modelica.Units.SI.VolumeFlowRate pump.eff.powEu.V_flow[:](min = 0.0)
+ = pump.eff.powEu_internal.V_flow "Volume flow rate at user-selected operating points";
+ parameter Modelica.Units.SI.Power pump.eff.powEu.P[size(pump.eff.powEu.V_flow,
+ 1)](min = 0.0) = pump.eff.powEu_internal.P "Fan or pump electrical power at these flow rates";
+ parameter Real pump.eff.powEuDer[:] = pump.eff.powEu_internal.d
+ "Power derivative with respect to volumetric flow rate computed from Euler number";
+ parameter Boolean pump.eff.haveMinimumDecrease = (if pump.eff.nOri < 2 then
+ false else Modelica.Math.BooleanVectors.allTrue(array((pump.eff.per.pressure.dp
+ [i+1]-pump.eff.per.pressure.dp[i])/(pump.eff.per.pressure.V_flow[i+1]-
+ pump.eff.per.pressure.V_flow[i]) < -pump.eff.kRes for i in 1:pump.eff.nOri-1)))
+ "Flag used for reporting";
+ parameter Boolean pump.eff.haveDPMax = abs(pump.eff.per.pressure.V_flow[1]) <
+ 1E-15 "Flag, true if user specified data that contain dpMax";
+ parameter Real pump.eff.deltaP = 0.0001*pump.eff.V_flow_max*pump.eff.dpMax
+ "Small value for regularisation of power";
+ parameter Real pump.y_start(unit = "1", min = 0.0, max = 1.0) = 1
+ "Initial value of speed";
+ parameter Real pump.gain.k(start = 1, unit = "1") = -1 "Gain value multiplied with input signal";
+ parameter Modelica.Units.SI.MassFlowRate pump.m_flow_nominal(min = 1E-60) =
+ m_flow_design[1] "Nominal mass flow rate for configuration of pressure curve";
+ parameter Modelica.Units.SI.PressureDifference pump.dp_nominal(min = 1E-60) =
+ dpDem_nominal[1]+dp_nominal[1] "Nominal pressure head for configuration of pressure curve";
+ parameter Real TSoil.k(start = 1) = TSoilConst "Constant output value";
+ constant Boolean KPIQHP.use_inpCon = true "= false to use an internal variable as input";
+ parameter Real KPIQHP.integrator2.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIQHP.integrator2.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIQHP.integrator2.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIQHP.integrator2.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIQHP.integrator2.y_start = 1E-15 "Initial or guess value of output (= state)";
+ constant Integer bouPum.nPorts = 1 "Number of ports";
+ constant Boolean bouPum.verifyInputs = false "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range";
+ constant Modelica.Fluid.Types.PortFlowDirection bouPum.flowDirection =
+ Modelica.Fluid.Types.PortFlowDirection.Bidirectional "Allowed flow direction";
+ constant Boolean bouPum.use_X_in = false "Get the composition (all fractions) from the input connector";
+ constant Boolean bouPum.use_Xi_in = false "Get the composition (independent fractions) from the input connector";
+ constant Boolean bouPum.use_C_in = false "Get the trace substances from the input connector";
+ parameter Modelica.Media.Interfaces.Types.MassFraction bouPum.X[1] = {1.0}
+ "Fixed value of composition";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty bouPum.C[0](start =
+ fill(1.0, size(bouPum.C, 1))) = fill(0, 0) "Fixed values of trace substances";
+ constant Boolean bouPum.use_p_in = false "Get the pressure from the input connector";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure bouPum.p = p_start
+ "Fixed value of pressure";
+ constant Boolean bouPum.use_T_in = false "Get the temperature from the input connector";
+ parameter Modelica.Media.Interfaces.Types.Temperature bouPum.T = T_start
+ "Fixed value of temperature";
+ constant Boolean bouPum.checkWaterPressure = false "Evaluates to true if the pressure should be checked";
+ constant Boolean bouPum.checkAirPressure = false "Evaluates to true if the pressure should be checked";
+ constant Boolean senTGenOut.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate senTGenOut.m_flow_nominal(min = 0.0)
+ = m_flow_nominal[1] "Nominal mass flow rate, used for regularization near zero flow";
+ parameter Modelica.Units.SI.MassFlowRate senTGenOut.m_flow_small(min = 0.0) =
+ 0.0001*senTGenOut.m_flow_nominal "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required)";
+ parameter Modelica.Units.SI.Time senTGenOut.tau(min = 0.0) = parTemSen.tau
+ "Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems)";
+ parameter Modelica.Blocks.Types.Init senTGenOut.initType = parTemSen.initType
+ "Type of initialization (InitialState and InitialOutput are identical)";
+ parameter Boolean senTGenOut.dynamic = senTGenOut.tau > 1E-10 or
+ senTGenOut.tau < -1E-10 "Flag, true if the sensor is a dynamic sensor";
+ parameter Real senTGenOut.tauInv(unit = "s-1") = (if senTGenOut.dynamic then 1
+ /senTGenOut.tau else 0) "Inverse of tau";
+ parameter Modelica.Units.SI.Temperature senTGenOut.T_start = T_start
+ "Initial or guess value of output (= state)";
+ parameter Boolean senTGenOut.transferHeat = parTemSen.transferHeat
+ "if true, temperature T converges towards TAmb when no flow";
+ parameter Modelica.Units.SI.Temperature senTGenOut.TAmb = parTemSen.TAmb
+ "Fixed ambient temperature for heat transfer";
+ parameter Modelica.Units.SI.Time senTGenOut.tauHeaTra(min = 1.0) =
+ parTemSen.tauHeaTra "Time constant for heat transfer, default 20 minutes";
+ parameter Real senTGenOut.tauHeaTraInv(unit = "1/s") = (if senTGenOut.tauHeaTra
+ < 1E-10 then 0 else 1/senTGenOut.tauHeaTra) "Dummy parameter to avoid division by tauHeaTra";
+ parameter Real senTGenOut.ratTau = (if senTGenOut.dynamic then
+ senTGenOut.tauHeaTra/senTGenOut.tau else 1) "Ratio of tau";
+ constant Boolean realToElecCon.use_souLoa = true "= true if real interface for electrical load is activated";
+ constant Boolean realToElecCon.use_souGen = false "= true if real interface for electrical generation is activated";
+ parameter Real realToElecCon.NoFlowGen.k(start = 1) = 0 "Constant output value";
+ parameter Integer multiSum.significantDigits(min = 1.0) = 3 "Number of significant digits to be shown in dynamic diagram layer for y";
+ parameter Integer multiSum.nu(min = 0.0) = (if use_eleHea then 3 else 2)
+ "Number of input connections";
+ parameter Real multiSum.k[multiSum.nu] = fill(1, multiSum.nu) "Input gains";
+ constant Boolean KPIHeaPum.use_reaInp = false "=true to use a real input";
+ parameter Real KPIHeaPum.thrOn = 1E-13 "If uRea is greater or equal to this treshhold the device is on";
+ parameter Real KPIHeaPum.thrOff = 1E-15 "If uRea is lower or equal to this treshhold, the device is off";
+ constant Boolean KPIHeaPum.calc_singleOnTime = true "True to calc singleOnTime";
+ constant Boolean KPIHeaPum.calc_totalOnTime = true "True to calc totalOnTime";
+ constant Boolean KPIHeaPum.calc_numSwi = true "True to calc number of device on-switches";
+ parameter Real KPIHeaPum.const.k(start = 1) = 1 "Constant output value";
+ parameter Real KPIHeaPum.const1.k(start = 1) = 0 "Constant output value";
+ parameter Real KPIHeaPum.integrator3.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIHeaPum.integrator3.use_reset = true "= true, if reset port enabled";
+ constant Boolean KPIHeaPum.integrator3.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIHeaPum.integrator3.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIHeaPum.integrator3.y_start = 0 "Initial or guess value of output (= state)";
+ parameter Integer KPIHeaPum.integerConstant.k(start = 1) = 1 "Constant output value";
+ constant Boolean KPIHeaPum.triggeredAdd.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIHeaPum.triggeredAdd.use_set = false "= true, if set port enabled and used as default value when reset";
+ parameter Integer KPIHeaPum.triggeredAdd.y_start = 0 "Initial and reset value of y if set port is not used";
+ parameter Real KPIHeaPum.integrator1.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIHeaPum.integrator1.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIHeaPum.integrator1.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIHeaPum.integrator1.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIHeaPum.integrator1.y_start = 0 "Initial or guess value of output (= state)";
+ parameter Real parEleHea.eta "Electric heater efficiency";
+ parameter Modelica.Units.SI.Volume parEleHea.V_hr "Volume to model thermal inertia of water";
+ parameter Modelica.Units.SI.PressureDifference parEleHea.dp_nominal
+ "Pressure difference";
+ parameter Integer parEleHea.discretizationSteps(min = 0.0) "Number of steps to dicretize. =0 modulating, =1 resembels an on-off controller. =2 would sample 0, 0.5 and 1";
+ constant Boolean use_eleHea = true "=false to disable the electric heater";
+ constant Boolean eleHea.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.m_flow_nominal =
+ m_flow_design[1] "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.m_flow_small(min = 0.0) =
+ 0.0001*abs(m_flow_design[1]) "Small mass flow rate for regularization of zero flow";
+ constant Boolean eleHea.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate eleHea._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference eleHea._dp_start(displayUnit =
+ "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ parameter Boolean eleHea.computeFlowResistance = true "=true, compute flow resistance. Set to false to assume no friction";
+ parameter Boolean eleHea.from_dp = false "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Modelica.Units.SI.PressureDifference eleHea.dp_nominal(
+ displayUnit = "Pa", min = 0.0) = parEleHea.dp_nominal "Pressure difference";
+ parameter Boolean eleHea.linearizeFlowResistance = false "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Real eleHea.deltaM = 0.1 "Fraction of nominal flow rate where flow transitions to laminar";
+ constant Boolean eleHea.homotopyInitialization = true "= true, use homotopy method";
+ parameter Modelica.Units.SI.Time eleHea.tau = 30 "Time constant at nominal flow (if energyDynamics <> SteadyState)";
+ constant Modelica.Fluid.Types.Dynamics eleHea.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.p_start =
+ p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature eleHea.T_start = T_start
+ "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction eleHea.X_start[1] = {
+ 1.0} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty eleHea.C_start[0](
+ start = fill(1.0, size(eleHea.C_start, 1))) = fill(0, 0) "Start value of trace substances";
+ constant Modelica.Fluid.Types.Dynamics eleHea.vol.energyDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics eleHea.vol.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ constant Modelica.Fluid.Types.Dynamics eleHea.vol.substanceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics eleHea.vol.traceDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.vol.p_start
+ = eleHea.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature eleHea.vol.T_start =
+ eleHea.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.X_start[1]
+ = {eleHea.X_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.C_start[0](
+ start = fill(1.0, size(eleHea.vol.C_start, 1))) = eleHea.C_start
+ "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.C_nominal[0]
+ = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real eleHea.vol.mSenFac(min = 1.0) = 1 "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean eleHea.vol.wrongEnergyMassBalanceConfiguration = not (
+ eleHea.vol.energyDynamics <> Modelica.Fluid.Types.Dynamics.SteadyState or
+ eleHea.vol.massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState)
+ "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean eleHea.vol.initialize_p = not _GlobalScope.singleState
+ "= true to set up initial equations for pressure";
+ constant Boolean eleHea.vol.prescribedHeatFlowRate = true "Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false";
+ constant Boolean eleHea.vol.simplify_mWat_flow = true "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.vol.m_flow_nominal(min = 0.0)
+ = eleHea.m_flow_nominal "Nominal mass flow rate";
+ constant Integer eleHea.vol.nPorts = 2 "Number of ports";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.vol.m_flow_small(min = 0.0) =
+ eleHea.m_flow_small "Small mass flow rate for regularization of zero flow";
+ parameter Boolean eleHea.vol.allowFlowReversal = eleHea.allowFlowReversal
+ "= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports.";
+ parameter Modelica.Units.SI.Volume eleHea.vol.V = eleHea.V "Volume";
+ parameter Modelica.Units.SI.Density eleHea.vol.rho_start = density_Unique1(
+ eleHea.vol.state_start) "Density, used to compute start and guess values";
+ parameter Modelica.Units.SI.Density eleHea.vol.rho_default = density_Unique1(
+ eleHea.vol.state_default) "Density, used to compute fluid mass";
+ constant Boolean eleHea.vol.useSteadyStateTwoPort = false "Flag, true if the model has two ports only and uses a steady state balance";
+ constant Boolean eleHea.vol.use_C_flow = false "Set to true to enable input connector for trace substance";
+ parameter Modelica.Fluid.Types.Dynamics eleHea.vol.dynBal.energyDynamics =
+ eleHea.vol.energyDynamics "Type of energy balance: dynamic (3 initialization options) or steady state";
+ constant Modelica.Fluid.Types.Dynamics eleHea.vol.dynBal.massDynamics =
+ Modelica.Fluid.Types.Dynamics.DynamicFreeInitial "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state";
+ parameter Modelica.Fluid.Types.Dynamics eleHea.vol.dynBal.substanceDynamics =
+ eleHea.vol.dynBal.energyDynamics "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Fluid.Types.Dynamics eleHea.vol.dynBal.traceDynamics =
+ eleHea.vol.dynBal.energyDynamics "Type of trace substance balance: dynamic (3 initialization options) or steady state";
+ parameter Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.vol.dynBal.p_start
+ = eleHea.vol.p_start "Start value of pressure";
+ parameter Modelica.Media.Interfaces.Types.Temperature eleHea.vol.dynBal.T_start
+ = eleHea.vol.T_start "Start value of temperature";
+ parameter Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.dynBal.X_start
+ [1] = {eleHea.vol.X_start[1]} "Start value of mass fractions m_i/m";
+ parameter Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.dynBal.C_start
+ [0](start = fill(1.0, size(eleHea.vol.dynBal.C_start, 1))) =
+ eleHea.vol.C_start "Start value of trace substances";
+ constant Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.dynBal.C_nominal
+ [0] = {} "Nominal value of trace substances. (Set to typical order of magnitude.)";
+ parameter Real eleHea.vol.dynBal.mSenFac(min = 1.0) = eleHea.vol.mSenFac
+ "Factor for scaling the sensible thermal mass of the volume";
+ parameter Boolean eleHea.vol.dynBal.wrongEnergyMassBalanceConfiguration =
+ not (eleHea.vol.dynBal.energyDynamics <> Modelica.Fluid.Types.Dynamics.
+ SteadyState or eleHea.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) "True if configuration of energy and mass balance is wrong.";
+ parameter Boolean eleHea.vol.dynBal.initialize_p = eleHea.vol.initialize_p
+ "= true to set up initial equations for pressure";
+ constant Boolean eleHea.vol.dynBal.simplify_mWat_flow = eleHea.vol.simplify_mWat_flow
+ "Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1";
+ constant Integer eleHea.vol.dynBal.nPorts = 2 "Number of ports";
+ constant Boolean eleHea.vol.dynBal.use_mWat_flow = false "Set to true to enable input connector for moisture mass flow rate";
+ constant Boolean eleHea.vol.dynBal.use_C_flow = false "Set to true to enable input connector for trace substance";
+ constant Boolean eleHea.vol.dynBal.medium.preferredMediumStates = false
+ "= true if StateSelect.prefer shall be used for the independent property variables of the medium";
+ parameter Boolean eleHea.vol.dynBal.medium.standardOrderComponents = true
+ "If true, and reducedX = true, the last element of X will be computed from the other ones";
+ parameter Modelica.Units.SI.Volume eleHea.vol.dynBal.fluidVolume =
+ eleHea.vol.V "Volume";
+ parameter Modelica.Units.SI.HeatCapacity eleHea.vol.dynBal.CSen = (
+ eleHea.vol.dynBal.mSenFac-1)*eleHea.vol.dynBal.rho_default*eleHea.vol.dynBal.cp_default
+ *eleHea.vol.dynBal.fluidVolume "Aditional heat capacity for implementing mFactor";
+ parameter Modelica.Units.SI.SpecificHeatCapacity eleHea.vol.dynBal.cp_default
+ = specificHeatCapacityCp_Unique2(
+ eleHea.vol.dynBal.state_default) "Heat capacity, to compute additional dry mass";
+ parameter Modelica.Units.SI.Density eleHea.vol.dynBal.rho_start =
+ density_Unique1(
+ setState_pTX_Unique3(eleHea.vol.dynBal.p_start, eleHea.vol.dynBal.T_start,
+ eleHea.vol.dynBal.X_start[1:0])) "Density, used to compute fluid mass";
+ parameter Boolean eleHea.vol.dynBal.computeCSen = abs(eleHea.vol.dynBal.mSenFac
+ -1) > 1E-15;
+ parameter Modelica.Units.SI.Density eleHea.vol.dynBal.rho_default =
+ density_Unique1(
+ eleHea.vol.dynBal.state_default) "Density, used to compute fluid mass";
+ parameter Real eleHea.vol.dynBal.s[0] = array((if Modelica.Utilities.Strings.isEqual
+ (({"unusablePartialMedium"})[i], "Water", false) then 1 else 0) for i in 1:0)
+ "Vector with zero everywhere except where species is";
+ parameter Modelica.Units.SI.SpecificEnthalpy eleHea.vol.dynBal.hStart =
+ specificEnthalpy_pTX_Unique4(eleHea.vol.dynBal.p_start, eleHea.vol.dynBal.T_start,
+ eleHea.vol.dynBal.X_start) "Start value for specific enthalpy";
+ constant Boolean eleHea.vol.dynBal._simplify_mWat_flow = eleHea.vol.dynBal.simplify_mWat_flow
+ and false "If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified";
+ constant Boolean eleHea.preDro.allowFlowReversal = true "= false to simplify equations, assuming, but not enforcing, no flow reversal";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.preDro.m_flow_nominal =
+ eleHea.m_flow_nominal "Nominal mass flow rate";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.preDro.m_flow_small(min = 0.0)
+ = 0.0001*abs(eleHea.preDro.m_flow_nominal) "Small mass flow rate for regularization of zero flow";
+ constant Boolean eleHea.preDro.show_T = false "= true, if actual temperature at port is computed";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.preDro._m_flow_start = 0
+ "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window";
+ parameter Modelica.Units.SI.PressureDifference eleHea.preDro._dp_start(
+ displayUnit = "Pa") = 0 "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window";
+ constant Boolean eleHea.preDro.homotopyInitialization = eleHea.homotopyInitialization
+ "= true, use homotopy method";
+ parameter Boolean eleHea.preDro.from_dp = eleHea.from_dp "= true, use m_flow = f(dp) else dp = f(m_flow)";
+ parameter Modelica.Units.SI.PressureDifference eleHea.preDro.dp_nominal(
+ displayUnit = "Pa") = eleHea.dp_nominal "Pressure drop at nominal mass flow rate";
+ parameter Boolean eleHea.preDro.linearized = eleHea.linearizeFlowResistance
+ "= true, use linear relation between m_flow and dp for any flow rate";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.preDro.m_flow_turbulent(min =
+ 0.0) = (if eleHea.preDro.computeFlowResistance then eleHea.preDro.deltaM*
+ eleHea.preDro.m_flow_nominal_pos else 0) "Turbulent flow if |m_flow| >= m_flow_turbulent";
+ parameter Modelica.Units.SI.DynamicViscosity eleHea.preDro.eta_default =
+ dynamicViscosity_Unique18(
+ eleHea.preDro.sta_default) "Dynamic viscosity, used to compute transition to turbulent flow regime";
+ parameter Modelica.Units.SI.MassFlowRate eleHea.preDro.m_flow_nominal_pos =
+ abs(eleHea.preDro.m_flow_nominal) "Absolute value of nominal flow rate";
+ parameter Modelica.Units.SI.PressureDifference eleHea.preDro.dp_nominal_pos(
+ displayUnit = "Pa") = abs(eleHea.preDro.dp_nominal) "Absolute value of nominal pressure difference";
+ parameter Real eleHea.preDro.deltaM(min = 1E-06) = eleHea.deltaM
+ "Fraction of nominal mass flow rate where transition to turbulent occurs";
+ parameter Real eleHea.preDro.k = (if eleHea.preDro.computeFlowResistance then
+ eleHea.preDro.m_flow_nominal_pos/sqrt(eleHea.preDro.dp_nominal_pos) else 0)
+ "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)";
+ parameter Boolean eleHea.preDro.computeFlowResistance = eleHea.preDro.dp_nominal_pos
+ > 1E-15 "Flag to enable/disable computation of flow resistance";
+ parameter Real eleHea.preDro.coeff = (if eleHea.preDro.linearized and
+ eleHea.preDro.computeFlowResistance then (if eleHea.preDro.from_dp then
+ eleHea.preDro.k^2/eleHea.preDro.m_flow_nominal_pos else eleHea.preDro.m_flow_nominal_pos
+ /eleHea.preDro.k^2) else 0) "Precomputed coefficient to avoid division by parameter";
+ parameter Modelica.Units.SI.Density eleHea.rho_default = density_Unique1(
+ eleHea.sta_default) "Density, used to compute fluid volume";
+ parameter Modelica.Units.SI.SpecificEnthalpy eleHea.h_outflow_start =
+ specificEnthalpy_Unique5(
+ eleHea.sta_start) "Start value for outflowing enthalpy";
+ parameter Modelica.Units.SI.HeatFlowRate eleHea.Q_flow_nominal =
+ QSec_flow_nominal "Heat flow rate at u=1, positive for heating";
+ parameter Modelica.Units.SI.Volume eleHea.V = parEleHea.V_hr "Volume of heat exchanger";
+ parameter Real eleHea.eta = parEleHea.eta "Efficiency of the heating rod";
+ constant Boolean eleHea.use_countNumSwi = false "Turn the counting of the number of heating rod uses on or off.";
+ parameter Real eleHea.gai_eta.k(start = 1, unit = "1") = 1/eleHea.eta
+ "Gain value multiplied with input signal";
+ parameter Modelica.Units.SI.Temperature eleHea.preHea.T_ref = 293.15
+ "Reference temperature";
+ parameter Modelica.Units.SI.LinearTemperatureCoefficient eleHea.preHea.alpha
+ = 0 "Temperature coefficient of heat flow rate";
+ parameter Real eleHea.gai.k(start = 1, unit = "1") = eleHea.Q_flow_nominal
+ "Gain value multiplied with input signal";
+ constant Boolean KPIEleHea.use_reaInp = true "=true to use a real input";
+ parameter Real KPIEleHea.thrOn = 1E-13 "If uRea is greater or equal to this treshhold the device is on";
+ parameter Real KPIEleHea.thrOff = 1E-15 "If uRea is lower or equal to this treshhold, the device is off";
+ constant Boolean KPIEleHea.calc_singleOnTime = true "True to calc singleOnTime";
+ constant Boolean KPIEleHea.calc_totalOnTime = true "True to calc totalOnTime";
+ constant Boolean KPIEleHea.calc_numSwi = true "True to calc number of device on-switches";
+ parameter Real KPIEleHea.isOn.uLow(start = 0) = KPIEleHea.thrOff
+ "If y=true and u<uLow, switch to y=false";
+ parameter Real KPIEleHea.isOn.uHigh(start = 1) = KPIEleHea.thrOn
+ "If y=false and u>uHigh, switch to y=true";
+ parameter Boolean KPIEleHea.isOn.pre_y_start = false "Value of pre(y) at initial time";
+ parameter Real KPIEleHea.const.k(start = 1) = 1 "Constant output value";
+ parameter Real KPIEleHea.const1.k(start = 1) = 0 "Constant output value";
+ parameter Real KPIEleHea.integrator3.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIEleHea.integrator3.use_reset = true "= true, if reset port enabled";
+ constant Boolean KPIEleHea.integrator3.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIEleHea.integrator3.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIEleHea.integrator3.y_start = 0 "Initial or guess value of output (= state)";
+ parameter Integer KPIEleHea.integerConstant.k(start = 1) = 1 "Constant output value";
+ constant Boolean KPIEleHea.triggeredAdd.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIEleHea.triggeredAdd.use_set = false "= true, if set port enabled and used as default value when reset";
+ parameter Integer KPIEleHea.triggeredAdd.y_start = 0 "Initial and reset value of y if set port is not used";
+ parameter Real KPIEleHea.integrator1.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIEleHea.integrator1.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIEleHea.integrator1.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIEleHea.integrator1.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIEleHea.integrator1.y_start = 0 "Initial or guess value of output (= state)";
+ constant Boolean KPIQEleHea_flow.use_inpCon = false "= false to use an internal variable as input";
+ parameter Real KPIQEleHea_flow.integrator2.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIQEleHea_flow.integrator2.use_reset = false
+ "= true, if reset port enabled";
+ constant Boolean KPIQEleHea_flow.integrator2.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIQEleHea_flow.integrator2.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIQEleHea_flow.integrator2.y_start = 1E-15 "Initial or guess value of output (= state)";
+ constant Boolean KPIPEleEleHea.use_inpCon = false "= false to use an internal variable as input";
+ parameter Real KPIPEleEleHea.integrator2.k(unit = "1") = 1 "Integrator gain";
+ constant Boolean KPIPEleEleHea.integrator2.use_reset = false "= true, if reset port enabled";
+ constant Boolean KPIPEleEleHea.integrator2.use_set = false "= true, if set port enabled and used as reinitialization value when reset";
+ parameter Modelica.Blocks.Types.Init KPIPEleEleHea.integrator2.initType =
+ Modelica.Blocks.Types.Init.InitialState "Type of initialization (1: no init, 2: steady state, 3,4: initial output)";
+ parameter Real KPIPEleEleHea.integrator2.y_start = 1E-15 "Initial or guess value of output (= state)";
+ parameter Modelica.Units.SI.PressureDifference dpEleHea_nominal = (if
+ use_eleHea then parEleHea.dp_nominal else 0) "Possible electric heater nominal pressure drop";
+ constant Boolean _GlobalScope.singleState "= true, if u and d are not a function of pressure";
+
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate portGen_out[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure portGen_out[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy portGen_out[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction portGen_out[1].Xi_outflow[0]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty portGen_out[1].C_outflow[0](
+ start = fill(1.0, size(portGen_out[1].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate portGen_in[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure portGen_in[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy portGen_in[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction portGen_in[1].Xi_outflow[0]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty portGen_in[1].C_outflow[0](
+ start = fill(1.0, size(portGen_in[1].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.Temperature weaBus.TDryBul(start = 293.15) "Dry bulb temperature";
+ Modelica.Units.SI.Temperature weaBus.TWetBul(start = 293.15) "Wet bulb temperature";
+ Modelica.Units.SI.Temperature weaBus.TDewPoi "Dew point temperature";
+ Modelica.Units.SI.Temperature weaBus.TBlaSky "Black-body sky temperature";
+ Real weaBus.relHum(unit = "1") "Relative humidity";
+ Real weaBus.HDirNor(unit = "W/m2") "Direct normal solar irradiation";
+ Real weaBus.HGloHor(unit = "W/m2") "Global horizontal solar irradiation";
+ Real weaBus.HDifHor(unit = "W/m2") "Diffuse horizontal solar irradiation";
+ Real weaBus.HHorIR(unit = "W/m2") "Horizontal infrared irradiation";
+ Modelica.Units.SI.Angle weaBus.winDir "Wind direction";
+ Modelica.Units.SI.Velocity weaBus.winSpe "Wind speed";
+ Modelica.Units.SI.Height weaBus.ceiHei "Cloud cover ceiling height";
+ Real weaBus.nOpa(unit = "1") "Opaque sky cover";
+ Real weaBus.nTot(unit = "1") "Total sky cover";
+ Modelica.Units.SI.Angle weaBus.lat "Latitude of the location";
+ Modelica.Units.SI.Angle weaBus.lon "Longitude of the location";
+ Modelica.Units.SI.Height weaBus.alt "Location altitude above sea level";
+ Modelica.Units.SI.AbsolutePressure weaBus.pAtm "Atmospheric pressure";
+ Modelica.Units.SI.Angle weaBus.solAlt "Solar altitude angle";
+ Modelica.Units.SI.Angle weaBus.solDec "Solar declination angle";
+ Modelica.Units.SI.Angle weaBus.solHouAng "Solar hour angle";
+ Modelica.Units.SI.Angle weaBus.solZen "Solar zenith angle";
+ Modelica.Units.SI.Time weaBus.solTim "Solar time";
+ Modelica.Units.SI.Time weaBus.cloTim "Model time";
+ output Modelica.Units.SI.Power internalElectricalPin.PElecLoa "Electrical power flow; positive = power consumption; negative = power generation";
+ output Modelica.Units.SI.Power internalElectricalPin.PElecGen "Electrical power flow; positive = power generation; negative = power consumption";
+ Modelica.Blocks.Interfaces.BooleanOutput defCtrl.hea "Heating mode for heat pump";
+ Modelica.Blocks.Interfaces.BooleanOutput defCtrl.booCon.y "Connector of Boolean output signal";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.port_a1.m_flow(
+ min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.port_a1.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.port_a1.h_outflow(
+ start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.port_a1.Xi_outflow[0]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.port_a1.C_outflow[0](
+ start = fill(1.0, size(heatPump.port_a1.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.port_b1.m_flow(
+ max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.port_b1.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.port_b1.h_outflow(
+ start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.port_b1.Xi_outflow[0]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.port_b1.C_outflow[0](
+ start = fill(1.0, size(heatPump.port_b1.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.port_a2.m_flow(
+ min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.port_a2.p(start = 101325)
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.port_a2.h_outflow(
+ start = 45300.945, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.port_a2.Xi_outflow[1]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.port_a2.C_outflow[0](
+ start = fill(1.0, size(heatPump.port_a2.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.port_b2.m_flow(
+ max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.port_b2.p(start = 101325)
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.port_b2.h_outflow(
+ start = 45300.945, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.port_b2.Xi_outflow[1]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.port_b2.C_outflow[0](
+ start = fill(1.0, size(heatPump.port_b2.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.m1_flow =
+ heatPump.port_a1.m_flow "Mass flow rate from port_a1 to port_b1 (m1_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference heatPump.dp1(displayUnit = "Pa") =
+ heatPump.port_a1.p-heatPump.port_b1.p "Pressure difference between port_a1 and port_b1";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.m2_flow =
+ heatPump.port_a2.m_flow "Mass flow rate from port_a2 to port_b2 (m2_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference heatPump.dp2(displayUnit = "Pa") =
+ heatPump.port_a2.p-heatPump.port_b2.p "Pressure difference between port_a2 and port_b2";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.state_a2_inflow.p(
+ start = 101325) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.state_a2_inflow.T(
+ start = 293.15) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.state_a2_inflow.X[2](
+ start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.state_b2_inflow.p(
+ start = 101325) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.state_b2_inflow.T(
+ start = 293.15) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.state_b2_inflow.X[2](
+ start = {0.01, 0.99}) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.QCon_flow(unit = "W")
+ "Heat flow rate from the refrigerant to the condenser medium";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.QEva_flow(unit = "W")
+ "Heat flow rate from the evaporator medium to the refrigerant";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.swiQEva.u1(unit = "W")
+ "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.refCyc.swiQEva.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.swiQEva.u3(unit = "W")
+ "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.swiQEva.y(unit = "W")
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.swiQCon.u1(unit = "W")
+ "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.refCyc.swiQCon.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.swiQCon.u3(unit = "W")
+ "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.swiQCon.y(unit = "W")
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.PEle(unit = "W")
+ "Routing block that picks the component for electric power consumption";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.swiPEle.u1(unit = "W")
+ "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.refCyc.swiPEle.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.swiPEle.u3(unit = "W")
+ "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.swiPEle.y(unit = "W")
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.refCyc.pasTrhModSet.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.refCyc.pasTrhModSet.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac
+ (unit = "1", min = 0.0, max = 1.0) "Icing factor from 0 to 1 to estimate influence of icing";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.PEle(
+ unit = "W") "Electrical Power consumed by the device";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.QCon_flow
+ (unit = "W") "Heat flow rate through condenser";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.QEva_flow
+ (unit = "W") "Heat flow rate through evaporator";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumHea.redQCon.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumHea.redQCon.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.redQCon.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumHea.proRedQEva.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumHea.proRedQEva.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.proRedQEva.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u1
+ "Commanded input";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u2
+ "Feedback input";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.y;
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac
+ (unit = "1", min = 0.0, max = 1.0) "Icing factor from 0 to 1 to estimate influence of icing";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.PEle(
+ unit = "W") "Electrical Power consumed by the device";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.QCon_flow
+ (unit = "W") "Heat flow rate through condenser";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.QEva_flow
+ (unit = "W") "Heat flow rate through evaporator";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumCoo.redQCon.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumCoo.redQCon.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.redQCon.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.conPEle.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.y
+ "Connector of Real output signal";
+ Modelica.Units.SI.HeatFlowRate heatPump.Q1_flow = heatPump.QCon_flow
+ "Heat transferred into the medium 1";
+ Modelica.Units.SI.HeatFlowRate heatPump.Q2_flow = heatPump.QEva_flow
+ "Heat transferred into the medium 2";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.port_a.h_outflow
+ (start = heatPump.con.h_outflow_start) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.port_a.Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.port_a.C_outflow[0]
+ (start = fill(1.0, size(heatPump.con.port_a.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.port_b.h_outflow
+ (start = heatPump.con.h_outflow_start) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.port_b.Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.port_b.C_outflow[0]
+ (start = fill(1.0, size(heatPump.con.port_b.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.MassFlowRate heatPump.con.m_flow(start = heatPump.con._m_flow_start)
+ = heatPump.con.port_a.m_flow "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference heatPump.con.dp(start = heatPump.con._dp_start,
+ displayUnit = "Pa") = heatPump.con.port_a.p-heatPump.con.port_b.p
+ "Pressure difference between port_a and port_b";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.vol.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.vol.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.vol.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.ports[1].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.ports[1].C_outflow
+ [0](start = fill(1.0, size(heatPump.con.vol.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.vol.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.vol.ports[2].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.vol.ports[2].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.ports[2].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.ports[2].C_outflow
+ [0](start = fill(1.0, size(heatPump.con.vol.ports[2].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.con.vol.T =
+ temperature_phX_Unique6(heatPump.con.vol.p, heatPump.con.vol.hOut_internal,
+ cat(1, heatPump.con.vol.Xi, {1-sum(heatPump.con.vol.Xi)})) "Temperature of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.U(unit = "J")
+ "Internal energy of the component";
+ Modelica.Units.SI.Pressure heatPump.con.vol.p = (if heatPump.con.vol.nPorts > 0
+ then heatPump.con.vol.ports[1].p else heatPump.con.vol.p_start)
+ "Pressure of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.m(unit = "kg")
+ "Mass of the component";
+ Modelica.Units.SI.MassFraction heatPump.con.vol.Xi[0] = heatPump.con.vol.XiOut_internal
+ "Species concentration of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.mXi[0](unit = "kg")
+ "Species mass of the component";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.C[0](start =
+ fill(1.0, size(heatPump.con.vol.C, 1))) = heatPump.con.vol.COut_internal
+ "Trace substance mixture content";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.mC[0](unit = "kg")
+ "Trace substance mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.hOut_internal(unit =
+ "J/kg") "Internal connector for leaving temperature of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.XiOut_internal[0](
+ unit = "1") "Internal connector for leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.COut_internal[0](
+ unit = "1") "Internal connector for leaving trace substances of the component";
+ Modelica.Units.SI.Temperature heatPump.con.vol.preTem.port.T(start =
+ heatPump.con.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.con.vol.preTem.port.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput heatPump.con.vol.preTem.T(unit = "K");
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.portT.y =
+ heatPump.con.vol.T "Value of Real output";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.heaFloSen.Q_flow(
+ unit = "W") "Heat flow from port_a to port_b as output signal";
+ Modelica.Units.SI.Temperature heatPump.con.vol.heaFloSen.port_a.T(start =
+ heatPump.con.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.con.vol.heaFloSen.port_a.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature heatPump.con.vol.heaFloSen.port_b.T(start =
+ heatPump.con.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.con.vol.heaFloSen.port_b.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature heatPump.con.vol.heatPort.T(start =
+ heatPump.con.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.con.vol.heatPort.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput heatPump.con.vol.dynBal.Q_flow(unit = "W")
+ "Sensible plus latent heat flow rate transferred into the medium";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.hOut(start =
+ heatPump.con.vol.dynBal.hStart, unit = "J/kg") "Leaving specific enthalpy of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.XiOut[0](unit =
+ "1", min = 0.0, max = 1.0) "Leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.COut[0](min =
+ 0.0) "Leaving trace substances of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.UOut(unit = "J")
+ "Internal energy of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.mXiOut[0](
+ unit = "kg", min = 0.0) "Species mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.mOut(unit = "kg",
+ min = 0.0) "Mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.vol.dynBal.mCOut[0](unit =
+ "kg", min = 0.0) "Trace substance mass of the component";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.vol.dynBal.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.vol.dynBal.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.vol.dynBal.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.dynBal.ports[1].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.dynBal.ports[1].C_outflow
+ [0](start = fill(1.0, size(heatPump.con.vol.dynBal.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.vol.dynBal.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.vol.dynBal.ports[2].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.vol.dynBal.ports[2].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.dynBal.ports[2].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.dynBal.ports[2].C_outflow
+ [0](start = fill(1.0, size(heatPump.con.vol.dynBal.ports[2].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputAbsolutePressure
+ heatPump.con.vol.dynBal.medium.p(start = heatPump.con.vol.dynBal.p_start)
+ "Absolute pressure of medium";
+ constant Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputMassFraction
+ heatPump.con.vol.dynBal.medium.Xi[0] = {} "Structurally independent mass fractions";
+ Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputSpecificEnthalpy
+ heatPump.con.vol.dynBal.medium.h(start = heatPump.con.vol.dynBal.hStart)
+ "Specific enthalpy of medium";
+ Modelica.Media.Interfaces.Types.Density heatPump.con.vol.dynBal.medium.d(
+ start = heatPump.con.vol.dynBal.rho_start) "Density of medium";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.con.vol.dynBal.medium.T(
+ start = heatPump.con.vol.dynBal.T_start) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.vol.dynBal.medium.X[1]
+ (start = heatPump.con.vol.dynBal.X_start) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.SpecificInternalEnergy heatPump.con.vol.dynBal.medium.u
+ "Specific internal energy of medium";
+ Modelica.Media.Interfaces.Types.SpecificHeatCapacity heatPump.con.vol.dynBal.medium.R_s
+ "Gas constant (of mixture if applicable)";
+ Modelica.Media.Interfaces.Types.MolarMass heatPump.con.vol.dynBal.medium.MM
+ "Molar mass (of mixture or single fluid)";
+ Modelica.Units.NonSI.Temperature_degC heatPump.con.vol.dynBal.medium.T_degC =
+ Modelica.Units.Conversions.to_degC(heatPump.con.vol.dynBal.medium.T)
+ "Temperature of medium in [degC]";
+ Modelica.Units.NonSI.Pressure_bar heatPump.con.vol.dynBal.medium.p_bar =
+ Modelica.Units.Conversions.to_bar(heatPump.con.vol.dynBal.medium.p)
+ "Absolute pressure of medium in [bar]";
+ Modelica.Units.SI.Energy heatPump.con.vol.dynBal.U(start = heatPump.con.vol.dynBal.fluidVolume
+ *heatPump.con.vol.dynBal.rho_start*specificInternalEnergy_Unique34(
+ setState_pTX_Unique3(heatPump.con.vol.dynBal.p_start, heatPump.con.vol.dynBal.T_start,
+ heatPump.con.vol.dynBal.X_start[1:0]))+(heatPump.con.vol.dynBal.T_start-
+ 298.15)*heatPump.con.vol.dynBal.CSen, nominal = 100000.0) "Internal energy of fluid";
+ Modelica.Units.SI.Mass heatPump.con.vol.dynBal.m(start = heatPump.con.vol.V*
+ heatPump.con.vol.rho_start, stateSelect = StateSelect.prefer)
+ "Mass of fluid";
+ Modelica.Units.SI.Mass heatPump.con.vol.dynBal.mXi[0](start = heatPump.con.vol.dynBal.fluidVolume
+ *heatPump.con.vol.dynBal.rho_start*heatPump.con.vol.dynBal.X_start[1:0],
+ stateSelect = StateSelect.never) "Masses of independent components in the fluid";
+ Modelica.Units.SI.Mass heatPump.con.vol.dynBal.mC[0](start = heatPump.con.vol.dynBal.fluidVolume
+ *heatPump.con.vol.dynBal.rho_start*heatPump.con.vol.dynBal.C_start)
+ "Masses of trace substances in the fluid";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.vol.dynBal.C[0](
+ start = fill(1.0, size(heatPump.con.vol.dynBal.C, 1))) "Trace substance mixture content";
+ Modelica.Units.SI.MassFlowRate heatPump.con.vol.dynBal.mb_flow
+ "Mass flows across boundaries";
+ Modelica.Units.SI.MassFlowRate heatPump.con.vol.dynBal.mbXi_flow[0]
+ "Substance mass flows across boundaries";
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate heatPump.con.vol.dynBal.mbC_flow
+ [0] "Trace substance mass flows across boundaries";
+ Modelica.Units.SI.EnthalpyFlowRate heatPump.con.vol.dynBal.Hb_flow
+ "Enthalpy flow across boundaries or energy source/sink";
+ Modelica.Media.Interfaces.Types.EnthalpyFlowRate heatPump.con.vol.dynBal.ports_H_flow
+ [heatPump.con.vol.dynBal.nPorts];
+ Modelica.Units.SI.MassFlowRate heatPump.con.vol.dynBal.ports_mXi_flow[
+ heatPump.con.vol.dynBal.nPorts, 0];
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate heatPump.con.vol.dynBal.ports_mC_flow
+ [heatPump.con.vol.dynBal.nPorts, 0];
+ Modelica.Blocks.Interfaces.RealInput heatPump.con.vol.dynBal.mWat_flow_internal
+ (unit = "kg/s") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput heatPump.con.vol.dynBal.C_flow_internal[0]
+ "Needed to connect to conditional connector";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.preDro.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.preDro.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.preDro.port_a.h_outflow
+ (start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.preDro.port_a.Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.preDro.port_a.C_outflow
+ [0](start = fill(1.0, size(heatPump.con.preDro.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.con.preDro.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.con.preDro.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.con.preDro.port_b.h_outflow
+ (start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.con.preDro.port_b.Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.con.preDro.port_b.C_outflow
+ [0](start = fill(1.0, size(heatPump.con.preDro.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.MassFlowRate heatPump.con.preDro.m_flow(start =
+ heatPump.con.preDro._m_flow_start) = heatPump.con.preDro.port_a.m_flow
+ "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference heatPump.con.preDro.dp(start =
+ heatPump.con.preDro._dp_start, displayUnit = "Pa") = heatPump.con.preDro.port_a.p
+ -heatPump.con.preDro.port_b.p "Pressure difference between port_a and port_b";
+ Modelica.Units.SI.ThermalConductance heatPump.con.GOut = heatPump.GConOut
+ "Exterior heat transfer coefficient,
+ set to zero to ignore external heat loss but keep the dry mass";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.GInn = heatPump.GConIns
+ "Interior heat transfer coefficient";
+ Modelica.Blocks.Interfaces.RealInput heatPump.con.preHea.Q_flow(unit = "W");
+ Modelica.Units.SI.Temperature heatPump.con.preHea.port.T "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.con.preHea.port.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput heatPump.con.Q_flow "Heat flow rate from the refrigerant to the medium";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.senT.T(unit = "K")
+ "Absolute temperature as output signal";
+ Modelica.Units.SI.Temperature heatPump.con.senT.port.T "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.con.senT.port.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.con.T(unit = "K",
+ displayUnit = "degC") "Temperature of the condenser volume";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.port_a.h_outflow
+ (start = heatPump.eva.h_outflow_start, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.port_a.Xi_outflow[1]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.port_a.C_outflow[0]
+ (start = fill(1.0, size(heatPump.eva.port_a.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.port_b.h_outflow
+ (start = heatPump.eva.h_outflow_start, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.port_b.Xi_outflow[1]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.port_b.C_outflow[0]
+ (start = fill(1.0, size(heatPump.eva.port_b.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.MassFlowRate heatPump.eva.m_flow(start = heatPump.eva._m_flow_start)
+ = heatPump.eva.port_a.m_flow "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference heatPump.eva.dp(start = heatPump.eva._dp_start,
+ displayUnit = "Pa") = heatPump.eva.port_a.p-heatPump.eva.port_b.p
+ "Pressure difference between port_a and port_b";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.vol.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.ports[1].p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.vol.ports[1].h_outflow
+ (nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.ports[1].Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.ports[1].C_outflow
+ [0](start = fill(1.0, size(heatPump.eva.vol.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.vol.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.ports[2].p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.vol.ports[2].h_outflow
+ (nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.ports[2].Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.ports[2].C_outflow
+ [0](start = fill(1.0, size(heatPump.eva.vol.ports[2].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.T(start = 293.15)
+ = temperature_phX_Unique13(heatPump.eva.vol.p, heatPump.eva.vol.hOut_internal,
+ cat(1, heatPump.eva.vol.Xi, {1-sum(heatPump.eva.vol.Xi)})) "Temperature of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.U(unit = "J")
+ "Internal energy of the component";
+ Modelica.Units.SI.Pressure heatPump.eva.vol.p = (if heatPump.eva.vol.nPorts > 0
+ then heatPump.eva.vol.ports[1].p else heatPump.eva.vol.p_start)
+ "Pressure of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.m(unit = "kg")
+ "Mass of the component";
+ Modelica.Units.SI.MassFraction heatPump.eva.vol.Xi[1] = heatPump.eva.vol.XiOut_internal
+ "Species concentration of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.mXi[1](unit = "kg")
+ "Species mass of the component";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.C[0](start =
+ fill(1.0, size(heatPump.eva.vol.C, 1))) = heatPump.eva.vol.COut_internal
+ "Trace substance mixture content";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.mC[0](unit = "kg")
+ "Trace substance mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.hOut_internal(unit =
+ "J/kg") "Internal connector for leaving temperature of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.XiOut_internal[1](
+ unit = "1") "Internal connector for leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.COut_internal[0](
+ unit = "1") "Internal connector for leaving trace substances of the component";
+ Modelica.Units.SI.Temperature heatPump.eva.vol.preTem.port.T(start =
+ heatPump.eva.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.eva.vol.preTem.port.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eva.vol.preTem.T(unit = "K");
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.portT.y =
+ heatPump.eva.vol.T "Value of Real output";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.heaFloSen.Q_flow(
+ unit = "W") "Heat flow from port_a to port_b as output signal";
+ Modelica.Units.SI.Temperature heatPump.eva.vol.heaFloSen.port_a.T(start =
+ heatPump.eva.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.eva.vol.heaFloSen.port_a.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature heatPump.eva.vol.heaFloSen.port_b.T(start =
+ heatPump.eva.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.eva.vol.heaFloSen.port_b.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature heatPump.eva.vol.heatPort.T(start =
+ heatPump.eva.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.eva.vol.heatPort.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eva.vol.dynBal.Q_flow(unit = "W")
+ "Sensible plus latent heat flow rate transferred into the medium";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.hOut(start =
+ heatPump.eva.vol.dynBal.hStart, nominal = 45300.945, unit = "J/kg")
+ "Leaving specific enthalpy of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.XiOut[1](unit =
+ "1", min = 0.0, max = 1.0) "Leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.COut[0](min =
+ 0.0) "Leaving trace substances of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.UOut(unit = "J")
+ "Internal energy of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.mXiOut[1](
+ unit = "kg", min = 0.0) "Species mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.mOut(unit = "kg",
+ min = 0.0) "Mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.vol.dynBal.mCOut[0](unit =
+ "kg", min = 0.0) "Trace substance mass of the component";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.vol.dynBal.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.dynBal.ports[1].p
+ (start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.vol.dynBal.ports[1].h_outflow
+ (nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.dynBal.ports[1].Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.dynBal.ports[1].C_outflow
+ [0](start = fill(1.0, size(heatPump.eva.vol.dynBal.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.vol.dynBal.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.dynBal.ports[2].p
+ (start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.vol.dynBal.ports[2].h_outflow
+ (nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.dynBal.ports[2].Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.dynBal.ports[2].C_outflow
+ [0](start = fill(1.0, size(heatPump.eva.vol.dynBal.ports[2].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ IBPSA.Media.Air.BaseProperties.InputAbsolutePressure heatPump.eva.vol.dynBal.medium.p
+ (start = heatPump.eva.vol.dynBal.p_start) "Absolute pressure of medium";
+ IBPSA.Media.Air.BaseProperties.InputMassFraction heatPump.eva.vol.dynBal.medium.Xi
+ [1](start = heatPump.eva.vol.dynBal.X_start[1:1], nominal = 0.01)
+ "Structurally independent mass fractions";
+ IBPSA.Media.Air.BaseProperties.InputSpecificEnthalpy heatPump.eva.vol.dynBal.medium.h
+ (start = heatPump.eva.vol.dynBal.hStart) "Specific enthalpy of medium";
+ Modelica.Media.Interfaces.Types.Density heatPump.eva.vol.dynBal.medium.d(
+ start = heatPump.eva.vol.dynBal.rho_start) "Density of medium";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.dynBal.medium.T(
+ start = heatPump.eva.vol.dynBal.T_start) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.dynBal.medium.X[2]
+ (start = heatPump.eva.vol.dynBal.X_start, nominal = 0.0) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.SpecificInternalEnergy heatPump.eva.vol.dynBal.medium.u
+ "Specific internal energy of medium";
+ Modelica.Media.Interfaces.Types.SpecificHeatCapacity heatPump.eva.vol.dynBal.medium.R_s
+ "Gas constant (of mixture if applicable)";
+ Modelica.Media.Interfaces.Types.MolarMass heatPump.eva.vol.dynBal.medium.MM
+ "Molar mass (of mixture or single fluid)";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.vol.dynBal.medium.state.p
+ (start = 101325) "Absolute pressure of medium";
+ Modelica.Media.Interfaces.Types.Temperature heatPump.eva.vol.dynBal.medium.state.T
+ (start = 293.15) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.vol.dynBal.medium.state.X
+ [2](start = {0.01, 0.99}, nominal = 0.0) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Units.NonSI.Temperature_degC heatPump.eva.vol.dynBal.medium.T_degC =
+ Modelica.Units.Conversions.to_degC(heatPump.eva.vol.dynBal.medium.T)
+ "Temperature of medium in [degC]";
+ Modelica.Units.NonSI.Pressure_bar heatPump.eva.vol.dynBal.medium.p_bar =
+ Modelica.Units.Conversions.to_bar(heatPump.eva.vol.dynBal.medium.p)
+ "Absolute pressure of medium in [bar]";
+ Modelica.Units.SI.TemperatureDifference heatPump.eva.vol.dynBal.medium.dT(
+ start = 20.0) "Temperature difference used to compute enthalpy";
+ Modelica.Units.SI.Energy heatPump.eva.vol.dynBal.U(start = heatPump.eva.vol.dynBal.fluidVolume
+ *heatPump.eva.vol.dynBal.rho_start*specificInternalEnergy_Unique35(
+ setState_pTX_Unique11(heatPump.eva.vol.dynBal.p_start, heatPump.eva.vol.dynBal.T_start,
+ heatPump.eva.vol.dynBal.X_start[1:1]))+(heatPump.eva.vol.dynBal.T_start-
+ 273.15)*heatPump.eva.vol.dynBal.CSen, nominal = 100000.0) "Internal energy of fluid";
+ Modelica.Units.SI.Mass heatPump.eva.vol.dynBal.m(start = heatPump.eva.vol.V*
+ heatPump.eva.vol.rho_start, stateSelect = StateSelect.prefer)
+ "Mass of fluid";
+ Modelica.Units.SI.Mass heatPump.eva.vol.dynBal.mXi[1](start = heatPump.eva.vol.dynBal.fluidVolume
+ *heatPump.eva.vol.dynBal.rho_start*heatPump.eva.vol.dynBal.X_start[1:1],
+ stateSelect = StateSelect.never) "Masses of independent components in the fluid";
+ Modelica.Units.SI.Mass heatPump.eva.vol.dynBal.mC[0](start = heatPump.eva.vol.dynBal.fluidVolume
+ *heatPump.eva.vol.dynBal.rho_start*heatPump.eva.vol.dynBal.C_start)
+ "Masses of trace substances in the fluid";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.vol.dynBal.C[0](
+ start = fill(1.0, size(heatPump.eva.vol.dynBal.C, 1))) "Trace substance mixture content";
+ Modelica.Units.SI.MassFlowRate heatPump.eva.vol.dynBal.mb_flow
+ "Mass flows across boundaries";
+ Modelica.Units.SI.MassFlowRate heatPump.eva.vol.dynBal.mbXi_flow[1]
+ "Substance mass flows across boundaries";
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate heatPump.eva.vol.dynBal.mbC_flow
+ [0] "Trace substance mass flows across boundaries";
+ Modelica.Units.SI.EnthalpyFlowRate heatPump.eva.vol.dynBal.Hb_flow
+ "Enthalpy flow across boundaries or energy source/sink";
+ Modelica.Media.Interfaces.Types.EnthalpyFlowRate heatPump.eva.vol.dynBal.ports_H_flow
+ [heatPump.eva.vol.dynBal.nPorts];
+ Modelica.Units.SI.MassFlowRate heatPump.eva.vol.dynBal.ports_mXi_flow[
+ heatPump.eva.vol.dynBal.nPorts, 1];
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate heatPump.eva.vol.dynBal.ports_mC_flow
+ [heatPump.eva.vol.dynBal.nPorts, 0];
+ Modelica.Blocks.Interfaces.RealInput heatPump.eva.vol.dynBal.mWat_flow_internal
+ (unit = "kg/s") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eva.vol.dynBal.C_flow_internal[0]
+ "Needed to connect to conditional connector";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.preDro.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.preDro.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.preDro.port_a.h_outflow
+ (start = 45300.945, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.preDro.port_a.Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.preDro.port_a.C_outflow
+ [0](start = fill(1.0, size(heatPump.eva.preDro.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.eva.preDro.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.eva.preDro.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.eva.preDro.port_b.h_outflow
+ (start = 45300.945, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.eva.preDro.port_b.Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.eva.preDro.port_b.C_outflow
+ [0](start = fill(1.0, size(heatPump.eva.preDro.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.MassFlowRate heatPump.eva.preDro.m_flow(start =
+ heatPump.eva.preDro._m_flow_start) = heatPump.eva.preDro.port_a.m_flow
+ "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference heatPump.eva.preDro.dp(start =
+ heatPump.eva.preDro._dp_start, displayUnit = "Pa") = heatPump.eva.preDro.port_a.p
+ -heatPump.eva.preDro.port_b.p "Pressure difference between port_a and port_b";
+ Modelica.Units.SI.ThermalConductance heatPump.eva.GOut = heatPump.GEvaOut
+ "Exterior heat transfer coefficient,
+ set to zero to ignore external heat loss but keep the dry mass";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.GInn = heatPump.GEvaIns
+ "Interior heat transfer coefficient";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eva.preHea.Q_flow(unit = "W");
+ Modelica.Units.SI.Temperature heatPump.eva.preHea.port.T "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.eva.preHea.port.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eva.Q_flow "Heat flow rate from the refrigerant to the medium";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.senT.T(unit = "K")
+ "Absolute temperature as output signal";
+ Modelica.Units.SI.Temperature heatPump.eva.senT.port.T "Port temperature";
+ Modelica.Units.SI.HeatFlowRate heatPump.eva.senT.port.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eva.T(unit = "K",
+ displayUnit = "degC") "Temperature of the condenser volume";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.ySet "Input for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.yOut "Output for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.ySet
+ "Input for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.yOut
+ "Output for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.swiErr.u1
+ "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.swiErr.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.swiErr.u3
+ "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.swiErr.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.conZer.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.IntegerInput heatPump.safCtr.opeEnv.disErr.u
+ "Integer input signal";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.opeEnv.disErr.y
+ "Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.disErr.trigger;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.disErr.local_reset;
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.opeEnv.disErr.local_set;
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.opeEnv.err
+ "Integer for displaying number of errors during simulation";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.notVal.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.notVal.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.opeEnv.intConOne.y
+ "Connector of Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.booPasThr.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.booPasThr.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapHea.noErr
+ "=false when an error occurs";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.TAmbSid(
+ unit = "K", displayUnit = "degC") "Temperature at ambient side";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.tabBou.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapHea.tabBou.y
+ [heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout] "Connector of Real output signals";
+ Modelica.Blocks.Interfaces.BooleanVectorInput heatPump.safCtr.opeEnv.bouMapHea.nor.u
+ [heatPump.safCtr.opeEnv.bouMapHea.nor.nu] "Vector of Boolean input signals";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapHea.nor.y
+ "Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.hysLef.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapHea.hysLef.y;
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.hysRig.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapHea.hysRig.y;
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.subMax.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.subMax.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapHea.subMax.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.sub.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.sub.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapHea.sub.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.TUseSid(
+ unit = "K", displayUnit = "degC") "Useful temperature side ";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.subBou.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.subBou.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapHea.subBou.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapHea.hysBou.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapHea.hysBou.y;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapCoo.noErr
+ "=false when an error occurs";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid(
+ unit = "K", displayUnit = "degC") "Temperature at ambient side";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y
+ [heatPump.safCtr.opeEnv.bouMapCoo.tabBou.nout] "Connector of Real output signals";
+ Modelica.Blocks.Interfaces.BooleanVectorInput heatPump.safCtr.opeEnv.bouMapCoo.nor.u
+ [heatPump.safCtr.opeEnv.bouMapCoo.nor.nu] "Vector of Boolean input signals";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapCoo.nor.y
+ "Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y;
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y;
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.subMax.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.subMax.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapCoo.subMax.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.sub.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.sub.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapCoo.sub.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.TUseSid(
+ unit = "K", displayUnit = "degC") "Useful temperature side ";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.subBou.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.subBou.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.opeEnv.bouMapCoo.subBou.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y;
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.swiHeaCoo.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.swiHeaCoo.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.opeEnv.swiHeaCoo.u3
+ "Connector of third Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.opeEnv.swiHeaCoo.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.ySet
+ "Input for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.yOut
+ "Output for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.ySetOn.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.ySetOn.y;
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.isAblToTurOff.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.isAblToTurOff.y
+ (start = true, fixed = true) "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.preOnOff.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.preOnOff.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.cycRatBou.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.cycRatBou.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.IntegerInput heatPump.safCtr.onOffCtr.cycRatBou.triAdd.u
+ "Integer input signal";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y
+ "Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.cycRatBou.triAdd.trigger;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_reset;
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_set;
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.y
+ "Connector of Integer output signal";
+ Modelica.Blocks.Interfaces.IntegerInput heatPump.safCtr.onOffCtr.cycRatBou.intToRea.u
+ "Connector of Integer input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.cycRatBou.sub.u1
+ "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.cycRatBou.sub.u2
+ "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.cycRatBou.sub.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.cycRatBou.fixDel.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.cycRatBou.fixDel.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.locTimCtr.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.locTimCtr.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.locTimCtr.runTim.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.locTimCtr.runTim.y
+ "Connector of Real output signal";
+ discrete Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.locTimCtr.runTim.entryTime
+ "Time instant when u became true";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.notIsOn.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.notIsOn.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.runTimCtr.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.runTimCtr.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.runTimCtr.runTim.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.runTimCtr.runTim.y
+ "Connector of Real output signal";
+ discrete Modelica.Units.SI.Time heatPump.safCtr.onOffCtr.runTimCtr.runTim.entryTime
+ "Time instant when u became true";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.andIsAblToTurOn.y
+ (start = true, fixed = true) "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.notSetOn.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.notSetOn.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andTurOff.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andTurOff.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.andTurOff.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andTurOn.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andTurOn.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.andTurOn.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andStaOn.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andStaOn.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.andStaOn.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andStaOff.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.andStaOff.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.onOffCtr.andStaOff.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.onOffFuzLog.turOn
+ (start = false, fixed = true) "Indicates if device should turn on";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOn
+ "Indicates if the device can turn on";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.onOffFuzLog.turOff
+ (start = false, fixed = true) "Indicates if the device should turn off";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOff
+ "Indicates if the device can turn off";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.onOffFuzLog.staOff
+ "Indicates if the device has to stay off";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.onOffCtr.onOffFuzLog.staOn
+ "Indicates if the device has to stay on";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.onOffCtr.onOffFuzLog.yOut
+ "Output for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.onOffCtr.onOffFuzLog.ySet
+ "Input for relative compressor speed from 0 to 1";
+ Integer heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin(start = 0, fixed = true)
+ "Indicates if device needs to run at minimal limit";
+ Integer heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff(start = 0, fixed = true)
+ "Indicates if device needs to turn off";
+ Integer heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe(start = 1, fixed = true)
+ "Indicates if device is at normal operation";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.opeEnvErr
+ "Number of errors from violating the operational envelope";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.minVolFloRatSaf.ySet
+ "Input for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.minVolFloRatSaf.yOut
+ "Output for relative compressor speed from 0 to 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.minVolFloRatSaf.swiErr.u1
+ "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.minVolFloRatSaf.swiErr.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.minVolFloRatSaf.swiErr.u3
+ "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.minVolFloRatSaf.swiErr.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.minVolFloRatSaf.conZer.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.IntegerInput heatPump.safCtr.minVolFloRatSaf.disErr.u
+ "Integer input signal";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.minVolFloRatSaf.disErr.y
+ "Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.minVolFloRatSaf.disErr.trigger;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.minVolFloRatSaf.disErr.local_reset;
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.minVolFloRatSaf.disErr.local_set;
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.minVolFloRatSaf.err
+ "Integer for displaying number of errors during simulation";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.minVolFloRatSaf.notVal.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.minVolFloRatSaf.notVal.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.minVolFloRatSaf.intConOne.y
+ "Connector of Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.minVolFloRatSaf.booPasThr.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.minVolFloRatSaf.booPasThr.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.minVolFloRatSaf.hysCon.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.minVolFloRatSaf.hysCon.y;
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.minVolFloRatSaf.hysEva.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.minVolFloRatSaf.hysEva.y;
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.minVolFloRatSaf.and1.u1
+ "Connector of first Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.safCtr.minVolFloRatSaf.and1.u2
+ "Connector of second Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.safCtr.minVolFloRatSaf.and1.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.IntegerOutput heatPump.safCtr.minFlowErr
+ "Number of errors from violating minimum flow rates";
+ Modelica.Blocks.Interfaces.RealInput heatPump.safCtr.reaPasThrAntFre.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.safCtr.reaPasThrAntFre.y
+ "Connector of Real output signal";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.mEva_flow.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.mEva_flow.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.mEva_flow.port_a.h_outflow
+ (start = 45300.945, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.mEva_flow.port_a.Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.mEva_flow.port_a.C_outflow
+ [0](start = fill(1.0, size(heatPump.mEva_flow.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.mEva_flow.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.mEva_flow.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.mEva_flow.port_b.h_outflow
+ (start = 45300.945, nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.mEva_flow.port_b.Xi_outflow
+ [1](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.mEva_flow.port_b.C_outflow
+ [0](start = fill(1.0, size(heatPump.mEva_flow.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.mEva_flow.m_flow(unit = "kg/s")
+ "Mass flow rate from port_a to port_b";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.mCon_flow.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.mCon_flow.port_a.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.mCon_flow.port_a.h_outflow
+ (start = specificEnthalpy_pTX_Unique25(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.mCon_flow.port_a.Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.mCon_flow.port_a.C_outflow
+ [0](start = fill(1.0, size(heatPump.mCon_flow.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate heatPump.mCon_flow.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure heatPump.mCon_flow.port_b.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy heatPump.mCon_flow.port_b.h_outflow
+ (start = specificEnthalpy_pTX_Unique25(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction heatPump.mCon_flow.port_b.Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty heatPump.mCon_flow.port_b.C_outflow
+ [0](start = fill(1.0, size(heatPump.mCon_flow.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.mCon_flow.m_flow(unit = "kg/s")
+ "Mass flow rate from port_a to port_b";
+ Modelica.Blocks.Interfaces.RealInput heatPump.hys.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.hys.y;
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCycIneCon.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCycIneCon.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.refCycIneEva.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.refCycIneEva.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.senTConIn.y(unit = "K",
+ displayUnit = "degC") = temperature_Unique7(
+ setState_phX_Unique8(heatPump.port_a1.p, inStream(heatPump.port_a1.h_outflow),
+ inStream(heatPump.port_a1.Xi_outflow))) "Value of Real output";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.senTEvaIn.y(unit = "K",
+ displayUnit = "degC") = temperature_Unique31(
+ setState_phX_Unique14(heatPump.port_a2.p, inStream(heatPump.port_a2.h_outflow),
+ inStream(heatPump.port_a2.Xi_outflow))) "Value of Real output";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.QCon_flow(unit = "W")
+ "Actual heating heat flow rate added to fluid 1";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.P(unit = "W") "Electric power consumed by compressor";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.QEva_flow(unit = "W")
+ "Actual cooling heat flow rate removed from fluid 2";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.PEle(unit = "W",
+ displayUnit = "W") "Electrical power consumed by the system";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.QUse_flow(unit = "W",
+ displayUnit = "W") "Useful heat flow";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.COP(unit = "1", min = 0.0)
+ "Output for calculated COP value";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.hys.u;
+ Modelica.Blocks.Interfaces.BooleanOutput heatPump.eff.hys.y;
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.eff.hea "=true for heating, false for cooling";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.EER(unit = "1", min = 0.0)
+ "Output for calculated EER value";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.invXReg.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.invXReg.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.copCom.u1 "Connector of Real input signal 1";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.copCom.u2 "Connector of Real input signal 2";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.copCom.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.swi.u1 "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.eff.swi.u2 "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.swi.u3 "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.swi.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.zer.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.swiCoo.u1 "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.eff.swiCoo.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.swiCoo.u3 "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.swiCoo.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.swiHea.u1 "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.eff.swiHea.u2
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.swiHea.u3 "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.swiHea.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heatPump.eff.absQEva_flow.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.eff.absQEva_flow.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heatPump.hea "=true for heating, =false for cooling";
+ Modelica.Blocks.Interfaces.RealInput heatPump.ySet "Relative compressor speed between 0 and 1";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.EER(unit = "1")
+ "Energy efficieny ratio";
+ Modelica.Blocks.Interfaces.RealOutput heatPump.COP(unit = "1")
+ "Coefficient of performance";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate bou_sinkAir.ports[1].m_flow
+ (min = -1E+60, max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure bou_sinkAir.ports[1].p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy bou_sinkAir.ports[1].h_outflow
+ (nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction bou_sinkAir.ports[1].Xi_outflow[1]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty bou_sinkAir.ports[1].C_outflow[0]
+ (start = fill(1.0, size(bou_sinkAir.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealInput bou_sinkAir.p_in_internal(unit = "Pa")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bou_sinkAir.Xi_in_internal[1](unit =
+ "kg/kg") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bou_sinkAir.X_in_internal[2](unit =
+ "kg/kg") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bou_sinkAir.C_in_internal[0]
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bou_sinkAir.h_in_internal(unit = "J/kg")
+ "Needed to connect to conditional connector";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate bouEva.ports[1].m_flow(
+ min = -1E+60, max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure bouEva.ports[1].p(start = 101325)
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy bouEva.ports[1].h_outflow(
+ nominal = 45300.945) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction bouEva.ports[1].Xi_outflow[1](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty bouEva.ports[1].C_outflow[0](
+ start = fill(1.0, size(bouEva.ports[1].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealInput bouEva.p_in_internal(unit = "Pa")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouEva.Xi_in_internal[1](unit = "kg/kg")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouEva.X_in_internal[2](unit = "kg/kg")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouEva.C_in_internal[0] "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouEva.T_in(unit = "K", displayUnit =
+ "degC") "Prescribed boundary temperature";
+ Modelica.Blocks.Interfaces.RealInput bouEva.m_flow_in_internal(unit = "kg/s")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouEva.T_in_internal(unit = "K",
+ displayUnit = "degC") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouEva.h_internal = specificEnthalpy_Unique10
+ (
+ setState_pTX_Unique11(bouEva.p_in_internal, bouEva.T_in_internal,
+ bouEva.X_in_internal)) "Internal connector for enthalpy";
+ Modelica.Blocks.Interfaces.RealInput switch.u1 "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput switch.u2 "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput switch.u3 "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput switch.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput AirOrSoil.y "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput KPIWel.integrator2.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIWel.integrator2.y(start =
+ KPIWel.integrator2.y_start, unit = "J") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIWel.integrator2.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIWel.integrator2.local_set;
+ Modelica.Blocks.Interfaces.RealInput KPIWel.internalU.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIWel.internalU.y(unit = "W")
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput KPIWel.u(unit = "W") "Connector of Real input signal";
+ Real KPIWel.KPI.value(unit = "W") "Current value";
+ Real KPIWel.KPI.integral(unit = "J") "Integral of value";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.port_a.m_flow(min =
+ -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.port_a.p(start = 101325)
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.port_a.h_outflow(
+ start = pump.h_outflow_start) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.port_a.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.port_a.C_outflow[0](
+ start = fill(1.0, size(pump.port_a.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.port_b.m_flow(max =
+ 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.port_b.p(start =
+ pump.p_start) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.port_b.h_outflow(
+ start = pump.h_outflow_start) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.port_b.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.port_b.C_outflow[0](
+ start = fill(1.0, size(pump.port_b.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealOutput pump.y_actual(unit = "1")
+ "Actual normalised fan or pump speed that is used for computations";
+ Modelica.Blocks.Interfaces.RealOutput pump.P(unit = "W") "Electrical power consumed";
+ Modelica.Units.SI.Temperature pump.heatPort.T(start = 293.15) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate pump.heatPort.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.VolumeFlowRate pump.VMachine_flow(start = pump._VMachine_flow)
+ = pump.eff.V_flow "Volume flow rate";
+ Modelica.Units.SI.PressureDifference pump.dpMachine(displayUnit = "Pa") = -
+ pump.preSou.dp "Pressure difference";
+ Real pump.eta(unit = "1") = pump.eff.eta "Global efficiency";
+ Real pump.etaHyd(unit = "1") = pump.eff.etaHyd "Hydraulic efficiency";
+ Real pump.etaMot(unit = "1") = pump.eff.etaMot "Motor efficiency";
+ Modelica.Units.SI.MassFlowRate pump.m_flow(start = pump._m_flow_start) =
+ pump.port_a.m_flow "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference pump.dp(start = pump._dp_start,
+ displayUnit = "Pa") = pump.port_a.p-pump.port_b.p "Pressure difference between port_a and port_b";
+ Modelica.Blocks.Interfaces.RealInput pump.inputSwitch.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput pump.inputSwitch.y "Connector of Real output signal";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.vol.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.vol.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.vol.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.vol.ports[1].Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.ports[1].C_outflow[0](
+ start = fill(1.0, size(pump.vol.ports[1].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.vol.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.vol.ports[2].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.vol.ports[2].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.vol.ports[2].Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.ports[2].C_outflow[0](
+ start = fill(1.0, size(pump.vol.ports[2].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.Temperature pump.vol.T = temperature_phX_Unique6
+ (pump.vol.p, pump.vol.hOut_internal, cat(1, pump.vol.Xi, {1-sum(pump.vol.Xi)}))
+ "Temperature of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.U(unit = "J") "Internal energy of the component";
+ Modelica.Units.SI.Pressure pump.vol.p = (if pump.vol.nPorts > 0 then
+ pump.vol.ports[1].p else pump.vol.p_start) "Pressure of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.m(unit = "kg") "Mass of the component";
+ Modelica.Units.SI.MassFraction pump.vol.Xi[0] = pump.vol.XiOut_internal
+ "Species concentration of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.mXi[0](unit = "kg")
+ "Species mass of the component";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.C[0](start = fill(1.0,
+ size(pump.vol.C, 1))) = pump.vol.COut_internal "Trace substance mixture content";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.mC[0](unit = "kg")
+ "Trace substance mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.hOut_internal(unit = "J/kg")
+ "Internal connector for leaving temperature of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.XiOut_internal[0](unit = "1")
+ "Internal connector for leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.COut_internal[0](unit = "1")
+ "Internal connector for leaving trace substances of the component";
+ Modelica.Units.SI.Temperature pump.vol.preTem.port.T(start = pump.vol.T_start)
+ "Port temperature";
+ Modelica.Units.SI.HeatFlowRate pump.vol.preTem.port.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput pump.vol.preTem.T(unit = "K");
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.portT.y = pump.vol.T
+ "Value of Real output";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.heaFloSen.Q_flow(unit = "W")
+ "Heat flow from port_a to port_b as output signal";
+ Modelica.Units.SI.Temperature pump.vol.heaFloSen.port_a.T(start =
+ pump.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate pump.vol.heaFloSen.port_a.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature pump.vol.heaFloSen.port_b.T(start =
+ pump.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate pump.vol.heaFloSen.port_b.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature pump.vol.heatPort.T(start = pump.vol.T_start)
+ "Port temperature";
+ Modelica.Units.SI.HeatFlowRate pump.vol.heatPort.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput pump.vol.dynBal.Q_flow(unit = "W")
+ "Sensible plus latent heat flow rate transferred into the medium";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.hOut(start =
+ pump.vol.dynBal.hStart, unit = "J/kg") "Leaving specific enthalpy of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.XiOut[0](unit = "1",
+ min = 0.0, max = 1.0) "Leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.COut[0](min = 0.0)
+ "Leaving trace substances of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.UOut(unit = "J")
+ "Internal energy of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.mXiOut[0](unit = "kg",
+ min = 0.0) "Species mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.mOut(unit = "kg", min =
+ 0.0) "Mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput pump.vol.dynBal.mCOut[0](unit = "kg",
+ min = 0.0) "Trace substance mass of the component";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.vol.dynBal.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.vol.dynBal.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.vol.dynBal.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.vol.dynBal.ports[1].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.dynBal.ports[1].C_outflow
+ [0](start = fill(1.0, size(pump.vol.dynBal.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.vol.dynBal.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.vol.dynBal.ports[2].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.vol.dynBal.ports[2].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.vol.dynBal.ports[2].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.dynBal.ports[2].C_outflow
+ [0](start = fill(1.0, size(pump.vol.dynBal.ports[2].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputAbsolutePressure
+ pump.vol.dynBal.medium.p(start = pump.vol.dynBal.p_start) "Absolute pressure of medium";
+ constant Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputMassFraction
+ pump.vol.dynBal.medium.Xi[0] = {} "Structurally independent mass fractions";
+ Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputSpecificEnthalpy
+ pump.vol.dynBal.medium.h(start = pump.vol.dynBal.hStart) "Specific enthalpy of medium";
+ Modelica.Media.Interfaces.Types.Density pump.vol.dynBal.medium.d(start =
+ pump.vol.dynBal.rho_start) "Density of medium";
+ Modelica.Media.Interfaces.Types.Temperature pump.vol.dynBal.medium.T(start =
+ pump.vol.dynBal.T_start) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction pump.vol.dynBal.medium.X[1](
+ start = pump.vol.dynBal.X_start) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.SpecificInternalEnergy pump.vol.dynBal.medium.u
+ "Specific internal energy of medium";
+ Modelica.Media.Interfaces.Types.SpecificHeatCapacity pump.vol.dynBal.medium.R_s
+ "Gas constant (of mixture if applicable)";
+ Modelica.Media.Interfaces.Types.MolarMass pump.vol.dynBal.medium.MM
+ "Molar mass (of mixture or single fluid)";
+ Modelica.Units.NonSI.Temperature_degC pump.vol.dynBal.medium.T_degC =
+ Modelica.Units.Conversions.to_degC(pump.vol.dynBal.medium.T)
+ "Temperature of medium in [degC]";
+ Modelica.Units.NonSI.Pressure_bar pump.vol.dynBal.medium.p_bar =
+ Modelica.Units.Conversions.to_bar(pump.vol.dynBal.medium.p) "Absolute pressure of medium in [bar]";
+ Modelica.Units.SI.Energy pump.vol.dynBal.U(start = pump.vol.dynBal.fluidVolume
+ *pump.vol.dynBal.rho_start*specificInternalEnergy_Unique34(
+ setState_pTX_Unique3(pump.vol.dynBal.p_start, pump.vol.dynBal.T_start,
+ pump.vol.dynBal.X_start[1:0]))+(pump.vol.dynBal.T_start-298.15)*
+ pump.vol.dynBal.CSen, nominal = 100000.0) "Internal energy of fluid";
+ Modelica.Units.SI.Mass pump.vol.dynBal.m(start = pump.vol.V*pump.vol.rho_start,
+ stateSelect = StateSelect.prefer) "Mass of fluid";
+ Modelica.Units.SI.Mass pump.vol.dynBal.mXi[0](start = pump.vol.dynBal.fluidVolume
+ *pump.vol.dynBal.rho_start*pump.vol.dynBal.X_start[1:0], stateSelect =
+ StateSelect.never) "Masses of independent components in the fluid";
+ Modelica.Units.SI.Mass pump.vol.dynBal.mC[0](start = pump.vol.dynBal.fluidVolume
+ *pump.vol.dynBal.rho_start*pump.vol.dynBal.C_start) "Masses of trace substances in the fluid";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.vol.dynBal.C[0](start =
+ fill(1.0, size(pump.vol.dynBal.C, 1))) "Trace substance mixture content";
+ Modelica.Units.SI.MassFlowRate pump.vol.dynBal.mb_flow "Mass flows across boundaries";
+ Modelica.Units.SI.MassFlowRate pump.vol.dynBal.mbXi_flow[0] "Substance mass flows across boundaries";
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate pump.vol.dynBal.mbC_flow
+ [0] "Trace substance mass flows across boundaries";
+ Modelica.Units.SI.EnthalpyFlowRate pump.vol.dynBal.Hb_flow "Enthalpy flow across boundaries or energy source/sink";
+ Modelica.Media.Interfaces.Types.EnthalpyFlowRate pump.vol.dynBal.ports_H_flow[
+ pump.vol.dynBal.nPorts];
+ Modelica.Units.SI.MassFlowRate pump.vol.dynBal.ports_mXi_flow[pump.vol.dynBal.nPorts,
+ 0];
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate pump.vol.dynBal.ports_mC_flow
+ [pump.vol.dynBal.nPorts, 0];
+ Modelica.Blocks.Interfaces.RealInput pump.vol.dynBal.mWat_flow_internal(
+ unit = "kg/s") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput pump.vol.dynBal.C_flow_internal[0]
+ "Needed to connect to conditional connector";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.preSou.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.preSou.port_a.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.preSou.port_a.h_outflow(
+ start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.preSou.port_a.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.preSou.port_a.C_outflow[0](
+ start = fill(1.0, size(pump.preSou.port_a.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.preSou.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.preSou.port_b.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.preSou.port_b.h_outflow(
+ start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.preSou.port_b.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.preSou.port_b.C_outflow[0](
+ start = fill(1.0, size(pump.preSou.port_b.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.preSou.m_flow(
+ start = pump.preSou.m_flow_start, min = -1E+60) "Mass flow rate in design flow direction";
+ Modelica.Units.SI.PressureDifference pump.preSou.dp(start = pump.preSou.dp_start,
+ displayUnit = "Pa") "Pressure difference between port_a and port_b (= port_a.p - port_b.p)";
+ Modelica.Units.SI.VolumeFlowRate pump.preSou.V_flow = pump.preSou.m_flow/
+ Modelica.Fluid.Utilities.regStep(pump.preSou.m_flow, density_Unique1(
+ setState_phX_Unique8(pump.preSou.port_a.p, inStream(pump.preSou.port_a.h_outflow),
+ inStream(pump.preSou.port_a.Xi_outflow))), density_Unique1(
+ setState_phX_Unique8(pump.preSou.port_b.p, inStream(pump.preSou.port_b.h_outflow),
+ inStream(pump.preSou.port_b.Xi_outflow))), pump.preSou.m_flow_small)
+ "Volume flow rate at inflowing port (positive when flow from port_a to port_b)";
+ Modelica.Blocks.Interfaces.RealInput pump.preSou.dp_in(unit = "Pa")
+ "Prescribed pressure difference port_a.p-port_b.p";
+ Modelica.Blocks.Interfaces.RealInput pump.preSou.m_flow_internal(unit = "kg/s")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput pump.preSou.dp_internal(unit = "Pa")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealOutput pump.rho_inlet.y = density_Unique1(
+ setState_phX_Unique8(pump.port_a.p, inStream(pump.port_a.h_outflow),
+ inStream(pump.port_a.Xi_outflow))) "Value of Real output";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.senMasFlo.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.senMasFlo.port_a.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.senMasFlo.port_a.h_outflow
+ (start = specificEnthalpy_pTX_Unique25(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.senMasFlo.port_a.Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.senMasFlo.port_a.C_outflow[0]
+ (start = fill(1.0, size(pump.senMasFlo.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.senMasFlo.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.senMasFlo.port_b.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.senMasFlo.port_b.h_outflow
+ (start = specificEnthalpy_pTX_Unique25(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.senMasFlo.port_b.Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.senMasFlo.port_b.C_outflow[0]
+ (start = fill(1.0, size(pump.senMasFlo.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealOutput pump.senMasFlo.m_flow(unit = "kg/s")
+ "Mass flow rate from port_a to port_b";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.senRelPre.port_a.m_flow
+ (min = 0.0) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.senRelPre.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.senRelPre.port_a.h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.senRelPre.port_a.Xi_outflow[0]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.senRelPre.port_a.C_outflow[0]
+ (start = fill(1.0, size(pump.senRelPre.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate pump.senRelPre.port_b.m_flow
+ (min = 0.0) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure pump.senRelPre.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy pump.senRelPre.port_b.h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction pump.senRelPre.port_b.Xi_outflow[0]
+ "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty pump.senRelPre.port_b.C_outflow[0]
+ (start = fill(1.0, size(pump.senRelPre.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealOutput pump.senRelPre.p_rel(unit = "Pa",
+ displayUnit = "Pa") "Relative pressure of port_a minus port_b";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.y_out(unit = "1")
+ "Mover speed (prescribed or computed)";
+ Modelica.Blocks.Interfaces.RealInput pump.eff.m_flow(unit = "kg/s")
+ "Mass flow rate";
+ Modelica.Blocks.Interfaces.RealInput pump.eff.rho(unit = "kg/m3", min = 0.0)
+ "Medium density";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.V_flow(unit = "m3/s")
+ "Volume flow rate";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.WFlo(unit = "W") "Flow work";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.WHyd(unit = "W")
+ "Hydraulic work (shaft work, brake horsepower)";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.PEle(unit = "W")
+ "Electrical power consumed";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.eta(start = 0.49, unit = "1")
+ "Overall efficiency";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.etaHyd(start = 0.7, unit = "1")
+ "Hydraulic efficiency";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.etaMot(start = 0.7, unit = "1")
+ "Motor efficiency";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.r_N(start = pump.y_start,
+ unit = "1") "Ratio N_actual/N_nominal";
+ Real pump.eff.r_V(start = pump._m_flow_nominal/pump.rho_default, unit = "1")
+ "Ratio V_flow/V_flow_max";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.dp_internal "If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N";
+ Modelica.Units.SI.Efficiency pump.eff.eta_internal "Either eta or etaHyd";
+ Modelica.Units.SI.Power pump.eff.P_internal "Either PEle or WHyd";
+ Real pump.eff.yMot(start = 0.833, min = 0.0) = (if pump.eff.per.haveWMot_nominal
+ then pump.eff.WHyd/pump.eff.per.WMot_nominal else 1) "Motor part load ratio";
+ Modelica.Blocks.Interfaces.RealInput pump.eff.y_in(unit = "1")
+ "Prescribed mover speed";
+ Modelica.Blocks.Interfaces.RealOutput pump.eff.dp(unit = "Pa")
+ "Pressure increase (computed or prescribed)";
+ Modelica.Blocks.Interfaces.RealInput pump.y(unit = "1") "Constant normalized rotational speed";
+ Modelica.Blocks.Interfaces.RealInput pump.gain.u "Input signal connector";
+ Modelica.Blocks.Interfaces.RealOutput pump.gain.y "Output signal connector";
+ Modelica.Blocks.Interfaces.RealOutput TSoil.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput KPIQHP.integrator2.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIQHP.integrator2.y(start =
+ KPIQHP.integrator2.y_start, unit = "J") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIQHP.integrator2.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIQHP.integrator2.local_set;
+ Modelica.Blocks.Interfaces.RealInput KPIQHP.internalU.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIQHP.internalU.y(unit = "W")
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput KPIQHP.u(unit = "W") "Connector of Real input signal";
+ Real KPIQHP.KPI.value(unit = "W") "Current value";
+ Real KPIQHP.KPI.integral(unit = "J") "Integral of value";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate bouPum.ports[1].m_flow(
+ min = -1E+60, max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure bouPum.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy bouPum.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction bouPum.ports[1].Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty bouPum.ports[1].C_outflow[0](
+ start = fill(1.0, size(bouPum.ports[1].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Blocks.Interfaces.RealInput bouPum.p_in_internal(unit = "Pa")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouPum.Xi_in_internal[0](unit = "kg/kg")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouPum.X_in_internal[1](unit = "kg/kg")
+ "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouPum.C_in_internal[0] "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouPum.T_in_internal(unit = "K",
+ displayUnit = "degC") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput bouPum.h_internal = specificEnthalpy_Unique5
+ (
+ setState_pTX_Unique3(bouPum.p_in_internal, bouPum.T_in_internal,
+ bouPum.X_in_internal)) "Internal connector for enthalpy";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate senTGenOut.port_a.m_flow(
+ min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure senTGenOut.port_a.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy senTGenOut.port_a.h_outflow(
+ start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction senTGenOut.port_a.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty senTGenOut.port_a.C_outflow[0](
+ start = fill(1.0, size(senTGenOut.port_a.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate senTGenOut.port_b.m_flow(
+ max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure senTGenOut.port_b.p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy senTGenOut.port_b.h_outflow(
+ start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction senTGenOut.port_b.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty senTGenOut.port_b.C_outflow[0](
+ start = fill(1.0, size(senTGenOut.port_b.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Real senTGenOut.k(start = 1) "Gain to take flow rate into account for sensor time constant";
+ Real senTGenOut.mNor_flow "Normalized mass flow rate";
+ Modelica.Blocks.Interfaces.RealOutput senTGenOut.T(start = senTGenOut.T_start,
+ unit = "K", displayUnit = "degC", min = 0.0) "Temperature of the passing fluid";
+ Modelica.Media.Interfaces.Types.Temperature senTGenOut.TMed(start =
+ senTGenOut.T_start) "Medium temperature to which the sensor is exposed";
+ Modelica.Media.Interfaces.Types.Temperature senTGenOut.T_a_inflow
+ "Temperature of inflowing fluid at port_a";
+ Modelica.Media.Interfaces.Types.Temperature senTGenOut.T_b_inflow
+ "Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow";
+ Modelica.Blocks.Interfaces.RealInput realToElecCon.PEleLoa "Electrical power of load";
+ Modelica.Units.SI.Power realToElecCon.internalElectricalPin.PElecLoa
+ "Electrical power flow; positive = power consumption; negative = power generation";
+ Modelica.Units.SI.Power realToElecCon.internalElectricalPin.PElecGen
+ "Electrical power flow; positive = power generation; negative = power consumption";
+ Modelica.Blocks.Interfaces.RealOutput realToElecCon.NoFlowGen.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput realToElecCon.realPassThroughLoa.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput realToElecCon.realPassThroughLoa.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput realToElecCon.realPassThroughGen.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput realToElecCon.realPassThroughGen.y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealVectorInput multiSum.u[multiSum.nu];
+ Modelica.Blocks.Interfaces.RealOutput multiSum.y;
+ Modelica.Blocks.Interfaces.RealInput KPIHeaPum.switch1.u1 "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput KPIHeaPum.switch1.u2 "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput KPIHeaPum.switch1.u3 "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.switch1.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.const.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.const1.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput KPIHeaPum.integrator3.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.integrator3.y(start =
+ KPIHeaPum.integrator3.y_start, unit = "s") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanInput KPIHeaPum.integrator3.reset
+ "Optional connector of reset signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIHeaPum.integrator3.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.integrator3.local_set;
+ Modelica.Blocks.Interfaces.BooleanInput KPIHeaPum.not1.u "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIHeaPum.not1.y "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.IntegerOutput KPIHeaPum.integerConstant.y
+ "Connector of Integer output signal";
+ Modelica.Blocks.Interfaces.IntegerInput KPIHeaPum.triggeredAdd.u
+ "Integer input signal";
+ Modelica.Blocks.Interfaces.IntegerOutput KPIHeaPum.triggeredAdd.y
+ "Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput KPIHeaPum.triggeredAdd.trigger;
+ Modelica.Blocks.Interfaces.BooleanOutput KPIHeaPum.triggeredAdd.local_reset;
+ Modelica.Blocks.Interfaces.IntegerOutput KPIHeaPum.triggeredAdd.local_set;
+ Modelica.Blocks.Interfaces.RealInput KPIHeaPum.integrator1.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.integrator1.y(start =
+ KPIHeaPum.integrator1.y_start, unit = "s") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIHeaPum.integrator1.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIHeaPum.integrator1.local_set;
+ Integer KPIHeaPum.KPI.numSwi "Number of switches";
+ Real KPIHeaPum.KPI.sinOnTim(unit = "s", displayUnit = "h") "Time the device is on in a single on-cycle";
+ Real KPIHeaPum.KPI.totOnTim(unit = "s", displayUnit = "h") "Total time the device is on";
+ Modelica.Blocks.Interfaces.BooleanInput KPIHeaPum.u "=true if device is on";
+ Modelica.Blocks.Interfaces.RealInput heaPumSigBusPasThr.realPassThrough[1].u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heaPumSigBusPasThr.realPassThrough[1].y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heaPumSigBusPasThr.realPassThrough[2].u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heaPumSigBusPasThr.realPassThrough[2].y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput heaPumSigBusPasThr.realPassThrough[3].u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput heaPumSigBusPasThr.realPassThrough[3].y
+ "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanInput heaPumSigBusPasThr.booleanPassThrough.u
+ "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput heaPumSigBusPasThr.booleanPassThrough.y
+ "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.RealInput reaPasThrRelHum.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput reaPasThrRelHum.y "Connector of Real output signal";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.port_a.m_flow(
+ min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.port_a.p(start = 101325)
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.port_a.h_outflow(
+ start = eleHea.h_outflow_start) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.port_a.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.port_a.C_outflow[0](
+ start = fill(1.0, size(eleHea.port_a.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.port_b.m_flow(
+ max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.port_b.p(start = 101325)
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.port_b.h_outflow(
+ start = eleHea.h_outflow_start) "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.port_b.Xi_outflow[0](
+ nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.port_b.C_outflow[0](
+ start = fill(1.0, size(eleHea.port_b.C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.MassFlowRate eleHea.m_flow(start = eleHea._m_flow_start) =
+ eleHea.port_a.m_flow "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference eleHea.dp(start = eleHea._dp_start,
+ displayUnit = "Pa") = eleHea.port_a.p-eleHea.port_b.p "Pressure difference between port_a and port_b";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.vol.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.vol.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.vol.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.ports[1].Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.ports[1].C_outflow[0]
+ (start = fill(1.0, size(eleHea.vol.ports[1].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.vol.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.vol.ports[2].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.vol.ports[2].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.ports[2].Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.ports[2].C_outflow[0]
+ (start = fill(1.0, size(eleHea.vol.ports[2].C_outflow, 1))) "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.Temperature eleHea.vol.T = temperature_phX_Unique6
+ (eleHea.vol.p, eleHea.vol.hOut_internal, cat(1, eleHea.vol.Xi, {1-sum(
+ eleHea.vol.Xi)})) "Temperature of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.U(unit = "J")
+ "Internal energy of the component";
+ Modelica.Units.SI.Pressure eleHea.vol.p = (if eleHea.vol.nPorts > 0 then
+ eleHea.vol.ports[1].p else eleHea.vol.p_start) "Pressure of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.m(unit = "kg")
+ "Mass of the component";
+ Modelica.Units.SI.MassFraction eleHea.vol.Xi[0] = eleHea.vol.XiOut_internal
+ "Species concentration of the fluid";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.mXi[0](unit = "kg")
+ "Species mass of the component";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.C[0](start = fill(1.0,
+ size(eleHea.vol.C, 1))) = eleHea.vol.COut_internal "Trace substance mixture content";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.mC[0](unit = "kg")
+ "Trace substance mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.hOut_internal(unit = "J/kg")
+ "Internal connector for leaving temperature of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.XiOut_internal[0](unit = "1")
+ "Internal connector for leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.COut_internal[0](unit = "1")
+ "Internal connector for leaving trace substances of the component";
+ Modelica.Units.SI.Temperature eleHea.vol.preTem.port.T(start =
+ eleHea.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate eleHea.vol.preTem.port.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput eleHea.vol.preTem.T(unit = "K");
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.portT.y = eleHea.vol.T
+ "Value of Real output";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.heaFloSen.Q_flow(unit = "W")
+ "Heat flow from port_a to port_b as output signal";
+ Modelica.Units.SI.Temperature eleHea.vol.heaFloSen.port_a.T(start =
+ eleHea.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate eleHea.vol.heaFloSen.port_a.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature eleHea.vol.heaFloSen.port_b.T(start =
+ eleHea.vol.T_start) "Port temperature";
+ Modelica.Units.SI.HeatFlowRate eleHea.vol.heaFloSen.port_b.Q_flow
+ "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Units.SI.Temperature eleHea.vol.heatPort.T(start = eleHea.vol.T_start)
+ "Port temperature";
+ Modelica.Units.SI.HeatFlowRate eleHea.vol.heatPort.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput eleHea.vol.dynBal.Q_flow(unit = "W")
+ "Sensible plus latent heat flow rate transferred into the medium";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.hOut(start =
+ eleHea.vol.dynBal.hStart, unit = "J/kg") "Leaving specific enthalpy of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.XiOut[0](unit = "1",
+ min = 0.0, max = 1.0) "Leaving species concentration of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.COut[0](min = 0.0)
+ "Leaving trace substances of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.UOut(unit = "J")
+ "Internal energy of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.mXiOut[0](unit = "kg",
+ min = 0.0) "Species mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.mOut(unit = "kg",
+ min = 0.0) "Mass of the component";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.vol.dynBal.mCOut[0](unit = "kg",
+ min = 0.0) "Trace substance mass of the component";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.vol.dynBal.ports[1].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.vol.dynBal.ports[1].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.vol.dynBal.ports[1].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.dynBal.ports[1].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.dynBal.ports[1].C_outflow
+ [0](start = fill(1.0, size(eleHea.vol.dynBal.ports[1].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.vol.dynBal.ports[2].m_flow
+ "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.vol.dynBal.ports[2].p
+ "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.vol.dynBal.ports[2].h_outflow
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.dynBal.ports[2].Xi_outflow
+ [0](nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.dynBal.ports[2].C_outflow
+ [0](start = fill(1.0, size(eleHea.vol.dynBal.ports[2].C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputAbsolutePressure
+ eleHea.vol.dynBal.medium.p(start = eleHea.vol.dynBal.p_start)
+ "Absolute pressure of medium";
+ constant Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputMassFraction
+ eleHea.vol.dynBal.medium.Xi[0] = {} "Structurally independent mass fractions";
+ Modelica.Media.Interfaces.PartialMedium.BaseProperties.InputSpecificEnthalpy
+ eleHea.vol.dynBal.medium.h(start = eleHea.vol.dynBal.hStart)
+ "Specific enthalpy of medium";
+ Modelica.Media.Interfaces.Types.Density eleHea.vol.dynBal.medium.d(start =
+ eleHea.vol.dynBal.rho_start) "Density of medium";
+ Modelica.Media.Interfaces.Types.Temperature eleHea.vol.dynBal.medium.T(
+ start = eleHea.vol.dynBal.T_start) "Temperature of medium";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.vol.dynBal.medium.X[1](
+ start = eleHea.vol.dynBal.X_start) "Mass fractions (= (component mass)/total mass m_i/m)";
+ Modelica.Media.Interfaces.Types.SpecificInternalEnergy eleHea.vol.dynBal.medium.u
+ "Specific internal energy of medium";
+ Modelica.Media.Interfaces.Types.SpecificHeatCapacity eleHea.vol.dynBal.medium.R_s
+ "Gas constant (of mixture if applicable)";
+ Modelica.Media.Interfaces.Types.MolarMass eleHea.vol.dynBal.medium.MM
+ "Molar mass (of mixture or single fluid)";
+ Modelica.Units.NonSI.Temperature_degC eleHea.vol.dynBal.medium.T_degC =
+ Modelica.Units.Conversions.to_degC(eleHea.vol.dynBal.medium.T)
+ "Temperature of medium in [degC]";
+ Modelica.Units.NonSI.Pressure_bar eleHea.vol.dynBal.medium.p_bar =
+ Modelica.Units.Conversions.to_bar(eleHea.vol.dynBal.medium.p)
+ "Absolute pressure of medium in [bar]";
+ Modelica.Units.SI.Energy eleHea.vol.dynBal.U(start = eleHea.vol.dynBal.fluidVolume
+ *eleHea.vol.dynBal.rho_start*specificInternalEnergy_Unique34(
+ setState_pTX_Unique3(eleHea.vol.dynBal.p_start, eleHea.vol.dynBal.T_start,
+ eleHea.vol.dynBal.X_start[1:0]))+(eleHea.vol.dynBal.T_start-298.15)*
+ eleHea.vol.dynBal.CSen, nominal = 100000.0) "Internal energy of fluid";
+ Modelica.Units.SI.Mass eleHea.vol.dynBal.m(start = eleHea.vol.V*
+ eleHea.vol.rho_start, stateSelect = StateSelect.prefer) "Mass of fluid";
+ Modelica.Units.SI.Mass eleHea.vol.dynBal.mXi[0](start = eleHea.vol.dynBal.fluidVolume
+ *eleHea.vol.dynBal.rho_start*eleHea.vol.dynBal.X_start[1:0], stateSelect =
+ StateSelect.never) "Masses of independent components in the fluid";
+ Modelica.Units.SI.Mass eleHea.vol.dynBal.mC[0](start = eleHea.vol.dynBal.fluidVolume
+ *eleHea.vol.dynBal.rho_start*eleHea.vol.dynBal.C_start) "Masses of trace substances in the fluid";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.vol.dynBal.C[0](start =
+ fill(1.0, size(eleHea.vol.dynBal.C, 1))) "Trace substance mixture content";
+ Modelica.Units.SI.MassFlowRate eleHea.vol.dynBal.mb_flow "Mass flows across boundaries";
+ Modelica.Units.SI.MassFlowRate eleHea.vol.dynBal.mbXi_flow[0] "Substance mass flows across boundaries";
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate eleHea.vol.dynBal.mbC_flow
+ [0] "Trace substance mass flows across boundaries";
+ Modelica.Units.SI.EnthalpyFlowRate eleHea.vol.dynBal.Hb_flow "Enthalpy flow across boundaries or energy source/sink";
+ Modelica.Media.Interfaces.Types.EnthalpyFlowRate eleHea.vol.dynBal.ports_H_flow
+ [eleHea.vol.dynBal.nPorts];
+ Modelica.Units.SI.MassFlowRate eleHea.vol.dynBal.ports_mXi_flow[
+ eleHea.vol.dynBal.nPorts, 0];
+ Modelica.Media.Interfaces.Types.ExtraPropertyFlowRate eleHea.vol.dynBal.ports_mC_flow
+ [eleHea.vol.dynBal.nPorts, 0];
+ Modelica.Blocks.Interfaces.RealInput eleHea.vol.dynBal.mWat_flow_internal(
+ unit = "kg/s") "Needed to connect to conditional connector";
+ Modelica.Blocks.Interfaces.RealInput eleHea.vol.dynBal.C_flow_internal[0]
+ "Needed to connect to conditional connector";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.preDro.port_a.m_flow
+ (min = -1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.preDro.port_a.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.preDro.port_a.h_outflow
+ (start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.preDro.port_a.Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.preDro.port_a.C_outflow[0]
+ (start = fill(1.0, size(eleHea.preDro.port_a.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.PartialMedium.MassFlowRate eleHea.preDro.port_b.m_flow
+ (max = 1E+60) "Mass flow rate from the connection point into the component";
+ Modelica.Media.Interfaces.Types.AbsolutePressure eleHea.preDro.port_b.p(
+ start = 101325) "Thermodynamic pressure in the connection point";
+ Modelica.Media.Interfaces.Types.SpecificEnthalpy eleHea.preDro.port_b.h_outflow
+ (start = specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}))
+ "Specific thermodynamic enthalpy close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.MassFraction eleHea.preDro.port_b.Xi_outflow[0]
+ (nominal = 0.01) "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0";
+ Modelica.Media.Interfaces.Types.ExtraProperty eleHea.preDro.port_b.C_outflow[0]
+ (start = fill(1.0, size(eleHea.preDro.port_b.C_outflow, 1)))
+ "Properties c_i/m close to the connection point if m_flow < 0";
+ Modelica.Units.SI.MassFlowRate eleHea.preDro.m_flow(start = eleHea.preDro._m_flow_start)
+ = eleHea.preDro.port_a.m_flow "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction)";
+ Modelica.Units.SI.PressureDifference eleHea.preDro.dp(start = eleHea.preDro._dp_start,
+ displayUnit = "Pa") = eleHea.preDro.port_a.p-eleHea.preDro.port_b.p
+ "Pressure difference between port_a and port_b";
+ Modelica.Blocks.Interfaces.RealInput eleHea.u(unit = "1", min = 0.0, max = 1.0)
+ "Control input";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.Pel(unit = "W") "Electrical power used to provide current heat flow";
+ Modelica.Blocks.Interfaces.RealInput eleHea.gai_eta.u "Input signal connector";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.gai_eta.y "Output signal connector";
+ Modelica.Blocks.Interfaces.RealInput eleHea.preHea.Q_flow(unit = "W");
+ Modelica.Units.SI.Temperature eleHea.preHea.port.T "Port temperature";
+ Modelica.Units.SI.HeatFlowRate eleHea.preHea.port.Q_flow "Heat flow rate (positive if flowing from outside into the component)";
+ Modelica.Blocks.Interfaces.RealInput eleHea.gai.u "Input signal connector";
+ Modelica.Blocks.Interfaces.RealOutput eleHea.gai.y "Output signal connector";
+ Modelica.Blocks.Interfaces.RealInput KPIEleHea.isOn.u;
+ Modelica.Blocks.Interfaces.BooleanOutput KPIEleHea.isOn.y;
+ Modelica.Blocks.Interfaces.RealInput KPIEleHea.switch1.u1 "Connector of first Real input signal";
+ Modelica.Blocks.Interfaces.BooleanInput KPIEleHea.switch1.u2 "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.RealInput KPIEleHea.switch1.u3 "Connector of second Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.switch1.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.const.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.const1.y "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.RealInput KPIEleHea.integrator3.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.integrator3.y(start =
+ KPIEleHea.integrator3.y_start, unit = "s") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanInput KPIEleHea.integrator3.reset
+ "Optional connector of reset signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIEleHea.integrator3.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.integrator3.local_set;
+ Modelica.Blocks.Interfaces.BooleanInput KPIEleHea.not1.u "Connector of Boolean input signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIEleHea.not1.y "Connector of Boolean output signal";
+ Modelica.Blocks.Interfaces.IntegerOutput KPIEleHea.integerConstant.y
+ "Connector of Integer output signal";
+ Modelica.Blocks.Interfaces.IntegerInput KPIEleHea.triggeredAdd.u
+ "Integer input signal";
+ Modelica.Blocks.Interfaces.IntegerOutput KPIEleHea.triggeredAdd.y
+ "Integer output signal";
+ Modelica.Blocks.Interfaces.BooleanInput KPIEleHea.triggeredAdd.trigger;
+ Modelica.Blocks.Interfaces.BooleanOutput KPIEleHea.triggeredAdd.local_reset;
+ Modelica.Blocks.Interfaces.IntegerOutput KPIEleHea.triggeredAdd.local_set;
+ Modelica.Blocks.Interfaces.RealInput KPIEleHea.integrator1.u "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.integrator1.y(start =
+ KPIEleHea.integrator1.y_start, unit = "s") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIEleHea.integrator1.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIEleHea.integrator1.local_set;
+ Integer KPIEleHea.KPI.numSwi "Number of switches";
+ Real KPIEleHea.KPI.sinOnTim(unit = "s", displayUnit = "h") "Time the device is on in a single on-cycle";
+ Real KPIEleHea.KPI.totOnTim(unit = "s", displayUnit = "h") "Total time the device is on";
+ Modelica.Blocks.Interfaces.RealInput KPIEleHea.uRea "Real input";
+ Modelica.Blocks.Interfaces.RealInput KPIQEleHea_flow.y(unit = "W") =
+ eleHea.vol.heatPort.Q_flow "Value of Real input";
+ Modelica.Blocks.Interfaces.RealInput KPIQEleHea_flow.integrator2.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIQEleHea_flow.integrator2.y(start =
+ KPIQEleHea_flow.integrator2.y_start, unit = "J") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIQEleHea_flow.integrator2.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIQEleHea_flow.integrator2.local_set;
+ Modelica.Blocks.Interfaces.RealInput KPIQEleHea_flow.internalU.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIQEleHea_flow.internalU.y(unit = "W")
+ "Connector of Real output signal";
+ Real KPIQEleHea_flow.KPI.value(unit = "W") "Current value";
+ Real KPIQEleHea_flow.KPI.integral(unit = "J") "Integral of value";
+ Modelica.Blocks.Interfaces.RealInput KPIPEleEleHea.y(unit = "W") = eleHea.Pel
+ "Value of Real input";
+ Modelica.Blocks.Interfaces.RealInput KPIPEleEleHea.integrator2.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIPEleEleHea.integrator2.y(start =
+ KPIPEleEleHea.integrator2.y_start, unit = "J") "Connector of Real output signal";
+ Modelica.Blocks.Interfaces.BooleanOutput KPIPEleEleHea.integrator2.local_reset;
+ Modelica.Blocks.Interfaces.RealOutput KPIPEleEleHea.integrator2.local_set;
+ Modelica.Blocks.Interfaces.RealInput KPIPEleEleHea.internalU.u
+ "Connector of Real input signal";
+ Modelica.Blocks.Interfaces.RealOutput KPIPEleEleHea.internalU.y(unit = "W")
+ "Connector of Real output signal";
+ Real KPIPEleEleHea.KPI.value(unit = "W") "Current value";
+ Real KPIPEleEleHea.KPI.integral(unit = "J") "Integral of value";
+
+// Equations and algorithms
+
+ // Component defCtrl.booCon
+ // class Modelica.Blocks.Sources.BooleanConstant
+ equation
+ defCtrl.booCon.y = defCtrl.booCon.k;
+
+ // Component defCtrl
+ // class BESMod.Systems.Hydraulical.Control.Components.Defrost.NoDefrost
+ equation
+ connect(defCtrl.booCon.y, defCtrl.hea);
+
+ // Component heatPump.refCyc.swiQEva
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.refCyc.swiQEva.y = (if heatPump.refCyc.swiQEva.u2 then
+ heatPump.refCyc.swiQEva.u1 else heatPump.refCyc.swiQEva.u3);
+
+ // Component heatPump.refCyc.swiQCon
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.refCyc.swiQCon.y = (if heatPump.refCyc.swiQCon.u2 then
+ heatPump.refCyc.swiQCon.u1 else heatPump.refCyc.swiQCon.u3);
+
+ // Component heatPump.refCyc.swiPEle
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.refCyc.swiPEle.y = (if heatPump.refCyc.swiPEle.u2 then
+ heatPump.refCyc.swiPEle.u1 else heatPump.refCyc.swiPEle.u3);
+
+ // Component heatPump.refCyc.pasTrhModSet
+ // class Modelica.Blocks.Routing.BooleanPassThrough
+ equation
+ heatPump.refCyc.pasTrhModSet.y = heatPump.refCyc.pasTrhModSet.u;
+
+ // Component heatPump.refCyc.refCycHeaPumHea.iceFacCal
+ // class AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.Frosting.NoFrosting
+ equation
+ heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac = 1;
+
+ // Component heatPump.refCyc.refCycHeaPumHea.redQCon
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.refCyc.refCycHeaPumHea.redQCon.y = heatPump.refCyc.refCycHeaPumHea.redQCon.k1
+ *heatPump.refCyc.refCycHeaPumHea.redQCon.u1+heatPump.refCyc.refCycHeaPumHea.redQCon.k2
+ *heatPump.refCyc.refCycHeaPumHea.redQCon.u2;
+
+ // Component heatPump.refCyc.refCycHeaPumHea.proRedQEva
+ // class Modelica.Blocks.Math.Product
+ equation
+ heatPump.refCyc.refCycHeaPumHea.proRedQEva.y = heatPump.refCyc.refCycHeaPumHea.proRedQEva.u1
+ *heatPump.refCyc.refCycHeaPumHea.proRedQEva.u2;
+
+ // Component heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva
+ // class Modelica.Blocks.Math.Feedback
+ equation
+ heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.y = heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u1
+ -heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u2;
+
+ // Component heatPump.refCyc.refCycHeaPumHea
+ // class RollOut.Systems.Hydraulical.Generation.BaseClasses.PartialHeatPump.RefrigerantCycleHeatPumpHeating
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.PartialRefrigerantCycle
+ equation
+ connect(heatPump.refCyc.refCycHeaPumHea.proRedQEva.y, heatPump.refCyc.refCycHeaPumHea.QEva_flow);
+ connect(heatPump.refCyc.refCycHeaPumHea.proRedQEva.y, heatPump.refCyc.refCycHeaPumHea.redQCon.u1);
+ connect(heatPump.refCyc.refCycHeaPumHea.redQCon.y, heatPump.refCyc.refCycHeaPumHea.QCon_flow);
+ connect(heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac, heatPump.refCyc.refCycHeaPumHea.proRedQEva.u1);
+ connect(heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus, heatPump.refCyc.refCycHeaPumHea.sigBus);
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.PartialHeatPumpCycle
+ equation
+ connect(heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac, heatPump.refCyc.refCycHeaPumHea.sigBus
+ .icefacHPMea);
+ connect(heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.y, heatPump.refCyc.refCycHeaPumHea.proRedQEva.u2);
+ // end of extends
+
+ // Component heatPump.refCyc.refCycHeaPumCoo.iceFacCal
+ // class AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.Frosting.NoFrosting
+ equation
+ heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac = 1;
+
+ // Component heatPump.refCyc.refCycHeaPumCoo.redQCon
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.refCyc.refCycHeaPumCoo.redQCon.y = heatPump.refCyc.refCycHeaPumCoo.redQCon.k1
+ *heatPump.refCyc.refCycHeaPumCoo.redQCon.u1+heatPump.refCyc.refCycHeaPumCoo.redQCon.k2
+ *heatPump.refCyc.refCycHeaPumCoo.redQCon.u2;
+
+ // Component heatPump.refCyc.refCycHeaPumCoo.proRedQEva
+ // class Modelica.Blocks.Math.Product
+ equation
+ heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y = heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1
+ *heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2;
+
+ // Component heatPump.refCyc.refCycHeaPumCoo.conPEle
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.refCyc.refCycHeaPumCoo.conPEle.y = heatPump.refCyc.refCycHeaPumCoo.conPEle.k;
+
+ // Component heatPump.refCyc.refCycHeaPumCoo.conQEva_flow
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.y = heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k;
+
+ // Component heatPump.refCyc.refCycHeaPumCoo
+ // class BESRules.Components.Frosting.BaseClasses.ReverseCycleDefrostHeatPump
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.PartialRefrigerantCycle
+ equation
+ connect(heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y, heatPump.refCyc.refCycHeaPumCoo.QEva_flow);
+ connect(heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y, heatPump.refCyc.refCycHeaPumCoo.redQCon.u1);
+ connect(heatPump.refCyc.refCycHeaPumCoo.redQCon.y, heatPump.refCyc.refCycHeaPumCoo.QCon_flow);
+ connect(heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac, heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1);
+ connect(heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus, heatPump.refCyc.refCycHeaPumCoo.sigBus);
+ // extends AixLib.Fluid.Chillers.ModularReversible.RefrigerantCycle.BaseClasses.PartialChillerCycle
+ equation
+ connect(heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac, heatPump.refCyc.refCycHeaPumCoo.sigBus
+ .iceFacChiMea);
+ // end of extends
+ equation
+ connect(heatPump.refCyc.refCycHeaPumCoo.conPEle.y, heatPump.refCyc.refCycHeaPumCoo.PEle);
+ connect(heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.y, heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2);
+ connect(heatPump.refCyc.refCycHeaPumCoo.conPEle.y, heatPump.refCyc.refCycHeaPumCoo.redQCon.u2);
+
+ // Component heatPump.refCyc
+ // class RollOut.Systems.Hydraulical.Generation.HeatPump.RefrigerantCycle
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.PartialModularRefrigerantCycle
+ equation
+ assert(heatPump.refCyc.use_rev or heatPump.refCyc.use_rev == false and
+ heatPump.refCyc.pasTrhModSet.y == true, "In HeatPumpAndElectricHeater.heatPump.refCyc: Can't turn to reversible operation mode on
+ irreversible refrigerant machine.");
+ connect(heatPump.refCyc.swiQEva.y, heatPump.refCyc.QEva_flow);
+ connect(heatPump.refCyc.swiPEle.y, heatPump.refCyc.PEle);
+ connect(heatPump.refCyc.swiQCon.y, heatPump.refCyc.QCon_flow);
+ // end of extends
+ equation
+ connect(heatPump.refCyc.pasTrhModSet.u, heatPump.refCyc.sigBus.hea);
+ connect(heatPump.refCyc.sigBus, heatPump.refCyc.refCycHeaPumCoo.sigBus);
+ connect(heatPump.refCyc.sigBus, heatPump.refCyc.refCycHeaPumHea.sigBus);
+ connect(heatPump.refCyc.swiQCon.u2, heatPump.refCyc.sigBus.hea);
+ connect(heatPump.refCyc.swiPEle.u2, heatPump.refCyc.sigBus.hea);
+ connect(heatPump.refCyc.swiQEva.u2, heatPump.refCyc.sigBus.hea);
+ connect(heatPump.refCyc.refCycHeaPumHea.QCon_flow, heatPump.refCyc.swiQCon.u1);
+ connect(heatPump.refCyc.refCycHeaPumHea.QEva_flow, heatPump.refCyc.swiQEva.u1);
+ connect(heatPump.refCyc.refCycHeaPumCoo.QEva_flow, heatPump.refCyc.swiQCon.u3);
+ connect(heatPump.refCyc.refCycHeaPumCoo.QCon_flow, heatPump.refCyc.swiQEva.u3);
+ connect(heatPump.refCyc.refCycHeaPumCoo.PEle, heatPump.refCyc.swiPEle.u3);
+ connect(heatPump.refCyc.refCycHeaPumHea.PEle, heatPump.refCyc.swiPEle.u1);
+
+ // Component heatPump.con.vol.preTem
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedTemperature
+ equation
+ heatPump.con.vol.preTem.port.T = heatPump.con.vol.preTem.T;
+
+ // Component heatPump.con.vol.heaFloSen
+ // class Modelica.Thermal.HeatTransfer.Sensors.HeatFlowSensor
+ equation
+ heatPump.con.vol.heaFloSen.port_a.T = heatPump.con.vol.heaFloSen.port_b.T;
+ heatPump.con.vol.heaFloSen.port_a.Q_flow+heatPump.con.vol.heaFloSen.port_b.Q_flow
+ = 0;
+ heatPump.con.vol.heaFloSen.Q_flow = heatPump.con.vol.heaFloSen.port_a.Q_flow;
+
+ // Component heatPump.con.vol.dynBal.medium
+ // class Modelica.Media.Interfaces.PartialMedium.BaseProperties
+ equation
+ if (heatPump.con.vol.dynBal.medium.standardOrderComponents) then
+ heatPump.con.vol.dynBal.medium.Xi = heatPump.con.vol.dynBal.medium.X[1:0];
+ heatPump.con.vol.dynBal.medium.X[1] = 1-sum(heatPump.con.vol.dynBal.medium.Xi);
+ for i in (1:1) loop
+ assert(heatPump.con.vol.dynBal.medium.X[i] >= -1E-05 and
+ heatPump.con.vol.dynBal.medium.X[i] <= 1.00001, "Mass fraction X["+
+ String(i)+"] = "+String(heatPump.con.vol.dynBal.medium.X[i])+
+ "of substance "+({"unusablePartialMedium"})[i]+"\nof medium "+
+ "unusablePartialMedium"+" is not in the range 0..1");
+ end for;
+ end if;
+ assert(heatPump.con.vol.dynBal.medium.p >= 0.0, "Pressure (= "+String(
+ heatPump.con.vol.dynBal.medium.p)+" Pa) of medium \""+"unusablePartialMedium"
+ +"\" is negative\n(Temperature = "+String(heatPump.con.vol.dynBal.medium.T)
+ +" K)");
+
+ // Component heatPump.con.vol.dynBal
+ // class AixLib.Fluid.Interfaces.ConservationEquation
+ equation
+ connect(heatPump.con.vol.dynBal.mWat_flow, heatPump.con.vol.dynBal.mWat_flow_internal);
+ if ( not heatPump.con.vol.dynBal.use_mWat_flow) then
+ heatPump.con.vol.dynBal.mWat_flow_internal = 0;
+ end if;
+ connect(heatPump.con.vol.dynBal.C_flow, heatPump.con.vol.dynBal.C_flow_internal);
+ if ( not heatPump.con.vol.dynBal.use_C_flow) then
+ heatPump.con.vol.dynBal.C_flow_internal = zeros(0);
+ end if;
+ if (heatPump.con.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ heatPump.con.vol.dynBal.m = heatPump.con.vol.dynBal.fluidVolume*
+ heatPump.con.vol.dynBal.rho_start;
+ else
+ if (heatPump.con.vol.dynBal._simplify_mWat_flow) then
+ heatPump.con.vol.dynBal.m = heatPump.con.vol.dynBal.fluidVolume*
+ density_Unique1(
+ setState_phX_Unique8(heatPump.con.vol.dynBal.medium.p,
+ heatPump.con.vol.dynBal.hOut, {1.0}));
+ else
+ heatPump.con.vol.dynBal.m = heatPump.con.vol.dynBal.fluidVolume*
+ heatPump.con.vol.dynBal.medium.d;
+ end if;
+ end if;
+ heatPump.con.vol.dynBal.mXi = heatPump.con.vol.dynBal.m*heatPump.con.vol.dynBal.medium.Xi;
+ if (heatPump.con.vol.dynBal.computeCSen) then
+ heatPump.con.vol.dynBal.U = heatPump.con.vol.dynBal.m*heatPump.con.vol.dynBal.medium.u
+ +heatPump.con.vol.dynBal.CSen*(heatPump.con.vol.dynBal.medium.T-298.15);
+ else
+ heatPump.con.vol.dynBal.U = heatPump.con.vol.dynBal.m*heatPump.con.vol.dynBal.medium.u;
+ end if;
+ heatPump.con.vol.dynBal.mC = heatPump.con.vol.dynBal.m*heatPump.con.vol.dynBal.C;
+ heatPump.con.vol.dynBal.hOut = heatPump.con.vol.dynBal.medium.h;
+ heatPump.con.vol.dynBal.XiOut = heatPump.con.vol.dynBal.medium.Xi;
+ heatPump.con.vol.dynBal.COut = heatPump.con.vol.dynBal.C;
+ for i in (1:heatPump.con.vol.dynBal.nPorts) loop
+ heatPump.con.vol.dynBal.ports_H_flow[i] = semiLinear(heatPump.con.vol.dynBal.ports
+ [i].m_flow, inStream(heatPump.con.vol.dynBal.ports[i].h_outflow),
+ heatPump.con.vol.dynBal.ports[i].h_outflow);
+ for j in (1:0) loop
+ heatPump.con.vol.dynBal.ports_mXi_flow[i, j] = semiLinear(
+ heatPump.con.vol.dynBal.ports[i].m_flow, inStream(heatPump.con.vol.dynBal.ports
+ [i].Xi_outflow[j]), heatPump.con.vol.dynBal.ports[i].Xi_outflow[j]);
+ end for;
+ for j in (1:0) loop
+ heatPump.con.vol.dynBal.ports_mC_flow[i, j] = semiLinear(
+ heatPump.con.vol.dynBal.ports[i].m_flow, inStream(heatPump.con.vol.dynBal.ports
+ [i].C_outflow[j]), heatPump.con.vol.dynBal.ports[i].C_outflow[j]);
+ end for;
+ end for;
+ for i in (1:0) loop
+ heatPump.con.vol.dynBal.mbXi_flow[i] = sum(heatPump.con.vol.dynBal.ports_mXi_flow
+ [:, i]);
+ end for;
+ for i in (1:0) loop
+ heatPump.con.vol.dynBal.mbC_flow[i] = sum(heatPump.con.vol.dynBal.ports_mC_flow
+ [:, i]);
+ end for;
+ heatPump.con.vol.dynBal.mb_flow = sum(heatPump.con.vol.dynBal.ports.m_flow);
+ heatPump.con.vol.dynBal.Hb_flow = sum(heatPump.con.vol.dynBal.ports_H_flow);
+ if (heatPump.con.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = heatPump.con.vol.dynBal.Hb_flow+heatPump.con.vol.dynBal.Q_flow;
+ else
+ der(heatPump.con.vol.dynBal.U) = heatPump.con.vol.dynBal.Hb_flow+
+ heatPump.con.vol.dynBal.Q_flow;
+ end if;
+ if (heatPump.con.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = heatPump.con.vol.dynBal.mb_flow+(if heatPump.con.vol.dynBal.simplify_mWat_flow
+ then 0 else heatPump.con.vol.dynBal.mWat_flow_internal);
+ else
+ der(heatPump.con.vol.dynBal.m) = heatPump.con.vol.dynBal.mb_flow+(if
+ heatPump.con.vol.dynBal.simplify_mWat_flow then 0 else heatPump.con.vol.dynBal.mWat_flow_internal);
+ end if;
+ if (heatPump.con.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = heatPump.con.vol.dynBal.mbXi_flow+heatPump.con.vol.dynBal.mWat_flow_internal
+ *heatPump.con.vol.dynBal.s;
+ else
+ der(heatPump.con.vol.dynBal.medium.Xi) = (heatPump.con.vol.dynBal.mbXi_flow
+ +heatPump.con.vol.dynBal.mWat_flow_internal*heatPump.con.vol.dynBal.s)/
+ heatPump.con.vol.dynBal.m;
+ end if;
+ if (heatPump.con.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = heatPump.con.vol.dynBal.mbC_flow+heatPump.con.vol.dynBal.C_flow_internal;
+ else
+ der(heatPump.con.vol.dynBal.mC) = heatPump.con.vol.dynBal.mbC_flow+
+ heatPump.con.vol.dynBal.C_flow_internal;
+ end if;
+ for i in (1:heatPump.con.vol.dynBal.nPorts) loop
+ heatPump.con.vol.dynBal.ports[i].p = heatPump.con.vol.dynBal.medium.p;
+ heatPump.con.vol.dynBal.ports[i].h_outflow = heatPump.con.vol.dynBal.medium.h;
+ heatPump.con.vol.dynBal.ports[i].Xi_outflow = heatPump.con.vol.dynBal.medium.Xi;
+ heatPump.con.vol.dynBal.ports[i].C_outflow = heatPump.con.vol.dynBal.C;
+ end for;
+ heatPump.con.vol.dynBal.UOut = heatPump.con.vol.dynBal.U;
+ heatPump.con.vol.dynBal.mXiOut = heatPump.con.vol.dynBal.mXi;
+ heatPump.con.vol.dynBal.mOut = heatPump.con.vol.dynBal.m;
+ heatPump.con.vol.dynBal.mCOut = heatPump.con.vol.dynBal.mC;
+
+ // Component heatPump.con.vol
+ // class AixLib.Fluid.MixingVolumes.MixingVolume
+ // extends AixLib.Fluid.MixingVolumes.BaseClasses.PartialMixingVolume
+ equation
+ if ( not heatPump.con.vol.allowFlowReversal) then
+ assert(heatPump.con.vol.ports[1].m_flow > -heatPump.con.vol.m_flow_small,
+ "In HeatPumpAndElectricHeater.heatPump.con.vol: Model has flow reversal,
+ but the parameter allowFlowReversal is set to false.
+ m_flow_small = "
+ +String(heatPump.con.vol.m_flow_small)+"
+ ports[1].m_flow = "+String(
+ heatPump.con.vol.ports[1].m_flow)+"
+");
+ end if;
+ if (heatPump.con.vol.useSteadyStateTwoPort) then
+ connect(heatPump.con.vol.steBal.port_a, heatPump.con.vol.ports[1]);
+ connect(heatPump.con.vol.steBal.port_b, heatPump.con.vol.ports[2]);
+ heatPump.con.vol.U = 0;
+ heatPump.con.vol.mXi = zeros(0);
+ heatPump.con.vol.m = 0;
+ heatPump.con.vol.mC = zeros(0);
+ connect(heatPump.con.vol.hOut_internal, heatPump.con.vol.steBal.hOut);
+ connect(heatPump.con.vol.XiOut_internal, heatPump.con.vol.steBal.XiOut);
+ connect(heatPump.con.vol.COut_internal, heatPump.con.vol.steBal.COut);
+ else
+ connect(heatPump.con.vol.dynBal.ports, heatPump.con.vol.ports);
+ connect(heatPump.con.vol.U, heatPump.con.vol.dynBal.UOut);
+ connect(heatPump.con.vol.mXi, heatPump.con.vol.dynBal.mXiOut);
+ connect(heatPump.con.vol.m, heatPump.con.vol.dynBal.mOut);
+ connect(heatPump.con.vol.mC, heatPump.con.vol.dynBal.mCOut);
+ connect(heatPump.con.vol.hOut_internal, heatPump.con.vol.dynBal.hOut);
+ connect(heatPump.con.vol.XiOut_internal, heatPump.con.vol.dynBal.XiOut);
+ connect(heatPump.con.vol.COut_internal, heatPump.con.vol.dynBal.COut);
+ end if;
+ connect(heatPump.con.vol.portT.y, heatPump.con.vol.preTem.T);
+ connect(heatPump.con.vol.heaFloSen.port_b, heatPump.con.vol.preTem.port);
+ connect(heatPump.con.vol.heaFloSen.Q_flow, heatPump.con.vol.steBal.Q_flow);
+ connect(heatPump.con.vol.heaFloSen.Q_flow, heatPump.con.vol.dynBal.Q_flow);
+ // end of extends
+ equation
+ connect(heatPump.con.vol.heaFloSen.port_a, heatPump.con.vol.heatPort);
+ connect(heatPump.con.vol.C_flow, heatPump.con.vol.steBal.C_flow);
+ connect(heatPump.con.vol.C_flow, heatPump.con.vol.dynBal.C_flow);
+
+ // Component heatPump.con.preDro
+ // class AixLib.Fluid.FixedResistances.PressureDrop
+ // extends AixLib.Fluid.BaseClasses.PartialResistance
+ equation
+ heatPump.con.preDro.port_a.h_outflow = (if heatPump.con.preDro.allowFlowReversal
+ then inStream(heatPump.con.preDro.port_b.h_outflow) else
+ specificEnthalpy_pTX_Unique4(101325, 293.15, {1.0}));
+ heatPump.con.preDro.port_b.h_outflow = inStream(heatPump.con.preDro.port_a.h_outflow);
+ heatPump.con.preDro.port_a.m_flow+heatPump.con.preDro.port_b.m_flow = 0;
+ heatPump.con.preDro.port_a.Xi_outflow = (if heatPump.con.preDro.allowFlowReversal
+ then inStream(heatPump.con.preDro.port_b.Xi_outflow) else {});
+ heatPump.con.preDro.port_b.Xi_outflow = inStream(heatPump.con.preDro.port_a.Xi_outflow);
+ heatPump.con.preDro.port_a.C_outflow = (if heatPump.con.preDro.allowFlowReversal
+ then inStream(heatPump.con.preDro.port_b.C_outflow) else zeros(0));
+ heatPump.con.preDro.port_b.C_outflow = inStream(heatPump.con.preDro.port_a.C_outflow);
+ // end of extends
+ equation
+ if (heatPump.con.preDro.computeFlowResistance) then
+ if (heatPump.con.preDro.linearized) then
+ if (heatPump.con.preDro.from_dp) then
+ heatPump.con.preDro.m_flow = heatPump.con.preDro.dp*heatPump.con.preDro.coeff;
+ else
+ heatPump.con.preDro.dp = heatPump.con.preDro.m_flow*heatPump.con.preDro.coeff;
+ end if;
+ else
+ if (heatPump.con.preDro.homotopyInitialization) then
+ if (heatPump.con.preDro.from_dp) then
+ heatPump.con.preDro.m_flow = homotopy(AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp
+ (heatPump.con.preDro.dp, heatPump.con.preDro.k, heatPump.con.preDro.m_flow_turbulent),
+ heatPump.con.preDro.m_flow_nominal_pos*heatPump.con.preDro.dp/
+ heatPump.con.preDro.dp_nominal_pos);
+ else
+ heatPump.con.preDro.dp = homotopy(AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow
+ (heatPump.con.preDro.m_flow, heatPump.con.preDro.k,
+ heatPump.con.preDro.m_flow_turbulent), heatPump.con.preDro.dp_nominal_pos
+ *heatPump.con.preDro.m_flow/heatPump.con.preDro.m_flow_nominal_pos);
+ end if;
+ else
+ if (heatPump.con.preDro.from_dp) then
+ heatPump.con.preDro.m_flow = AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp
+ (heatPump.con.preDro.dp, heatPump.con.preDro.k, heatPump.con.preDro.m_flow_turbulent);
+ else
+ heatPump.con.preDro.dp = AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow
+ (heatPump.con.preDro.m_flow, heatPump.con.preDro.k,
+ heatPump.con.preDro.m_flow_turbulent);
+ end if;
+ end if;
+ end if;
+ else
+ heatPump.con.preDro.dp = 0;
+ end if;
+
+ // Component heatPump.con.preHea
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedHeatFlow
+ equation
+ heatPump.con.preHea.port.Q_flow = -heatPump.con.preHea.Q_flow*(1+
+ heatPump.con.preHea.alpha*(heatPump.con.preHea.port.T-heatPump.con.preHea.T_ref));
+
+ // Component heatPump.con.senT
+ // class Modelica.Thermal.HeatTransfer.Sensors.TemperatureSensor
+ equation
+ heatPump.con.senT.T = heatPump.con.senT.port.T;
+ heatPump.con.senT.port.Q_flow = 0;
+
+ // Component heatPump.con
+ // class AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.EvaporatorCondenserWithCapacity
+ // extends AixLib.Fluid.Interfaces.TwoPortHeatMassExchanger
+ equation
+ connect(heatPump.con.vol.ports[2], heatPump.con.port_b);
+ connect(heatPump.con.port_a, heatPump.con.preDro.port_a);
+ connect(heatPump.con.preDro.port_b, heatPump.con.vol.ports[1]);
+ // end of extends
+ equation
+ connect(heatPump.con.conIns.fluid, heatPump.con.heaCap.port);
+ connect(heatPump.con.heaCap.port, heatPump.con.conOut.solid);
+ connect(heatPump.con.conIns.Gc, heatPump.con.heaLosInt.y);
+ connect(heatPump.con.conOut.fluid, heatPump.con.port_out);
+ connect(heatPump.con.conOut.Gc, heatPump.con.heaLosExt.y);
+ connect(heatPump.con.vol.heatPort, heatPump.con.conIns.solid);
+ connect(heatPump.con.vol.heatPort, heatPump.con.preHea.port);
+ connect(heatPump.con.preHea.Q_flow, heatPump.con.Q_flow);
+ connect(heatPump.con.senT.port, heatPump.con.vol.heatPort);
+ connect(heatPump.con.senT.T, heatPump.con.T);
+
+ // Component heatPump.eva.vol.preTem
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedTemperature
+ equation
+ heatPump.eva.vol.preTem.port.T = heatPump.eva.vol.preTem.T;
+
+ // Component heatPump.eva.vol.heaFloSen
+ // class Modelica.Thermal.HeatTransfer.Sensors.HeatFlowSensor
+ equation
+ heatPump.eva.vol.heaFloSen.port_a.T = heatPump.eva.vol.heaFloSen.port_b.T;
+ heatPump.eva.vol.heaFloSen.port_a.Q_flow+heatPump.eva.vol.heaFloSen.port_b.Q_flow
+ = 0;
+ heatPump.eva.vol.heaFloSen.Q_flow = heatPump.eva.vol.heaFloSen.port_a.Q_flow;
+
+ // Component heatPump.eva.vol.dynBal.medium
+ // class IBPSA.Media.Air.BaseProperties
+ equation
+ heatPump.eva.vol.dynBal.medium.MM = 1/(heatPump.eva.vol.dynBal.medium.X[1]/
+ 0.01801528+heatPump.eva.vol.dynBal.medium.X[2]/0.0289651159);
+ heatPump.eva.vol.dynBal.medium.dT = heatPump.eva.vol.dynBal.medium.T-273.15;
+ heatPump.eva.vol.dynBal.medium.h = heatPump.eva.vol.dynBal.medium.dT*1006*
+ heatPump.eva.vol.dynBal.medium.X[2]+(heatPump.eva.vol.dynBal.medium.dT*1860
+ +2501014.5)*heatPump.eva.vol.dynBal.medium.X[1];
+ heatPump.eva.vol.dynBal.medium.R_s = 287.0512249529787*heatPump.eva.vol.dynBal.medium.X
+ [2]+461.5233290850878*heatPump.eva.vol.dynBal.medium.X[1];
+ heatPump.eva.vol.dynBal.medium.u = heatPump.eva.vol.dynBal.medium.h-84437.5;
+ heatPump.eva.vol.dynBal.medium.d/1.2 = heatPump.eva.vol.dynBal.medium.p/101325;
+ heatPump.eva.vol.dynBal.medium.state.p = heatPump.eva.vol.dynBal.medium.p;
+ heatPump.eva.vol.dynBal.medium.state.T = heatPump.eva.vol.dynBal.medium.T;
+ heatPump.eva.vol.dynBal.medium.state.X = heatPump.eva.vol.dynBal.medium.X;
+ heatPump.eva.vol.dynBal.medium.X[1] = heatPump.eva.vol.dynBal.medium.Xi[1];
+ heatPump.eva.vol.dynBal.medium.X[2] = 1-heatPump.eva.vol.dynBal.medium.X[1];
+ assert(noEvent(heatPump.eva.vol.dynBal.medium.X[1] >= -1E-05) and noEvent(
+ heatPump.eva.vol.dynBal.medium.X[1] <= 1.00001), "Mass fraction X[1] = "+
+ String(heatPump.eva.vol.dynBal.medium.X[1])+" of substance water"+
+ "\nof medium \"IBPSA.Media.Air\" is not in the range 0..1");
+ assert(noEvent(heatPump.eva.vol.dynBal.medium.T >= 200.0), "In HeatPumpAndElectricHeater.heatPump.eva.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)
+as required from medium model \"IBPSA.Media.Air\".");
+ assert(noEvent(heatPump.eva.vol.dynBal.medium.T <= 423.15), "In HeatPumpAndElectricHeater.heatPump.eva.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)
+as required from medium model \"IBPSA.Media.Air\".");
+ assert(noEvent(heatPump.eva.vol.dynBal.medium.p >= 0.0), "Pressure (= "+
+ String(heatPump.eva.vol.dynBal.medium.p)+" Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "
+ +String(heatPump.eva.vol.dynBal.medium.T)+" K)");
+
+ // Component heatPump.eva.vol.dynBal
+ // class AixLib.Fluid.Interfaces.ConservationEquation
+ equation
+ connect(heatPump.eva.vol.dynBal.mWat_flow, heatPump.eva.vol.dynBal.mWat_flow_internal);
+ if ( not heatPump.eva.vol.dynBal.use_mWat_flow) then
+ heatPump.eva.vol.dynBal.mWat_flow_internal = 0;
+ end if;
+ connect(heatPump.eva.vol.dynBal.C_flow, heatPump.eva.vol.dynBal.C_flow_internal);
+ if ( not heatPump.eva.vol.dynBal.use_C_flow) then
+ heatPump.eva.vol.dynBal.C_flow_internal = zeros(0);
+ end if;
+ if (heatPump.eva.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ heatPump.eva.vol.dynBal.m = heatPump.eva.vol.dynBal.fluidVolume*
+ heatPump.eva.vol.dynBal.rho_start;
+ else
+ if (heatPump.eva.vol.dynBal._simplify_mWat_flow) then
+ heatPump.eva.vol.dynBal.m = heatPump.eva.vol.dynBal.fluidVolume*
+ density_Unique15(
+ setState_phX_Unique14(heatPump.eva.vol.dynBal.medium.p,
+ heatPump.eva.vol.dynBal.hOut, {0.01, 0.99}));
+ else
+ heatPump.eva.vol.dynBal.m = heatPump.eva.vol.dynBal.fluidVolume*
+ heatPump.eva.vol.dynBal.medium.d;
+ end if;
+ end if;
+ heatPump.eva.vol.dynBal.mXi = heatPump.eva.vol.dynBal.m*heatPump.eva.vol.dynBal.medium.Xi;
+ if (heatPump.eva.vol.dynBal.computeCSen) then
+ heatPump.eva.vol.dynBal.U = heatPump.eva.vol.dynBal.m*heatPump.eva.vol.dynBal.medium.u
+ +heatPump.eva.vol.dynBal.CSen*(heatPump.eva.vol.dynBal.medium.T-273.15);
+ else
+ heatPump.eva.vol.dynBal.U = heatPump.eva.vol.dynBal.m*heatPump.eva.vol.dynBal.medium.u;
+ end if;
+ heatPump.eva.vol.dynBal.mC = heatPump.eva.vol.dynBal.m*heatPump.eva.vol.dynBal.C;
+ heatPump.eva.vol.dynBal.hOut = heatPump.eva.vol.dynBal.medium.h;
+ heatPump.eva.vol.dynBal.XiOut = heatPump.eva.vol.dynBal.medium.Xi;
+ heatPump.eva.vol.dynBal.COut = heatPump.eva.vol.dynBal.C;
+ for i in (1:heatPump.eva.vol.dynBal.nPorts) loop
+ heatPump.eva.vol.dynBal.ports_H_flow[i] = semiLinear(heatPump.eva.vol.dynBal.ports
+ [i].m_flow, inStream(heatPump.eva.vol.dynBal.ports[i].h_outflow),
+ heatPump.eva.vol.dynBal.ports[i].h_outflow);
+ for j in (1:1) loop
+ heatPump.eva.vol.dynBal.ports_mXi_flow[i, j] = semiLinear(
+ heatPump.eva.vol.dynBal.ports[i].m_flow, inStream(heatPump.eva.vol.dynBal.ports
+ [i].Xi_outflow[j]), heatPump.eva.vol.dynBal.ports[i].Xi_outflow[j]);
+ end for;
+ for j in (1:0) loop
+ heatPump.eva.vol.dynBal.ports_mC_flow[i, j] = semiLinear(
+ heatPump.eva.vol.dynBal.ports[i].m_flow, inStream(heatPump.eva.vol.dynBal.ports
+ [i].C_outflow[j]), heatPump.eva.vol.dynBal.ports[i].C_outflow[j]);
+ end for;
+ end for;
+ for i in (1:1) loop
+ heatPump.eva.vol.dynBal.mbXi_flow[i] = sum(heatPump.eva.vol.dynBal.ports_mXi_flow
+ [:, i]);
+ end for;
+ for i in (1:0) loop
+ heatPump.eva.vol.dynBal.mbC_flow[i] = sum(heatPump.eva.vol.dynBal.ports_mC_flow
+ [:, i]);
+ end for;
+ heatPump.eva.vol.dynBal.mb_flow = sum(heatPump.eva.vol.dynBal.ports.m_flow);
+ heatPump.eva.vol.dynBal.Hb_flow = sum(heatPump.eva.vol.dynBal.ports_H_flow);
+ if (heatPump.eva.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = heatPump.eva.vol.dynBal.Hb_flow+heatPump.eva.vol.dynBal.Q_flow;
+ else
+ der(heatPump.eva.vol.dynBal.U) = heatPump.eva.vol.dynBal.Hb_flow+
+ heatPump.eva.vol.dynBal.Q_flow;
+ end if;
+ if (heatPump.eva.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = heatPump.eva.vol.dynBal.mb_flow+(if heatPump.eva.vol.dynBal.simplify_mWat_flow
+ then 0 else heatPump.eva.vol.dynBal.mWat_flow_internal);
+ else
+ der(heatPump.eva.vol.dynBal.m) = heatPump.eva.vol.dynBal.mb_flow+(if
+ heatPump.eva.vol.dynBal.simplify_mWat_flow then 0 else heatPump.eva.vol.dynBal.mWat_flow_internal);
+ end if;
+ if (heatPump.eva.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(1) = heatPump.eva.vol.dynBal.mbXi_flow+heatPump.eva.vol.dynBal.mWat_flow_internal
+ *heatPump.eva.vol.dynBal.s;
+ else
+ der(heatPump.eva.vol.dynBal.medium.Xi) = (heatPump.eva.vol.dynBal.mbXi_flow
+ +heatPump.eva.vol.dynBal.mWat_flow_internal*heatPump.eva.vol.dynBal.s)/
+ heatPump.eva.vol.dynBal.m;
+ end if;
+ if (heatPump.eva.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = heatPump.eva.vol.dynBal.mbC_flow+heatPump.eva.vol.dynBal.C_flow_internal;
+ else
+ der(heatPump.eva.vol.dynBal.mC) = heatPump.eva.vol.dynBal.mbC_flow+
+ heatPump.eva.vol.dynBal.C_flow_internal;
+ end if;
+ for i in (1:heatPump.eva.vol.dynBal.nPorts) loop
+ heatPump.eva.vol.dynBal.ports[i].p = heatPump.eva.vol.dynBal.medium.p;
+ heatPump.eva.vol.dynBal.ports[i].h_outflow = heatPump.eva.vol.dynBal.medium.h;
+ heatPump.eva.vol.dynBal.ports[i].Xi_outflow = heatPump.eva.vol.dynBal.medium.Xi;
+ heatPump.eva.vol.dynBal.ports[i].C_outflow = heatPump.eva.vol.dynBal.C;
+ end for;
+ heatPump.eva.vol.dynBal.UOut = heatPump.eva.vol.dynBal.U;
+ heatPump.eva.vol.dynBal.mXiOut = heatPump.eva.vol.dynBal.mXi;
+ heatPump.eva.vol.dynBal.mOut = heatPump.eva.vol.dynBal.m;
+ heatPump.eva.vol.dynBal.mCOut = heatPump.eva.vol.dynBal.mC;
+
+ // Component heatPump.eva.vol
+ // class AixLib.Fluid.MixingVolumes.MixingVolume
+ // extends AixLib.Fluid.MixingVolumes.BaseClasses.PartialMixingVolume
+ equation
+ if ( not heatPump.eva.vol.allowFlowReversal) then
+ assert(heatPump.eva.vol.ports[1].m_flow > -heatPump.eva.vol.m_flow_small,
+ "In HeatPumpAndElectricHeater.heatPump.eva.vol: Model has flow reversal,
+ but the parameter allowFlowReversal is set to false.
+ m_flow_small = "
+ +String(heatPump.eva.vol.m_flow_small)+"
+ ports[1].m_flow = "+String(
+ heatPump.eva.vol.ports[1].m_flow)+"
+");
+ end if;
+ if (heatPump.eva.vol.useSteadyStateTwoPort) then
+ connect(heatPump.eva.vol.steBal.port_a, heatPump.eva.vol.ports[1]);
+ connect(heatPump.eva.vol.steBal.port_b, heatPump.eva.vol.ports[2]);
+ heatPump.eva.vol.U = 0;
+ heatPump.eva.vol.mXi = zeros(1);
+ heatPump.eva.vol.m = 0;
+ heatPump.eva.vol.mC = zeros(0);
+ connect(heatPump.eva.vol.hOut_internal, heatPump.eva.vol.steBal.hOut);
+ connect(heatPump.eva.vol.XiOut_internal, heatPump.eva.vol.steBal.XiOut);
+ connect(heatPump.eva.vol.COut_internal, heatPump.eva.vol.steBal.COut);
+ else
+ connect(heatPump.eva.vol.dynBal.ports, heatPump.eva.vol.ports);
+ connect(heatPump.eva.vol.U, heatPump.eva.vol.dynBal.UOut);
+ connect(heatPump.eva.vol.mXi, heatPump.eva.vol.dynBal.mXiOut);
+ connect(heatPump.eva.vol.m, heatPump.eva.vol.dynBal.mOut);
+ connect(heatPump.eva.vol.mC, heatPump.eva.vol.dynBal.mCOut);
+ connect(heatPump.eva.vol.hOut_internal, heatPump.eva.vol.dynBal.hOut);
+ connect(heatPump.eva.vol.XiOut_internal, heatPump.eva.vol.dynBal.XiOut);
+ connect(heatPump.eva.vol.COut_internal, heatPump.eva.vol.dynBal.COut);
+ end if;
+ connect(heatPump.eva.vol.portT.y, heatPump.eva.vol.preTem.T);
+ connect(heatPump.eva.vol.heaFloSen.port_b, heatPump.eva.vol.preTem.port);
+ connect(heatPump.eva.vol.heaFloSen.Q_flow, heatPump.eva.vol.steBal.Q_flow);
+ connect(heatPump.eva.vol.heaFloSen.Q_flow, heatPump.eva.vol.dynBal.Q_flow);
+ // end of extends
+ equation
+ connect(heatPump.eva.vol.heaFloSen.port_a, heatPump.eva.vol.heatPort);
+ connect(heatPump.eva.vol.C_flow, heatPump.eva.vol.steBal.C_flow);
+ connect(heatPump.eva.vol.C_flow, heatPump.eva.vol.dynBal.C_flow);
+
+ // Component heatPump.eva.preDro
+ // class AixLib.Fluid.FixedResistances.PressureDrop
+ // extends AixLib.Fluid.BaseClasses.PartialResistance
+ equation
+ heatPump.eva.preDro.port_a.h_outflow = (if heatPump.eva.preDro.allowFlowReversal
+ then inStream(heatPump.eva.preDro.port_b.h_outflow) else 45300.945);
+ heatPump.eva.preDro.port_b.h_outflow = inStream(heatPump.eva.preDro.port_a.h_outflow);
+ heatPump.eva.preDro.port_a.m_flow+heatPump.eva.preDro.port_b.m_flow = 0;
+ heatPump.eva.preDro.port_a.Xi_outflow = (if heatPump.eva.preDro.allowFlowReversal
+ then inStream(heatPump.eva.preDro.port_b.Xi_outflow) else {0.01});
+ heatPump.eva.preDro.port_b.Xi_outflow = inStream(heatPump.eva.preDro.port_a.Xi_outflow);
+ heatPump.eva.preDro.port_a.C_outflow = (if heatPump.eva.preDro.allowFlowReversal
+ then inStream(heatPump.eva.preDro.port_b.C_outflow) else zeros(0));
+ heatPump.eva.preDro.port_b.C_outflow = inStream(heatPump.eva.preDro.port_a.C_outflow);
+ // end of extends
+ equation
+ if (heatPump.eva.preDro.computeFlowResistance) then
+ if (heatPump.eva.preDro.linearized) then
+ if (heatPump.eva.preDro.from_dp) then
+ heatPump.eva.preDro.m_flow = heatPump.eva.preDro.dp*heatPump.eva.preDro.coeff;
+ else
+ heatPump.eva.preDro.dp = heatPump.eva.preDro.m_flow*heatPump.eva.preDro.coeff;
+ end if;
+ else
+ if (heatPump.eva.preDro.homotopyInitialization) then
+ if (heatPump.eva.preDro.from_dp) then
+ heatPump.eva.preDro.m_flow = homotopy(AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp
+ (heatPump.eva.preDro.dp, heatPump.eva.preDro.k, heatPump.eva.preDro.m_flow_turbulent),
+ heatPump.eva.preDro.m_flow_nominal_pos*heatPump.eva.preDro.dp/
+ heatPump.eva.preDro.dp_nominal_pos);
+ else
+ heatPump.eva.preDro.dp = homotopy(AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow
+ (heatPump.eva.preDro.m_flow, heatPump.eva.preDro.k,
+ heatPump.eva.preDro.m_flow_turbulent), heatPump.eva.preDro.dp_nominal_pos
+ *heatPump.eva.preDro.m_flow/heatPump.eva.preDro.m_flow_nominal_pos);
+ end if;
+ else
+ if (heatPump.eva.preDro.from_dp) then
+ heatPump.eva.preDro.m_flow = AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp
+ (heatPump.eva.preDro.dp, heatPump.eva.preDro.k, heatPump.eva.preDro.m_flow_turbulent);
+ else
+ heatPump.eva.preDro.dp = AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow
+ (heatPump.eva.preDro.m_flow, heatPump.eva.preDro.k,
+ heatPump.eva.preDro.m_flow_turbulent);
+ end if;
+ end if;
+ end if;
+ else
+ heatPump.eva.preDro.dp = 0;
+ end if;
+
+ // Component heatPump.eva.preHea
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedHeatFlow
+ equation
+ heatPump.eva.preHea.port.Q_flow = -heatPump.eva.preHea.Q_flow*(1+
+ heatPump.eva.preHea.alpha*(heatPump.eva.preHea.port.T-heatPump.eva.preHea.T_ref));
+
+ // Component heatPump.eva.senT
+ // class Modelica.Thermal.HeatTransfer.Sensors.TemperatureSensor
+ equation
+ heatPump.eva.senT.T = heatPump.eva.senT.port.T;
+ heatPump.eva.senT.port.Q_flow = 0;
+
+ // Component heatPump.eva
+ // class AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.EvaporatorCondenserWithCapacity
+ // extends AixLib.Fluid.Interfaces.TwoPortHeatMassExchanger
+ equation
+ connect(heatPump.eva.vol.ports[2], heatPump.eva.port_b);
+ connect(heatPump.eva.port_a, heatPump.eva.preDro.port_a);
+ connect(heatPump.eva.preDro.port_b, heatPump.eva.vol.ports[1]);
+ // end of extends
+ equation
+ connect(heatPump.eva.conIns.fluid, heatPump.eva.heaCap.port);
+ connect(heatPump.eva.heaCap.port, heatPump.eva.conOut.solid);
+ connect(heatPump.eva.conIns.Gc, heatPump.eva.heaLosInt.y);
+ connect(heatPump.eva.conOut.fluid, heatPump.eva.port_out);
+ connect(heatPump.eva.conOut.Gc, heatPump.eva.heaLosExt.y);
+ connect(heatPump.eva.vol.heatPort, heatPump.eva.conIns.solid);
+ connect(heatPump.eva.vol.heatPort, heatPump.eva.preHea.port);
+ connect(heatPump.eva.preHea.Q_flow, heatPump.eva.Q_flow);
+ connect(heatPump.eva.senT.port, heatPump.eva.vol.heatPort);
+ connect(heatPump.eva.senT.T, heatPump.eva.T);
+
+ // Component heatPump.safCtr.opeEnv.swiErr
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.safCtr.opeEnv.swiErr.y = (if heatPump.safCtr.opeEnv.swiErr.u2 then
+ heatPump.safCtr.opeEnv.swiErr.u1 else heatPump.safCtr.opeEnv.swiErr.u3);
+
+ // Component heatPump.safCtr.opeEnv.conZer
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.safCtr.opeEnv.conZer.y = heatPump.safCtr.opeEnv.conZer.k;
+
+ // Component heatPump.safCtr.opeEnv.disErr
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ equation
+ if (heatPump.safCtr.opeEnv.disErr.use_reset) then
+ connect(heatPump.safCtr.opeEnv.disErr.reset, heatPump.safCtr.opeEnv.disErr.local_reset);
+ if (heatPump.safCtr.opeEnv.disErr.use_set) then
+ connect(heatPump.safCtr.opeEnv.disErr.set, heatPump.safCtr.opeEnv.disErr.local_set);
+ else
+ heatPump.safCtr.opeEnv.disErr.local_set = heatPump.safCtr.opeEnv.disErr.y_start;
+ end if;
+ else
+ heatPump.safCtr.opeEnv.disErr.local_reset = false;
+ heatPump.safCtr.opeEnv.disErr.local_set = 0;
+ end if;
+ when {heatPump.safCtr.opeEnv.disErr.trigger, heatPump.safCtr.opeEnv.disErr.local_reset}
+ then
+ heatPump.safCtr.opeEnv.disErr.y = (if heatPump.safCtr.opeEnv.disErr.local_reset
+ then heatPump.safCtr.opeEnv.disErr.local_set else pre(heatPump.safCtr.opeEnv.disErr.y)
+ +heatPump.safCtr.opeEnv.disErr.u);
+ end when;
+
+ // Component heatPump.safCtr.opeEnv.notVal
+ // class Modelica.Blocks.Logical.Not
+ equation
+ heatPump.safCtr.opeEnv.notVal.y = not heatPump.safCtr.opeEnv.notVal.u;
+
+ // Component heatPump.safCtr.opeEnv.intConOne
+ // class Modelica.Blocks.Sources.IntegerConstant
+ equation
+ heatPump.safCtr.opeEnv.intConOne.y = heatPump.safCtr.opeEnv.intConOne.k;
+
+ // Component heatPump.safCtr.opeEnv.booPasThr
+ // class Modelica.Blocks.Routing.BooleanPassThrough
+ equation
+ heatPump.safCtr.opeEnv.booPasThr.y = heatPump.safCtr.opeEnv.booPasThr.u;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.tabBou
+ // class Modelica.Blocks.Tables.CombiTable1Ds
+ equation
+ if (heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile) then
+ assert(heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableName <> "NoName",
+ "tableOnFile = true and no table name given");
+ else
+ assert(size(heatPump.safCtr.opeEnv.bouMapHea.tabBou.table, 1) > 0 and size
+ (heatPump.safCtr.opeEnv.bouMapHea.tabBou.table, 2) > 0, "tableOnFile = false and parameter table is an empty matrix");
+ end if;
+ if (heatPump.safCtr.opeEnv.bouMapHea.tabBou.verboseExtrapolation and (
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.extrapolation == Modelica.Blocks.Types.Extrapolation.
+ LastTwoPoints or heatPump.safCtr.opeEnv.bouMapHea.tabBou.extrapolation ==
+ Modelica.Blocks.Types.Extrapolation.HoldLastPoint)) then
+ assert(noEvent(heatPump.safCtr.opeEnv.bouMapHea.tabBou.u >=
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_min), "
+Extrapolation warning: The value u (="
+ +String(heatPump.safCtr.opeEnv.bouMapHea.tabBou.u)+") must be greater or equal
+than the minimum abscissa value u_min (="
+ +String(heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_min)+") defined in the table.
+",
+ AssertionLevel.warning);
+ assert(noEvent(heatPump.safCtr.opeEnv.bouMapHea.tabBou.u <=
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_max), "
+Extrapolation warning: The value u (="
+ +String(heatPump.safCtr.opeEnv.bouMapHea.tabBou.u)+") must be less or equal
+than the maximum abscissa value u_max (="
+ +String(heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_max)+") defined in the table.
+",
+ AssertionLevel.warning);
+ end if;
+ if (heatPump.safCtr.opeEnv.bouMapHea.tabBou.smoothness == Modelica.Blocks.Types.Smoothness.
+ ConstantSegments) then
+ for i in (1:heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout) loop
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[i] = Modelica.Blocks.Tables.Internal.getTable1DValueNoDer
+ (
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID,
+ i,
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.u);
+ end for;
+ elseif (heatPump.safCtr.opeEnv.bouMapHea.tabBou.smoothness ==
+ Modelica.Blocks.Types.Smoothness.LinearSegments) then
+ for i in (1:heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout) loop
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[i] = Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2
+ (
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID,
+ i,
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.u);
+ end for;
+ else
+ for i in (1:heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout) loop
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[i] = Modelica.Blocks.Tables.Internal.getTable1DValue
+ (
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID,
+ i,
+ heatPump.safCtr.opeEnv.bouMapHea.tabBou.u);
+ end for;
+ end if;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.nor
+ // class Modelica.Blocks.MathBoolean.Nor
+ equation
+ heatPump.safCtr.opeEnv.bouMapHea.nor.y = not Modelica.Math.BooleanVectors.anyTrue
+ (heatPump.safCtr.opeEnv.bouMapHea.nor.u);
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.hysLef
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.opeEnv.bouMapHea.hysLef.uHigh > heatPump.safCtr.opeEnv.bouMapHea.hysLef.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.opeEnv.bouMapHea.hysLef.y = not pre(heatPump.safCtr.opeEnv.bouMapHea.hysLef.y)
+ and heatPump.safCtr.opeEnv.bouMapHea.hysLef.u > heatPump.safCtr.opeEnv.bouMapHea.hysLef.uHigh
+ or pre(heatPump.safCtr.opeEnv.bouMapHea.hysLef.y) and heatPump.safCtr.opeEnv.bouMapHea.hysLef.u
+ >= heatPump.safCtr.opeEnv.bouMapHea.hysLef.uLow;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.hysRig
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.opeEnv.bouMapHea.hysRig.uHigh > heatPump.safCtr.opeEnv.bouMapHea.hysRig.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.opeEnv.bouMapHea.hysRig.y = not pre(heatPump.safCtr.opeEnv.bouMapHea.hysRig.y)
+ and heatPump.safCtr.opeEnv.bouMapHea.hysRig.u > heatPump.safCtr.opeEnv.bouMapHea.hysRig.uHigh
+ or pre(heatPump.safCtr.opeEnv.bouMapHea.hysRig.y) and heatPump.safCtr.opeEnv.bouMapHea.hysRig.u
+ >= heatPump.safCtr.opeEnv.bouMapHea.hysRig.uLow;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.y = heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.k;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.y = heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.k;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.subMax
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.opeEnv.bouMapHea.subMax.y = heatPump.safCtr.opeEnv.bouMapHea.subMax.k1
+ *heatPump.safCtr.opeEnv.bouMapHea.subMax.u1+heatPump.safCtr.opeEnv.bouMapHea.subMax.k2
+ *heatPump.safCtr.opeEnv.bouMapHea.subMax.u2;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.sub
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.opeEnv.bouMapHea.sub.y = heatPump.safCtr.opeEnv.bouMapHea.sub.k1
+ *heatPump.safCtr.opeEnv.bouMapHea.sub.u1+heatPump.safCtr.opeEnv.bouMapHea.sub.k2
+ *heatPump.safCtr.opeEnv.bouMapHea.sub.u2;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.subBou
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.opeEnv.bouMapHea.subBou.y = heatPump.safCtr.opeEnv.bouMapHea.subBou.k1
+ *heatPump.safCtr.opeEnv.bouMapHea.subBou.u1+heatPump.safCtr.opeEnv.bouMapHea.subBou.k2
+ *heatPump.safCtr.opeEnv.bouMapHea.subBou.u2;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.hysBou
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.opeEnv.bouMapHea.hysBou.uHigh > heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.opeEnv.bouMapHea.hysBou.y = not pre(heatPump.safCtr.opeEnv.bouMapHea.hysBou.y)
+ and heatPump.safCtr.opeEnv.bouMapHea.hysBou.u > heatPump.safCtr.opeEnv.bouMapHea.hysBou.uHigh
+ or pre(heatPump.safCtr.opeEnv.bouMapHea.hysBou.y) and heatPump.safCtr.opeEnv.bouMapHea.hysBou.u
+ >= heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.BoundaryMap
+ equation
+ connect(heatPump.safCtr.opeEnv.bouMapHea.nor.y, heatPump.safCtr.opeEnv.bouMapHea.noErr);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.hysLef.y, heatPump.safCtr.opeEnv.bouMapHea.nor
+ .u[1]);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.hysRig.y, heatPump.safCtr.opeEnv.bouMapHea.nor
+ .u[2]);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.subMax.u2, heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.y);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.sub.u2, heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.y);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.subMax.y, heatPump.safCtr.opeEnv.bouMapHea.hysRig.u);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.sub.y, heatPump.safCtr.opeEnv.bouMapHea.hysLef.u);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.hysBou.u, heatPump.safCtr.opeEnv.bouMapHea.subBou.y);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.hysBou.y, heatPump.safCtr.opeEnv.bouMapHea.nor
+ .u[3]);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[1], heatPump.safCtr.opeEnv.bouMapHea.subBou.u2);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.subBou.u1, heatPump.safCtr.opeEnv.bouMapHea.TUseSid);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TAmbSid, heatPump.safCtr.opeEnv.bouMapHea.tabBou.u);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TAmbSid, heatPump.safCtr.opeEnv.bouMapHea.sub.u1);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TAmbSid, heatPump.safCtr.opeEnv.bouMapHea.subMax.u1);
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.tabBou
+ // class Modelica.Blocks.Tables.CombiTable1Ds
+ equation
+ if (heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableOnFile) then
+ assert(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableName <> "NoName",
+ "tableOnFile = true and no table name given");
+ else
+ assert(size(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table, 1) > 0 and size
+ (heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table, 2) > 0, "tableOnFile = false and parameter table is an empty matrix");
+ end if;
+ if (heatPump.safCtr.opeEnv.bouMapCoo.tabBou.verboseExtrapolation and (
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.extrapolation == Modelica.Blocks.Types.Extrapolation.
+ LastTwoPoints or heatPump.safCtr.opeEnv.bouMapCoo.tabBou.extrapolation ==
+ Modelica.Blocks.Types.Extrapolation.HoldLastPoint)) then
+ assert(noEvent(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u >=
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_min), "
+Extrapolation warning: The value u (="
+ +String(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u)+") must be greater or equal
+than the minimum abscissa value u_min (="
+ +String(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_min)+") defined in the table.
+",
+ AssertionLevel.warning);
+ assert(noEvent(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u <=
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_max), "
+Extrapolation warning: The value u (="
+ +String(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u)+") must be less or equal
+than the maximum abscissa value u_max (="
+ +String(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_max)+") defined in the table.
+",
+ AssertionLevel.warning);
+ end if;
+ if (heatPump.safCtr.opeEnv.bouMapCoo.tabBou.smoothness == Modelica.Blocks.Types.Smoothness.
+ ConstantSegments) then
+ for i in (1:heatPump.safCtr.opeEnv.bouMapCoo.tabBou.nout) loop
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y[i] = Modelica.Blocks.Tables.Internal.getTable1DValueNoDer
+ (
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID,
+ i,
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u);
+ end for;
+ elseif (heatPump.safCtr.opeEnv.bouMapCoo.tabBou.smoothness ==
+ Modelica.Blocks.Types.Smoothness.LinearSegments) then
+ for i in (1:heatPump.safCtr.opeEnv.bouMapCoo.tabBou.nout) loop
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y[i] = Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2
+ (
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID,
+ i,
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u);
+ end for;
+ else
+ for i in (1:heatPump.safCtr.opeEnv.bouMapCoo.tabBou.nout) loop
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y[i] = Modelica.Blocks.Tables.Internal.getTable1DValue
+ (
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID,
+ i,
+ heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u);
+ end for;
+ end if;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.nor
+ // class Modelica.Blocks.MathBoolean.Nor
+ equation
+ heatPump.safCtr.opeEnv.bouMapCoo.nor.y = not Modelica.Math.BooleanVectors.anyTrue
+ (heatPump.safCtr.opeEnv.bouMapCoo.nor.u);
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.hysLef
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uHigh > heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y = not pre(heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y)
+ and heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u > heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uHigh
+ or pre(heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y) and heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u
+ >= heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uLow;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.hysRig
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uHigh > heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y = not pre(heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y)
+ and heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u > heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uHigh
+ or pre(heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y) and heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u
+ >= heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uLow;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.y = heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.k;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.y = heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.k;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.subMax
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.opeEnv.bouMapCoo.subMax.y = heatPump.safCtr.opeEnv.bouMapCoo.subMax.k1
+ *heatPump.safCtr.opeEnv.bouMapCoo.subMax.u1+heatPump.safCtr.opeEnv.bouMapCoo.subMax.k2
+ *heatPump.safCtr.opeEnv.bouMapCoo.subMax.u2;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.sub
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.opeEnv.bouMapCoo.sub.y = heatPump.safCtr.opeEnv.bouMapCoo.sub.k1
+ *heatPump.safCtr.opeEnv.bouMapCoo.sub.u1+heatPump.safCtr.opeEnv.bouMapCoo.sub.k2
+ *heatPump.safCtr.opeEnv.bouMapCoo.sub.u2;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.subBou
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.opeEnv.bouMapCoo.subBou.y = heatPump.safCtr.opeEnv.bouMapCoo.subBou.k1
+ *heatPump.safCtr.opeEnv.bouMapCoo.subBou.u1+heatPump.safCtr.opeEnv.bouMapCoo.subBou.k2
+ *heatPump.safCtr.opeEnv.bouMapCoo.subBou.u2;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.hysBou
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uHigh > heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y = not pre(heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y)
+ and heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u > heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uHigh
+ or pre(heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y) and heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u
+ >= heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.BoundaryMap
+ equation
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.nor.y, heatPump.safCtr.opeEnv.bouMapCoo.noErr);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y, heatPump.safCtr.opeEnv.bouMapCoo.nor
+ .u[1]);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y, heatPump.safCtr.opeEnv.bouMapCoo.nor
+ .u[2]);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.subMax.u2, heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.y);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.sub.u2, heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.y);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.subMax.y, heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.sub.y, heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u, heatPump.safCtr.opeEnv.bouMapCoo.subBou.y);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y, heatPump.safCtr.opeEnv.bouMapCoo.nor
+ .u[3]);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y[1], heatPump.safCtr.opeEnv.bouMapCoo.subBou.u2);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.subBou.u1, heatPump.safCtr.opeEnv.bouMapCoo.TUseSid);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid, heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid, heatPump.safCtr.opeEnv.bouMapCoo.sub.u1);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid, heatPump.safCtr.opeEnv.bouMapCoo.subMax.u1);
+
+ // Component heatPump.safCtr.opeEnv.swiHeaCoo
+ // class Modelica.Blocks.Logical.LogicalSwitch
+ equation
+ heatPump.safCtr.opeEnv.swiHeaCoo.y = (if heatPump.safCtr.opeEnv.swiHeaCoo.u2
+ then heatPump.safCtr.opeEnv.swiHeaCoo.u1 else heatPump.safCtr.opeEnv.swiHeaCoo.u3);
+
+ // Component heatPump.safCtr.opeEnv
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.OperationalEnvelope
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.PartialSafetyWithCounter
+ equation
+ connect(heatPump.safCtr.opeEnv.conZer.y, heatPump.safCtr.opeEnv.swiErr.u3);
+ connect(heatPump.safCtr.opeEnv.disErr.y, heatPump.safCtr.opeEnv.err);
+ connect(heatPump.safCtr.opeEnv.notVal.y, heatPump.safCtr.opeEnv.disErr.trigger);
+ connect(heatPump.safCtr.opeEnv.intConOne.y, heatPump.safCtr.opeEnv.disErr.u);
+ connect(heatPump.safCtr.opeEnv.booPasThr.y, heatPump.safCtr.opeEnv.swiErr.u2);
+ connect(heatPump.safCtr.opeEnv.booPasThr.y, heatPump.safCtr.opeEnv.notVal.u);
+ connect(heatPump.safCtr.opeEnv.swiErr.y, heatPump.safCtr.opeEnv.yOut);
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.PartialOperationalEnvelope
+ equation
+ connect(heatPump.safCtr.opeEnv.ySet, heatPump.safCtr.opeEnv.swiErr.u1);
+ connect(heatPump.safCtr.opeEnv.swiHeaCoo.y, heatPump.safCtr.opeEnv.booPasThr.u);
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.noErr, heatPump.safCtr.opeEnv.swiHeaCoo.u3);
+ connect(heatPump.safCtr.opeEnv.bouMapHea.noErr, heatPump.safCtr.opeEnv.swiHeaCoo.u1);
+ // end of extends
+ equation
+ if (heatPump.safCtr.opeEnv.use_TConOutHea) then
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TUseSid, heatPump.safCtr.opeEnv.sigBus
+ .TConOutMea);
+ else
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TUseSid, heatPump.safCtr.opeEnv.sigBus
+ .TConInMea);
+ end if;
+ if (heatPump.safCtr.opeEnv.use_TEvaOutCoo) then
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid, heatPump.safCtr.opeEnv.sigBus
+ .TEvaOutMea);
+ else
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid, heatPump.safCtr.opeEnv.sigBus
+ .TEvaInMea);
+ end if;
+ if (heatPump.safCtr.opeEnv.use_TEvaOutHea) then
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TAmbSid, heatPump.safCtr.opeEnv.sigBus
+ .TEvaOutMea);
+ else
+ connect(heatPump.safCtr.opeEnv.bouMapHea.TAmbSid, heatPump.safCtr.opeEnv.sigBus
+ .TEvaInMea);
+ end if;
+ if (heatPump.safCtr.opeEnv.use_TConOutCoo) then
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TUseSid, heatPump.safCtr.opeEnv.sigBus
+ .TConOutMea);
+ else
+ connect(heatPump.safCtr.opeEnv.bouMapCoo.TUseSid, heatPump.safCtr.opeEnv.sigBus
+ .TConInMea);
+ end if;
+ connect(heatPump.safCtr.opeEnv.swiHeaCoo.u2, heatPump.safCtr.opeEnv.sigBus.
+ hea);
+
+ // Component heatPump.safCtr.onOffCtr.ySetOn
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.onOffCtr.ySetOn.uHigh > heatPump.safCtr.onOffCtr.ySetOn.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.onOffCtr.ySetOn.y = not pre(heatPump.safCtr.onOffCtr.ySetOn.y)
+ and heatPump.safCtr.onOffCtr.ySetOn.u > heatPump.safCtr.onOffCtr.ySetOn.uHigh
+ or pre(heatPump.safCtr.onOffCtr.ySetOn.y) and heatPump.safCtr.onOffCtr.ySetOn.u
+ >= heatPump.safCtr.onOffCtr.ySetOn.uLow;
+
+ // Component heatPump.safCtr.onOffCtr.isAblToTurOff
+ // class Modelica.Blocks.Routing.BooleanPassThrough
+ equation
+ heatPump.safCtr.onOffCtr.isAblToTurOff.y = heatPump.safCtr.onOffCtr.isAblToTurOff.u;
+
+ // Component heatPump.safCtr.onOffCtr.preOnOff
+ // class Modelica.Blocks.Logical.Pre
+ equation
+ heatPump.safCtr.onOffCtr.preOnOff.y = pre(heatPump.safCtr.onOffCtr.preOnOff.u);
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax
+ // class Modelica.Blocks.Logical.LessThreshold
+ equation
+ heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.y = heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u
+ < heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.threshold;
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.triAdd
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ equation
+ if (heatPump.safCtr.onOffCtr.cycRatBou.triAdd.use_reset) then
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.triAdd.reset, heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_reset);
+ if (heatPump.safCtr.onOffCtr.cycRatBou.triAdd.use_set) then
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.triAdd.set, heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_set);
+ else
+ heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_set = heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y_start;
+ end if;
+ else
+ heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_reset = false;
+ heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_set = 0;
+ end if;
+ when {heatPump.safCtr.onOffCtr.cycRatBou.triAdd.trigger, heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_reset}
+ then
+ heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y = (if heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_reset
+ then heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_set else pre(
+ heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y)+heatPump.safCtr.onOffCtr.cycRatBou.triAdd.u);
+ end when;
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne
+ // class Modelica.Blocks.Sources.IntegerConstant
+ equation
+ heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.y = heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.k;
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.intToRea
+ // class Modelica.Blocks.Math.IntegerToReal
+ equation
+ heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y = heatPump.safCtr.onOffCtr.cycRatBou.intToRea.u;
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.sub
+ // class Modelica.Blocks.Math.Add
+ equation
+ heatPump.safCtr.onOffCtr.cycRatBou.sub.y = heatPump.safCtr.onOffCtr.cycRatBou.sub.k1
+ *heatPump.safCtr.onOffCtr.cycRatBou.sub.u1+heatPump.safCtr.onOffCtr.cycRatBou.sub.k2
+ *heatPump.safCtr.onOffCtr.cycRatBou.sub.u2;
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.fixDel
+ // class Modelica.Blocks.Nonlinear.FixedDelay
+ equation
+ heatPump.safCtr.onOffCtr.cycRatBou.fixDel.y = delay(heatPump.safCtr.onOffCtr.cycRatBou.fixDel.u,
+ heatPump.safCtr.onOffCtr.cycRatBou.fixDel.delayTime);
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.CycleRateBoundary
+ equation
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.y, heatPump.safCtr.onOffCtr.cycRatBou.triAdd.u);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.intToRea.u, heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y, heatPump.safCtr.onOffCtr.cycRatBou.sub.u1);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y, heatPump.safCtr.onOffCtr.cycRatBou.fixDel.u);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.fixDel.y, heatPump.safCtr.onOffCtr.cycRatBou.sub.u2);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.y, heatPump.safCtr.onOffCtr.cycRatBou.y);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.u, heatPump.safCtr.onOffCtr.cycRatBou.triAdd.trigger);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.sub.y, heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u);
+
+ // Component heatPump.safCtr.onOffCtr.locTimCtr.runTim
+ // class Modelica.Blocks.Logical.Timer
+ equation
+ when heatPump.safCtr.onOffCtr.locTimCtr.runTim.u then
+ heatPump.safCtr.onOffCtr.locTimCtr.runTim.entryTime = time;
+ end when;
+ heatPump.safCtr.onOffCtr.locTimCtr.runTim.y = (if heatPump.safCtr.onOffCtr.locTimCtr.runTim.u
+ then time-heatPump.safCtr.onOffCtr.locTimCtr.runTim.entryTime else 0.0);
+
+ // Component heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin
+ // class Modelica.Blocks.Logical.GreaterEqualThreshold
+ equation
+ heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.y = heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.u
+ >= heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.threshold;
+
+ // Component heatPump.safCtr.onOffCtr.locTimCtr
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.OnPastThreshold
+ equation
+ connect(heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.y, heatPump.safCtr.onOffCtr.locTimCtr.y);
+ connect(heatPump.safCtr.onOffCtr.locTimCtr.u, heatPump.safCtr.onOffCtr.locTimCtr.runTim.u);
+ connect(heatPump.safCtr.onOffCtr.locTimCtr.runTim.y, heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.u);
+
+ // Component heatPump.safCtr.onOffCtr.notIsOn
+ // class Modelica.Blocks.Logical.Not
+ equation
+ heatPump.safCtr.onOffCtr.notIsOn.y = not heatPump.safCtr.onOffCtr.notIsOn.u;
+
+ // Component heatPump.safCtr.onOffCtr.runTimCtr.runTim
+ // class Modelica.Blocks.Logical.Timer
+ equation
+ when heatPump.safCtr.onOffCtr.runTimCtr.runTim.u then
+ heatPump.safCtr.onOffCtr.runTimCtr.runTim.entryTime = time;
+ end when;
+ heatPump.safCtr.onOffCtr.runTimCtr.runTim.y = (if heatPump.safCtr.onOffCtr.runTimCtr.runTim.u
+ then time-heatPump.safCtr.onOffCtr.runTimCtr.runTim.entryTime else 0.0);
+
+ // Component heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin
+ // class Modelica.Blocks.Logical.GreaterEqualThreshold
+ equation
+ heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.y = heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.u
+ >= heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.threshold;
+
+ // Component heatPump.safCtr.onOffCtr.runTimCtr
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.OnPastThreshold
+ equation
+ connect(heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.y, heatPump.safCtr.onOffCtr.runTimCtr.y);
+ connect(heatPump.safCtr.onOffCtr.runTimCtr.u, heatPump.safCtr.onOffCtr.runTimCtr.runTim.u);
+ connect(heatPump.safCtr.onOffCtr.runTimCtr.runTim.y, heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.u);
+
+ // Component heatPump.safCtr.onOffCtr.andIsAblToTurOn
+ // class Modelica.Blocks.Logical.And
+ equation
+ heatPump.safCtr.onOffCtr.andIsAblToTurOn.y = heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1
+ and heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2;
+
+ // Component heatPump.safCtr.onOffCtr.notSetOn
+ // class Modelica.Blocks.Logical.Not
+ equation
+ heatPump.safCtr.onOffCtr.notSetOn.y = not heatPump.safCtr.onOffCtr.notSetOn.u;
+
+ // Component heatPump.safCtr.onOffCtr.andTurOff
+ // class Modelica.Blocks.Logical.And
+ equation
+ heatPump.safCtr.onOffCtr.andTurOff.y = heatPump.safCtr.onOffCtr.andTurOff.u1
+ and heatPump.safCtr.onOffCtr.andTurOff.u2;
+
+ // Component heatPump.safCtr.onOffCtr.andTurOn
+ // class Modelica.Blocks.Logical.And
+ equation
+ heatPump.safCtr.onOffCtr.andTurOn.y = heatPump.safCtr.onOffCtr.andTurOn.u1
+ and heatPump.safCtr.onOffCtr.andTurOn.u2;
+
+ // Component heatPump.safCtr.onOffCtr.andStaOn
+ // class Modelica.Blocks.Logical.And
+ equation
+ heatPump.safCtr.onOffCtr.andStaOn.y = heatPump.safCtr.onOffCtr.andStaOn.u1
+ and heatPump.safCtr.onOffCtr.andStaOn.u2;
+
+ // Component heatPump.safCtr.onOffCtr.andStaOff
+ // class Modelica.Blocks.Logical.And
+ equation
+ heatPump.safCtr.onOffCtr.andStaOff.y = heatPump.safCtr.onOffCtr.andStaOff.u1
+ and heatPump.safCtr.onOffCtr.andStaOff.u2;
+
+ // Component heatPump.safCtr.onOffCtr.onOffFuzLog
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.OnOffFuzzyLogic
+ equation
+ heatPump.safCtr.onOffCtr.onOffFuzLog.yOut = heatPump.safCtr.onOffCtr.onOffFuzLog.ySet
+ *heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe+heatPump.safCtr.onOffCtr.onOffFuzLog.ySetRed
+ *heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin;
+ when edge(heatPump.safCtr.onOffCtr.onOffFuzLog.turOn) then
+ if (heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOn) then
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 1;
+ else
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 1;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 0;
+ end if;
+
+ elsewhen edge(heatPump.safCtr.onOffCtr.onOffFuzLog.turOff) then
+ if (heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOff) then
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 1;
+ else
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 1;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 0;
+ end if;
+
+ elsewhen heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOn and
+ heatPump.safCtr.onOffCtr.onOffFuzLog.turOn then
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 1;
+
+ elsewhen heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOff and
+ heatPump.safCtr.onOffCtr.onOffFuzLog.turOff then
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 1;
+
+ elsewhen heatPump.safCtr.onOffCtr.onOffFuzLog.staOff then
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 1;
+
+ elsewhen heatPump.safCtr.onOffCtr.onOffFuzLog.staOn then
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin = 0;
+ heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe = 1;
+ end when;
+
+ // Component heatPump.safCtr.onOffCtr
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.OnOff
+ equation
+ connect(heatPump.safCtr.onOffCtr.preOnOff.y, heatPump.safCtr.onOffCtr.cycRatBou.u);
+ connect(heatPump.safCtr.onOffCtr.preOnOff.y, heatPump.safCtr.onOffCtr.notIsOn.u);
+ connect(heatPump.safCtr.onOffCtr.notIsOn.y, heatPump.safCtr.onOffCtr.locTimCtr.u);
+ connect(heatPump.safCtr.onOffCtr.runTimCtr.u, heatPump.safCtr.onOffCtr.preOnOff.y);
+ connect(heatPump.safCtr.onOffCtr.locTimCtr.y, heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1);
+ connect(heatPump.safCtr.onOffCtr.cycRatBou.y, heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2);
+ connect(heatPump.safCtr.onOffCtr.booConstCycRat.y, heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2);
+ connect(heatPump.safCtr.onOffCtr.ySetOn.y, heatPump.safCtr.onOffCtr.notSetOn.u);
+ connect(heatPump.safCtr.onOffCtr.notSetOn.y, heatPump.safCtr.onOffCtr.andTurOff.u2);
+ connect(heatPump.safCtr.onOffCtr.preOnOff.y, heatPump.safCtr.onOffCtr.andTurOff.u1);
+ connect(heatPump.safCtr.onOffCtr.ySetOn.y, heatPump.safCtr.onOffCtr.andTurOn.u2);
+ connect(heatPump.safCtr.onOffCtr.notIsOn.y, heatPump.safCtr.onOffCtr.andTurOn.u1);
+ connect(heatPump.safCtr.onOffCtr.booConstLocTim.y, heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1);
+ connect(heatPump.safCtr.onOffCtr.preOnOff.u, heatPump.safCtr.onOffCtr.sigBus
+ .onOffMea);
+ connect(heatPump.safCtr.onOffCtr.ySetOn.u, heatPump.safCtr.onOffCtr.ySet);
+ connect(heatPump.safCtr.onOffCtr.andStaOn.u1, heatPump.safCtr.onOffCtr.ySetOn.y);
+ connect(heatPump.safCtr.onOffCtr.andStaOn.u2, heatPump.safCtr.onOffCtr.preOnOff.y);
+ connect(heatPump.safCtr.onOffCtr.andStaOff.u1, heatPump.safCtr.onOffCtr.notIsOn.y);
+ connect(heatPump.safCtr.onOffCtr.andStaOff.u2, heatPump.safCtr.onOffCtr.notSetOn.y);
+ connect(heatPump.safCtr.onOffCtr.isAblToTurOff.u, heatPump.safCtr.onOffCtr.runTimCtr.y);
+ connect(heatPump.safCtr.onOffCtr.booConstRunTim.y, heatPump.safCtr.onOffCtr.isAblToTurOff.u);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.yOut, heatPump.safCtr.onOffCtr.yOut);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.ySet, heatPump.safCtr.onOffCtr.ySet);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.staOff, heatPump.safCtr.onOffCtr.andStaOff.y);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.staOn, heatPump.safCtr.onOffCtr.andStaOn.y);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOff, heatPump.safCtr.onOffCtr.isAblToTurOff.y);
+ connect(heatPump.safCtr.onOffCtr.andIsAblToTurOn.y, heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOn);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.turOff, heatPump.safCtr.onOffCtr.andTurOff.y);
+ connect(heatPump.safCtr.onOffCtr.onOffFuzLog.turOn, heatPump.safCtr.onOffCtr.andTurOn.y);
+
+ // Component heatPump.safCtr.minVolFloRatSaf.swiErr
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.safCtr.minVolFloRatSaf.swiErr.y = (if heatPump.safCtr.minVolFloRatSaf.swiErr.u2
+ then heatPump.safCtr.minVolFloRatSaf.swiErr.u1 else heatPump.safCtr.minVolFloRatSaf.swiErr.u3);
+
+ // Component heatPump.safCtr.minVolFloRatSaf.conZer
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.safCtr.minVolFloRatSaf.conZer.y = heatPump.safCtr.minVolFloRatSaf.conZer.k;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.disErr
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ equation
+ if (heatPump.safCtr.minVolFloRatSaf.disErr.use_reset) then
+ connect(heatPump.safCtr.minVolFloRatSaf.disErr.reset, heatPump.safCtr.minVolFloRatSaf.disErr.local_reset);
+ if (heatPump.safCtr.minVolFloRatSaf.disErr.use_set) then
+ connect(heatPump.safCtr.minVolFloRatSaf.disErr.set, heatPump.safCtr.minVolFloRatSaf.disErr.local_set);
+ else
+ heatPump.safCtr.minVolFloRatSaf.disErr.local_set = heatPump.safCtr.minVolFloRatSaf.disErr.y_start;
+ end if;
+ else
+ heatPump.safCtr.minVolFloRatSaf.disErr.local_reset = false;
+ heatPump.safCtr.minVolFloRatSaf.disErr.local_set = 0;
+ end if;
+ when {heatPump.safCtr.minVolFloRatSaf.disErr.trigger, heatPump.safCtr.minVolFloRatSaf.disErr.local_reset}
+ then
+ heatPump.safCtr.minVolFloRatSaf.disErr.y = (if heatPump.safCtr.minVolFloRatSaf.disErr.local_reset
+ then heatPump.safCtr.minVolFloRatSaf.disErr.local_set else pre(
+ heatPump.safCtr.minVolFloRatSaf.disErr.y)+heatPump.safCtr.minVolFloRatSaf.disErr.u);
+ end when;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.notVal
+ // class Modelica.Blocks.Logical.Not
+ equation
+ heatPump.safCtr.minVolFloRatSaf.notVal.y = not heatPump.safCtr.minVolFloRatSaf.notVal.u;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.intConOne
+ // class Modelica.Blocks.Sources.IntegerConstant
+ equation
+ heatPump.safCtr.minVolFloRatSaf.intConOne.y = heatPump.safCtr.minVolFloRatSaf.intConOne.k;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.booPasThr
+ // class Modelica.Blocks.Routing.BooleanPassThrough
+ equation
+ heatPump.safCtr.minVolFloRatSaf.booPasThr.y = heatPump.safCtr.minVolFloRatSaf.booPasThr.u;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.hysCon
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh > heatPump.safCtr.minVolFloRatSaf.hysCon.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.minVolFloRatSaf.hysCon.y = not pre(heatPump.safCtr.minVolFloRatSaf.hysCon.y)
+ and heatPump.safCtr.minVolFloRatSaf.hysCon.u > heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh
+ or pre(heatPump.safCtr.minVolFloRatSaf.hysCon.y) and heatPump.safCtr.minVolFloRatSaf.hysCon.u
+ >= heatPump.safCtr.minVolFloRatSaf.hysCon.uLow;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.hysEva
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.safCtr.minVolFloRatSaf.hysEva.uHigh > heatPump.safCtr.minVolFloRatSaf.hysEva.uLow,
+ "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.safCtr.minVolFloRatSaf.hysEva.y = not pre(heatPump.safCtr.minVolFloRatSaf.hysEva.y)
+ and heatPump.safCtr.minVolFloRatSaf.hysEva.u > heatPump.safCtr.minVolFloRatSaf.hysEva.uHigh
+ or pre(heatPump.safCtr.minVolFloRatSaf.hysEva.y) and heatPump.safCtr.minVolFloRatSaf.hysEva.u
+ >= heatPump.safCtr.minVolFloRatSaf.hysEva.uLow;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.and1
+ // class Modelica.Blocks.Logical.And
+ equation
+ heatPump.safCtr.minVolFloRatSaf.and1.y = heatPump.safCtr.minVolFloRatSaf.and1.u1
+ and heatPump.safCtr.minVolFloRatSaf.and1.u2;
+
+ // Component heatPump.safCtr.minVolFloRatSaf
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.MinimalFlowRate
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.BaseClasses.PartialSafetyWithCounter
+ equation
+ connect(heatPump.safCtr.minVolFloRatSaf.conZer.y, heatPump.safCtr.minVolFloRatSaf.swiErr.u3);
+ connect(heatPump.safCtr.minVolFloRatSaf.disErr.y, heatPump.safCtr.minVolFloRatSaf.err);
+ connect(heatPump.safCtr.minVolFloRatSaf.notVal.y, heatPump.safCtr.minVolFloRatSaf.disErr.trigger);
+ connect(heatPump.safCtr.minVolFloRatSaf.intConOne.y, heatPump.safCtr.minVolFloRatSaf.disErr.u);
+ connect(heatPump.safCtr.minVolFloRatSaf.booPasThr.y, heatPump.safCtr.minVolFloRatSaf.swiErr.u2);
+ connect(heatPump.safCtr.minVolFloRatSaf.booPasThr.y, heatPump.safCtr.minVolFloRatSaf.notVal.u);
+ connect(heatPump.safCtr.minVolFloRatSaf.swiErr.y, heatPump.safCtr.minVolFloRatSaf.yOut);
+ // end of extends
+ equation
+ connect(heatPump.safCtr.minVolFloRatSaf.hysCon.y, heatPump.safCtr.minVolFloRatSaf.and1.u1);
+ connect(heatPump.safCtr.minVolFloRatSaf.hysEva.y, heatPump.safCtr.minVolFloRatSaf.and1.u2);
+ connect(heatPump.safCtr.minVolFloRatSaf.and1.y, heatPump.safCtr.minVolFloRatSaf.booPasThr.u);
+ connect(heatPump.safCtr.minVolFloRatSaf.hysEva.u, heatPump.safCtr.minVolFloRatSaf.sigBus
+ .mEvaMea_flow);
+ connect(heatPump.safCtr.minVolFloRatSaf.hysCon.u, heatPump.safCtr.minVolFloRatSaf.sigBus
+ .mConMea_flow);
+ connect(heatPump.safCtr.minVolFloRatSaf.ySet, heatPump.safCtr.minVolFloRatSaf.swiErr.u1);
+
+ // Component heatPump.safCtr.reaPasThrAntFre
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ heatPump.safCtr.reaPasThrAntFre.y = heatPump.safCtr.reaPasThrAntFre.u;
+
+ // Component heatPump.safCtr
+ // class AixLib.Fluid.HeatPumps.ModularReversible.Controls.Safety.Safety
+ equation
+ connect(heatPump.safCtr.sigBus, heatPump.safCtr.onOffCtr.sigBus);
+ connect(heatPump.safCtr.sigBus, heatPump.safCtr.opeEnv.sigBus);
+ connect(heatPump.safCtr.sigBus, heatPump.safCtr.antFre.sigBus);
+ connect(heatPump.safCtr.antFre.err, heatPump.safCtr.antFreErr);
+ connect(heatPump.safCtr.opeEnv.err, heatPump.safCtr.opeEnvErr);
+ connect(heatPump.safCtr.minVolFloRatSaf.yOut, heatPump.safCtr.yOut);
+ connect(heatPump.safCtr.sigBus, heatPump.safCtr.minVolFloRatSaf.sigBus);
+ connect(heatPump.safCtr.minVolFloRatSaf.err, heatPump.safCtr.minFlowErr);
+ connect(heatPump.safCtr.reaPasThrOnOff.y, heatPump.safCtr.reaPasThrOpeEnv.u);
+ connect(heatPump.safCtr.reaPasThrOpeEnv.y, heatPump.safCtr.reaPasThrAntFre.u);
+ connect(heatPump.safCtr.reaPasThrAntFre.y, heatPump.safCtr.reaPasThrMinVolRat.u);
+ connect(heatPump.safCtr.reaPasThrMinVolRat.y, heatPump.safCtr.yOut);
+ connect(heatPump.safCtr.onOffCtr.yOut, heatPump.safCtr.opeEnv.ySet);
+ connect(heatPump.safCtr.opeEnv.yOut, heatPump.safCtr.antFre.ySet);
+ connect(heatPump.safCtr.antFre.yOut, heatPump.safCtr.minVolFloRatSaf.ySet);
+ connect(heatPump.safCtr.antFre.yOut, heatPump.safCtr.reaPasThrMinVolRat.u);
+ connect(heatPump.safCtr.reaPasThrAntFre.y, heatPump.safCtr.minVolFloRatSaf.ySet);
+ connect(heatPump.safCtr.opeEnv.yOut, heatPump.safCtr.reaPasThrAntFre.u);
+ connect(heatPump.safCtr.reaPasThrOpeEnv.y, heatPump.safCtr.antFre.ySet);
+ connect(heatPump.safCtr.onOffCtr.yOut, heatPump.safCtr.reaPasThrOpeEnv.u);
+ connect(heatPump.safCtr.reaPasThrOnOff.y, heatPump.safCtr.opeEnv.ySet);
+ connect(heatPump.safCtr.ySet, heatPump.safCtr.onOffCtr.ySet);
+ connect(heatPump.safCtr.ySet, heatPump.safCtr.reaPasThrOnOff.u);
+
+ // Component heatPump.mEva_flow
+ // class AixLib.Fluid.Sensors.MassFlowRate
+ // extends AixLib.Fluid.Sensors.BaseClasses.PartialFlowSensor
+ equation
+ heatPump.mEva_flow.port_b.m_flow = -heatPump.mEva_flow.port_a.m_flow;
+ heatPump.mEva_flow.port_a.p = heatPump.mEva_flow.port_b.p;
+ heatPump.mEva_flow.port_a.h_outflow = (if heatPump.mEva_flow.allowFlowReversal
+ then inStream(heatPump.mEva_flow.port_b.h_outflow) else 45300.945);
+ heatPump.mEva_flow.port_b.h_outflow = inStream(heatPump.mEva_flow.port_a.h_outflow);
+ heatPump.mEva_flow.port_a.Xi_outflow = (if heatPump.mEva_flow.allowFlowReversal
+ then inStream(heatPump.mEva_flow.port_b.Xi_outflow) else {0.01});
+ heatPump.mEva_flow.port_b.Xi_outflow = inStream(heatPump.mEva_flow.port_a.Xi_outflow);
+ heatPump.mEva_flow.port_a.C_outflow = (if heatPump.mEva_flow.allowFlowReversal
+ then inStream(heatPump.mEva_flow.port_b.C_outflow) else zeros(0));
+ heatPump.mEva_flow.port_b.C_outflow = inStream(heatPump.mEva_flow.port_a.C_outflow);
+ // end of extends
+ equation
+ heatPump.mEva_flow.m_flow = heatPump.mEva_flow.port_a.m_flow;
+
+ // Component heatPump.mCon_flow
+ // class AixLib.Fluid.Sensors.MassFlowRate
+ // extends AixLib.Fluid.Sensors.BaseClasses.PartialFlowSensor
+ equation
+ heatPump.mCon_flow.port_b.m_flow = -heatPump.mCon_flow.port_a.m_flow;
+ heatPump.mCon_flow.port_a.p = heatPump.mCon_flow.port_b.p;
+ heatPump.mCon_flow.port_a.h_outflow = (if heatPump.mCon_flow.allowFlowReversal
+ then inStream(heatPump.mCon_flow.port_b.h_outflow) else
+ specificEnthalpy_pTX_Unique25(101325, 293.15, {1.0}));
+ heatPump.mCon_flow.port_b.h_outflow = inStream(heatPump.mCon_flow.port_a.h_outflow);
+ heatPump.mCon_flow.port_a.Xi_outflow = (if heatPump.mCon_flow.allowFlowReversal
+ then inStream(heatPump.mCon_flow.port_b.Xi_outflow) else {});
+ heatPump.mCon_flow.port_b.Xi_outflow = inStream(heatPump.mCon_flow.port_a.Xi_outflow);
+ heatPump.mCon_flow.port_a.C_outflow = (if heatPump.mCon_flow.allowFlowReversal
+ then inStream(heatPump.mCon_flow.port_b.C_outflow) else zeros(0));
+ heatPump.mCon_flow.port_b.C_outflow = inStream(heatPump.mCon_flow.port_a.C_outflow);
+ // end of extends
+ equation
+ heatPump.mCon_flow.m_flow = heatPump.mCon_flow.port_a.m_flow;
+
+ // Component heatPump.hys
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.hys.uHigh > heatPump.hys.uLow, "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.hys.y = not pre(heatPump.hys.y) and heatPump.hys.u >
+ heatPump.hys.uHigh or pre(heatPump.hys.y) and heatPump.hys.u >=
+ heatPump.hys.uLow;
+
+ // Component heatPump.refCycIneCon
+ // class RollOut.Systems.Hydraulical.Generation.BaseClasses.PartialHeatPump.RefrigerantCycleInertia
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.Inertias.NoInertia
+ equation
+ connect(heatPump.refCycIneCon.u, heatPump.refCycIneCon.y);
+ // end of extends
+
+ // Component heatPump.refCycIneEva
+ // class RollOut.Systems.Hydraulical.Generation.BaseClasses.PartialHeatPump.RefrigerantCycleInertia
+ // extends AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.Inertias.NoInertia
+ equation
+ connect(heatPump.refCycIneEva.u, heatPump.refCycIneEva.y);
+ // end of extends
+
+ // Component heatPump.eff.hys
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(heatPump.eff.hys.uHigh > heatPump.eff.hys.uLow, "Hysteresis limits wrong (uHigh <= uLow)");
+ heatPump.eff.hys.y = not pre(heatPump.eff.hys.y) and heatPump.eff.hys.u >
+ heatPump.eff.hys.uHigh or pre(heatPump.eff.hys.y) and heatPump.eff.hys.u
+ >= heatPump.eff.hys.uLow;
+
+ // Component heatPump.eff.invXReg
+ // class AixLib.Utilities.Math.InverseXRegularized
+ equation
+ heatPump.eff.invXReg.y = AixLib.Utilities.Math.Functions.inverseXRegularized
+ (heatPump.eff.invXReg.u, heatPump.eff.invXReg.delta, 1/heatPump.eff.invXReg.delta,
+ (-15)/heatPump.eff.invXReg.delta, 119*(1/heatPump.eff.invXReg.delta)^2, (-361)
+ *(1/heatPump.eff.invXReg.delta)^3, 534*(1/heatPump.eff.invXReg.delta)^4, (-380)
+ *(1/heatPump.eff.invXReg.delta)^5, 104*(1/heatPump.eff.invXReg.delta)^6);
+
+ // Component heatPump.eff.copCom
+ // class Modelica.Blocks.Math.Product
+ equation
+ heatPump.eff.copCom.y = heatPump.eff.copCom.u1*heatPump.eff.copCom.u2;
+
+ // Component heatPump.eff.swi
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.eff.swi.y = (if heatPump.eff.swi.u2 then heatPump.eff.swi.u1 else
+ heatPump.eff.swi.u3);
+
+ // Component heatPump.eff.zer
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ heatPump.eff.zer.y = heatPump.eff.zer.k;
+
+ // Component heatPump.eff.swiCoo
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.eff.swiCoo.y = (if heatPump.eff.swiCoo.u2 then heatPump.eff.swiCoo.u1
+ else heatPump.eff.swiCoo.u3);
+
+ // Component heatPump.eff.swiHea
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ heatPump.eff.swiHea.y = (if heatPump.eff.swiHea.u2 then heatPump.eff.swiHea.u1
+ else heatPump.eff.swiHea.u3);
+
+ // Component heatPump.eff.absQEva_flow
+ // class Modelica.Blocks.Math.Abs
+ equation
+ heatPump.eff.absQEva_flow.y = (if heatPump.eff.absQEva_flow.generateEvent
+ then (if heatPump.eff.absQEva_flow.u >= 0 then heatPump.eff.absQEva_flow.u
+ else -heatPump.eff.absQEva_flow.u) else (if noEvent(heatPump.eff.absQEva_flow.u
+ >= 0) then heatPump.eff.absQEva_flow.u else -heatPump.eff.absQEva_flow.u));
+
+ // Component heatPump.eff
+ // class AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.CalculateEfficiency
+ equation
+ connect(heatPump.eff.hys.u, heatPump.eff.PEle);
+ connect(heatPump.eff.hys.y, heatPump.eff.swi.u2);
+ connect(heatPump.eff.copCom.y, heatPump.eff.swi.u1);
+ connect(heatPump.eff.zer.y, heatPump.eff.swi.u3);
+ connect(heatPump.eff.swiCoo.y, heatPump.eff.EER);
+ connect(heatPump.eff.swiHea.y, heatPump.eff.COP);
+ connect(heatPump.eff.hea, heatPump.eff.swiHea.u2);
+ connect(heatPump.eff.swi.y, heatPump.eff.swiHea.u1);
+ connect(heatPump.eff.swiHea.u3, heatPump.eff.zer.y);
+ connect(heatPump.eff.hea, heatPump.eff.swiCoo.u2);
+ connect(heatPump.eff.swi.y, heatPump.eff.swiCoo.u3);
+ connect(heatPump.eff.zer.y, heatPump.eff.swiCoo.u1);
+ connect(heatPump.eff.QUse_flow, heatPump.eff.absQEva_flow.u);
+ connect(heatPump.eff.absQEva_flow.y, heatPump.eff.copCom.u1);
+ connect(heatPump.eff.copCom.u2, heatPump.eff.invXReg.y);
+ connect(heatPump.eff.invXReg.u, heatPump.eff.PEle);
+
+ // Component heatPump
+ // class RollOut.Systems.Hydraulical.Generation.BaseClasses.ModularPropagable
+ // extends RollOut.Systems.Hydraulical.Generation.HeatPump.PartialReversibleRefrigerantMachine
+ equation
+ connect(heatPump.safCtr.sigBus, heatPump.sigBus);
+ connect(heatPump.safCtr.yOut, heatPump.sigBus.yMea);
+ connect(heatPump.ySet, heatPump.safCtr.ySet);
+ connect(heatPump.TConAmb, heatPump.varTOutCon.T);
+ connect(heatPump.varTOutCon.port, heatPump.con.port_out);
+ connect(heatPump.TEvaAmb, heatPump.varTOutEva.T);
+ connect(heatPump.eva.port_out, heatPump.varTOutEva.port);
+ connect(heatPump.mEva_flow.port_a, heatPump.port_a2);
+ connect(heatPump.port_a1, heatPump.mCon_flow.port_a);
+ connect(heatPump.mEva_flow.port_b, heatPump.eva.port_a);
+ connect(heatPump.eva.port_b, heatPump.port_b2);
+ connect(heatPump.refCyc.QEva_flow, heatPump.refCycIneEva.u);
+ connect(heatPump.eva.Q_flow, heatPump.refCycIneEva.y);
+ connect(heatPump.refCycIneCon.y, heatPump.con.Q_flow);
+ connect(heatPump.refCycIneCon.u, heatPump.refCyc.QCon_flow);
+ connect(heatPump.mCon_flow.port_b, heatPump.con.port_a);
+ connect(heatPump.con.port_b, heatPump.port_b1);
+ connect(heatPump.mEva_flow.m_flow, heatPump.sigBus.mEvaMea_flow);
+ connect(heatPump.mCon_flow.m_flow, heatPump.sigBus.mConMea_flow);
+ connect(heatPump.refCyc.sigBus, heatPump.sigBus);
+ connect(heatPump.refCyc.PEle, heatPump.sigBus.PEleMea);
+ connect(heatPump.hys.y, heatPump.sigBus.onOffMea);
+ connect(heatPump.TConAmb, heatPump.sigBus.TConAmbMea);
+ connect(heatPump.TEvaAmb, heatPump.sigBus.TEvaAmbMea);
+ connect(heatPump.hys.u, heatPump.sigBus.yMea);
+ connect(heatPump.con.T, heatPump.sigBus.TConOutMea);
+ connect(heatPump.senTConIn.y, heatPump.sigBus.TConInMea);
+ connect(heatPump.eva.T, heatPump.sigBus.TEvaOutMea);
+ connect(heatPump.senTEvaIn.y, heatPump.sigBus.TEvaInMea);
+ if ( not heatPump.use_intSafCtr) then
+ connect(heatPump.ySet, heatPump.sigBus.yMea);
+ end if;
+ connect(heatPump.ySet, heatPump.sigBus.ySet);
+ connect(heatPump.refCyc.PEle, heatPump.P);
+ connect(heatPump.refCycIneEva.y, heatPump.QEva_flow);
+ connect(heatPump.refCycIneCon.y, heatPump.QCon_flow);
+ connect(heatPump.eff.PEle, heatPump.refCyc.PEle);
+ connect(heatPump.eff.COP, heatPump.COP);
+ connect(heatPump.eff.EER, heatPump.EER);
+ // end of extends
+ equation
+ connect(heatPump.conHea.y, heatPump.sigBus.hea);
+ connect(heatPump.hea, heatPump.sigBus.hea);
+ connect(heatPump.eff.QUse_flow, heatPump.refCycIneCon.y);
+ connect(heatPump.eff.hea, heatPump.sigBus.hea);
+
+ // Component bou_sinkAir
+ // class IBPSA.Fluid.Sources.Boundary_ph
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource
+ equation
+ connect(bou_sinkAir.medium.p, bou_sinkAir.p_in_internal);
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource_Xi_C
+ equation
+ if (bou_sinkAir.use_X_in or bou_sinkAir.use_Xi_in) then
+ Modelica.Fluid.Utilities.checkBoundary("Air", {"water", "air"}, false,
+ true, bou_sinkAir.X_in_internal, "Boundary_pT");
+ end if;
+ connect(bou_sinkAir.X_in, bou_sinkAir.X_in_internal);
+ connect(bou_sinkAir.Xi_in, bou_sinkAir.Xi_in_internal);
+ if (bou_sinkAir.use_Xi_in) then
+ bou_sinkAir.X_in_internal[1:1] = bou_sinkAir.Xi_in_internal[1:1];
+ bou_sinkAir.X_in_internal[2] = 1-sum(bou_sinkAir.Xi_in_internal);
+ elseif (bou_sinkAir.use_X_in) then
+ bou_sinkAir.X_in_internal[1:1] = bou_sinkAir.Xi_in_internal[1:1];
+ else
+ bou_sinkAir.X_in_internal = bou_sinkAir.X;
+ bou_sinkAir.Xi_in_internal = bou_sinkAir.X[1:1];
+ end if;
+ connect(bou_sinkAir.C_in, bou_sinkAir.C_in_internal);
+ if ( not bou_sinkAir.use_C_in) then
+ bou_sinkAir.C_in_internal = bou_sinkAir.C;
+ end if;
+ for i in (1:bou_sinkAir.nPorts) loop
+ bou_sinkAir.ports[i].Xi_outflow = bou_sinkAir.Xi_in_internal;
+ bou_sinkAir.ports[i].C_outflow = bou_sinkAir.C_in_internal;
+ end for;
+ // end of extends
+ equation
+ if (bou_sinkAir.use_p_in) then
+ if (bou_sinkAir.checkWaterPressure) then
+ assert(bou_sinkAir.p_in_internal > 10000.0, "In HeatPumpAndElectricHeater.bou_sinkAir: The value of p_in="
+ +String(bou_sinkAir.p_in_internal)+" is low for water. This is likely an error.");
+ end if;
+ if (bou_sinkAir.checkAirPressure) then
+ assert(bou_sinkAir.p_in_internal > 50000.0 and bou_sinkAir.p_in_internal
+ < 150000.0, "In HeatPumpAndElectricHeater.bou_sinkAir: The value of p_in="
+ +String(bou_sinkAir.p_in_internal)+" is not within a realistic range for air. This is likely an error.");
+ end if;
+ end if;
+ connect(bou_sinkAir.p_in, bou_sinkAir.p_in_internal);
+ if ( not bou_sinkAir.use_p_in) then
+ bou_sinkAir.p_in_internal = bou_sinkAir.p;
+ end if;
+ for i in (1:bou_sinkAir.nPorts) loop
+ bou_sinkAir.ports[i].p = bou_sinkAir.p_in_internal;
+ end for;
+ connect(bou_sinkAir.h_in, bou_sinkAir.h_in_internal);
+ if ( not bou_sinkAir.use_h_in) then
+ bou_sinkAir.h_in_internal = bou_sinkAir.h;
+ end if;
+ for i in (1:bou_sinkAir.nPorts) loop
+ bou_sinkAir.ports[i].h_outflow = bou_sinkAir.h_in_internal;
+ end for;
+ connect(bou_sinkAir.medium.h, bou_sinkAir.h_in_internal);
+
+ // Component bouEva
+ // class IBPSA.Fluid.Sources.MassFlowSource_T
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource
+ equation
+ connect(bouEva.medium.p, bouEva.p_in_internal);
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource_Xi_C
+ equation
+ if (bouEva.use_X_in or bouEva.use_Xi_in) then
+ Modelica.Fluid.Utilities.checkBoundary("Air", {"water", "air"}, false,
+ true, bouEva.X_in_internal, "Boundary_pT");
+ end if;
+ connect(bouEva.X_in, bouEva.X_in_internal);
+ connect(bouEva.Xi_in, bouEva.Xi_in_internal);
+ if (bouEva.use_Xi_in) then
+ bouEva.X_in_internal[1:1] = bouEva.Xi_in_internal[1:1];
+ bouEva.X_in_internal[2] = 1-sum(bouEva.Xi_in_internal);
+ elseif (bouEva.use_X_in) then
+ bouEva.X_in_internal[1:1] = bouEva.Xi_in_internal[1:1];
+ else
+ bouEva.X_in_internal = bouEva.X;
+ bouEva.Xi_in_internal = bouEva.X[1:1];
+ end if;
+ connect(bouEva.C_in, bouEva.C_in_internal);
+ if ( not bouEva.use_C_in) then
+ bouEva.C_in_internal = bouEva.C;
+ end if;
+ for i in (1:bouEva.nPorts) loop
+ bouEva.ports[i].Xi_outflow = bouEva.Xi_in_internal;
+ bouEva.ports[i].C_outflow = bouEva.C_in_internal;
+ end for;
+ // end of extends
+ equation
+ connect(bouEva.m_flow_in, bouEva.m_flow_in_internal);
+ if ( not bouEva.use_m_flow_in) then
+ bouEva.m_flow_in_internal = bouEva.m_flow;
+ end if;
+ for i in (1:bouEva.nPorts) loop
+ bouEva.ports[i].p = bouEva.p_in_internal;
+ end for;
+ sum(bouEva.ports.m_flow) = -bouEva.m_flow_in_internal;
+ connect(bouEva.T_in, bouEva.T_in_internal);
+ if ( not bouEva.use_T_in) then
+ bouEva.T_in_internal = bouEva.T;
+ end if;
+ for i in (1:bouEva.nPorts) loop
+ bouEva.ports[i].h_outflow = bouEva.h_internal;
+ end for;
+ connect(bouEva.medium.h, bouEva.h_internal);
+
+ // Component switch
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ switch.y = (if switch.u2 then switch.u1 else switch.u3);
+
+ // Component AirOrSoil
+ // class Modelica.Blocks.Sources.BooleanConstant
+ equation
+ AirOrSoil.y = AirOrSoil.k;
+
+ // Component KPIWel.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIWel.integrator2.use_reset) then
+ connect(KPIWel.integrator2.reset, KPIWel.integrator2.local_reset);
+ if (KPIWel.integrator2.use_set) then
+ connect(KPIWel.integrator2.set, KPIWel.integrator2.local_set);
+ else
+ KPIWel.integrator2.local_set = KPIWel.integrator2.y_start;
+ end if;
+ when KPIWel.integrator2.local_reset then
+ reinit(KPIWel.integrator2.y, KPIWel.integrator2.local_set);
+ end when;
+ else
+ KPIWel.integrator2.local_reset = false;
+ KPIWel.integrator2.local_set = 0;
+ end if;
+ der(KPIWel.integrator2.y) = KPIWel.integrator2.k*KPIWel.integrator2.u;
+
+ // Component KPIWel.internalU
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ KPIWel.internalU.y = KPIWel.internalU.u;
+
+ // Component KPIWel
+ // class BESMod.Utilities.KPIs.EnergyKPICalculator
+ equation
+ connect(KPIWel.internalU.y, KPIWel.KPI.value);
+ connect(KPIWel.integrator2.u, KPIWel.internalU.y);
+ connect(KPIWel.integrator2.y, KPIWel.KPI.integral);
+ connect(KPIWel.internalU.u, KPIWel.u);
+ connect(KPIWel.internalU.u, KPIWel.y);
+
+ // Component pump.inputSwitch
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ pump.inputSwitch.y = pump.inputSwitch.u;
+
+ // Component pump.vol.preTem
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedTemperature
+ equation
+ pump.vol.preTem.port.T = pump.vol.preTem.T;
+
+ // Component pump.vol.heaFloSen
+ // class Modelica.Thermal.HeatTransfer.Sensors.HeatFlowSensor
+ equation
+ pump.vol.heaFloSen.port_a.T = pump.vol.heaFloSen.port_b.T;
+ pump.vol.heaFloSen.port_a.Q_flow+pump.vol.heaFloSen.port_b.Q_flow = 0;
+ pump.vol.heaFloSen.Q_flow = pump.vol.heaFloSen.port_a.Q_flow;
+
+ // Component pump.vol.dynBal.medium
+ // class Modelica.Media.Interfaces.PartialMedium.BaseProperties
+ equation
+ if (pump.vol.dynBal.medium.standardOrderComponents) then
+ pump.vol.dynBal.medium.Xi = pump.vol.dynBal.medium.X[1:0];
+ pump.vol.dynBal.medium.X[1] = 1-sum(pump.vol.dynBal.medium.Xi);
+ for i in (1:1) loop
+ assert(pump.vol.dynBal.medium.X[i] >= -1E-05 and pump.vol.dynBal.medium.X
+ [i] <= 1.00001, "Mass fraction X["+String(i)+"] = "+String(
+ pump.vol.dynBal.medium.X[i])+"of substance "+({"unusablePartialMedium"})
+ [i]+"\nof medium "+"unusablePartialMedium"+" is not in the range 0..1");
+ end for;
+ end if;
+ assert(pump.vol.dynBal.medium.p >= 0.0, "Pressure (= "+String(
+ pump.vol.dynBal.medium.p)+" Pa) of medium \""+"unusablePartialMedium"+
+ "\" is negative\n(Temperature = "+String(pump.vol.dynBal.medium.T)+" K)");
+
+ // Component pump.vol.dynBal
+ // class IBPSA.Fluid.Interfaces.ConservationEquation
+ equation
+ connect(pump.vol.dynBal.mWat_flow, pump.vol.dynBal.mWat_flow_internal);
+ if ( not pump.vol.dynBal.use_mWat_flow) then
+ pump.vol.dynBal.mWat_flow_internal = 0;
+ end if;
+ connect(pump.vol.dynBal.C_flow, pump.vol.dynBal.C_flow_internal);
+ if ( not pump.vol.dynBal.use_C_flow) then
+ pump.vol.dynBal.C_flow_internal = zeros(0);
+ end if;
+ if (pump.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ pump.vol.dynBal.m = pump.vol.dynBal.fluidVolume*pump.vol.dynBal.rho_start;
+ else
+ if (pump.vol.dynBal._simplify_mWat_flow) then
+ pump.vol.dynBal.m = pump.vol.dynBal.fluidVolume*density_Unique1(
+ setState_phX_Unique8(pump.vol.dynBal.medium.p, pump.vol.dynBal.hOut, {
+ 1.0}));
+ else
+ pump.vol.dynBal.m = pump.vol.dynBal.fluidVolume*pump.vol.dynBal.medium.d;
+ end if;
+ end if;
+ pump.vol.dynBal.mXi = pump.vol.dynBal.m*pump.vol.dynBal.medium.Xi;
+ if (pump.vol.dynBal.computeCSen) then
+ pump.vol.dynBal.U = pump.vol.dynBal.m*pump.vol.dynBal.medium.u+
+ pump.vol.dynBal.CSen*(pump.vol.dynBal.medium.T-298.15);
+ else
+ pump.vol.dynBal.U = pump.vol.dynBal.m*pump.vol.dynBal.medium.u;
+ end if;
+ pump.vol.dynBal.mC = pump.vol.dynBal.m*pump.vol.dynBal.C;
+ pump.vol.dynBal.hOut = pump.vol.dynBal.medium.h;
+ pump.vol.dynBal.XiOut = pump.vol.dynBal.medium.Xi;
+ pump.vol.dynBal.COut = pump.vol.dynBal.C;
+ for i in (1:pump.vol.dynBal.nPorts) loop
+ pump.vol.dynBal.ports_H_flow[i] = semiLinear(pump.vol.dynBal.ports[i].
+ m_flow, inStream(pump.vol.dynBal.ports[i].h_outflow), pump.vol.dynBal.ports
+ [i].h_outflow);
+ for j in (1:0) loop
+ pump.vol.dynBal.ports_mXi_flow[i, j] = semiLinear(pump.vol.dynBal.ports[
+ i].m_flow, inStream(pump.vol.dynBal.ports[i].Xi_outflow[j]),
+ pump.vol.dynBal.ports[i].Xi_outflow[j]);
+ end for;
+ for j in (1:0) loop
+ pump.vol.dynBal.ports_mC_flow[i, j] = semiLinear(pump.vol.dynBal.ports[i]
+ .m_flow, inStream(pump.vol.dynBal.ports[i].C_outflow[j]),
+ pump.vol.dynBal.ports[i].C_outflow[j]);
+ end for;
+ end for;
+ for i in (1:0) loop
+ pump.vol.dynBal.mbXi_flow[i] = sum(pump.vol.dynBal.ports_mXi_flow[:, i]);
+ end for;
+ for i in (1:0) loop
+ pump.vol.dynBal.mbC_flow[i] = sum(pump.vol.dynBal.ports_mC_flow[:, i]);
+ end for;
+ pump.vol.dynBal.mb_flow = sum(pump.vol.dynBal.ports.m_flow);
+ pump.vol.dynBal.Hb_flow = sum(pump.vol.dynBal.ports_H_flow);
+ if (pump.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = pump.vol.dynBal.Hb_flow+pump.vol.dynBal.Q_flow;
+ else
+ der(pump.vol.dynBal.U) = pump.vol.dynBal.Hb_flow+pump.vol.dynBal.Q_flow;
+ end if;
+ if (pump.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = pump.vol.dynBal.mb_flow+(if pump.vol.dynBal.simplify_mWat_flow then 0
+ else pump.vol.dynBal.mWat_flow_internal);
+ else
+ der(pump.vol.dynBal.m) = pump.vol.dynBal.mb_flow+(if pump.vol.dynBal.simplify_mWat_flow
+ then 0 else pump.vol.dynBal.mWat_flow_internal);
+ end if;
+ if (pump.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = pump.vol.dynBal.mbXi_flow+pump.vol.dynBal.mWat_flow_internal*
+ pump.vol.dynBal.s;
+ else
+ der(pump.vol.dynBal.medium.Xi) = (pump.vol.dynBal.mbXi_flow+
+ pump.vol.dynBal.mWat_flow_internal*pump.vol.dynBal.s)/pump.vol.dynBal.m;
+ end if;
+ if (pump.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = pump.vol.dynBal.mbC_flow+pump.vol.dynBal.C_flow_internal;
+ else
+ der(pump.vol.dynBal.mC) = pump.vol.dynBal.mbC_flow+pump.vol.dynBal.C_flow_internal;
+ end if;
+ for i in (1:pump.vol.dynBal.nPorts) loop
+ pump.vol.dynBal.ports[i].p = pump.vol.dynBal.medium.p;
+ pump.vol.dynBal.ports[i].h_outflow = pump.vol.dynBal.medium.h;
+ pump.vol.dynBal.ports[i].Xi_outflow = pump.vol.dynBal.medium.Xi;
+ pump.vol.dynBal.ports[i].C_outflow = pump.vol.dynBal.C;
+ end for;
+ pump.vol.dynBal.UOut = pump.vol.dynBal.U;
+ pump.vol.dynBal.mXiOut = pump.vol.dynBal.mXi;
+ pump.vol.dynBal.mOut = pump.vol.dynBal.m;
+ pump.vol.dynBal.mCOut = pump.vol.dynBal.mC;
+
+ // Component pump.vol
+ // class IBPSA.Fluid.Delays.DelayFirstOrder
+ // extends IBPSA.Fluid.MixingVolumes.BaseClasses.PartialMixingVolume
+ equation
+ if ( not pump.vol.allowFlowReversal) then
+ assert(pump.vol.ports[1].m_flow > -pump.vol.m_flow_small,
+ "In HeatPumpAndElectricHeater.pump.vol: Model has flow reversal,
+ but the parameter allowFlowReversal is set to false.
+ m_flow_small = "
+ +String(pump.vol.m_flow_small)+"
+ ports[1].m_flow = "+String(
+ pump.vol.ports[1].m_flow)+"
+");
+ end if;
+ if (pump.vol.useSteadyStateTwoPort) then
+ connect(pump.vol.steBal.port_a, pump.vol.ports[1]);
+ connect(pump.vol.steBal.port_b, pump.vol.ports[2]);
+ pump.vol.U = 0;
+ pump.vol.mXi = zeros(0);
+ pump.vol.m = 0;
+ pump.vol.mC = zeros(0);
+ connect(pump.vol.hOut_internal, pump.vol.steBal.hOut);
+ connect(pump.vol.XiOut_internal, pump.vol.steBal.XiOut);
+ connect(pump.vol.COut_internal, pump.vol.steBal.COut);
+ else
+ connect(pump.vol.dynBal.ports, pump.vol.ports);
+ connect(pump.vol.U, pump.vol.dynBal.UOut);
+ connect(pump.vol.mXi, pump.vol.dynBal.mXiOut);
+ connect(pump.vol.m, pump.vol.dynBal.mOut);
+ connect(pump.vol.mC, pump.vol.dynBal.mCOut);
+ connect(pump.vol.hOut_internal, pump.vol.dynBal.hOut);
+ connect(pump.vol.XiOut_internal, pump.vol.dynBal.XiOut);
+ connect(pump.vol.COut_internal, pump.vol.dynBal.COut);
+ end if;
+ connect(pump.vol.portT.y, pump.vol.preTem.T);
+ connect(pump.vol.heaFloSen.port_b, pump.vol.preTem.port);
+ connect(pump.vol.heaFloSen.Q_flow, pump.vol.steBal.Q_flow);
+ connect(pump.vol.heaFloSen.Q_flow, pump.vol.dynBal.Q_flow);
+ // extends IBPSA.Fluid.MixingVolumes.MixingVolume
+ equation
+ connect(pump.vol.heaFloSen.port_a, pump.vol.heatPort);
+ connect(pump.vol.C_flow, pump.vol.steBal.C_flow);
+ connect(pump.vol.C_flow, pump.vol.dynBal.C_flow);
+ // end of extends
+
+ // Component pump.preSou
+ // class IBPSA.Fluid.Movers.BaseClasses.IdealSource
+ // extends IBPSA.Fluid.Interfaces.PartialTwoPortTransport
+ equation
+ pump.preSou.dp = pump.preSou.port_a.p-pump.preSou.port_b.p;
+ pump.preSou.m_flow = pump.preSou.port_a.m_flow;
+ assert(pump.preSou.m_flow > -pump.preSou.m_flow_small or pump.preSou.allowFlowReversal,
+ "Reverting flow occurs even though allowFlowReversal is false");
+ pump.preSou.port_a.m_flow+pump.preSou.port_b.m_flow = 0;
+ pump.preSou.port_a.Xi_outflow = (if pump.preSou.allowFlowReversal then
+ inStream(pump.preSou.port_b.Xi_outflow) else {});
+ pump.preSou.port_b.Xi_outflow = inStream(pump.preSou.port_a.Xi_outflow);
+ pump.preSou.port_a.C_outflow = (if pump.preSou.allowFlowReversal then
+ inStream(pump.preSou.port_b.C_outflow) else zeros(0));
+ pump.preSou.port_b.C_outflow = inStream(pump.preSou.port_a.C_outflow);
+ // end of extends
+ equation
+ if (pump.preSou.control_m_flow) then
+ pump.preSou.m_flow = pump.preSou.m_flow_internal;
+ else
+ pump.preSou.m_flow_internal = 0;
+ end if;
+ if (pump.preSou.control_dp) then
+ pump.preSou.dp = pump.preSou.dp_internal;
+ else
+ pump.preSou.dp_internal = 0;
+ end if;
+ connect(pump.preSou.dp_internal, pump.preSou.dp_in);
+ connect(pump.preSou.m_flow_internal, pump.preSou.m_flow_in);
+ pump.preSou.port_a.h_outflow = (if pump.preSou.allowFlowReversal then
+ inStream(pump.preSou.port_b.h_outflow) else specificEnthalpy_pTX_Unique4(101325,
+ 293.15, {1.0}));
+ pump.preSou.port_b.h_outflow = inStream(pump.preSou.port_a.h_outflow);
+
+ // Component pump.senMasFlo
+ // class IBPSA.Fluid.Sensors.MassFlowRate
+ // extends IBPSA.Fluid.Sensors.BaseClasses.PartialFlowSensor
+ equation
+ pump.senMasFlo.port_b.m_flow = -pump.senMasFlo.port_a.m_flow;
+ pump.senMasFlo.port_a.p = pump.senMasFlo.port_b.p;
+ pump.senMasFlo.port_a.h_outflow = (if pump.senMasFlo.allowFlowReversal
+ then inStream(pump.senMasFlo.port_b.h_outflow) else specificEnthalpy_pTX_Unique25
+ (101325, 293.15, {1.0}));
+ pump.senMasFlo.port_b.h_outflow = inStream(pump.senMasFlo.port_a.h_outflow);
+ pump.senMasFlo.port_a.Xi_outflow = (if pump.senMasFlo.allowFlowReversal
+ then inStream(pump.senMasFlo.port_b.Xi_outflow) else {});
+ pump.senMasFlo.port_b.Xi_outflow = inStream(pump.senMasFlo.port_a.Xi_outflow);
+ pump.senMasFlo.port_a.C_outflow = (if pump.senMasFlo.allowFlowReversal
+ then inStream(pump.senMasFlo.port_b.C_outflow) else zeros(0));
+ pump.senMasFlo.port_b.C_outflow = inStream(pump.senMasFlo.port_a.C_outflow);
+ // end of extends
+ equation
+ pump.senMasFlo.m_flow = pump.senMasFlo.port_a.m_flow;
+
+ // Component pump.senRelPre
+ // class IBPSA.Fluid.Sensors.RelativePressure
+ equation
+ pump.senRelPre.port_a.m_flow = 0;
+ pump.senRelPre.port_b.m_flow = 0;
+ pump.senRelPre.port_a.h_outflow = 0;
+ pump.senRelPre.port_b.h_outflow = 0;
+ pump.senRelPre.port_a.Xi_outflow = zeros(0);
+ pump.senRelPre.port_b.Xi_outflow = zeros(0);
+ pump.senRelPre.port_a.C_outflow = zeros(0);
+ pump.senRelPre.port_b.C_outflow = zeros(0);
+ pump.senRelPre.p_rel = pump.senRelPre.port_a.p-pump.senRelPre.port_b.p;
+
+ // Component pump.eff
+ // class IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface
+ equation
+ connect(pump.eff.dp_internal, pump.eff.dp);
+ connect(pump.eff.dp_internal, pump.eff.dp_in);
+ connect(pump.eff.r_N, pump.eff.y_in);
+ pump.eff.y_out = pump.eff.r_N;
+ pump.eff.V_flow = pump.eff.m_flow/pump.eff.rho;
+ pump.eff.r_V = pump.eff.V_flow/pump.eff.V_flow_max;
+ if (pump.eff.computePowerUsingSimilarityLaws == false and pump.eff.preVar
+ <> IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable.Speed) then
+ pump.eff.r_N = 1;
+ else
+ if (pump.eff.curve == 1) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.V_flow*pump.eff.kRes+pump.eff.dp_internal = homotopy(
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.preDer1,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur1), pump.eff.r_N*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer1,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur1)+(pump.eff.V_flow-pump.eff.V_flow_nominal)*(
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(
+ (1+pump.eff.delta)*pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer1,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur1)-IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ (1-pump.eff.delta)*pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer1,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur1))/(2*pump.eff.delta*pump.eff.V_flow_nominal)));
+ else
+ pump.eff.V_flow*pump.eff.kRes+pump.eff.dp_internal = IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.preDer1,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur1);
+ end if;
+ elseif (pump.eff.curve == 2) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.V_flow*pump.eff.kRes+pump.eff.dp_internal = homotopy(
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.preDer2,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur2), pump.eff.r_N*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer2,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur2)+(pump.eff.V_flow-pump.eff.V_flow_nominal)*(
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(
+ (1+pump.eff.delta)*pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer2,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur2)-IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ (1-pump.eff.delta)*pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer2,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur2))/(2*pump.eff.delta*pump.eff.V_flow_nominal)));
+ else
+ pump.eff.V_flow*pump.eff.kRes+pump.eff.dp_internal = IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.preDer2,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur2);
+ end if;
+ else
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.V_flow*pump.eff.kRes+pump.eff.dp_internal = homotopy(
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.preDer3,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur3), pump.eff.r_N*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer3,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur3)+(pump.eff.V_flow-pump.eff.V_flow_nominal)*(
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(
+ (1+pump.eff.delta)*pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer3,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur3)-IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ (1-pump.eff.delta)*pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.preDer3,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur3))/(2*pump.eff.delta*pump.eff.V_flow_nominal)));
+ else
+ pump.eff.V_flow*pump.eff.kRes+pump.eff.dp_internal = IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure
+ (
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.preDer3,
+ pump.eff.dpMax,
+ pump.eff.V_flow_max,
+ pump.eff.pCur3);
+ end if;
+ end if;
+ end if;
+ pump.eff.WFlo = IBPSA.Utilities.Math.Functions.smoothMax(pump.eff.dp_internal
+ *pump.eff.V_flow, 0, pump.eff.deltaP/2);
+ if (pump.eff.per.powerOrEfficiencyIsHydraulic) then
+ pump.eff.eta = pump.eff.etaHyd*pump.eff.etaMot;
+ else
+ pump.eff.etaHyd = IBPSA.Utilities.Math.Functions.smoothMin(pump.eff.eta/
+ pump.eff.etaMot, 1, 0.001);
+ end if;
+ if (pump.eff.per.powerOrEfficiencyIsHydraulic) then
+ pump.eff.P_internal = pump.eff.WHyd;
+ pump.eff.eta_internal = pump.eff.etaHyd;
+ pump.eff.PEle = pump.eff.WFlo/IBPSA.Utilities.Math.Functions.smoothMax(
+ pump.eff.eta, 0.01, 0.001);
+ else
+ pump.eff.P_internal = pump.eff.PEle;
+ pump.eff.eta_internal = pump.eff.eta;
+ pump.eff.WHyd = pump.eff.WFlo/IBPSA.Utilities.Math.Functions.smoothMax(
+ pump.eff.etaHyd, 0.01, 0.001);
+ end if;
+ if (pump.eff.per.etaHydMet == IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ Power_VolumeFlowRate) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.P_internal = homotopy(IBPSA.Fluid.Movers.BaseClasses.Characteristics.power
+ (
+ pump.eff.per.power,
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.powDer,
+ pump.eff.delta), pump.eff.V_flow/pump.eff.V_flow_nominal*
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(
+ pump.eff.per.power,
+ pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.powDer,
+ pump.eff.delta));
+ else
+ pump.eff.P_internal = pump.eff.rho/pump.eff.rho_default*IBPSA.Fluid.Movers.BaseClasses.Characteristics.power
+ (
+ pump.eff.per.power,
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.powDer,
+ pump.eff.delta);
+ end if;
+ pump.eff.eta_internal = pump.eff.WFlo/IBPSA.Utilities.Math.Functions.smoothMax
+ (pump.eff.P_internal, pump.eff.deltaP, pump.eff.deltaP/2);
+ elseif (pump.eff.per.etaHydMet == IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ EulerNumber) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.P_internal = homotopy(IBPSA.Fluid.Movers.BaseClasses.Characteristics.power
+ (
+ pump.eff.powEu,
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.powEuDer,
+ pump.eff.delta), pump.eff.V_flow/pump.eff.V_flow_nominal*
+ IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(
+ pump.eff.powEu,
+ pump.eff.V_flow_nominal,
+ 1,
+ pump.eff.powEuDer,
+ pump.eff.delta));
+ else
+ pump.eff.P_internal = pump.eff.rho/pump.eff.rho_default*IBPSA.Fluid.Movers.BaseClasses.Characteristics.power
+ (
+ pump.eff.powEu,
+ pump.eff.V_flow,
+ pump.eff.r_N,
+ pump.eff.powEuDer,
+ pump.eff.delta);
+ end if;
+ pump.eff.eta_internal = pump.eff.WFlo/IBPSA.Utilities.Math.Functions.smoothMax
+ (pump.eff.P_internal, pump.eff.deltaP, pump.eff.deltaP/2);
+ elseif (pump.eff.per.etaHydMet == IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ Efficiency_VolumeFlowRate) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.eta_internal = homotopy(IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency
+ (
+ pump.eff.per.efficiency,
+ pump.eff.V_flow,
+ pump.eff.etaDer,
+ pump.eff.r_N,
+ pump.eff.delta), IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency
+ (
+ pump.eff.per.efficiency,
+ pump.eff.V_flow_max,
+ pump.eff.etaDer,
+ pump.eff.r_N,
+ pump.eff.delta));
+ else
+ pump.eff.eta_internal = IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency
+ (
+ pump.eff.per.efficiency,
+ pump.eff.V_flow,
+ pump.eff.etaDer,
+ pump.eff.r_N,
+ pump.eff.delta);
+ end if;
+ pump.eff.P_internal = pump.eff.WFlo/IBPSA.Utilities.Math.Functions.smoothMax
+ (pump.eff.eta_internal, 0.01, 0.001);
+ else
+ if (pump.eff.per.powerOrEfficiencyIsHydraulic) then
+ pump.eff.eta_internal = 0.7;
+ else
+ pump.eff.eta_internal = 0.49;
+ end if;
+ pump.eff.P_internal = pump.eff.WFlo/pump.eff.eta_internal;
+ end if;
+ if (pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_VolumeFlowRate) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.etaMot = homotopy(IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency
+ (
+ pump.eff.per.motorEfficiency,
+ pump.eff.V_flow,
+ pump.eff.motDer,
+ pump.eff.r_N,
+ pump.eff.delta), IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency
+ (
+ pump.eff.per.motorEfficiency,
+ pump.eff.V_flow_max,
+ pump.eff.motDer,
+ pump.eff.r_N,
+ pump.eff.delta));
+ else
+ pump.eff.etaMot = IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency
+ (
+ pump.eff.per.motorEfficiency,
+ pump.eff.V_flow,
+ pump.eff.motDer,
+ pump.eff.r_N,
+ pump.eff.delta);
+ end if;
+ elseif (pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_MotorPartLoadRatio) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.etaMot = homotopy(IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot
+ (
+ pump.eff.per.motorEfficiency_yMot,
+ pump.eff.yMot,
+ pump.eff.motDer_yMot), IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot
+ (
+ pump.eff.per.motorEfficiency_yMot,
+ 1,
+ pump.eff.motDer_yMot));
+ else
+ pump.eff.etaMot = IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot
+ (
+ pump.eff.per.motorEfficiency_yMot,
+ pump.eff.yMot,
+ pump.eff.motDer_yMot);
+ end if;
+ elseif (pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ GenericCurve) then
+ if (pump.eff.homotopyInitialization) then
+ pump.eff.etaMot = homotopy(IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot
+ (
+ pump.eff.per.motorEfficiency_yMot_generic,
+ pump.eff.yMot,
+ pump.eff.motDer_yMot_generic), IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot
+ (
+ pump.eff.per.motorEfficiency_yMot_generic,
+ 1,
+ pump.eff.motDer_yMot_generic));
+ else
+ pump.eff.etaMot = IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot
+ (
+ pump.eff.per.motorEfficiency_yMot_generic,
+ pump.eff.yMot,
+ pump.eff.motDer_yMot_generic);
+ end if;
+ else
+ pump.eff.etaMot = 0.7;
+ end if;
+
+ // Component pump.gain
+ // class Modelica.Blocks.Math.Gain
+ equation
+ pump.gain.y = pump.gain.k*pump.gain.u;
+
+ // Component pump
+ // class IBPSA.Fluid.Movers.Preconfigured.SpeedControlled_y
+ // extends IBPSA.Fluid.Movers.BaseClasses.PartialFlowMachine
+ equation
+ connect(pump.prePow.port, pump.vol.heatPort);
+ connect(pump.vol.heatPort, pump.heatPort);
+ connect(pump.preSou.port_b, pump.port_b);
+ connect(pump.stageValues.y, pump.extractor.u);
+ connect(pump.extractor.y, pump.inputSwitch.u);
+ connect(pump.setConst.y, pump.inputSwitch.u);
+ connect(pump.extractor.index, pump.stage);
+ connect(pump.PToMed.y, pump.prePow.Q_flow);
+ connect(pump.PToMed.u1, pump.heaDis.Q_flow);
+ connect(pump.senRelPre.port_b, pump.preSou.port_a);
+ connect(pump.senRelPre.port_a, pump.preSou.port_b);
+ connect(pump.heaDis.V_flow, pump.eff.V_flow);
+ connect(pump.eff.PEle, pump.heaDis.PEle);
+ connect(pump.eff.WFlo, pump.heaDis.WFlo);
+ connect(pump.rho_inlet.y, pump.eff.rho);
+ connect(pump.eff.m_flow, pump.senMasFlo.m_flow);
+ connect(pump.eff.WFlo, pump.PToMed.u2);
+ connect(pump.inputSwitch.y, pump.motSpe.u);
+ connect(pump.senRelPre.p_rel, pump.eff.dp_in);
+ connect(pump.eff.y_out, pump.y_actual);
+ connect(pump.port_a, pump.vol.ports[1]);
+ connect(pump.vol.ports[2], pump.senMasFlo.port_a);
+ connect(pump.senMasFlo.port_b, pump.preSou.port_a);
+ connect(pump.eff.WHyd, pump.heaDis.WHyd);
+ connect(pump.eff.PEle, pump.P);
+ // extends IBPSA.Fluid.Movers.SpeedControlled_y
+ equation
+ connect(pump.inputSwitch.u, pump.y);
+ connect(pump.eff.dp, pump.gain.u);
+ connect(pump.gain.y, pump.preSou.dp_in);
+ if (pump.use_riseTime) then
+ connect(pump.motSpe.y, pump.eff.y_in);
+ else
+ connect(pump.inputSwitch.y, pump.eff.y_in);
+ end if;
+ // end of extends
+
+ // Component TSoil
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ TSoil.y = TSoil.k;
+
+ // Component KPIQHP.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIQHP.integrator2.use_reset) then
+ connect(KPIQHP.integrator2.reset, KPIQHP.integrator2.local_reset);
+ if (KPIQHP.integrator2.use_set) then
+ connect(KPIQHP.integrator2.set, KPIQHP.integrator2.local_set);
+ else
+ KPIQHP.integrator2.local_set = KPIQHP.integrator2.y_start;
+ end if;
+ when KPIQHP.integrator2.local_reset then
+ reinit(KPIQHP.integrator2.y, KPIQHP.integrator2.local_set);
+ end when;
+ else
+ KPIQHP.integrator2.local_reset = false;
+ KPIQHP.integrator2.local_set = 0;
+ end if;
+ der(KPIQHP.integrator2.y) = KPIQHP.integrator2.k*KPIQHP.integrator2.u;
+
+ // Component KPIQHP.internalU
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ KPIQHP.internalU.y = KPIQHP.internalU.u;
+
+ // Component KPIQHP
+ // class BESMod.Utilities.KPIs.EnergyKPICalculator
+ equation
+ connect(KPIQHP.internalU.y, KPIQHP.KPI.value);
+ connect(KPIQHP.integrator2.u, KPIQHP.internalU.y);
+ connect(KPIQHP.integrator2.y, KPIQHP.KPI.integral);
+ connect(KPIQHP.internalU.u, KPIQHP.u);
+ connect(KPIQHP.internalU.u, KPIQHP.y);
+
+ // Component bouPum
+ // class IBPSA.Fluid.Sources.Boundary_pT
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource
+ equation
+ connect(bouPum.medium.p, bouPum.p_in_internal);
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource_Xi_C
+ equation
+ if (bouPum.use_X_in or bouPum.use_Xi_in) then
+ Modelica.Fluid.Utilities.checkBoundary("unusablePartialMedium", {
+ "unusablePartialMedium"}, _GlobalScope.singleState, true,
+ bouPum.X_in_internal, "Boundary_pT");
+ end if;
+ connect(bouPum.X_in, bouPum.X_in_internal);
+ connect(bouPum.Xi_in, bouPum.Xi_in_internal);
+ if (bouPum.use_Xi_in) then
+ bouPum.X_in_internal[1:0] = bouPum.Xi_in_internal[1:0];
+ bouPum.X_in_internal[1] = 1-sum(bouPum.Xi_in_internal);
+ elseif (bouPum.use_X_in) then
+ bouPum.X_in_internal[1:0] = bouPum.Xi_in_internal[1:0];
+ else
+ bouPum.X_in_internal = bouPum.X;
+ bouPum.Xi_in_internal = bouPum.X[1:0];
+ end if;
+ connect(bouPum.C_in, bouPum.C_in_internal);
+ if ( not bouPum.use_C_in) then
+ bouPum.C_in_internal = bouPum.C;
+ end if;
+ for i in (1:bouPum.nPorts) loop
+ bouPum.ports[i].Xi_outflow = bouPum.Xi_in_internal;
+ bouPum.ports[i].C_outflow = bouPum.C_in_internal;
+ end for;
+ // end of extends
+ equation
+ if (bouPum.use_p_in) then
+ if (bouPum.checkWaterPressure) then
+ assert(bouPum.p_in_internal > 10000.0, "In HeatPumpAndElectricHeater.bouPum: The value of p_in="
+ +String(bouPum.p_in_internal)+" is low for water. This is likely an error.");
+ end if;
+ if (bouPum.checkAirPressure) then
+ assert(bouPum.p_in_internal > 50000.0 and bouPum.p_in_internal <
+ 150000.0, "In HeatPumpAndElectricHeater.bouPum: The value of p_in="+
+ String(bouPum.p_in_internal)+" is not within a realistic range for air. This is likely an error.");
+ end if;
+ end if;
+ connect(bouPum.p_in, bouPum.p_in_internal);
+ if ( not bouPum.use_p_in) then
+ bouPum.p_in_internal = bouPum.p;
+ end if;
+ for i in (1:bouPum.nPorts) loop
+ bouPum.ports[i].p = bouPum.p_in_internal;
+ end for;
+ connect(bouPum.T_in, bouPum.T_in_internal);
+ if ( not bouPum.use_T_in) then
+ bouPum.T_in_internal = bouPum.T;
+ end if;
+ for i in (1:bouPum.nPorts) loop
+ bouPum.ports[i].h_outflow = bouPum.h_internal;
+ end for;
+ connect(bouPum.medium.h, bouPum.h_internal);
+
+ // Component senTGenOut
+ // class IBPSA.Fluid.Sensors.TemperatureTwoPort
+ // extends IBPSA.Fluid.Sensors.BaseClasses.PartialFlowSensor
+ equation
+ senTGenOut.port_b.m_flow = -senTGenOut.port_a.m_flow;
+ senTGenOut.port_a.p = senTGenOut.port_b.p;
+ senTGenOut.port_a.h_outflow = (if senTGenOut.allowFlowReversal then
+ inStream(senTGenOut.port_b.h_outflow) else specificEnthalpy_pTX_Unique4(101325,
+ 293.15, {1.0}));
+ senTGenOut.port_b.h_outflow = inStream(senTGenOut.port_a.h_outflow);
+ senTGenOut.port_a.Xi_outflow = (if senTGenOut.allowFlowReversal then
+ inStream(senTGenOut.port_b.Xi_outflow) else {});
+ senTGenOut.port_b.Xi_outflow = inStream(senTGenOut.port_a.Xi_outflow);
+ senTGenOut.port_a.C_outflow = (if senTGenOut.allowFlowReversal then
+ inStream(senTGenOut.port_b.C_outflow) else zeros(0));
+ senTGenOut.port_b.C_outflow = inStream(senTGenOut.port_a.C_outflow);
+ // extends IBPSA.Fluid.Sensors.BaseClasses.PartialDynamicFlowSensor
+ equation
+ if (senTGenOut.dynamic) then
+ senTGenOut.mNor_flow = senTGenOut.port_a.m_flow/senTGenOut.m_flow_nominal;
+ senTGenOut.k = Modelica.Fluid.Utilities.regStep(senTGenOut.port_a.m_flow,
+ senTGenOut.mNor_flow, -senTGenOut.mNor_flow, senTGenOut.m_flow_small);
+ else
+ senTGenOut.mNor_flow = 1;
+ senTGenOut.k = 1;
+ end if;
+ // end of extends
+ equation
+ if (senTGenOut.allowFlowReversal) then
+ senTGenOut.T_a_inflow = temperature_Unique7(
+ setState_phX_Unique8(senTGenOut.port_b.p, senTGenOut.port_b.h_outflow,
+ senTGenOut.port_b.Xi_outflow));
+ senTGenOut.T_b_inflow = temperature_Unique7(
+ setState_phX_Unique8(senTGenOut.port_a.p, senTGenOut.port_a.h_outflow,
+ senTGenOut.port_a.Xi_outflow));
+ senTGenOut.TMed = Modelica.Fluid.Utilities.regStep(senTGenOut.port_a.m_flow,
+ senTGenOut.T_a_inflow, senTGenOut.T_b_inflow, senTGenOut.m_flow_small);
+ else
+ senTGenOut.TMed = temperature_Unique7(
+ setState_phX_Unique8(senTGenOut.port_b.p, senTGenOut.port_b.h_outflow,
+ senTGenOut.port_b.Xi_outflow));
+ senTGenOut.T_a_inflow = senTGenOut.TMed;
+ senTGenOut.T_b_inflow = senTGenOut.TMed;
+ end if;
+ if (senTGenOut.dynamic) then
+ if (senTGenOut.transferHeat) then
+ der(senTGenOut.T) = (senTGenOut.TMed-senTGenOut.T)*senTGenOut.k*
+ senTGenOut.tauInv+(senTGenOut.TAmb-senTGenOut.T)*senTGenOut.tauHeaTraInv
+ /(senTGenOut.ratTau*senTGenOut.k+1);
+ else
+ der(senTGenOut.T) = (senTGenOut.TMed-senTGenOut.T)*senTGenOut.k*
+ senTGenOut.tauInv;
+ end if;
+ else
+ senTGenOut.T = senTGenOut.TMed;
+ end if;
+
+ // Component realToElecCon.NoFlowGen
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ realToElecCon.NoFlowGen.y = realToElecCon.NoFlowGen.k;
+
+ // Component realToElecCon.realPassThroughLoa
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ realToElecCon.realPassThroughLoa.y = realToElecCon.realPassThroughLoa.u;
+
+ // Component realToElecCon.realPassThroughGen
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ realToElecCon.realPassThroughGen.y = realToElecCon.realPassThroughGen.u;
+
+ // Component realToElecCon
+ // class BESMod.Utilities.Electrical.RealToElecCon
+ equation
+ realToElecCon.realPassThroughLoa.y = realToElecCon.internalElectricalPin.PElecLoa;
+ realToElecCon.realPassThroughGen.y = realToElecCon.internalElectricalPin.PElecGen;
+ connect(realToElecCon.NoFlowLoa.y, realToElecCon.realPassThroughLoa.u);
+ connect(realToElecCon.PEleLoa, realToElecCon.realPassThroughLoa.u);
+ connect(realToElecCon.realPassThroughGen.u, realToElecCon.PEleGen);
+ connect(realToElecCon.NoFlowGen.y, realToElecCon.realPassThroughGen.u);
+
+ // Component multiSum
+ // class Modelica.Blocks.Math.MultiSum
+ equation
+ if (size(multiSum.u, 1) > 0) then
+ multiSum.y = multiSum.k*multiSum.u;
+ else
+ multiSum.y = 0;
+ end if;
+
+ // Component KPIHeaPum.switch1
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ KPIHeaPum.switch1.y = (if KPIHeaPum.switch1.u2 then KPIHeaPum.switch1.u1
+ else KPIHeaPum.switch1.u3);
+
+ // Component KPIHeaPum.const
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ KPIHeaPum.const.y = KPIHeaPum.const.k;
+
+ // Component KPIHeaPum.const1
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ KPIHeaPum.const1.y = KPIHeaPum.const1.k;
+
+ // Component KPIHeaPum.integrator3
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIHeaPum.integrator3.use_reset) then
+ connect(KPIHeaPum.integrator3.reset, KPIHeaPum.integrator3.local_reset);
+ if (KPIHeaPum.integrator3.use_set) then
+ connect(KPIHeaPum.integrator3.set, KPIHeaPum.integrator3.local_set);
+ else
+ KPIHeaPum.integrator3.local_set = KPIHeaPum.integrator3.y_start;
+ end if;
+ when KPIHeaPum.integrator3.local_reset then
+ reinit(KPIHeaPum.integrator3.y, KPIHeaPum.integrator3.local_set);
+ end when;
+ else
+ KPIHeaPum.integrator3.local_reset = false;
+ KPIHeaPum.integrator3.local_set = 0;
+ end if;
+ der(KPIHeaPum.integrator3.y) = KPIHeaPum.integrator3.k*KPIHeaPum.integrator3.u;
+
+ // Component KPIHeaPum.not1
+ // class Modelica.Blocks.Logical.Not
+ equation
+ KPIHeaPum.not1.y = not KPIHeaPum.not1.u;
+
+ // Component KPIHeaPum.integerConstant
+ // class Modelica.Blocks.Sources.IntegerConstant
+ equation
+ KPIHeaPum.integerConstant.y = KPIHeaPum.integerConstant.k;
+
+ // Component KPIHeaPum.triggeredAdd
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ equation
+ if (KPIHeaPum.triggeredAdd.use_reset) then
+ connect(KPIHeaPum.triggeredAdd.reset, KPIHeaPum.triggeredAdd.local_reset);
+ if (KPIHeaPum.triggeredAdd.use_set) then
+ connect(KPIHeaPum.triggeredAdd.set, KPIHeaPum.triggeredAdd.local_set);
+ else
+ KPIHeaPum.triggeredAdd.local_set = KPIHeaPum.triggeredAdd.y_start;
+ end if;
+ else
+ KPIHeaPum.triggeredAdd.local_reset = false;
+ KPIHeaPum.triggeredAdd.local_set = 0;
+ end if;
+ when {KPIHeaPum.triggeredAdd.trigger, KPIHeaPum.triggeredAdd.local_reset}
+ then
+ KPIHeaPum.triggeredAdd.y = (if KPIHeaPum.triggeredAdd.local_reset then
+ KPIHeaPum.triggeredAdd.local_set else pre(KPIHeaPum.triggeredAdd.y)+
+ KPIHeaPum.triggeredAdd.u);
+ end when;
+
+ // Component KPIHeaPum.integrator1
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIHeaPum.integrator1.use_reset) then
+ connect(KPIHeaPum.integrator1.reset, KPIHeaPum.integrator1.local_reset);
+ if (KPIHeaPum.integrator1.use_set) then
+ connect(KPIHeaPum.integrator1.set, KPIHeaPum.integrator1.local_set);
+ else
+ KPIHeaPum.integrator1.local_set = KPIHeaPum.integrator1.y_start;
+ end if;
+ when KPIHeaPum.integrator1.local_reset then
+ reinit(KPIHeaPum.integrator1.y, KPIHeaPum.integrator1.local_set);
+ end when;
+ else
+ KPIHeaPum.integrator1.local_reset = false;
+ KPIHeaPum.integrator1.local_set = 0;
+ end if;
+ der(KPIHeaPum.integrator1.y) = KPIHeaPum.integrator1.k*KPIHeaPum.integrator1.u;
+
+ // Component KPIHeaPum
+ // class BESMod.Utilities.KPIs.DeviceKPICalculator
+ equation
+ connect(KPIHeaPum.switch1.u1, KPIHeaPum.const.y);
+ connect(KPIHeaPum.const1.y, KPIHeaPum.switch1.u3);
+ connect(KPIHeaPum.switch1.y, KPIHeaPum.integrator3.u);
+ connect(KPIHeaPum.not1.y, KPIHeaPum.integrator3.reset);
+ connect(KPIHeaPum.integerConstant.y, KPIHeaPum.triggeredAdd.u);
+ connect(KPIHeaPum.triggeredAdd.y, KPIHeaPum.KPI.numSwi);
+ connect(KPIHeaPum.integrator1.y, KPIHeaPum.KPI.totOnTim);
+ connect(KPIHeaPum.integrator3.y, KPIHeaPum.KPI.sinOnTim);
+ connect(KPIHeaPum.switch1.y, KPIHeaPum.integrator1.u);
+ connect(KPIHeaPum.not1.u, KPIHeaPum.u);
+ connect(KPIHeaPum.u, KPIHeaPum.switch1.u2);
+ connect(KPIHeaPum.triggeredAdd.trigger, KPIHeaPum.u);
+ connect(KPIHeaPum.isOn.y, KPIHeaPum.switch1.u2);
+ connect(KPIHeaPum.isOn.y, KPIHeaPum.not1.u);
+ connect(KPIHeaPum.isOn.y, KPIHeaPum.triggeredAdd.trigger);
+ connect(KPIHeaPum.uRea, KPIHeaPum.isOn.u);
+
+ // Component heaPumSigBusPasThr.realPassThrough[1]
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ heaPumSigBusPasThr.realPassThrough[1].y = heaPumSigBusPasThr.realPassThrough[1].u;
+
+ // Component heaPumSigBusPasThr.realPassThrough[2]
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ heaPumSigBusPasThr.realPassThrough[2].y = heaPumSigBusPasThr.realPassThrough[2].u;
+
+ // Component heaPumSigBusPasThr.realPassThrough[3]
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ heaPumSigBusPasThr.realPassThrough[3].y = heaPumSigBusPasThr.realPassThrough[3].u;
+
+ // Component heaPumSigBusPasThr.booleanPassThrough
+ // class Modelica.Blocks.Routing.BooleanPassThrough
+ equation
+ heaPumSigBusPasThr.booleanPassThrough.y = heaPumSigBusPasThr.booleanPassThrough.u;
+
+ // Component heaPumSigBusPasThr
+ // class BESMod.Systems.Hydraulical.Control.Components.BaseClasses.HeatPumpBusPassThrough
+ equation
+ connect(heaPumSigBusPasThr.booleanPassThrough.y, heaPumSigBusPasThr.sigBusGen
+ .heaPumIsOn);
+ connect(heaPumSigBusPasThr.booleanPassThrough.u, heaPumSigBusPasThr.vapComBus
+ .onOffMea);
+ connect(heaPumSigBusPasThr.realPassThrough[1].y, heaPumSigBusPasThr.sigBusGen
+ .THeaPumIn);
+ connect(heaPumSigBusPasThr.realPassThrough[1].u, heaPumSigBusPasThr.vapComBus
+ .TConInMea);
+ connect(heaPumSigBusPasThr.realPassThrough[2].y, heaPumSigBusPasThr.sigBusGen
+ .THeaPumOut);
+ connect(heaPumSigBusPasThr.realPassThrough[2].u, heaPumSigBusPasThr.vapComBus
+ .TConOutMea);
+ connect(heaPumSigBusPasThr.realPassThrough[3].y, heaPumSigBusPasThr.sigBusGen
+ .THeaPumEvaIn);
+ connect(heaPumSigBusPasThr.realPassThrough[3].u, heaPumSigBusPasThr.vapComBus
+ .TEvaInMea);
+
+ // Component reaPasThrRelHum
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ reaPasThrRelHum.y = reaPasThrRelHum.u;
+
+ // Component eleHea.vol.preTem
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedTemperature
+ equation
+ eleHea.vol.preTem.port.T = eleHea.vol.preTem.T;
+
+ // Component eleHea.vol.heaFloSen
+ // class Modelica.Thermal.HeatTransfer.Sensors.HeatFlowSensor
+ equation
+ eleHea.vol.heaFloSen.port_a.T = eleHea.vol.heaFloSen.port_b.T;
+ eleHea.vol.heaFloSen.port_a.Q_flow+eleHea.vol.heaFloSen.port_b.Q_flow = 0;
+ eleHea.vol.heaFloSen.Q_flow = eleHea.vol.heaFloSen.port_a.Q_flow;
+
+ // Component eleHea.vol.dynBal.medium
+ // class Modelica.Media.Interfaces.PartialMedium.BaseProperties
+ equation
+ if (eleHea.vol.dynBal.medium.standardOrderComponents) then
+ eleHea.vol.dynBal.medium.Xi = eleHea.vol.dynBal.medium.X[1:0];
+ eleHea.vol.dynBal.medium.X[1] = 1-sum(eleHea.vol.dynBal.medium.Xi);
+ for i in (1:1) loop
+ assert(eleHea.vol.dynBal.medium.X[i] >= -1E-05 and eleHea.vol.dynBal.medium.X
+ [i] <= 1.00001, "Mass fraction X["+String(i)+"] = "+String(
+ eleHea.vol.dynBal.medium.X[i])+"of substance "+({"unusablePartialMedium"})
+ [i]+"\nof medium "+"unusablePartialMedium"+" is not in the range 0..1");
+ end for;
+ end if;
+ assert(eleHea.vol.dynBal.medium.p >= 0.0, "Pressure (= "+String(
+ eleHea.vol.dynBal.medium.p)+" Pa) of medium \""+"unusablePartialMedium"+
+ "\" is negative\n(Temperature = "+String(eleHea.vol.dynBal.medium.T)+" K)");
+
+ // Component eleHea.vol.dynBal
+ // class AixLib.Fluid.Interfaces.ConservationEquation
+ equation
+ connect(eleHea.vol.dynBal.mWat_flow, eleHea.vol.dynBal.mWat_flow_internal);
+ if ( not eleHea.vol.dynBal.use_mWat_flow) then
+ eleHea.vol.dynBal.mWat_flow_internal = 0;
+ end if;
+ connect(eleHea.vol.dynBal.C_flow, eleHea.vol.dynBal.C_flow_internal);
+ if ( not eleHea.vol.dynBal.use_C_flow) then
+ eleHea.vol.dynBal.C_flow_internal = zeros(0);
+ end if;
+ if (eleHea.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ eleHea.vol.dynBal.m = eleHea.vol.dynBal.fluidVolume*eleHea.vol.dynBal.rho_start;
+ else
+ if (eleHea.vol.dynBal._simplify_mWat_flow) then
+ eleHea.vol.dynBal.m = eleHea.vol.dynBal.fluidVolume*density_Unique1(
+ setState_phX_Unique8(eleHea.vol.dynBal.medium.p, eleHea.vol.dynBal.hOut,
+ {1.0}));
+ else
+ eleHea.vol.dynBal.m = eleHea.vol.dynBal.fluidVolume*eleHea.vol.dynBal.medium.d;
+ end if;
+ end if;
+ eleHea.vol.dynBal.mXi = eleHea.vol.dynBal.m*eleHea.vol.dynBal.medium.Xi;
+ if (eleHea.vol.dynBal.computeCSen) then
+ eleHea.vol.dynBal.U = eleHea.vol.dynBal.m*eleHea.vol.dynBal.medium.u+
+ eleHea.vol.dynBal.CSen*(eleHea.vol.dynBal.medium.T-298.15);
+ else
+ eleHea.vol.dynBal.U = eleHea.vol.dynBal.m*eleHea.vol.dynBal.medium.u;
+ end if;
+ eleHea.vol.dynBal.mC = eleHea.vol.dynBal.m*eleHea.vol.dynBal.C;
+ eleHea.vol.dynBal.hOut = eleHea.vol.dynBal.medium.h;
+ eleHea.vol.dynBal.XiOut = eleHea.vol.dynBal.medium.Xi;
+ eleHea.vol.dynBal.COut = eleHea.vol.dynBal.C;
+ for i in (1:eleHea.vol.dynBal.nPorts) loop
+ eleHea.vol.dynBal.ports_H_flow[i] = semiLinear(eleHea.vol.dynBal.ports[i].
+ m_flow, inStream(eleHea.vol.dynBal.ports[i].h_outflow), eleHea.vol.dynBal.ports
+ [i].h_outflow);
+ for j in (1:0) loop
+ eleHea.vol.dynBal.ports_mXi_flow[i, j] = semiLinear(eleHea.vol.dynBal.ports
+ [i].m_flow, inStream(eleHea.vol.dynBal.ports[i].Xi_outflow[j]),
+ eleHea.vol.dynBal.ports[i].Xi_outflow[j]);
+ end for;
+ for j in (1:0) loop
+ eleHea.vol.dynBal.ports_mC_flow[i, j] = semiLinear(eleHea.vol.dynBal.ports
+ [i].m_flow, inStream(eleHea.vol.dynBal.ports[i].C_outflow[j]),
+ eleHea.vol.dynBal.ports[i].C_outflow[j]);
+ end for;
+ end for;
+ for i in (1:0) loop
+ eleHea.vol.dynBal.mbXi_flow[i] = sum(eleHea.vol.dynBal.ports_mXi_flow[:, i]);
+ end for;
+ for i in (1:0) loop
+ eleHea.vol.dynBal.mbC_flow[i] = sum(eleHea.vol.dynBal.ports_mC_flow[:, i]);
+ end for;
+ eleHea.vol.dynBal.mb_flow = sum(eleHea.vol.dynBal.ports.m_flow);
+ eleHea.vol.dynBal.Hb_flow = sum(eleHea.vol.dynBal.ports_H_flow);
+ if (eleHea.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = eleHea.vol.dynBal.Hb_flow+eleHea.vol.dynBal.Q_flow;
+ else
+ der(eleHea.vol.dynBal.U) = eleHea.vol.dynBal.Hb_flow+eleHea.vol.dynBal.Q_flow;
+ end if;
+ if (eleHea.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ 0 = eleHea.vol.dynBal.mb_flow+(if eleHea.vol.dynBal.simplify_mWat_flow
+ then 0 else eleHea.vol.dynBal.mWat_flow_internal);
+ else
+ der(eleHea.vol.dynBal.m) = eleHea.vol.dynBal.mb_flow+(if eleHea.vol.dynBal.simplify_mWat_flow
+ then 0 else eleHea.vol.dynBal.mWat_flow_internal);
+ end if;
+ if (eleHea.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = eleHea.vol.dynBal.mbXi_flow+eleHea.vol.dynBal.mWat_flow_internal
+ *eleHea.vol.dynBal.s;
+ else
+ der(eleHea.vol.dynBal.medium.Xi) = (eleHea.vol.dynBal.mbXi_flow+
+ eleHea.vol.dynBal.mWat_flow_internal*eleHea.vol.dynBal.s)/
+ eleHea.vol.dynBal.m;
+ end if;
+ if (eleHea.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ zeros(0) = eleHea.vol.dynBal.mbC_flow+eleHea.vol.dynBal.C_flow_internal;
+ else
+ der(eleHea.vol.dynBal.mC) = eleHea.vol.dynBal.mbC_flow+eleHea.vol.dynBal.C_flow_internal;
+ end if;
+ for i in (1:eleHea.vol.dynBal.nPorts) loop
+ eleHea.vol.dynBal.ports[i].p = eleHea.vol.dynBal.medium.p;
+ eleHea.vol.dynBal.ports[i].h_outflow = eleHea.vol.dynBal.medium.h;
+ eleHea.vol.dynBal.ports[i].Xi_outflow = eleHea.vol.dynBal.medium.Xi;
+ eleHea.vol.dynBal.ports[i].C_outflow = eleHea.vol.dynBal.C;
+ end for;
+ eleHea.vol.dynBal.UOut = eleHea.vol.dynBal.U;
+ eleHea.vol.dynBal.mXiOut = eleHea.vol.dynBal.mXi;
+ eleHea.vol.dynBal.mOut = eleHea.vol.dynBal.m;
+ eleHea.vol.dynBal.mCOut = eleHea.vol.dynBal.mC;
+
+ // Component eleHea.vol
+ // class AixLib.Fluid.MixingVolumes.MixingVolume
+ // extends AixLib.Fluid.MixingVolumes.BaseClasses.PartialMixingVolume
+ equation
+ if ( not eleHea.vol.allowFlowReversal) then
+ assert(eleHea.vol.ports[1].m_flow > -eleHea.vol.m_flow_small,
+ "In HeatPumpAndElectricHeater.eleHea.vol: Model has flow reversal,
+ but the parameter allowFlowReversal is set to false.
+ m_flow_small = "
+ +String(eleHea.vol.m_flow_small)+"
+ ports[1].m_flow = "+String(
+ eleHea.vol.ports[1].m_flow)+"
+");
+ end if;
+ if (eleHea.vol.useSteadyStateTwoPort) then
+ connect(eleHea.vol.steBal.port_a, eleHea.vol.ports[1]);
+ connect(eleHea.vol.steBal.port_b, eleHea.vol.ports[2]);
+ eleHea.vol.U = 0;
+ eleHea.vol.mXi = zeros(0);
+ eleHea.vol.m = 0;
+ eleHea.vol.mC = zeros(0);
+ connect(eleHea.vol.hOut_internal, eleHea.vol.steBal.hOut);
+ connect(eleHea.vol.XiOut_internal, eleHea.vol.steBal.XiOut);
+ connect(eleHea.vol.COut_internal, eleHea.vol.steBal.COut);
+ else
+ connect(eleHea.vol.dynBal.ports, eleHea.vol.ports);
+ connect(eleHea.vol.U, eleHea.vol.dynBal.UOut);
+ connect(eleHea.vol.mXi, eleHea.vol.dynBal.mXiOut);
+ connect(eleHea.vol.m, eleHea.vol.dynBal.mOut);
+ connect(eleHea.vol.mC, eleHea.vol.dynBal.mCOut);
+ connect(eleHea.vol.hOut_internal, eleHea.vol.dynBal.hOut);
+ connect(eleHea.vol.XiOut_internal, eleHea.vol.dynBal.XiOut);
+ connect(eleHea.vol.COut_internal, eleHea.vol.dynBal.COut);
+ end if;
+ connect(eleHea.vol.portT.y, eleHea.vol.preTem.T);
+ connect(eleHea.vol.heaFloSen.port_b, eleHea.vol.preTem.port);
+ connect(eleHea.vol.heaFloSen.Q_flow, eleHea.vol.steBal.Q_flow);
+ connect(eleHea.vol.heaFloSen.Q_flow, eleHea.vol.dynBal.Q_flow);
+ // end of extends
+ equation
+ connect(eleHea.vol.heaFloSen.port_a, eleHea.vol.heatPort);
+ connect(eleHea.vol.C_flow, eleHea.vol.steBal.C_flow);
+ connect(eleHea.vol.C_flow, eleHea.vol.dynBal.C_flow);
+
+ // Component eleHea.preDro
+ // class AixLib.Fluid.FixedResistances.PressureDrop
+ // extends AixLib.Fluid.BaseClasses.PartialResistance
+ equation
+ eleHea.preDro.port_a.h_outflow = (if eleHea.preDro.allowFlowReversal then
+ inStream(eleHea.preDro.port_b.h_outflow) else specificEnthalpy_pTX_Unique4
+ (101325, 293.15, {1.0}));
+ eleHea.preDro.port_b.h_outflow = inStream(eleHea.preDro.port_a.h_outflow);
+ eleHea.preDro.port_a.m_flow+eleHea.preDro.port_b.m_flow = 0;
+ eleHea.preDro.port_a.Xi_outflow = (if eleHea.preDro.allowFlowReversal
+ then inStream(eleHea.preDro.port_b.Xi_outflow) else {});
+ eleHea.preDro.port_b.Xi_outflow = inStream(eleHea.preDro.port_a.Xi_outflow);
+ eleHea.preDro.port_a.C_outflow = (if eleHea.preDro.allowFlowReversal then
+ inStream(eleHea.preDro.port_b.C_outflow) else zeros(0));
+ eleHea.preDro.port_b.C_outflow = inStream(eleHea.preDro.port_a.C_outflow);
+ // end of extends
+ equation
+ if (eleHea.preDro.computeFlowResistance) then
+ if (eleHea.preDro.linearized) then
+ if (eleHea.preDro.from_dp) then
+ eleHea.preDro.m_flow = eleHea.preDro.dp*eleHea.preDro.coeff;
+ else
+ eleHea.preDro.dp = eleHea.preDro.m_flow*eleHea.preDro.coeff;
+ end if;
+ else
+ if (eleHea.preDro.homotopyInitialization) then
+ if (eleHea.preDro.from_dp) then
+ eleHea.preDro.m_flow = homotopy(AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp
+ (eleHea.preDro.dp, eleHea.preDro.k, eleHea.preDro.m_flow_turbulent),
+ eleHea.preDro.m_flow_nominal_pos*eleHea.preDro.dp/
+ eleHea.preDro.dp_nominal_pos);
+ else
+ eleHea.preDro.dp = homotopy(AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow
+ (eleHea.preDro.m_flow, eleHea.preDro.k, eleHea.preDro.m_flow_turbulent),
+ eleHea.preDro.dp_nominal_pos*eleHea.preDro.m_flow/
+ eleHea.preDro.m_flow_nominal_pos);
+ end if;
+ else
+ if (eleHea.preDro.from_dp) then
+ eleHea.preDro.m_flow = AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp
+ (eleHea.preDro.dp, eleHea.preDro.k, eleHea.preDro.m_flow_turbulent);
+ else
+ eleHea.preDro.dp = AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow
+ (eleHea.preDro.m_flow, eleHea.preDro.k, eleHea.preDro.m_flow_turbulent);
+ end if;
+ end if;
+ end if;
+ else
+ eleHea.preDro.dp = 0;
+ end if;
+
+ // Component eleHea.gai_eta
+ // class Modelica.Blocks.Math.Gain
+ equation
+ eleHea.gai_eta.y = eleHea.gai_eta.k*eleHea.gai_eta.u;
+
+ // Component eleHea.preHea
+ // class Modelica.Thermal.HeatTransfer.Sources.PrescribedHeatFlow
+ equation
+ eleHea.preHea.port.Q_flow = -eleHea.preHea.Q_flow*(1+eleHea.preHea.alpha*(
+ eleHea.preHea.port.T-eleHea.preHea.T_ref));
+
+ // Component eleHea.gai
+ // class Modelica.Blocks.Math.Gain
+ equation
+ eleHea.gai.y = eleHea.gai.k*eleHea.gai.u;
+
+ // Component eleHea
+ // class AixLib.Fluid.HeatExchangers.HeatingRod
+ // extends AixLib.Fluid.Interfaces.TwoPortHeatMassExchanger
+ equation
+ connect(eleHea.vol.ports[2], eleHea.port_b);
+ connect(eleHea.port_a, eleHea.preDro.port_a);
+ connect(eleHea.preDro.port_b, eleHea.vol.ports[1]);
+ // end of extends
+ equation
+ connect(eleHea.u, eleHea.gai.u);
+ connect(eleHea.gai.y, eleHea.preHea.Q_flow);
+ connect(eleHea.preHea.port, eleHea.vol.heatPort);
+ connect(eleHea.gai.y, eleHea.gai_eta.u);
+ connect(eleHea.gai_eta.y, eleHea.Pel);
+ connect(eleHea.triggeredAdd.y, eleHea.numSwi);
+ connect(eleHea.integerConstant.y, eleHea.triggeredAdd.u);
+ connect(eleHea.greaterThreshold.y, eleHea.triggeredAdd.trigger);
+ connect(eleHea.u, eleHea.greaterThreshold.u);
+
+ // Component KPIEleHea.isOn
+ // class Modelica.Blocks.Logical.Hysteresis
+ equation
+ assert(KPIEleHea.isOn.uHigh > KPIEleHea.isOn.uLow, "Hysteresis limits wrong (uHigh <= uLow)");
+ KPIEleHea.isOn.y = not pre(KPIEleHea.isOn.y) and KPIEleHea.isOn.u >
+ KPIEleHea.isOn.uHigh or pre(KPIEleHea.isOn.y) and KPIEleHea.isOn.u >=
+ KPIEleHea.isOn.uLow;
+
+ // Component KPIEleHea.switch1
+ // class Modelica.Blocks.Logical.Switch
+ equation
+ KPIEleHea.switch1.y = (if KPIEleHea.switch1.u2 then KPIEleHea.switch1.u1
+ else KPIEleHea.switch1.u3);
+
+ // Component KPIEleHea.const
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ KPIEleHea.const.y = KPIEleHea.const.k;
+
+ // Component KPIEleHea.const1
+ // class Modelica.Blocks.Sources.Constant
+ equation
+ KPIEleHea.const1.y = KPIEleHea.const1.k;
+
+ // Component KPIEleHea.integrator3
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIEleHea.integrator3.use_reset) then
+ connect(KPIEleHea.integrator3.reset, KPIEleHea.integrator3.local_reset);
+ if (KPIEleHea.integrator3.use_set) then
+ connect(KPIEleHea.integrator3.set, KPIEleHea.integrator3.local_set);
+ else
+ KPIEleHea.integrator3.local_set = KPIEleHea.integrator3.y_start;
+ end if;
+ when KPIEleHea.integrator3.local_reset then
+ reinit(KPIEleHea.integrator3.y, KPIEleHea.integrator3.local_set);
+ end when;
+ else
+ KPIEleHea.integrator3.local_reset = false;
+ KPIEleHea.integrator3.local_set = 0;
+ end if;
+ der(KPIEleHea.integrator3.y) = KPIEleHea.integrator3.k*KPIEleHea.integrator3.u;
+
+ // Component KPIEleHea.not1
+ // class Modelica.Blocks.Logical.Not
+ equation
+ KPIEleHea.not1.y = not KPIEleHea.not1.u;
+
+ // Component KPIEleHea.integerConstant
+ // class Modelica.Blocks.Sources.IntegerConstant
+ equation
+ KPIEleHea.integerConstant.y = KPIEleHea.integerConstant.k;
+
+ // Component KPIEleHea.triggeredAdd
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ equation
+ if (KPIEleHea.triggeredAdd.use_reset) then
+ connect(KPIEleHea.triggeredAdd.reset, KPIEleHea.triggeredAdd.local_reset);
+ if (KPIEleHea.triggeredAdd.use_set) then
+ connect(KPIEleHea.triggeredAdd.set, KPIEleHea.triggeredAdd.local_set);
+ else
+ KPIEleHea.triggeredAdd.local_set = KPIEleHea.triggeredAdd.y_start;
+ end if;
+ else
+ KPIEleHea.triggeredAdd.local_reset = false;
+ KPIEleHea.triggeredAdd.local_set = 0;
+ end if;
+ when {KPIEleHea.triggeredAdd.trigger, KPIEleHea.triggeredAdd.local_reset}
+ then
+ KPIEleHea.triggeredAdd.y = (if KPIEleHea.triggeredAdd.local_reset then
+ KPIEleHea.triggeredAdd.local_set else pre(KPIEleHea.triggeredAdd.y)+
+ KPIEleHea.triggeredAdd.u);
+ end when;
+
+ // Component KPIEleHea.integrator1
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIEleHea.integrator1.use_reset) then
+ connect(KPIEleHea.integrator1.reset, KPIEleHea.integrator1.local_reset);
+ if (KPIEleHea.integrator1.use_set) then
+ connect(KPIEleHea.integrator1.set, KPIEleHea.integrator1.local_set);
+ else
+ KPIEleHea.integrator1.local_set = KPIEleHea.integrator1.y_start;
+ end if;
+ when KPIEleHea.integrator1.local_reset then
+ reinit(KPIEleHea.integrator1.y, KPIEleHea.integrator1.local_set);
+ end when;
+ else
+ KPIEleHea.integrator1.local_reset = false;
+ KPIEleHea.integrator1.local_set = 0;
+ end if;
+ der(KPIEleHea.integrator1.y) = KPIEleHea.integrator1.k*KPIEleHea.integrator1.u;
+
+ // Component KPIEleHea
+ // class BESMod.Utilities.KPIs.DeviceKPICalculator
+ equation
+ connect(KPIEleHea.switch1.u1, KPIEleHea.const.y);
+ connect(KPIEleHea.const1.y, KPIEleHea.switch1.u3);
+ connect(KPIEleHea.switch1.y, KPIEleHea.integrator3.u);
+ connect(KPIEleHea.not1.y, KPIEleHea.integrator3.reset);
+ connect(KPIEleHea.integerConstant.y, KPIEleHea.triggeredAdd.u);
+ connect(KPIEleHea.triggeredAdd.y, KPIEleHea.KPI.numSwi);
+ connect(KPIEleHea.integrator1.y, KPIEleHea.KPI.totOnTim);
+ connect(KPIEleHea.integrator3.y, KPIEleHea.KPI.sinOnTim);
+ connect(KPIEleHea.switch1.y, KPIEleHea.integrator1.u);
+ connect(KPIEleHea.not1.u, KPIEleHea.u);
+ connect(KPIEleHea.u, KPIEleHea.switch1.u2);
+ connect(KPIEleHea.triggeredAdd.trigger, KPIEleHea.u);
+ connect(KPIEleHea.isOn.y, KPIEleHea.switch1.u2);
+ connect(KPIEleHea.isOn.y, KPIEleHea.not1.u);
+ connect(KPIEleHea.isOn.y, KPIEleHea.triggeredAdd.trigger);
+ connect(KPIEleHea.uRea, KPIEleHea.isOn.u);
+
+ // Component KPIQEleHea_flow.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIQEleHea_flow.integrator2.use_reset) then
+ connect(KPIQEleHea_flow.integrator2.reset, KPIQEleHea_flow.integrator2.local_reset);
+ if (KPIQEleHea_flow.integrator2.use_set) then
+ connect(KPIQEleHea_flow.integrator2.set, KPIQEleHea_flow.integrator2.local_set);
+ else
+ KPIQEleHea_flow.integrator2.local_set = KPIQEleHea_flow.integrator2.y_start;
+ end if;
+ when KPIQEleHea_flow.integrator2.local_reset then
+ reinit(KPIQEleHea_flow.integrator2.y, KPIQEleHea_flow.integrator2.local_set);
+ end when;
+ else
+ KPIQEleHea_flow.integrator2.local_reset = false;
+ KPIQEleHea_flow.integrator2.local_set = 0;
+ end if;
+ der(KPIQEleHea_flow.integrator2.y) = KPIQEleHea_flow.integrator2.k*
+ KPIQEleHea_flow.integrator2.u;
+
+ // Component KPIQEleHea_flow.internalU
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ KPIQEleHea_flow.internalU.y = KPIQEleHea_flow.internalU.u;
+
+ // Component KPIQEleHea_flow
+ // class BESMod.Utilities.KPIs.EnergyKPICalculator
+ equation
+ connect(KPIQEleHea_flow.internalU.y, KPIQEleHea_flow.KPI.value);
+ connect(KPIQEleHea_flow.integrator2.u, KPIQEleHea_flow.internalU.y);
+ connect(KPIQEleHea_flow.integrator2.y, KPIQEleHea_flow.KPI.integral);
+ connect(KPIQEleHea_flow.internalU.u, KPIQEleHea_flow.u);
+ connect(KPIQEleHea_flow.internalU.u, KPIQEleHea_flow.y);
+
+ // Component KPIPEleEleHea.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ equation
+ if (KPIPEleEleHea.integrator2.use_reset) then
+ connect(KPIPEleEleHea.integrator2.reset, KPIPEleEleHea.integrator2.local_reset);
+ if (KPIPEleEleHea.integrator2.use_set) then
+ connect(KPIPEleEleHea.integrator2.set, KPIPEleEleHea.integrator2.local_set);
+ else
+ KPIPEleEleHea.integrator2.local_set = KPIPEleEleHea.integrator2.y_start;
+ end if;
+ when KPIPEleEleHea.integrator2.local_reset then
+ reinit(KPIPEleEleHea.integrator2.y, KPIPEleEleHea.integrator2.local_set);
+ end when;
+ else
+ KPIPEleEleHea.integrator2.local_reset = false;
+ KPIPEleEleHea.integrator2.local_set = 0;
+ end if;
+ der(KPIPEleEleHea.integrator2.y) = KPIPEleEleHea.integrator2.k*
+ KPIPEleEleHea.integrator2.u;
+
+ // Component KPIPEleEleHea.internalU
+ // class Modelica.Blocks.Routing.RealPassThrough
+ equation
+ KPIPEleEleHea.internalU.y = KPIPEleEleHea.internalU.u;
+
+ // Component KPIPEleEleHea
+ // class BESMod.Utilities.KPIs.EnergyKPICalculator
+ equation
+ connect(KPIPEleEleHea.internalU.y, KPIPEleEleHea.KPI.value);
+ connect(KPIPEleEleHea.integrator2.u, KPIPEleEleHea.internalU.y);
+ connect(KPIPEleEleHea.integrator2.y, KPIPEleEleHea.KPI.integral);
+ connect(KPIPEleEleHea.internalU.u, KPIPEleEleHea.u);
+ connect(KPIPEleEleHea.internalU.u, KPIPEleEleHea.y);
+
+ // This model
+ // class RollOut.Systems.Hydraulical.Generation.HeatPumpAndElectricHeater
+ // extends RollOut.Systems.Hydraulical.Generation.BaseClasses.PartialHeatPump
+ equation
+ connect(bouEva.ports[1], heatPump.port_a2);
+ connect(heatPump.port_b2, bou_sinkAir.ports[1]);
+ connect(bouEva.T_in, switch.y);
+ connect(switch.u2, AirOrSoil.y);
+ connect(pump.port_a, portGen_in[1]);
+ connect(TSoil.y, switch.u3);
+ connect(bouPum.ports[1], pump.port_a);
+ connect(senTGenOut.port_b, portGen_out[1]);
+ connect(realToElecCon.internalElectricalPin, internalElectricalPin);
+ connect(multiSum.y, realToElecCon.PEleLoa);
+ connect(switch.u1, weaBus.TDryBul);
+ connect(pump.y, sigBusGen.uPump);
+ connect(heatPump.ySet, sigBusGen.yHeaPumSet);
+ connect(senTGenOut.T, sigBusGen.TGenOutMea);
+ connect(KPIQHP.KPI, outBusGen.QHeaPum_flow);
+ connect(KPIWel.KPI, outBusGen.PEleHeaPum);
+ connect(KPIHeaPum.KPI, outBusGen.heaPum);
+ connect(pump.P, multiSum.u[1]);
+ connect(heatPump.P, multiSum.u[2]);
+ connect(KPIWel.u, heatPump.P);
+ connect(KPIQHP.u, heatPump.QCon_flow);
+ connect(heaPumSigBusPasThr.sigBusGen, sigBusGen);
+ connect(KPIHeaPum.u, sigBusGen.heaPumIsOn);
+ if (parHeaPum.use_conCap) then
+ if (use_airSource) then
+ connect(heatPump.TConAmb, weaBus.TDryBul);
+ else
+ connect(constTAmb.y, heatPump.TConAmb);
+ end if;
+ end if;
+ if (parHeaPum.use_evaCap) then
+ if (use_airSource) then
+ connect(heatPump.TEvaAmb, weaBus.TDryBul);
+ else
+ connect(constTAmb.y, heatPump.TEvaAmb);
+ end if;
+ end if;
+ connect(defCtrl.hea, heatPump.hea);
+ connect(sigBus, heatPump.sigBus);
+ connect(heaPumSigBusPasThr.vapComBus, sigBus);
+ connect(defCtrl.sigBus, sigBus);
+ connect(reaPasThrRelHum.y, sigBus.relHum);
+ connect(reaPasThrRelHum.u, weaBus.relHum);
+ connect(heatPump.QEva_flow, sigBus.QEva_flow);
+ // end of extends
+ equation
+ connect(heatPump.port_a1, pump.port_b);
+ connect(pasThrMedEleHea.port_b, senTGenOut.port_a);
+ connect(eleHea.port_b, senTGenOut.port_a);
+ connect(pasThrMedEleHea.port_a, heatPump.port_b1);
+ connect(heatPump.port_b1, eleHea.port_a);
+ connect(eleHea.u, sigBusGen.uEleHea);
+ connect(multiSum.u[3], eleHea.Pel);
+ connect(KPIQEleHea_flow.KPI, outBusGen.QEleHea_flow);
+ connect(eleHea.Pel, KPIEleHea.uRea);
+ connect(KPIPEleEleHea.KPI, outBusGen.PEleEleHea);
+ connect(KPIEleHea.KPI, outBusGen.eleHea);
+
+// Initial equations and algorithms
+
+ // Component heatPump.refCyc
+ // class RollOut.Systems.Hydraulical.Generation.HeatPump.RefrigerantCycle
+ initial algorithm
+ if ( not heatPump.refCyc.allowDifferentDeviceIdentifiers) then
+ assert(heatPump.refCyc.devIde == heatPump.refCyc.refCycHeaPumHea.devIde,
+ "In HeatPumpAndElectricHeater.heatPump.refCyc: Device identifiers devIde for reversible operation are not equal.
+ Heating device identifier is '"
+ +heatPump.refCyc.refCycHeaPumHea.devIde+"' but cooling is '"+
+ heatPump.refCyc.devIde+"'. To allow this, set 'allowDifferentDeviceIdentifiers=true'.");
+ end if;
+
+ // Component heatPump.con.vol.dynBal
+ // class AixLib.Fluid.Interfaces.ConservationEquation
+ // extends AixLib.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (heatPump.con.vol.dynBal.wrongEnergyMassBalanceConfiguration) then
+ assert( not heatPump.con.vol.dynBal.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.heatPump.con.vol.dynBal: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+ initial equation
+ if (heatPump.con.vol.dynBal.use_mWat_flow) then
+ assert(true or abs(sum(heatPump.con.vol.dynBal.s)-1) < 1E-05,
+ "In HeatPumpAndElectricHeater.heatPump.con.vol.dynBal:
+ If Medium.nXi > 1, then substance 'water' must be present for one component of 'unusablePartialMedium'.
+ Check medium model.");
+ end if;
+ if (heatPump.con.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ assert(heatPump.con.vol.dynBal.massDynamics == heatPump.con.vol.dynBal.energyDynamics,
+ "In HeatPumpAndElectricHeater.heatPump.con.vol.dynBal:
+ If 'massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState', then it is
+ required that 'energyDynamics==Modelica.Fluid.Types.Dynamics.SteadyState'.
+ Otherwise, the system of equations may not be consistent.
+ You need to select other parameter values.");
+ end if;
+ if (heatPump.con.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ heatPump.con.vol.dynBal.medium.T = heatPump.con.vol.dynBal.T_start;
+ else
+ if (heatPump.con.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(heatPump.con.vol.dynBal.medium.T) = 0;
+ end if;
+ end if;
+ if (heatPump.con.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ if (heatPump.con.vol.dynBal.initialize_p) then
+ heatPump.con.vol.dynBal.medium.p = heatPump.con.vol.dynBal.p_start;
+ end if;
+ else
+ if (heatPump.con.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ if (heatPump.con.vol.dynBal.initialize_p) then
+ der(heatPump.con.vol.dynBal.medium.p) = 0;
+ end if;
+ end if;
+ end if;
+ if (heatPump.con.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ heatPump.con.vol.dynBal.medium.Xi = heatPump.con.vol.dynBal.X_start[1:0];
+ else
+ if (heatPump.con.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(heatPump.con.vol.dynBal.medium.Xi) = zeros(0);
+ end if;
+ end if;
+ if (heatPump.con.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ heatPump.con.vol.dynBal.C = heatPump.con.vol.dynBal.C_start[1:0];
+ else
+ if (heatPump.con.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(heatPump.con.vol.dynBal.C) = zeros(0);
+ end if;
+ end if;
+
+ // Component heatPump.con.vol
+ // class AixLib.Fluid.MixingVolumes.MixingVolume
+ // extends AixLib.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (heatPump.con.vol.wrongEnergyMassBalanceConfiguration) then
+ assert( not heatPump.con.vol.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.heatPump.con.vol: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+
+ // Component heatPump.con.preDro
+ // class AixLib.Fluid.FixedResistances.PressureDrop
+ // extends AixLib.Fluid.BaseClasses.PartialResistance
+ initial equation
+ assert(heatPump.con.preDro.homotopyInitialization, "In HeatPumpAndElectricHeater.heatPump.con.preDro: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+ // end of extends
+ initial equation
+ if (heatPump.con.preDro.computeFlowResistance) then
+ assert(heatPump.con.preDro.m_flow_turbulent > 0, "m_flow_turbulent must be bigger than zero.");
+ end if;
+ assert(heatPump.con.preDro.m_flow_nominal_pos > 0, "m_flow_nominal_pos must be non-zero. Check parameters.");
+
+ // Component heatPump.con
+ // class AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.EvaporatorCondenserWithCapacity
+ // extends AixLib.Fluid.Interfaces.TwoPortHeatMassExchanger
+ initial algorithm
+ assert(heatPump.con.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState or heatPump.con.tau > 1E-15, "The parameter tau, or the volume of the model from which tau may be derived, is unreasonably small.
+ You need to set energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState to model steady-state.
+ Received tau = "
+ +String(heatPump.con.tau)+"\n");
+ assert(heatPump.con.homotopyInitialization, "In HeatPumpAndElectricHeater.heatPump.con: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+ // end of extends
+
+ // Component heatPump.eva.vol.dynBal
+ // class AixLib.Fluid.Interfaces.ConservationEquation
+ // extends AixLib.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (heatPump.eva.vol.dynBal.wrongEnergyMassBalanceConfiguration) then
+ assert( not heatPump.eva.vol.dynBal.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.heatPump.eva.vol.dynBal: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+ initial equation
+ if (heatPump.eva.vol.dynBal.use_mWat_flow) then
+ assert(false or abs(sum(heatPump.eva.vol.dynBal.s)-1) < 1E-05,
+ "In HeatPumpAndElectricHeater.heatPump.eva.vol.dynBal:
+ If Medium.nXi > 1, then substance 'water' must be present for one component of 'Air'.
+ Check medium model.");
+ end if;
+ if (heatPump.eva.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ assert(heatPump.eva.vol.dynBal.massDynamics == heatPump.eva.vol.dynBal.energyDynamics,
+ "In HeatPumpAndElectricHeater.heatPump.eva.vol.dynBal:
+ If 'massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState', then it is
+ required that 'energyDynamics==Modelica.Fluid.Types.Dynamics.SteadyState'.
+ Otherwise, the system of equations may not be consistent.
+ You need to select other parameter values.");
+ end if;
+ if (heatPump.eva.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ heatPump.eva.vol.dynBal.medium.T = heatPump.eva.vol.dynBal.T_start;
+ else
+ if (heatPump.eva.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(heatPump.eva.vol.dynBal.medium.T) = 0;
+ end if;
+ end if;
+ if (heatPump.eva.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ if (heatPump.eva.vol.dynBal.initialize_p) then
+ heatPump.eva.vol.dynBal.medium.p = heatPump.eva.vol.dynBal.p_start;
+ end if;
+ else
+ if (heatPump.eva.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ if (heatPump.eva.vol.dynBal.initialize_p) then
+ der(heatPump.eva.vol.dynBal.medium.p) = 0;
+ end if;
+ end if;
+ end if;
+ if (heatPump.eva.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ heatPump.eva.vol.dynBal.medium.Xi = heatPump.eva.vol.dynBal.X_start[1:1];
+ else
+ if (heatPump.eva.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(heatPump.eva.vol.dynBal.medium.Xi) = zeros(1);
+ end if;
+ end if;
+ if (heatPump.eva.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ heatPump.eva.vol.dynBal.C = heatPump.eva.vol.dynBal.C_start[1:0];
+ else
+ if (heatPump.eva.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(heatPump.eva.vol.dynBal.C) = zeros(0);
+ end if;
+ end if;
+
+ // Component heatPump.eva.vol
+ // class AixLib.Fluid.MixingVolumes.MixingVolume
+ // extends AixLib.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (heatPump.eva.vol.wrongEnergyMassBalanceConfiguration) then
+ assert( not heatPump.eva.vol.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.heatPump.eva.vol: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+
+ // Component heatPump.eva.preDro
+ // class AixLib.Fluid.FixedResistances.PressureDrop
+ // extends AixLib.Fluid.BaseClasses.PartialResistance
+ initial equation
+ assert(heatPump.eva.preDro.homotopyInitialization, "In HeatPumpAndElectricHeater.heatPump.eva.preDro: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+ // end of extends
+ initial equation
+ if (heatPump.eva.preDro.computeFlowResistance) then
+ assert(heatPump.eva.preDro.m_flow_turbulent > 0, "m_flow_turbulent must be bigger than zero.");
+ end if;
+ assert(heatPump.eva.preDro.m_flow_nominal_pos > 0, "m_flow_nominal_pos must be non-zero. Check parameters.");
+
+ // Component heatPump.eva
+ // class AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.EvaporatorCondenserWithCapacity
+ // extends AixLib.Fluid.Interfaces.TwoPortHeatMassExchanger
+ initial algorithm
+ assert(heatPump.eva.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState or heatPump.eva.tau > 1E-15, "The parameter tau, or the volume of the model from which tau may be derived, is unreasonably small.
+ You need to set energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState to model steady-state.
+ Received tau = "
+ +String(heatPump.eva.tau)+"\n");
+ assert(heatPump.eva.homotopyInitialization, "In HeatPumpAndElectricHeater.heatPump.eva: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+ // end of extends
+
+ // Component heatPump.safCtr.opeEnv.disErr
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ initial equation
+ pre(heatPump.safCtr.opeEnv.disErr.y) = heatPump.safCtr.opeEnv.disErr.y_start;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.hysLef
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.opeEnv.bouMapHea.hysLef.y) = heatPump.safCtr.opeEnv.bouMapHea.hysLef.pre_y_start;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.hysRig
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.opeEnv.bouMapHea.hysRig.y) = heatPump.safCtr.opeEnv.bouMapHea.hysRig.pre_y_start;
+
+ // Component heatPump.safCtr.opeEnv.bouMapHea.hysBou
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.opeEnv.bouMapHea.hysBou.y) = heatPump.safCtr.opeEnv.bouMapHea.hysBou.pre_y_start;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.hysLef
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y) = heatPump.safCtr.opeEnv.bouMapCoo.hysLef.pre_y_start;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.hysRig
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y) = heatPump.safCtr.opeEnv.bouMapCoo.hysRig.pre_y_start;
+
+ // Component heatPump.safCtr.opeEnv.bouMapCoo.hysBou
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y) = heatPump.safCtr.opeEnv.bouMapCoo.hysBou.pre_y_start;
+
+ // Component heatPump.safCtr.onOffCtr.ySetOn
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.onOffCtr.ySetOn.y) = heatPump.safCtr.onOffCtr.ySetOn.pre_y_start;
+
+ // Component heatPump.safCtr.onOffCtr.preOnOff
+ // class Modelica.Blocks.Logical.Pre
+ initial equation
+ pre(heatPump.safCtr.onOffCtr.preOnOff.u) = heatPump.safCtr.onOffCtr.preOnOff.pre_u_start;
+
+ // Component heatPump.safCtr.onOffCtr.cycRatBou.triAdd
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ initial equation
+ pre(heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y) = heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y_start;
+
+ // Component heatPump.safCtr.onOffCtr.locTimCtr.runTim
+ // class Modelica.Blocks.Logical.Timer
+ initial equation
+ pre(heatPump.safCtr.onOffCtr.locTimCtr.runTim.entryTime) = 0;
+
+ // Component heatPump.safCtr.onOffCtr.runTimCtr.runTim
+ // class Modelica.Blocks.Logical.Timer
+ initial equation
+ pre(heatPump.safCtr.onOffCtr.runTimCtr.runTim.entryTime) = 0;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.disErr
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ initial equation
+ pre(heatPump.safCtr.minVolFloRatSaf.disErr.y) = heatPump.safCtr.minVolFloRatSaf.disErr.y_start;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.hysCon
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.minVolFloRatSaf.hysCon.y) = heatPump.safCtr.minVolFloRatSaf.hysCon.pre_y_start;
+
+ // Component heatPump.safCtr.minVolFloRatSaf.hysEva
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.safCtr.minVolFloRatSaf.hysEva.y) = heatPump.safCtr.minVolFloRatSaf.hysEva.pre_y_start;
+
+ // Component heatPump.hys
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.hys.y) = heatPump.hys.pre_y_start;
+
+ // Component heatPump.eff.hys
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(heatPump.eff.hys.y) = heatPump.eff.hys.pre_y_start;
+
+ // Component heatPump.eff
+ // class AixLib.Fluid.HeatPumps.ModularReversible.BaseClasses.CalculateEfficiency
+ initial equation
+ assert(heatPump.eff.PEleMin > 0, "In HeatPumpAndElectricHeater.heatPump.eff: PEleMin must be greater than zero. Disable efficiency calculation using
+ calEff=false to debug why PEle_nominal is lower than zero.");
+
+ // Component bou_sinkAir
+ // class IBPSA.Fluid.Sources.Boundary_ph
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource
+ initial equation
+ for i in (1:bou_sinkAir.nPorts) loop
+ assert(cardinality(bou_sinkAir.ports[i]) <= 1, "
+Each ports[i] of boundary shall at most be connected to one component.
+If two or more connections are present, ideal mixing takes
+place in these connections, which is usually not the intention
+of the modeller. Increase nPorts to add an additional port.
+");
+ end for;
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource_Xi_C
+ initial equation
+ assert( not bou_sinkAir.use_X_in or not bou_sinkAir.use_Xi_in,
+ "Cannot use both X and Xi inputs, choose either use_X_in or use_Xi_in.");
+ if ( not bou_sinkAir.use_X_in and not bou_sinkAir.use_Xi_in) then
+ Modelica.Fluid.Utilities.checkBoundary("Air", {"water", "air"}, false,
+ true, bou_sinkAir.X_in_internal, "Boundary_pT");
+ end if;
+ // end of extends
+ initial equation
+ if ( not bou_sinkAir.use_p_in) then
+ if (bou_sinkAir.checkWaterPressure) then
+ assert(bou_sinkAir.p_in_internal > 10000.0, "In HeatPumpAndElectricHeater.bou_sinkAir: The parameter value p="
+ +String(bou_sinkAir.p_in_internal)+" is low for water. This is likely an error.");
+ end if;
+ if (bou_sinkAir.checkAirPressure) then
+ assert(bou_sinkAir.p_in_internal > 50000.0 and bou_sinkAir.p_in_internal
+ < 150000.0, "In HeatPumpAndElectricHeater.bou_sinkAir: The parameter value p="
+ +String(bou_sinkAir.p_in_internal)+" is not within a realistic range for air. This is likely an error.");
+ end if;
+ end if;
+
+ // Component bouEva
+ // class IBPSA.Fluid.Sources.MassFlowSource_T
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource
+ initial equation
+ for i in (1:bouEva.nPorts) loop
+ assert(cardinality(bouEva.ports[i]) <= 1, "
+Each ports[i] of boundary shall at most be connected to one component.
+If two or more connections are present, ideal mixing takes
+place in these connections, which is usually not the intention
+of the modeller. Increase nPorts to add an additional port.
+");
+ end for;
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource_Xi_C
+ initial equation
+ assert( not bouEva.use_X_in or not bouEva.use_Xi_in, "Cannot use both X and Xi inputs, choose either use_X_in or use_Xi_in.");
+ if ( not bouEva.use_X_in and not bouEva.use_Xi_in) then
+ Modelica.Fluid.Utilities.checkBoundary("Air", {"water", "air"}, false,
+ true, bouEva.X_in_internal, "Boundary_pT");
+ end if;
+ // end of extends
+
+ // Component KPIWel.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIWel.integrator2.initType == Modelica.Blocks.Types.Init.SteadyState)
+ then
+ der(KPIWel.integrator2.y) = 0;
+ elseif (KPIWel.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIWel.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIWel.integrator2.y = KPIWel.integrator2.y_start;
+ end if;
+
+ // Component pump.vol.dynBal
+ // class IBPSA.Fluid.Interfaces.ConservationEquation
+ // extends IBPSA.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (pump.vol.dynBal.wrongEnergyMassBalanceConfiguration) then
+ assert( not pump.vol.dynBal.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.pump.vol.dynBal: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+ initial equation
+ if (pump.vol.dynBal.use_mWat_flow) then
+ assert(true or abs(sum(pump.vol.dynBal.s)-1) < 1E-05, "In HeatPumpAndElectricHeater.pump.vol.dynBal:
+ If Medium.nXi > 1, then substance 'water' must be present for one component of 'unusablePartialMedium'.
+ Check medium model.");
+ end if;
+ if (pump.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ assert(pump.vol.dynBal.massDynamics == pump.vol.dynBal.energyDynamics,
+ "In HeatPumpAndElectricHeater.pump.vol.dynBal:
+ If 'massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState', then it is
+ required that 'energyDynamics==Modelica.Fluid.Types.Dynamics.SteadyState'.
+ Otherwise, the system of equations may not be consistent.
+ You need to select other parameter values.");
+ end if;
+ if (pump.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ pump.vol.dynBal.medium.T = pump.vol.dynBal.T_start;
+ else
+ if (pump.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(pump.vol.dynBal.medium.T) = 0;
+ end if;
+ end if;
+ if (pump.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ if (pump.vol.dynBal.initialize_p) then
+ pump.vol.dynBal.medium.p = pump.vol.dynBal.p_start;
+ end if;
+ else
+ if (pump.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ if (pump.vol.dynBal.initialize_p) then
+ der(pump.vol.dynBal.medium.p) = 0;
+ end if;
+ end if;
+ end if;
+ if (pump.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ pump.vol.dynBal.medium.Xi = pump.vol.dynBal.X_start[1:0];
+ else
+ if (pump.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(pump.vol.dynBal.medium.Xi) = zeros(0);
+ end if;
+ end if;
+ if (pump.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ pump.vol.dynBal.C = pump.vol.dynBal.C_start[1:0];
+ else
+ if (pump.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(pump.vol.dynBal.C) = zeros(0);
+ end if;
+ end if;
+
+ // Component pump.vol
+ // class IBPSA.Fluid.Delays.DelayFirstOrder
+ // extends IBPSA.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (pump.vol.wrongEnergyMassBalanceConfiguration) then
+ assert( not pump.vol.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.pump.vol: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+
+ // Component pump.eff
+ // class IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface
+ initial equation
+ assert(pump.eff.nOri > 1, "Must have at least two data points for pressure.V_flow.");
+ assert(IBPSA.Utilities.Math.Functions.isMonotonic(pump.eff.per.pressure.V_flow,
+ true) and pump.eff.per.pressure.V_flow[1] > -1E-15, "The fan pressure rise must be a strictly decreasing sequence with respect to the volume flow rate,
+ with the first element for the fan pressure raise being non-zero.
+The following performance data have been entered:
+"
+ +IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(
+ pump.eff.per.pressure.V_flow, "pressure.V_flow", 6, 6));
+ if ( not pump.eff.haveVMax) then
+ assert(pump.eff.nOri >= 2, "When the maximum flow is not specified,
+ at least two points are needed for the power curve.");
+ if (pump.eff.nOri >= 2) then
+ assert((pump.eff.per.pressure.V_flow[pump.eff.nOri]-pump.eff.per.pressure.V_flow
+ [pump.eff.nOri-1])/(pump.eff.per.pressure.dp[pump.eff.nOri]-
+ pump.eff.per.pressure.dp[pump.eff.nOri-1]) < 0, "The last two pressure points for the fan or pump's performance curve must be decreasing.
+Received
+"
+ +IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(
+ pump.eff.per.pressure.dp, "dp", 6, 6));
+ end if;
+ end if;
+ if ( not pump.eff.haveMinimumDecrease) then
+ ModelicaInternal_print("
+Warning:
+========
+It is recommended that the volume flow rate versus pressure relation
+of the fan or pump satisfy the minimum decrease condition
+
+ (per.pressure.dp[i+1]-per.pressure.dp[i])
+d[i] = ------------------------------------------------- < "
+ +String( -pump.eff.kRes)+"
+ (per.pressure.V_flow[i+1]-per.pressure.V_flow[i])
+
+ is
+"
+ +IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(
+ array((pump.eff.per.pressure.dp[i+1]-pump.eff.per.pressure.dp[i])/(
+ pump.eff.per.pressure.V_flow[i+1]-pump.eff.per.pressure.V_flow[i]) for i
+ in 1:pump.eff.nOri-1), "d", 6, 6)+"
+Otherwise, a solution to the equations may not exist if the fan or pump's speed is reduced.
+In this situation, the solver will fail due to non-convergence and
+the simulation stops.",
+ "");
+ end if;
+ if (pump.eff.curve == 1) then
+ pump.eff.preDer1 = IBPSA.Utilities.Math.Functions.splineDerivatives(
+ pump.eff.pCur1.V_flow, pump.eff.pCur1.dp, IBPSA.Utilities.Math.Functions.isMonotonic
+ (pump.eff.pCur1.dp, false));
+ pump.eff.preDer2 = zeros(pump.eff.nOri+1);
+ pump.eff.preDer3 = zeros(pump.eff.nOri+2);
+ elseif (pump.eff.curve == 2) then
+ pump.eff.preDer1 = zeros(pump.eff.nOri);
+ pump.eff.preDer2 = IBPSA.Utilities.Math.Functions.splineDerivatives(
+ pump.eff.pCur2.V_flow, pump.eff.pCur2.dp, IBPSA.Utilities.Math.Functions.isMonotonic
+ (pump.eff.pCur2.dp, false));
+ pump.eff.preDer3 = zeros(pump.eff.nOri+2);
+ else
+ pump.eff.preDer1 = zeros(pump.eff.nOri);
+ pump.eff.preDer2 = zeros(pump.eff.nOri+1);
+ pump.eff.preDer3 = IBPSA.Utilities.Math.Functions.splineDerivatives(
+ pump.eff.pCur3.V_flow, pump.eff.pCur3.dp, IBPSA.Utilities.Math.Functions.isMonotonic
+ (pump.eff.pCur3.dp, false));
+ end if;
+ assert( not ((pump.eff.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_MotorPartLoadRatio or pump.eff.per.etaMotMet ==
+ IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.GenericCurve)
+ and not pump.eff.per.haveWMot_nominal), "In HeatPumpAndElectricHeater.pump.eff: etaMotMet is set to
+ .Efficiency_MotorPartLoadRatio or .GenericCurve which requires
+ the motor's rated power, but per.WMot_nominal is not assigned or
+ cannot be estimated because no power curve is provided.");
+ assert(max(pump.eff.per.power.P) < 1E-06 or pump.eff.per.WMot_nominal > max(
+ pump.eff.per.power.P)*0.99, "In HeatPumpAndElectricHeater.pump.eff: The rated motor power provided in
+ per.WMot_nominal is smaller than the maximum power provided in per.power.
+ Use a larger value for per.WMot_nominal or leave it blank to allow the
+ model to assume a default value.");
+ assert(pump.eff.homotopyInitialization, "In HeatPumpAndElectricHeater.pump.eff: The constant homotopyInitialization has been modified from its default
+ value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+
+ // Component pump
+ // class IBPSA.Fluid.Movers.Preconfigured.SpeedControlled_y
+ // extends IBPSA.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (pump.wrongEnergyMassBalanceConfiguration) then
+ assert( not pump.wrongEnergyMassBalanceConfiguration, "In HeatPumpAndElectricHeater.pump: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // extends IBPSA.Fluid.Movers.BaseClasses.PartialFlowMachine
+ initial algorithm
+ assert(pump.nominalValuesDefineDefaultPressureCurve or pump.per.havePressureCurve
+ or pump.preVar == IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable.
+ Speed, "*** Warning in HeatPumpAndElectricHeater.pump: Mover is flow or pressure controlled and uses default pressure curve.
+This leads to an approximate power consumption.
+Set nominalValuesDefineDefaultPressureCurve=true to suppress this warning.",
+ AssertionLevel.warning);
+ assert(pump.nominalValuesDefineDefaultPressureCurve or (pump.per.havePressureCurve
+ or pump.preVar == IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable.
+ Speed) or pump.per.etaHydMet <> IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ Power_VolumeFlowRate, "*** Warning in HeatPumpAndElectricHeater.pump: Mover is flow or pressure controlled, uses default pressure curve and
+has per.etaHydMet=.Power_VolumeFlowRate.
+As this can cause wrong power consumption, the model overrides this setting by using per.etaHydMet=.NotProvided.
+Set nominalValuesDefineDefaultPressureCurve=true to suppress this warning.",
+ AssertionLevel.warning);
+ assert(pump.per.havePressureCurve or not (pump.per.etaHydMet ==
+ IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ Power_VolumeFlowRate or pump.per.etaHydMet == IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod.
+ EulerNumber), "*** Warning in HeatPumpAndElectricHeater.pump: Mover has per.etaHydMet=.Power_VolumeFlowRate or per.etaHydMet=.EulerNumber.
+This requires per.pressure to be provided.
+Because it is not, the model overrides this setting by using per.etaHydMet=.NotProvided.
+Also consider using models under Movers.Preconfigured which autopopulate a pressure curve.",
+ AssertionLevel.warning);
+ assert(pump.per.havePressureCurve or pump.per.haveWMot_nominal or not (
+ pump.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_MotorPartLoadRatio or pump.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ GenericCurve), "*** Warning in HeatPumpAndElectricHeater.pump: Mover has per.etaMotMet=.Efficiency_MotorPartLoadRatio or per.etaMotMet=.GenericCurve.
+This requires per.WMot_nominal or per.pressure to be provided. Because neither is provided,
+the model overrides this setting and by using per.etaMotMet=.NotProvided.
+Also consider using models under Movers.Preconfigured which autopopulate a pressure curve.",
+ AssertionLevel.warning);
+ assert(pump.per.powerOrEfficiencyIsHydraulic or not (pump.per.etaMotMet
+ == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ Efficiency_MotorPartLoadRatio or pump.per.etaMotMet == IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod.
+ GenericCurve), "*** Warning in HeatPumpAndElectricHeater.pump: Mover has per.etaMotMet=.Efficiency_MotorPartLoadRatio or per.etaMotMet=.GenericCurve
+and provides information for total electric power instead of hydraulic power.
+This forms an algebraic loop. If simulation fails to converge,
+see the \"Motor efficiency\" section in the users guide for how to correct it.",
+ AssertionLevel.warning);
+ // extends IBPSA.Fluid.Movers.SpeedControlled_y
+ initial equation
+ assert(pump.per.havePressureCurve, "SpeedControlled_y requires to set the pressure vs. flow rate curve in record 'per'.");
+ // end of extends
+
+ // Component KPIQHP.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIQHP.integrator2.initType == Modelica.Blocks.Types.Init.SteadyState)
+ then
+ der(KPIQHP.integrator2.y) = 0;
+ elseif (KPIQHP.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIQHP.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIQHP.integrator2.y = KPIQHP.integrator2.y_start;
+ end if;
+
+ // Component bouPum
+ // class IBPSA.Fluid.Sources.Boundary_pT
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource
+ initial equation
+ for i in (1:bouPum.nPorts) loop
+ assert(cardinality(bouPum.ports[i]) <= 1, "
+Each ports[i] of boundary shall at most be connected to one component.
+If two or more connections are present, ideal mixing takes
+place in these connections, which is usually not the intention
+of the modeller. Increase nPorts to add an additional port.
+");
+ end for;
+ // extends IBPSA.Fluid.Sources.BaseClasses.PartialSource_Xi_C
+ initial equation
+ assert( not bouPum.use_X_in or not bouPum.use_Xi_in, "Cannot use both X and Xi inputs, choose either use_X_in or use_Xi_in.");
+ if ( not bouPum.use_X_in and not bouPum.use_Xi_in) then
+ Modelica.Fluid.Utilities.checkBoundary("unusablePartialMedium", {
+ "unusablePartialMedium"}, _GlobalScope.singleState, true,
+ bouPum.X_in_internal, "Boundary_pT");
+ end if;
+ // end of extends
+ initial equation
+ if ( not bouPum.use_p_in) then
+ if (bouPum.checkWaterPressure) then
+ assert(bouPum.p_in_internal > 10000.0, "In HeatPumpAndElectricHeater.bouPum: The parameter value p="
+ +String(bouPum.p_in_internal)+" is low for water. This is likely an error.");
+ end if;
+ if (bouPum.checkAirPressure) then
+ assert(bouPum.p_in_internal > 50000.0 and bouPum.p_in_internal <
+ 150000.0, "In HeatPumpAndElectricHeater.bouPum: The parameter value p="
+ +String(bouPum.p_in_internal)+" is not within a realistic range for air. This is likely an error.");
+ end if;
+ end if;
+
+ // Component senTGenOut
+ // class IBPSA.Fluid.Sensors.TemperatureTwoPort
+ initial equation
+ if (senTGenOut.dynamic) then
+ if (senTGenOut.initType == Modelica.Blocks.Types.Init.SteadyState) then
+ der(senTGenOut.T) = 0;
+ elseif (senTGenOut.initType == Modelica.Blocks.Types.Init.InitialState or
+ senTGenOut.initType == Modelica.Blocks.Types.Init.InitialOutput) then
+ senTGenOut.T = senTGenOut.T_start;
+ end if;
+ end if;
+
+ // Component KPIHeaPum.integrator3
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIHeaPum.integrator3.initType == Modelica.Blocks.Types.Init.SteadyState)
+ then
+ der(KPIHeaPum.integrator3.y) = 0;
+ elseif (KPIHeaPum.integrator3.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIHeaPum.integrator3.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIHeaPum.integrator3.y = KPIHeaPum.integrator3.y_start;
+ end if;
+
+ // Component KPIHeaPum.triggeredAdd
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ initial equation
+ pre(KPIHeaPum.triggeredAdd.y) = KPIHeaPum.triggeredAdd.y_start;
+
+ // Component KPIHeaPum.integrator1
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIHeaPum.integrator1.initType == Modelica.Blocks.Types.Init.SteadyState)
+ then
+ der(KPIHeaPum.integrator1.y) = 0;
+ elseif (KPIHeaPum.integrator1.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIHeaPum.integrator1.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIHeaPum.integrator1.y = KPIHeaPum.integrator1.y_start;
+ end if;
+
+ // Component eleHea.vol.dynBal
+ // class AixLib.Fluid.Interfaces.ConservationEquation
+ // extends AixLib.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (eleHea.vol.dynBal.wrongEnergyMassBalanceConfiguration) then
+ assert( not eleHea.vol.dynBal.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.eleHea.vol.dynBal: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+ initial equation
+ if (eleHea.vol.dynBal.use_mWat_flow) then
+ assert(true or abs(sum(eleHea.vol.dynBal.s)-1) < 1E-05, "In HeatPumpAndElectricHeater.eleHea.vol.dynBal:
+ If Medium.nXi > 1, then substance 'water' must be present for one component of 'unusablePartialMedium'.
+ Check medium model.");
+ end if;
+ if (eleHea.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyState) then
+ assert(eleHea.vol.dynBal.massDynamics == eleHea.vol.dynBal.energyDynamics,
+ "In HeatPumpAndElectricHeater.eleHea.vol.dynBal:
+ If 'massDynamics == Modelica.Fluid.Types.Dynamics.SteadyState', then it is
+ required that 'energyDynamics==Modelica.Fluid.Types.Dynamics.SteadyState'.
+ Otherwise, the system of equations may not be consistent.
+ You need to select other parameter values.");
+ end if;
+ if (eleHea.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ eleHea.vol.dynBal.medium.T = eleHea.vol.dynBal.T_start;
+ else
+ if (eleHea.vol.dynBal.energyDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(eleHea.vol.dynBal.medium.T) = 0;
+ end if;
+ end if;
+ if (eleHea.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ if (eleHea.vol.dynBal.initialize_p) then
+ eleHea.vol.dynBal.medium.p = eleHea.vol.dynBal.p_start;
+ end if;
+ else
+ if (eleHea.vol.dynBal.massDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ if (eleHea.vol.dynBal.initialize_p) then
+ der(eleHea.vol.dynBal.medium.p) = 0;
+ end if;
+ end if;
+ end if;
+ if (eleHea.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ eleHea.vol.dynBal.medium.Xi = eleHea.vol.dynBal.X_start[1:0];
+ else
+ if (eleHea.vol.dynBal.substanceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(eleHea.vol.dynBal.medium.Xi) = zeros(0);
+ end if;
+ end if;
+ if (eleHea.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ FixedInitial) then
+ eleHea.vol.dynBal.C = eleHea.vol.dynBal.C_start[1:0];
+ else
+ if (eleHea.vol.dynBal.traceDynamics == Modelica.Fluid.Types.Dynamics.
+ SteadyStateInitial) then
+ der(eleHea.vol.dynBal.C) = zeros(0);
+ end if;
+ end if;
+
+ // Component eleHea.vol
+ // class AixLib.Fluid.MixingVolumes.MixingVolume
+ // extends AixLib.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (eleHea.vol.wrongEnergyMassBalanceConfiguration) then
+ assert( not eleHea.vol.wrongEnergyMassBalanceConfiguration,
+ "In HeatPumpAndElectricHeater.eleHea.vol: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+
+ // Component eleHea.preDro
+ // class AixLib.Fluid.FixedResistances.PressureDrop
+ // extends AixLib.Fluid.BaseClasses.PartialResistance
+ initial equation
+ assert(eleHea.preDro.homotopyInitialization, "In HeatPumpAndElectricHeater.eleHea.preDro: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+ // end of extends
+ initial equation
+ if (eleHea.preDro.computeFlowResistance) then
+ assert(eleHea.preDro.m_flow_turbulent > 0, "m_flow_turbulent must be bigger than zero.");
+ end if;
+ assert(eleHea.preDro.m_flow_nominal_pos > 0, "m_flow_nominal_pos must be non-zero. Check parameters.");
+
+ // Component eleHea
+ // class AixLib.Fluid.HeatExchangers.HeatingRod
+ // extends AixLib.Fluid.Interfaces.TwoPortHeatMassExchanger
+ initial algorithm
+ assert(eleHea.energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState
+ or eleHea.tau > 1E-15, "The parameter tau, or the volume of the model from which tau may be derived, is unreasonably small.
+ You need to set energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState to model steady-state.
+ Received tau = "
+ +String(eleHea.tau)+"\n");
+ assert(eleHea.homotopyInitialization, "In HeatPumpAndElectricHeater.eleHea: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
+ AssertionLevel.warning);
+ // end of extends
+
+ // Component KPIEleHea.isOn
+ // class Modelica.Blocks.Logical.Hysteresis
+ initial equation
+ pre(KPIEleHea.isOn.y) = KPIEleHea.isOn.pre_y_start;
+
+ // Component KPIEleHea.integrator3
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIEleHea.integrator3.initType == Modelica.Blocks.Types.Init.SteadyState)
+ then
+ der(KPIEleHea.integrator3.y) = 0;
+ elseif (KPIEleHea.integrator3.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIEleHea.integrator3.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIEleHea.integrator3.y = KPIEleHea.integrator3.y_start;
+ end if;
+
+ // Component KPIEleHea.triggeredAdd
+ // class Modelica.Blocks.MathInteger.TriggeredAdd
+ initial equation
+ pre(KPIEleHea.triggeredAdd.y) = KPIEleHea.triggeredAdd.y_start;
+
+ // Component KPIEleHea.integrator1
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIEleHea.integrator1.initType == Modelica.Blocks.Types.Init.SteadyState)
+ then
+ der(KPIEleHea.integrator1.y) = 0;
+ elseif (KPIEleHea.integrator1.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIEleHea.integrator1.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIEleHea.integrator1.y = KPIEleHea.integrator1.y_start;
+ end if;
+
+ // Component KPIQEleHea_flow.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIQEleHea_flow.integrator2.initType == Modelica.Blocks.Types.Init.
+ SteadyState) then
+ der(KPIQEleHea_flow.integrator2.y) = 0;
+ elseif (KPIQEleHea_flow.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIQEleHea_flow.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIQEleHea_flow.integrator2.y = KPIQEleHea_flow.integrator2.y_start;
+ end if;
+
+ // Component KPIPEleEleHea.integrator2
+ // class Modelica.Blocks.Continuous.Integrator
+ initial equation
+ if (KPIPEleEleHea.integrator2.initType == Modelica.Blocks.Types.Init.
+ SteadyState) then
+ der(KPIPEleEleHea.integrator2.y) = 0;
+ elseif (KPIPEleEleHea.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialState or KPIPEleEleHea.integrator2.initType == Modelica.Blocks.Types.Init.
+ InitialOutput) then
+ KPIPEleEleHea.integrator2.y = KPIPEleEleHea.integrator2.y_start;
+ end if;
+
+ // This model
+ // class RollOut.Systems.Hydraulical.Generation.HeatPumpAndElectricHeater
+ // extends IBPSA.Fluid.Interfaces.LumpedVolumeDeclarations
+ initial equation
+ if (wrongEnergyMassBalanceConfiguration) then
+ assert( not wrongEnergyMassBalanceConfiguration, "In HeatPumpAndElectricHeater: energyDynamics is selected as steady state, and therefore massDynamics must also be steady-state.");
+ end if;
+ // end of extends
+
+end HeatPumpAndElectricHeater;
diff --git a/BuildingSim/working_dir/Modelica_RollOut/RollOut.mo b/BuildingSim/working_dir/Modelica_RollOut/RollOut.mo
index 76896e8b63e43f0f621451c15ac419597a6e23ff..1b277deb126cb7550d42d59c650a1fa7694e818f 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/RollOut.mo
+++ b/BuildingSim/working_dir/Modelica_RollOut/RollOut.mo
@@ -16,13 +16,18 @@ package RollOut
TOda_nominal=262.65,
THydSup_nominal=fill(328.15,systemParameters.nZones),
QBuiOld_flow_design=systemParameters.QBui_flow_nominal,
- THydSupOld_design=systemParameters.THydSup_nominal));
+ THydSupOld_design=systemParameters.THydSup_nominal),
+ hydraulic(generation(redeclare BESRules.Components.Frosting.SimpleDefrost
+ defCtrl, redeclare model RefrigerantCycleHeatPumpCooling =
+ BESRules.Components.Frosting.BaseClasses.ReverseCycleDefrostHeatPump)));
extends Modelica.Icons.Example;
- annotation(experiment(StopTime=172800,
- Interval=600,
- Tolerance=1e-06),
+ annotation(experiment(
+ StopTime=172800,
+ Interval=1,
+ Tolerance=1e-06,
+ __Dymola_Algorithm="Dassl"),
__Dymola_Commands(file=
"modelica://BESMod/Resources/Scripts/Dymola/Examples/TEASERExport/ArchetypeExample/ResidentialBuilding/HeatPumpMonoenergeticResidentialBuilding.mos"
"Simulate and plot"));
@@ -44,7 +49,6 @@ package RollOut
generation(
redeclare model CellTemperature =
AixLib.Electrical.PVSystem.BaseClasses.CellTemperatureMountingContactToGround,
-
redeclare AixLib.DataBase.SolarElectric.SchuecoSPV170SME1
pVParameters,
lat=weaDat.lat,
@@ -64,7 +68,8 @@ package RollOut
dTTra_nominal={10},
redeclare model RefrigerantCycleHeatPumpHeating =
AixLib.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.TableData2D
- (redeclare
+ (redeclare BESRules.Components.LiangAndZhuCalibrated iceFacCal,
+ redeclare
AixLib.Fluid.HeatPumps.ModularReversible.Data.TableData2D.EN255.Vitocal350AWI114
datTab),
redeclare BESMod.Systems.RecordsCollection.Movers.DefaultMover parPum,
@@ -74,14 +79,15 @@ package RollOut
redeclare
BESMod.Systems.Hydraulical.Generation.RecordsCollection.HeatPumps.DefaultHP
parHeaPum,
+ redeclare model RefrigerantCycleHeatPumpCooling =
+ BESRules.Components.Frosting.BaseClasses.ReverseCycleDefrostHeatPump,
+
redeclare
BESMod.Systems.Hydraulical.Generation.RecordsCollection.ElectricHeater.DefaultElectricHeater
parEleHea,
redeclare
BESMod.Systems.RecordsCollection.TemperatureSensors.DefaultSensor
- parTemSen,
- heatPump(refCyc(refCycHeaPumHea(redeclare
- BESRules.Components.LiangAndZhuCalibrated iceFacCal)))),
+ parTemSen),
redeclare
BESMod.Systems.Hydraulical.Control.MonoenergeticHeatPumpSystem
control(
@@ -89,13 +95,10 @@ package RollOut
BESMod.Systems.Hydraulical.Control.Components.ThermostaticValveController.ThermostaticValvePIControlled
valCtrl,
supCtrDHWTyp=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType.Internal,
-
redeclare model DHWHysteresis =
BESMod.Systems.Hydraulical.Control.Components.BivalentOnOffControllers.TimeBasedElectricHeater,
-
redeclare model BuildingHysteresis =
BESMod.Systems.Hydraulical.Control.Components.BivalentOnOffControllers.TimeBasedElectricHeater,
-
redeclare
BESMod.Systems.Hydraulical.Control.RecordsCollection.BasicHeatPumpPI
parPIDHeaPum),
@@ -117,7 +120,6 @@ package RollOut
BESMod.Systems.Hydraulical.Transfer.RecordsCollection.RadiatorTransferData
parRad,
redeclare BESMod.Systems.RecordsCollection.Movers.DefaultMover parPum,
-
redeclare
BESMod.Systems.Hydraulical.Transfer.RecordsCollection.SteelRadiatorStandardPressureLossData
parTra)),
@@ -150,9 +152,7 @@ package RollOut
BESMod.Systems.Ventilation.Generation.RecordsCollection.DummyHeatExchangerRecovery
parameters,
redeclare IBPSA.Fluid.Actuators.Valves.ThreeWayLinear threeWayValve_b,
-
redeclare IBPSA.Fluid.Actuators.Valves.ThreeWayLinear threeWayValve_a,
-
redeclare
BESMod.Systems.RecordsCollection.Valves.DefaultThreeWayValve
threeWayValveParas,
@@ -1100,7 +1100,8 @@ package RollOut
connect(pasTrhModSet.u, sigBus.hea);
connect(sigBus,refCycHeaPumCoo.sigBus) annotation (Line(
- points={{0,100},{0,90},{-40,90},{-40,86},{-39.3292,86},{-39.3292,80}},
+ points={{0,100},{0,90},{-40,90},{-40,86},{-39.3292,86},{
+ -39.3292,80}},
color={255,204,51},
thickness=0.5));
connect(sigBus,refCycHeaPumHea.sigBus) annotation (Line(
@@ -1243,7 +1244,7 @@ package RollOut
<a href=\"modelica://AixLib.Fluid.HeatPumps.ModularReversible.UsersGuide\">
UsersGuide</a>.
</p>
-</html>"), __Dymola_LockedEditing="Model from IBPSA");
+</html>"));
end RefrigerantCycle;
end HeatPump;
@@ -1307,8 +1308,8 @@ package RollOut
TDem_nominal[i] > 44.9 + 273.15 then 8 else 5 for i in 1:
nParallelDem},
dTTraOld_design={if TDemOld_design[i] > 273.15 + 55 then 10
- elseif TDemOld_design[i] > 44.9 + 273.15 then 8 else 5 for i
- in 1:nParallelDem},
+ elseif TDemOld_design[i] > 44.9 + 273.15 then 8 else 5 for i in
+ 1:nParallelDem},
dTTra_design={if use_old_design[i] then dTTraOld_design[i] else
dTTra_nominal[i] for i in 1:nParallelDem},
dp_nominal={heatPump.dpCon_nominal},
@@ -1389,13 +1390,13 @@ package RollOut
"Nominal heat flow rate at bivalence temperature"
annotation (Dialog(tab="Calculated", group="Heat Pump System Design"));
- parameter Modelica.Units.SI.HeatFlowRate QPri_flow_nominal=if genDesTyp ==BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign
- .Monovalent then
+ parameter Modelica.Units.SI.HeatFlowRate QPri_flow_nominal=if genDesTyp ==BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.
+ Monovalent then
Q_flow_design[1] else QGenBiv_flow_nominal
"Nominal heat flow rate of primary generation component (e.g. heat pump)"
annotation (Dialog(tab="Calculated", group="Heat Pump System Design"));
- parameter Modelica.Units.SI.HeatFlowRate QSec_flow_nominal=if genDesTyp ==BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign
- .Monovalent then 0
+ parameter Modelica.Units.SI.HeatFlowRate QSec_flow_nominal=if genDesTyp ==BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.
+ Monovalent then 0
elseif genDesTyp ==BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.BivalentAlternativ
then Q_flow_design[1] elseif genDesTyp ==BESMod.Systems.Hydraulical.Generation.Types.GenerationDesign.BivalentParallel
then max(0, Q_flow_design[1] - QPriAtTOdaNom_flow_nominal) else Q_flow_design[1]
@@ -1431,8 +1432,9 @@ package RollOut
Dialog(group="Component choices", enable=use_rev and use_airSource),
Placement(transformation(extent={{-98,12},{-82,28}})));
replaceable model RefrigerantCycleHeatPumpCooling =
- AixLib.Fluid.Chillers.ModularReversible.RefrigerantCycle.BaseClasses.NoCooling
- constrainedby
+ AixLib.Fluid.Chillers.ModularReversible.RefrigerantCycle.BaseClasses.PartialChillerCycle
+ (PEle_nominal=0)
+ constrainedby
AixLib.Fluid.Chillers.ModularReversible.RefrigerantCycle.BaseClasses.PartialChillerCycle(
final useInChi=false,
final cpCon=heatPump.cpCon,
@@ -1460,7 +1462,7 @@ package RollOut
final use_busConOnl=false,
redeclare model RefrigerantCycleInertia = RefrigerantCycleInertia,
- final use_rev=use_rev,
+ final use_rev=true,
final tauCon=parHeaPum.tauCon,
final dTCon_nominal=dTTra_nominal[1],
final mCon_flow_nominal=m_flow_design[1],
diff --git a/BuildingSim/working_dir/Modelica_RollOut/dsfinal.txt b/BuildingSim/working_dir/Modelica_RollOut/dsfinal.txt
index c24d9ae19b74113f82e2fefa473e939efe21a4cc..12c58c5e344b2dcd4fd918790ef0f5df667d7837 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/dsfinal.txt
+++ b/BuildingSim/working_dir/Modelica_RollOut/dsfinal.txt
@@ -10,7 +10,7 @@ double experiment(7,1)
1.7280000000000000E+05 # StartTime Time at which integration starts
# (and linearization and trimming time)
3.4560000000000000E+05 # StopTime Time at which integration stops
- 600 # Increment Communication step size, if > 0
+ 1 # Increment Communication step size, if > 0
0 # nInterval Number of communication intervals, if > 0
9.9999999999999995E-07 # Tolerance Relative precision of signals for
# simulation, linearization and trimming
@@ -102,7 +102,7 @@ int settings(13,1)
# Names of initial variables
-char initialName(11451,112)
+char initialName(11426,112)
use_openModelica
systemParameters.nZones
systemParameters.QBui_flow_nominal[1]
@@ -4297,11 +4297,13 @@ hydraulic.generation.QSec_flow_nominal
hydraulic.generation.use_airSource
hydraulic.generation.TSoilConst
hydraulic.generation.use_rev
-hydraulic.generation.defCtrl.sigBus.hea
hydraulic.generation.defCtrl.sigBus.iceFacChiMea
-hydraulic.generation.defCtrl.hea
-hydraulic.generation.defCtrl.booCon.k
-hydraulic.generation.defCtrl.booCon.y
+hydraulic.generation.defCtrl.minIceFac
+hydraulic.generation.defCtrl.hys.uLow
+hydraulic.generation.defCtrl.hys.uHigh
+hydraulic.generation.defCtrl.hys.pre_y_start
+hydraulic.generation.defCtrl.hys.y
+hydraulic.generation.defCtrl.derIceFac_min
hydraulic.generation.TConCoo_nominal
hydraulic.generation.TEvaCoo_nominal
hydraulic.generation.QCoo_flow_nominal
@@ -4329,21 +4331,15 @@ hydraulic.generation.heatPump.state_b2_inflow.p
hydraulic.generation.heatPump.state_b2_inflow.T
hydraulic.generation.heatPump.state_b2_inflow.X[2]
hydraulic.generation.heatPump.refCyc.use_rev
-hydraulic.generation.heatPump.refCyc.sigBus.hea
hydraulic.generation.heatPump.refCyc.sigBus.iceFacChiMea
-hydraulic.generation.heatPump.refCyc.swiQEva.u2
+hydraulic.generation.heatPump.refCyc.swiQEva.u1
hydraulic.generation.heatPump.refCyc.swiQEva.u3
-hydraulic.generation.heatPump.refCyc.swiQCon.u2
-hydraulic.generation.heatPump.refCyc.swiQCon.u3
-hydraulic.generation.heatPump.refCyc.swiPEle.u2
-hydraulic.generation.heatPump.refCyc.swiPEle.u3
-hydraulic.generation.heatPump.refCyc.pasTrhModSet.u
-hydraulic.generation.heatPump.refCyc.pasTrhModSet.y
+hydraulic.generation.heatPump.refCyc.swiQCon.u1
+hydraulic.generation.heatPump.refCyc.swiPEle.u1
hydraulic.generation.heatPump.refCyc.allowDifferentDeviceIdentifiers
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.PEle_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.hea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.iceFacChiMea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.use_varDen
@@ -4358,16 +4354,16 @@ hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.mIce_max
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.d
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatFor_internal.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatNat_internal.y
+hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u3
+hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.k
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u1
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.k
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.k
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.u1
@@ -4403,7 +4399,6 @@ hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_m
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild[4]
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.hea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.iceFacChiMea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k1
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k2
@@ -4762,28 +4757,20 @@ hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TConOutForOpeEnv
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TCon_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TEva_nominal
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.hea
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.iceFacChiMea
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpCon
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpEva
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCon_flow
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.iceFacChiMea
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.hea
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QEva_flow
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u1
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u2
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k1
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k2
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCoo_flow_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.useInChi
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.k
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.y
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.COP_constant
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.y_constant
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k
hydraulic.generation.heatPump.PEle_nominal
hydraulic.generation.heatPump.use_rev
hydraulic.generation.heatPump.allowDifferentDeviceIdentifiers
@@ -5132,7 +5119,6 @@ hydraulic.generation.heatPump.eva.preHea.T_ref
hydraulic.generation.heatPump.eva.preHea.alpha
hydraulic.generation.heatPump.eva.senT.port.Q_flow
hydraulic.generation.heatPump.eva.T
-hydraulic.generation.heatPump.safCtr.sigBus.hea
hydraulic.generation.heatPump.safCtr.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.mEva_flow_nominal
hydraulic.generation.heatPump.safCtr.mCon_flow_nominal
@@ -5167,7 +5153,6 @@ hydraulic.generation.heatPump.safCtr.safCtrPar.r_mEvaMinPer_flow
hydraulic.generation.heatPump.safCtr.safCtrPar.r_mConMinPer_flow
hydraulic.generation.heatPump.safCtr.opeEnv.ySet
hydraulic.generation.heatPump.safCtr.opeEnv.yOut
-hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.hea
hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2
hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u3
@@ -5202,6 +5187,7 @@ hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[2, 1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[2, 2]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.dT
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.isUppBou
+hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile
@@ -5329,8 +5315,6 @@ hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[2]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[2]
-hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u2
-hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.hea
hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.onOffCtr.use_minOnTime
hydraulic.generation.heatPump.safCtr.onOffCtr.minOnTime
@@ -5390,7 +5374,6 @@ hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.staOn
hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin
hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff
hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe
-hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.hea
hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2
hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u3
@@ -5436,22 +5419,17 @@ hydraulic.generation.heatPump.eff.hys.uLow
hydraulic.generation.heatPump.eff.hys.uHigh
hydraulic.generation.heatPump.eff.hys.pre_y_start
hydraulic.generation.heatPump.eff.hys.y
-hydraulic.generation.heatPump.eff.hea
-hydraulic.generation.heatPump.eff.EER
hydraulic.generation.heatPump.eff.invXReg.y
hydraulic.generation.heatPump.eff.invXReg.delta
hydraulic.generation.heatPump.eff.copCom.u1
hydraulic.generation.heatPump.eff.copCom.y
hydraulic.generation.heatPump.eff.swi.u3
+hydraulic.generation.heatPump.eff.swi.y
hydraulic.generation.heatPump.eff.zer.k
hydraulic.generation.heatPump.eff.zer.y
hydraulic.generation.heatPump.eff.swiCoo.u1
-hydraulic.generation.heatPump.eff.swiCoo.u2
-hydraulic.generation.heatPump.eff.swiCoo.y
-hydraulic.generation.heatPump.eff.swiHea.u2
hydraulic.generation.heatPump.eff.swiHea.u3
hydraulic.generation.heatPump.eff.absQEva_flow.generateEvent
-hydraulic.generation.heatPump.sigBus.hea
hydraulic.generation.heatPump.sigBus.iceFacChiMea
hydraulic.generation.heatPump.use_busConOnl
hydraulic.generation.heatPump.use_COP
@@ -5468,7 +5446,6 @@ hydraulic.generation.heatPump.TConHea_nominal
hydraulic.generation.heatPump.TEvaHea_nominal
hydraulic.generation.heatPump.TConCoo_nominal
hydraulic.generation.heatPump.TEvaCoo_nominal
-hydraulic.generation.heatPump.hea
hydraulic.generation.heatPump.EER
hydraulic.generation.heatPump.COP
hydraulic.generation.bou_sinkAir.nPorts
@@ -5999,9 +5976,7 @@ hydraulic.generation.KPIHeaPum.integrator1.y
hydraulic.generation.KPIHeaPum.integrator1.der(y)
hydraulic.generation.KPIHeaPum.integrator1.local_reset
hydraulic.generation.KPIHeaPum.integrator1.local_set
-hydraulic.generation.heaPumSigBusPasThr.vapComBus.hea
hydraulic.generation.heaPumSigBusPasThr.vapComBus.iceFacChiMea
-hydraulic.generation.sigBus.hea
hydraulic.generation.sigBus.iceFacChiMea
hydraulic.generation.parEleHea.eta
hydraulic.generation.parEleHea.V_hr
@@ -11555,7 +11530,7 @@ control.constTSetDHW.k
electricalGrid.PElecLoa
electricalGrid.PElecGen
-double initialValue(11451,6)
+double initialValue(11426,6)
-2 0 0 0
6 257 # use_openModelica
-2 1 0 0
@@ -11624,27 +11599,27 @@ double initialValue(11451,6)
6 260 # building.useProBus.intGains[3]
-2 2.9414999999999998E+02 0 0
6 324 # building.useProBus.TZoneSet[1]
- -2 5.1897903497296375E+03 0 0
+ -2 5.2734273929578876E+03 0 0
6 388 # building.heatPortCon[1].Q_flow
- -2 2.9025148307102563E+02 0 1.0000000000000000E+100
+ -2 2.9061178875937856E+02 0 1.0000000000000000E+100
6 260 # building.heatPortRad[1].T
- -2 3.0466037586587258E+03 0 0
+ -2 3.0806673887792085E+03 0 0
6 388 # building.heatPortRad[1].Q_flow
- -2 2.9157664877720657E+02 0 0
+ -2 2.9187657252577242E+02 0 0
6 260 # building.outBusDem.TZone[1]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # building.outBusDem.TZoneOpe[1]
-2 0 0 0
6 260 # building.outBusDem.dTComCoo[1]
-2 0 0 0
6 260 # building.outBusDem.dTComCooOpe[1]
- -2 2.5748184973538553E+05 0 0
+ -2 2.0304059929251790E+05 0 0
6 260 # building.outBusDem.dTComHea[1]
- -2 3.1805294465342752E+05 0 0
+ -2 2.7267616819028667E+05 0 0
6 260 # building.outBusDem.dTComHeaOpe[1]
- -2 6.6365294465343386E+05 0 0
+ -2 6.1827616819028463E+05 0 0
6 260 # building.outBusDem.dTCtrlHeaOpe[1]
- -2 6.0305814661149599E+05 0 0
+ -2 5.4861689616862545E+05 0 0
6 260 # building.outBusDem.dTCtrl[1]
-2 2.7554999999999995E+02 0 1.0000000000000000E+100
6 260 # building.weaBus.TDryBul
@@ -11692,9 +11667,9 @@ double initialValue(11451,6)
6 260 # building.weaBus.solTim
-2 1.7280000000000000E+05 0 0
6 260 # building.weaBus.cloTim
- -2 2.9157664877720657E+02 1 10000
+ -2 2.9187657252577242E+02 1 10000
6 260 # building.buiMeaBus.TZoneMea[1]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # building.buiMeaBus.TZoneOpeMea[1]
-2 0 0 0
6 260 # building.internalElectricalPin.PElecLoa
@@ -12508,11 +12483,11 @@ double initialValue(11451,6)
6 260 # building.thermalZone[1].weaBus.lon
-2 0 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].weaBus.alt
- -2 1.0887281405591713E-01 -100000 100000
+ -2 1.0887281405592159E-01 -100000 100000
6 388 # building.thermalZone[1].ports[1].m_flow
-2 1.0132499978048644E+05 0 1.0000000000000000E+08
6 260 # building.thermalZone[1].ports[1].p
- -2 4.3704717250427137E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.4009001890297135E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # building.thermalZone[1].ports[1].h_outflow
-2 -1.0887281405591706E-01 -100000 100000
6 388 # building.thermalZone[1].ports[2].m_flow
@@ -12738,17 +12713,17 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.solRad[3]
-2 0 0 0
6 256 # building.thermalZone[1].ROM.solRad[4]
- -2 2.7466699318025445E+02 0 1.0000000000000000E+100
+ -2 2.7467488145998016E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].ROM.extWall.T
- -2 -1.4641973282267488E+03 0 0
+ -2 -1.4953560331432939E+03 0 0
6 388 # building.thermalZone[1].ROM.extWall.Q_flow
- -2 2.7792731204078495E+02 0 1.0000000000000000E+100
+ -2 2.7798266413823870E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].ROM.window.T
- -2 -2.3773120407849406E+03 0 0
+ -2 -2.4326641382386756E+03 0 0
6 388 # building.thermalZone[1].ROM.window.Q_flow
- -2 3.7291490416133020E+03 0 0
+ -2 3.7798042624156865E+03 0 0
6 388 # building.thermalZone[1].ROM.intGainsConv.Q_flow
- -2 3.2279136307183039E+03 0 0
+ -2 3.2600985384777700E+03 0 0
6 388 # building.thermalZone[1].ROM.intGainsRad.Q_flow
-2 2 1 4
6 258 # building.thermalZone[1].ROM.volAir.energyDynamics
@@ -12786,7 +12761,7 @@ double initialValue(11451,6)
6 257 # building.thermalZone[1].ROM.volAir.allowFlowReversal
-2 640 0 0
6 256 # building.thermalZone[1].ROM.volAir.V
- -2 7.6799999833618102E+00 0 1.0000000000000000E+100
+ -2 7.6799999833618076E+00 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].ROM.volAir.mXi[1]
-2 1.2000000000000000E+00 0 1.0000000000000000E+100
6 1280 # building.thermalZone[1].ROM.volAir.rho_start
@@ -12812,7 +12787,7 @@ double initialValue(11451,6)
6 1281 # building.thermalZone[1].ROM.volAir.useSteadyStateTwoPort
-2 0 0 0
6 257 # building.thermalZone[1].ROM.volAir.use_C_flow
- -2 1.1630234179337742E+02 0 0
+ -2 3.3561808865046964E+02 0 0
6 388 # building.thermalZone[1].ROM.volAir.heatPort.Q_flow
-2 2 1 4
6 1282 # building.thermalZone[1].ROM.volAir.dynBal.energyDynamics
@@ -12848,51 +12823,51 @@ double initialValue(11451,6)
6 1281 # building.thermalZone[1].ROM.volAir.dynBal.medium.preferredMediumStates
-2 1 0 0
6 1281 # building.thermalZone[1].ROM.volAir.dynBal.medium.standardOrderComponents
- -2 9.9999999999999950E-03 0 1
+ -2 9.9999999999999915E-03 0 1
2 1296 # building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]
- -2 1.4117215818155640E-21 0 0
+ -2 6.0139339385343016E-20 0 0
3 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.der(Xi[1])
-2 1.1999999974002835E+00 0 100000
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.d
- -2 2.9157664877720657E+02 1 10000
+ -2 2.9187657252577242E+02 1 10000
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.T
-2 9.8999999999999999E-01 0 1
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]
- -2 -4.0732782749572863E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.0428498109702865E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.u
-2 2.8879594599429981E+02 0 1.0000000000000000E+07
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.R_s
-2 2.8790127130676930E-02 1.0000000000000000E-03 2.5000000000000000E-01
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.MM
- -2 1.8426648777206594E+01 0 0
+ -2 1.8726572525772440E+01 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.T_degC
-2 1.0132499978048646E+00 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.p_bar
- -2 1.8426648777206569E+01 0 0
+ -2 1.8726572525772426E+01 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.medium.dT
- -2 -3.1282777083899997E+07 0 0
+ -2 -3.1049086480986115E+07 0 0
2 1296 # building.thermalZone[1].ROM.volAir.dynBal.U
- -2 -2.3737931319304232E+02 0 0
+ -2 -2.5011965660498618E+01 0 0
3 1280 # building.thermalZone[1].ROM.volAir.dynBal.der(U)
-2 7.6799999833618142E+02 0 1.0000000000000000E+100
2 1296 # building.thermalZone[1].ROM.volAir.dynBal.m
- -2 6.9388939039072284E-17 0 0
+ -2 4.5241588253475129E-15 0 0
3 1280 # building.thermalZone[1].ROM.volAir.dynBal.der(m)
- -2 1.0842021724855044E-18 0 0
+ -2 4.6187012547882489E-17 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.mbXi_flow[1]
- -2 -3.5368165498641974E+02 0 0
+ -2 -3.6063005431096826E+02 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.Hb_flow
-2 640 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.fluidVolume
-2 0 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.CSen
- -2 4.4045738995857646E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.4307538252778540E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.ports_H_flow[1]
- -2 -4.7582555545721843E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.7913838795888223E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.ports_H_flow[2]
- -2 1.0887281405591713E-03 0 0
+ -2 1.0887281405592159E-03 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.ports_mXi_flow[1, 1]
- -2 -1.0887281405591702E-03 0 0
+ -2 -1.0887281405591697E-03 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.ports_mXi_flow[2, 1]
-2 1.0145400000000000E+03 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.cp_default
@@ -12918,9 +12893,9 @@ double initialValue(11451,6)
6 1281 # building.thermalZone[1].ROM.volAir.dynBal._simplify_mWat_flow
-2 0 0 0
6 1280 # building.thermalZone[1].ROM.volAir.dynBal.mWat_flow_internal
- -2 -9.7033144521834309E+00 0 0
+ -2 -9.9292413805660242E+00 0 0
6 256 # building.thermalZone[1].ROM.resWin.dT
- -2 2.8763062649296836E+02 0 1.0000000000000000E+100
+ -2 2.8791190551880470E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.resWin.port_b.T
-2 4.0816326530612249E-03 0 0
6 256 # building.thermalZone[1].ROM.resWin.R
@@ -12960,23 +12935,23 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.thermSplitterIntGains.splitFactor[4, 1]
-2 1.1108017817371936E-01 0 0
6 256 # building.thermalZone[1].ROM.thermSplitterIntGains.splitFactor[5, 1]
- -2 2.8963014896693170E+02 0 1.0000000000000000E+100
+ -2 2.8995712908720270E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T
- -2 -4.2595519514489865E+02 0 0
+ -2 -4.3020231270558543E+02 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].Q_flow
- -2 -1.0783675826453130E+02 0 0
+ -2 -1.0891197790014820E+02 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[2].Q_flow
- -2 2.9073265837279536E+02 0 1.0000000000000000E+100
+ -2 2.9111175583860347E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T
- -2 -1.9770072348497406E+03 0 0
+ -2 -1.9967195948360506E+03 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].Q_flow
- -2 2.8985558621072022E+02 0 1.0000000000000000E+100
+ -2 2.9020690319589488E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T
- -2 -3.5855722122956655E+02 0 0
+ -2 -3.6213232651799279E+02 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].Q_flow
- -2 2.8952063680053948E+02 0 1.0000000000000000E+100
+ -2 2.8984967457144768E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T
- -2 -3.5855722122956655E+02 0 0
+ -2 -3.6213232651799279E+02 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].Q_flow
-2 5 0 0
6 258 # building.thermalZone[1].ROM.thermSplitterSolRad.nOut
@@ -13022,19 +12997,19 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.thermSplitterSolRad.splitFactor[5, 3]
-2 1.1587048061565267E-01 0 0
6 256 # building.thermalZone[1].ROM.thermSplitterSolRad.splitFactor[5, 4]
- -2 2.9029569790729016E+02 0 1.0000000000000000E+100
+ -2 2.9065783890265436E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].T
-2 0 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow
- -2 2.9029569790729016E+02 0 1.0000000000000000E+100
+ -2 2.9065783890265436E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].T
-2 0 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow
- -2 2.9029569790729016E+02 0 1.0000000000000000E+100
+ -2 2.9065783890265436E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].T
-2 0 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow
- -2 2.9029569790729016E+02 0 1.0000000000000000E+100
+ -2 2.9065783890265436E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].T
-2 0 0 0
6 388 # building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow
@@ -13058,35 +13033,35 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.extWallRC.CExt[1]
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].ROM.extWallRC.T_start
- -2 1.8045001265163162E+03 0 0
+ -2 1.8467898328296160E+03 0 0
6 388 # building.thermalZone[1].ROM.extWallRC.port_a.Q_flow
-2 6.6389676969808295E+07 0 0
6 256 # building.thermalZone[1].ROM.extWallRC.thermCapExt[1].C
- -2 2.8931933274992184E+02 0 1.0000000000000000E+100
+ -2 2.8963902867755604E+02 0 1.0000000000000000E+100
2 272 # building.thermalZone[1].ROM.extWallRC.thermCapExt[1].T
- -2 5.1258390433850904E-06 0 0
+ -2 5.2935006724937365E-06 0 0
3 256 # building.thermalZone[1].ROM.extWallRC.thermCapExt[1].der(T)
- -2 5.1258390433850912E-06 0 0
+ -2 5.2935006724937365E-06 0 0
6 264 # building.thermalZone[1].ROM.extWallRC.thermCapExt[1].der_T
- -2 3.4030279828956736E+02 0 0
+ -2 3.5143379968632212E+02 0 0
6 388 # building.thermalZone[1].ROM.extWallRC.thermCapExt[1].port.Q_flow
- -2 3.1081621700986439E-01 0 0
+ -2 3.1810040964671055E-01 0 0
6 1280 # building.thermalZone[1].ROM.extWallRC.thermResExt[1].dT
-2 1.7224505138157663E-04 0 0
6 1280 # building.thermalZone[1].ROM.extWallRC.thermResExt[1].R
- -2 1.4652339569667371E+01 0 0
+ -2 1.4964147217575864E+01 0 0
6 1280 # building.thermalZone[1].ROM.extWallRC.thermResExtRem.dT
-2 1.0007079843133190E-02 0 0
6 1280 # building.thermalZone[1].ROM.extWallRC.thermResExtRem.R
- -2 -8.3037681906325793E+02 0 0
+ -2 -8.1883457089383535E+02 0 0
6 1280 # building.thermalZone[1].ROM.convExtWall.Q_flow
- -2 -1.9464998102748661E+00 0 0
+ -2 -1.9194434385697030E+00 0 0
6 1312 # building.thermalZone[1].ROM.convExtWall.dT
-2 4.2660000000000002E+02 0 0
6 1280 # building.thermalZone[1].ROM.hConExtWall_const.k
- -2 -4.2617040669772678E+02 0 0
+ -2 -4.2818403675251329E+02 0 0
6 1280 # building.thermalZone[1].ROM.convWin.Q_flow
- -2 -3.9460222842382109E+00 0 0
+ -2 -3.9646670069677157E+00 0 0
6 1280 # building.thermalZone[1].ROM.convWin.dT
-2 7.5659999999999998E+00 0 0
6 1280 # building.thermalZone[1].ROM.eRadSol[1].k
@@ -13104,9 +13079,9 @@ double initialValue(11451,6)
6 1280 # building.thermalZone[1].ROM.eConvSol[3].k
-2 2.3399999999999999E-01 0 0
6 1280 # building.thermalZone[1].ROM.eConvSol[4].k
- -2 -3.9990449479267073E+02 0 0
+ -2 -4.0904471367960713E+02 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallWin.Q_flow
- -2 -1.9995224739633537E+00 0 0
+ -2 -2.0452235683980358E+00 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallWin.dT
-2 200 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallWin.G
@@ -13140,41 +13115,41 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.intWallRC.CInt[1]
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].ROM.intWallRC.T_start
- -2 5.9867401477386557E+02 0 0
+ -2 3.6495705037061794E+02 0 0
6 388 # building.thermalZone[1].ROM.intWallRC.port_a.Q_flow
-2 7.5004312537376568E+07 0 0
6 256 # building.thermalZone[1].ROM.intWallRC.thermCapInt[1].C
- -2 2.9067783441321251E+02 0 1.0000000000000000E+100
+ -2 2.9107833466099220E+02 0 1.0000000000000000E+100
2 272 # building.thermalZone[1].ROM.intWallRC.thermCapInt[1].T
- -2 7.9818612359860106E-06 0 0
+ -2 4.8658142181991270E-06 0 0
3 256 # building.thermalZone[1].ROM.intWallRC.thermCapInt[1].der(T)
- -2 7.9818612359860106E-06 0 0
+ -2 4.8658142181991270E-06 0 0
6 264 # building.thermalZone[1].ROM.intWallRC.thermCapInt[1].der_T
- -2 5.4823959582835577E-02 0 0
+ -2 3.3421177611236932E-02 0 0
6 1280 # building.thermalZone[1].ROM.intWallRC.thermResInt[1].dT
-2 9.1575645893941104E-05 0 0
6 1280 # building.thermalZone[1].ROM.intWallRC.thermResInt[1].R
- -2 -1.5023029198519455E+03 0 0
+ -2 -1.3613737031607336E+03 0 0
6 1280 # building.thermalZone[1].ROM.convIntWall.Q_flow
- -2 -8.4399040441120510E-01 0 0
+ -2 -7.6481668716895124E-01 0 0
6 1312 # building.thermalZone[1].ROM.convIntWall.dT
-2 1.7800000000000005E+03 0 0
6 1280 # building.thermalZone[1].ROM.hConIntWall.k
- -2 -8.7098243063229211E+02 0 0
+ -2 -9.1215513360659395E+02 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallIntWall.Q_flow
- -2 -1.1025094058636609E+00 0 0
+ -2 -1.1546267514007518E+00 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallIntWall.dT
-2 790 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallIntWall.G
- -2 -6.2040637596540296E+02 0 0
+ -2 -6.3997006395975745E+02 0 0
6 1280 # building.thermalZone[1].ROM.resIntWallWin.Q_flow
- -2 -3.1020318798270146E+00 0 0
+ -2 -3.1998503197987875E+00 0 0
6 1280 # building.thermalZone[1].ROM.resIntWallWin.dT
-2 200 0 0
6 1280 # building.thermalZone[1].ROM.resIntWallWin.G
-2 2.8614999999999998E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.floor.T
- -2 -3.6263820910633888E+02 0 0
+ -2 -3.9838403794131398E+02 0 0
6 388 # building.thermalZone[1].ROM.floor.Q_flow
-2 1 1 1.0000000000000000E+100
6 258 # building.thermalZone[1].ROM.floorRC.n
@@ -13186,57 +13161,57 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.floorRC.CExt[1]
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].ROM.floorRC.T_start
- -2 5.1329338685216749E+02 0 0
+ -2 4.7871521644879147E+02 0 0
6 388 # building.thermalZone[1].ROM.floorRC.port_a.Q_flow
-2 2.8614999999999998E+02 0 1.0000000000000000E+100
6 260 # building.thermalZone[1].ROM.floorRC.port_b.T
-2 1.0812373042512424E+07 0 0
6 256 # building.thermalZone[1].ROM.floorRC.thermCapExt[1].C
- -2 2.8977152667508869E+02 0 1.0000000000000000E+100
+ -2 2.9012850635731257E+02 0 1.0000000000000000E+100
2 272 # building.thermalZone[1].ROM.floorRC.thermCapExt[1].T
- -2 1.3933590448042988E-05 0 0
+ -2 7.4295603926750263E-06 0 0
3 256 # building.thermalZone[1].ROM.floorRC.thermCapExt[1].der(T)
- -2 1.3933590448042988E-05 0 0
+ -2 7.4295603926750271E-06 0 0
6 264 # building.thermalZone[1].ROM.floorRC.thermCapExt[1].der_T
- -2 1.5065517774582861E+02 0 0
+ -2 8.0331178507477489E+01 0 0
6 388 # building.thermalZone[1].ROM.floorRC.thermCapExt[1].port.Q_flow
- -2 8.4059535631503202E-02 0 0
+ -2 7.8396838582316580E-02 0 0
6 1280 # building.thermalZone[1].ROM.floorRC.thermResExt[1].dT
-2 1.6376508598134931E-04 0 0
6 1280 # building.thermalZone[1].ROM.floorRC.thermResExt[1].R
- -2 3.6215266750887167E+00 0 0
+ -2 3.9785063573125967E+00 0 0
6 1280 # building.thermalZone[1].ROM.floorRC.thermResExtRem.dT
-2 2.8614999999999998E+02 0 1.0000000000000000E+100
6 1284 # building.thermalZone[1].ROM.floorRC.thermResExtRem.port_b.T
-2 9.9866108538682746E-03 0 0
6 1280 # building.thermalZone[1].ROM.floorRC.thermResExtRem.R
- -2 -3.8913224628256438E+02 0 0
+ -2 -3.7751223548531090E+02 0 0
6 1280 # building.thermalZone[1].ROM.convFloor.Q_flow
- -2 -1.7210625664863528E+00 0 0
+ -2 -1.6696693298775358E+00 0 0
6 1280 # building.thermalZone[1].ROM.convFloor.dT
-2 2.2610000000000002E+02 0 0
6 1280 # building.thermalZone[1].ROM.hConFloor_const.k
- -2 -1.4991576711936546E+02 0 0
+ -2 -1.6609978228029917E+02 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallFloor.Q_flow
- -2 -2.2543724378851948E-01 0 0
+ -2 -2.4977410869217920E-01 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallFloor.dT
-2 665 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallFloor.G
- -2 5.8325298777996636E+02 0 0
+ -2 6.0172700740121263E+02 0 0
6 1280 # building.thermalZone[1].ROM.resIntWallFloor.Q_flow
- -2 8.7707216207513738E-01 0 0
+ -2 9.0485264270859034E-01 0 0
6 1280 # building.thermalZone[1].ROM.resIntWallFloor.dT
-2 665 0 0
6 1280 # building.thermalZone[1].ROM.resIntWallFloor.G
- -2 -4.4499194355037162E+02 0 0
+ -2 -4.5899953541803598E+02 0 0
6 1280 # building.thermalZone[1].ROM.resFloorWin.Q_flow
- -2 -2.2249597177518581E+00 0 0
+ -2 -2.2949976770901799E+00 0 0
6 1280 # building.thermalZone[1].ROM.resFloorWin.dT
-2 200 0 0
6 1280 # building.thermalZone[1].ROM.resFloorWin.G
- -2 2.7469251756825474E+02 0 1.0000000000000000E+100
+ -2 2.7470107715895091E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].ROM.roof.T
- -2 -1.3173891258867784E+03 0 0
+ -2 -1.3458497649513820E+03 0 0
6 388 # building.thermalZone[1].ROM.roof.Q_flow
-2 1 1 1.0000000000000000E+100
6 258 # building.thermalZone[1].ROM.roofRC.n
@@ -13248,53 +13223,53 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ROM.roofRC.CExt[1]
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].ROM.roofRC.T_start
- -2 1.5469807616109520E+03 0 0
+ -2 1.5811584743553033E+03 0 0
6 388 # building.thermalZone[1].ROM.roofRC.port_a.Q_flow
-2 4.8438561831898265E+07 0 0
6 256 # building.thermalZone[1].ROM.roofRC.thermCapExt[1].C
- -2 2.8924651004822067E+02 0 1.0000000000000000E+100
+ -2 2.8956949148951651E+02 0 1.0000000000000000E+100
2 272 # building.thermalZone[1].ROM.roofRC.thermCapExt[1].T
- -2 4.7398524448548045E-06 0 0
+ -2 4.8578797657234185E-06 0 0
3 256 # building.thermalZone[1].ROM.roofRC.thermCapExt[1].der(T)
- -2 4.7398524448548036E-06 0 0
+ -2 4.8578797657234185E-06 0 0
6 264 # building.thermalZone[1].ROM.roofRC.thermCapExt[1].der_T
- -2 2.2959163572417356E+02 0 0
+ -2 2.3530870940392128E+02 0 0
6 388 # building.thermalZone[1].ROM.roofRC.thermCapExt[1].port.Q_flow
- -2 2.7412675231884764E-01 0 0
+ -2 2.8018308193120756E-01 0 0
6 1280 # building.thermalZone[1].ROM.roofRC.thermResExt[1].dT
-2 1.7720113858002030E-04 0 0
6 1280 # building.thermalZone[1].ROM.roofRC.thermResExt[1].R
- -2 1.4553992479965908E+01 0 0
+ -2 1.4868414330565626E+01 0 0
6 1280 # building.thermalZone[1].ROM.roofRC.thermResExtRem.dT
-2 1.1047603319307143E-02 0 0
6 1280 # building.thermalZone[1].ROM.roofRC.thermResExtRem.R
- -2 -4.6486430792442991E+02 0 0
+ -2 -4.5828162747282340E+02 0 0
6 1280 # building.thermalZone[1].ROM.convRoof.Q_flow
- -2 -2.0560119766670937E+00 0 0
+ -2 -2.0268979543247383E+00 0 0
6 1280 # building.thermalZone[1].ROM.convRoof.dT
-2 2.2610000000000002E+02 0 0
6 1280 # building.thermalZone[1].ROM.hConRoof_const.k
- -2 -8.0599434555015910E+02 0 0
+ -2 -8.3928404265860217E+02 0 0
6 1280 # building.thermalZone[1].ROM.resIntRoof.Q_flow
- -2 -1.2120215722558783E+00 0 0
+ -2 -1.2620812671557928E+00 0 0
6 1280 # building.thermalZone[1].ROM.resIntRoof.dT
-2 665 0 0
6 1280 # building.thermalZone[1].ROM.resIntRoof.G
- -2 -3.7800206151422344E+02 0 0
+ -2 -3.8755381052859548E+02 0 0
6 1280 # building.thermalZone[1].ROM.resRoofWin.Q_flow
- -2 -1.8900103075711172E+00 0 0
+ -2 -1.9377690526429774E+00 0 0
6 1280 # building.thermalZone[1].ROM.resRoofWin.dT
-2 200 0 0
6 1280 # building.thermalZone[1].ROM.resRoofWin.G
- -2 -2.2274135777019268E+02 0 0
+ -2 -2.3755703525738966E+02 0 0
6 1280 # building.thermalZone[1].ROM.resRoofFloor.Q_flow
- -2 -3.3494941018074087E-01 0 0
+ -2 -3.5722862444720249E-01 0 0
6 1280 # building.thermalZone[1].ROM.resRoofFloor.dT
-2 665 0 0
6 1280 # building.thermalZone[1].ROM.resRoofFloor.G
- -2 7.2825590650827223E+01 0 0
+ -2 7.1457252977090491E+01 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallRoof.Q_flow
- -2 1.0951216639222139E-01 0 0
+ -2 1.0745451575502329E-01 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallRoof.dT
-2 665 0 0
6 1280 # building.thermalZone[1].ROM.resExtWallRoof.G
@@ -13372,7 +13347,7 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].humanSenHeaDependent.radiativeHeat.T_ref
-2 0 0 0
6 256 # building.thermalZone[1].humanSenHeaDependent.radiativeHeat.alpha
- -2 2.9411349035644821E+02 0 1.0000000000000000E+100
+ -2 2.9441843189884889E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].humanSenHeaDependent.radiativeHeat.port.T
-2 9.7999999999999998E-01 0 0
6 256 # building.thermalZone[1].humanSenHeaDependent.radConvertor.eps
@@ -13386,9 +13361,9 @@ double initialValue(11451,6)
6 258 # building.thermalZone[1].humanSenHeaDependent.radConvertor.radCalcMethod
-2 8 0 0
6 1280 # building.thermalZone[1].humanSenHeaDependent.radConvertor.A_in_internal
- -2 -1.7130987205957791E+02 0 0
+ -2 -1.6943114969856146E+02 0 0
6 388 # building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow
- -2 -1.7130987205957791E+02 0 0
+ -2 -1.6943114969856146E+02 0 0
6 388 # building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow
-2 4 0 0
6 256 # building.thermalZone[1].humanSenHeaDependent.gain.k
@@ -13410,9 +13385,9 @@ double initialValue(11451,6)
1 1306 # building.thermalZone[1].humanSenHeaDependent.productHeatOutput.significantDigits
-2 2 0 1.0000000000000000E+100
6 770 # building.thermalZone[1].humanSenHeaDependent.productHeatOutput.nu
- -2 8.5654936029788956E+01 0 0
+ -2 8.4715574849280728E+01 0 0
6 1280 # building.thermalZone[1].humanSenHeaDependent.productHeatOutput.u[2]
- -2 3.4261974411915583E+02 0 0
+ -2 3.3886229939712291E+02 0 0
6 1280 # building.thermalZone[1].humanSenHeaDependent.productHeatOutput.y
-2 5.0000000000000000E-01 0 0
6 1280 # building.thermalZone[1].humanSenHeaDependent.gainConv.k
@@ -13426,7 +13401,7 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].humanSenHeaDependent.specificHeatPerPerson
-2 0 0 0
6 388 # building.thermalZone[1].humanSenHeaDependent.temperatureSensor.port.Q_flow
- -2 1.8426648777206594E+01 0 0
+ -2 1.8726572525772440E+01 0 0
6 256 # building.thermalZone[1].humanSenHeaDependent.to_degC.y
-2 0 0 0
6 388 # building.thermalZone[1].humanSenHeaDependent.TRoom.Q_flow
@@ -13458,7 +13433,7 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].machinesSenHea.radiativeHeat.T_ref
-2 0 0 0
6 256 # building.thermalZone[1].machinesSenHea.radiativeHeat.alpha
- -2 2.9252443783251914E+02 0 1.0000000000000000E+100
+ -2 2.9287642983299389E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].machinesSenHea.radiativeHeat.port.T
-2 9.7999999999999998E-01 0 0
6 256 # building.thermalZone[1].machinesSenHea.radConvertor.eps
@@ -13522,7 +13497,7 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].lights.radiativeHeat.T_ref
-2 0 0 0
6 256 # building.thermalZone[1].lights.radiativeHeat.alpha
- -2 2.9025148307102563E+02 0 1.0000000000000000E+100
+ -2 2.9061178875937856E+02 0 1.0000000000000000E+100
6 292 # building.thermalZone[1].lights.radiativeHeat.port.T
-2 9.7999999999999998E-01 0 0
6 256 # building.thermalZone[1].lights.radConvertor.eps
@@ -14864,19 +14839,19 @@ double initialValue(11451,6)
6 256 # building.thermalZone[1].ventCont.winterReduction[3]
-2 1 0 0
6 256 # building.thermalZone[1].ventCont.userACH
- -2 -2.5966612760864791E+00 0 0
+ -2 -2.4466996448236102E+00 0 0
6 256 # building.thermalZone[1].ventCont.dToh
-2 0 0 0
6 256 # building.thermalZone[1].ventCont.overheatingACH
- -2 -1.3095597376196224E+00 0 0
+ -2 -1.3095591285467745E+00 0 0
6 256 # building.thermalZone[1].ventCont.dTamb
- -2 8.3308183666264315E-02 0 0
+ -2 8.3308610017257936E-02 0 0
6 256 # building.thermalZone[1].ventCont.dTmin
- -2 2.6664654693301149E-01 0 0
+ -2 2.6664688801380637E-01 0 0
6 256 # building.thermalZone[1].ventCont.redFac
-2 0 0 0
6 256 # building.thermalZone[1].ventCont.summerACH
- -2 4.6664654693301150E-01 0 0
+ -2 4.6664688801380638E-01 0 0
6 256 # building.thermalZone[1].ventCont.y
-2 2 0 0
6 258 # building.thermalZone[1].ventCont.optimalTemp.nin
@@ -14884,9 +14859,9 @@ double initialValue(11451,6)
6 258 # building.thermalZone[1].ventCont.optimalTemp.nout
-2 5.0000000000000000E-01 0 0
6 256 # building.thermalZone[1].ventCont.optimalTemp.u[2]
- -2 2.9276997132937953E+02 0 0
+ -2 2.9276997181541964E+02 0 0
6 256 # building.thermalZone[1].ventCont.optimalTemp.y[1]
- -2 2.9676997132937953E+02 0 0
+ -2 2.9676997181541964E+02 0 0
6 256 # building.thermalZone[1].ventCont.optimalTemp.y[2]
-1 2 0 0
1 280 # building.thermalZone[1].ventCont.optimalTemp.cat
@@ -14908,9 +14883,9 @@ double initialValue(11451,6)
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG.x_start[1]
-2 2.9314999999999998E+02 0 0
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG.y_start
- -2 2.8080705717658253E+02 0 0
+ -2 2.8080705914301154E+02 0 0
2 1296 # building.thermalZone[1].ventCont.dEMA.ExpAVG.x[1]
- -2 -3.0422784586704726E-05 0 0
+ -2 -3.0422795966502241E-05 0 0
3 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG.der(x[1])
-2 1 0 0
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG.alpha
@@ -14924,7 +14899,7 @@ double initialValue(11451,6)
6 1345 # building.thermalZone[1].ventCont.dEMA.sampler.sampleTrigger
-2 0 0 0
6 1353 # building.thermalZone[1].ventCont.dEMA.sampler.firstTrigger
- -2 2.7398308183666262E+02 0 0
+ -2 2.7398308610017256E+02 0 0
6 1344 # building.thermalZone[1].ventCont.dEMA.sampler.y
-1 3.4560000000000000E+05 0 0
1 280 # building.thermalZone[1].ventCont.dEMA.period
@@ -14944,9 +14919,9 @@ double initialValue(11451,6)
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG1.x_start[1]
-2 2.9314999999999998E+02 0 0
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG1.y_start
- -2 2.8763103251650244E+02 0 0
+ -2 2.8763103218585053E+02 0 0
2 1296 # building.thermalZone[1].ventCont.dEMA.ExpAVG1.x[1]
- -2 -3.9490598031943929E-05 0 0
+ -2 -3.9490584738651531E-05 0 0
3 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG1.der(x[1])
-2 1 0 0
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG1.alpha
@@ -14954,19 +14929,19 @@ double initialValue(11451,6)
6 1280 # building.thermalZone[1].ventCont.dEMA.ExpAVG1.w
-1 2 0 0
1 1304 # building.thermalZone[1].ventCont.dEMA.gain.k
- -2 5.6161411435316506E+02 0 0
+ -2 5.6161411828602309E+02 0 0
6 1280 # building.thermalZone[1].ventCont.dEMA.gain.y
- -2 2.7398308183666262E+02 0 0
+ -2 2.7398308610017256E+02 0 0
6 256 # building.thermalZone[1].ventCont.Tamb_mean
-2 2.9314999999999998E+02 0 0
6 256 # building.thermalZone[1].ventCont.Tmean_start
- -2 2.9476997132937953E+02 0 1.0000000000000000E+100
+ -2 2.9476997181541964E+02 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].ventCont.Top
- -2 2.7555000000000001E+02 0 1.0000000000000000E+100
+ -2 2.7554999999999995E+02 0 1.0000000000000000E+100
6 256 # building.thermalZone[1].mixedTemp.mixedTemperatureOut
- -2 -1.6619511801759138E+03 0 0
+ -2 -1.6930542802407622E+03 0 0
6 256 # building.thermalZone[1].airExc.Q_flow
- -2 -1.6026648777206560E+01 0 0
+ -2 -1.6326572525772463E+01 0 0
6 256 # building.thermalZone[1].airExc.dT
-2 640 0 0
6 256 # building.thermalZone[1].airExc.V
@@ -14974,7 +14949,7 @@ double initialValue(11451,6)
1 280 # building.thermalZone[1].airExc.c
-1 1.2500000000000000E+00 0 1.0000000000000000E+100
1 280 # building.thermalZone[1].airExc.rho
- -2 4.6664654693301150E-01 0 0
+ -2 4.6664688801380638E-01 0 0
6 256 # building.thermalZone[1].airExc.ventRate
-2 3600 0 0
6 1280 # building.thermalZone[1].airExc.hToS
@@ -15134,17 +15109,17 @@ double initialValue(11451,6)
1 1304 # building.thermalZone[1].HDifTilRoof[1].add.k1
-1 1 0 0
1 1304 # building.thermalZone[1].HDifTilRoof[1].add.k2
- -2 3.4261974411915583E+02 0 0
+ -2 3.3886229939712291E+02 0 0
6 256 # building.thermalZone[1].QIntGains_flow[3]
- -2 3.9620725590579797E-01 0 0
+ -2 4.0476684660191931E-01 0 0
6 1280 # building.thermalZone[1].theConRoof.dT
-2 2.8614999999999998E+02 0 1.0000000000000000E+100
6 1284 # building.thermalZone[1].preTemFloor.port.T
-2 2.8614999999999998E+02 0 0
6 1280 # building.thermalZone[1].preTemFloor.T
- -2 3.7068286790550603E-01 0 0
+ -2 3.7857114763121363E-01 0 0
6 1280 # building.thermalZone[1].theConWall.dT
- -2 2.3773120407849406E+00 0 0
+ -2 2.4326641382386760E+00 0 0
6 1280 # building.thermalZone[1].theConWin.dT
-2 0 0 0
6 1280 # building.thermalZone[1].solRadRoof[1].y
@@ -15240,7 +15215,7 @@ double initialValue(11451,6)
6 257 # building.zonTem[1].comHea.lim.strict
-2 2 1 4
6 258 # building.zonTem[1].comHea.lim.homotopyType
- -2 5.7335122279340567E-01 0 0
+ -2 2.7342747422756020E-01 0 0
6 256 # building.zonTem[1].comHea.lim.u
-2 1 0 0
6 256 # building.zonTem[1].comHea.intDisCom.k
@@ -15252,9 +15227,9 @@ double initialValue(11451,6)
6 258 # building.zonTem[1].comHea.intDisCom.initType
-2 0 0 0
6 256 # building.zonTem[1].comHea.intDisCom.y_start
- -2 2.5748184973538553E+05 0 0
+ -2 2.0304059929251790E+05 0 0
2 272 # building.zonTem[1].comHea.intDisCom.y
- -2 5.7335122279340567E-01 0 0
+ -2 2.7342747422756020E-01 0 0
3 256 # building.zonTem[1].comHea.intDisCom.der(y)
-2 0 0 0
6 769 # building.zonTem[1].comHea.intDisCom.local_reset
@@ -15278,7 +15253,7 @@ double initialValue(11451,6)
6 257 # building.zonTem[1].comCool.lim.strict
-2 2 1 4
6 258 # building.zonTem[1].comCool.lim.homotopyType
- -2 -4.5733512227934057E+00 0 0
+ -2 -4.2734274742275602E+00 0 0
6 256 # building.zonTem[1].comCool.lim.u
-2 1 0 0
6 256 # building.zonTem[1].comCool.intDisCom.k
@@ -15314,7 +15289,7 @@ double initialValue(11451,6)
6 257 # building.zonTem[1].calCtrl.lim.strict
-2 2 1 4
6 258 # building.zonTem[1].calCtrl.lim.homotopyType
- -2 2.5733512227934057E+00 0 0
+ -2 2.2734274742275602E+00 0 0
6 256 # building.zonTem[1].calCtrl.lim.u
-2 1 0 0
6 256 # building.zonTem[1].calCtrl.intDisCom.k
@@ -15326,9 +15301,9 @@ double initialValue(11451,6)
6 258 # building.zonTem[1].calCtrl.intDisCom.initType
-2 0 0 0
6 256 # building.zonTem[1].calCtrl.intDisCom.y_start
- -2 6.0305814661149599E+05 0 0
+ -2 5.4861689616862545E+05 0 0
2 272 # building.zonTem[1].calCtrl.intDisCom.y
- -2 2.5733512227934057E+00 0 0
+ -2 2.2734274742275602E+00 0 0
3 256 # building.zonTem[1].calCtrl.intDisCom.der(y)
-2 0 0 0
6 769 # building.zonTem[1].calCtrl.intDisCom.local_reset
@@ -15372,7 +15347,7 @@ double initialValue(11451,6)
6 257 # building.zonTemOpe[1].comHea.lim.strict
-2 2 1 4
6 258 # building.zonTemOpe[1].comHea.lim.homotopyType
- -2 1.2359340758838471E+00 0 0
+ -2 9.0581935742449105E-01 0 0
6 256 # building.zonTemOpe[1].comHea.lim.u
-2 1 0 0
6 256 # building.zonTemOpe[1].comHea.intDisCom.k
@@ -15384,9 +15359,9 @@ double initialValue(11451,6)
6 258 # building.zonTemOpe[1].comHea.intDisCom.initType
-2 0 0 0
6 256 # building.zonTemOpe[1].comHea.intDisCom.y_start
- -2 3.1805294465342752E+05 0 0
+ -2 2.7267616819028667E+05 0 0
2 272 # building.zonTemOpe[1].comHea.intDisCom.y
- -2 1.2359340758838471E+00 0 0
+ -2 9.0581935742449105E-01 0 0
3 256 # building.zonTemOpe[1].comHea.intDisCom.der(y)
-2 0 0 0
6 769 # building.zonTemOpe[1].comHea.intDisCom.local_reset
@@ -15410,7 +15385,7 @@ double initialValue(11451,6)
6 257 # building.zonTemOpe[1].comCool.lim.strict
-2 2 1 4
6 258 # building.zonTemOpe[1].comCool.lim.homotopyType
- -2 -5.2359340758838471E+00 0 0
+ -2 -4.9058193574244910E+00 0 0
6 256 # building.zonTemOpe[1].comCool.lim.u
-2 1 0 0
6 256 # building.zonTemOpe[1].comCool.intDisCom.k
@@ -15446,7 +15421,7 @@ double initialValue(11451,6)
6 257 # building.zonTemOpe[1].calCtrl.lim.strict
-2 2 1 4
6 258 # building.zonTemOpe[1].calCtrl.lim.homotopyType
- -2 3.2359340758838471E+00 0 0
+ -2 2.9058193574244910E+00 0 0
6 256 # building.zonTemOpe[1].calCtrl.lim.u
-2 1 0 0
6 256 # building.zonTemOpe[1].calCtrl.intDisCom.k
@@ -15458,9 +15433,9 @@ double initialValue(11451,6)
6 258 # building.zonTemOpe[1].calCtrl.intDisCom.initType
-2 0 0 0
6 256 # building.zonTemOpe[1].calCtrl.intDisCom.y_start
- -2 6.6365294465343386E+05 0 0
+ -2 6.1827616819028463E+05 0 0
2 272 # building.zonTemOpe[1].calCtrl.intDisCom.y
- -2 3.2359340758838471E+00 0 0
+ -2 2.9058193574244910E+00 0 0
3 256 # building.zonTemOpe[1].calCtrl.intDisCom.der(y)
-2 0 0 0
6 769 # building.zonTemOpe[1].calCtrl.intDisCom.local_reset
@@ -15674,7 +15649,7 @@ double initialValue(11451,6)
6 256 # DHW.calcmFlow.m_flow_in
-2 2.8314999999999998E+02 0 0
6 256 # DHW.calcmFlow.TSet
- -2 3.2784892935469838E+02 0 0
+ -2 3.2806724629536694E+02 0 0
6 256 # DHW.calcmFlow.TIs
-2 0 0 0
6 256 # DHW.calcmFlow.division.u1
@@ -15740,7 +15715,7 @@ double initialValue(11451,6)
6 258 # DHW.integralKPICalculator.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # DHW.integralKPICalculator.integrator2.y_start
- -2 4.2738428537688360E+07 0 0
+ -2 4.5555927914718270E+07 0 0
2 272 # DHW.integralKPICalculator.integrator2.y
-2 0 0 0
3 256 # DHW.integralKPICalculator.integrator2.der(y)
@@ -19480,7 +19455,7 @@ double initialValue(11451,6)
6 258 # electrical.generation.intKPICalPElePV.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # electrical.generation.intKPICalPElePV.integrator2.y_start
- -2 3.1802740132250469E+07 0 0
+ -2 3.1802475986385055E+07 0 0
2 272 # electrical.generation.intKPICalPElePV.integrator2.y
-2 0 0 0
3 256 # electrical.generation.intKPICalPElePV.integrator2.der(y)
@@ -19520,9 +19495,9 @@ double initialValue(11451,6)
6 258 # electrical.distribution.eneKPILoa.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # electrical.distribution.eneKPILoa.integrator2.y_start
- -2 1.5062588872543545E+09 0 0
+ -2 9.7845261647802103E+08 0 0
2 272 # electrical.distribution.eneKPILoa.integrator2.y
- -2 3.4639210586638537E+03 0 0
+ -2 3.6568533163153807E+03 0 0
3 256 # electrical.distribution.eneKPILoa.integrator2.der(y)
-2 0 0 0
6 769 # electrical.distribution.eneKPILoa.integrator2.local_reset
@@ -19540,7 +19515,7 @@ double initialValue(11451,6)
6 258 # electrical.distribution.eneKPIGen.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # electrical.distribution.eneKPIGen.integrator2.y_start
- -2 3.7040604586458312E+02 0 0
+ -2 4.9967536734272231E+05 0 0
2 272 # electrical.distribution.eneKPIGen.integrator2.y
-2 0 0 0
3 256 # electrical.distribution.eneKPIGen.integrator2.der(y)
@@ -19550,7 +19525,7 @@ double initialValue(11451,6)
6 768 # electrical.distribution.eneKPIGen.integrator2.local_set
-2 6 0 0
6 258 # electrical.distribution.multiSumElec.nPorts
- -2 3.4639210586638537E+03 0 0
+ -2 3.6568533163153807E+03 0 0
6 260 # electrical.distribution.multiSumElec.internalElectricalPinOut.PElecLoa
-2 0 0 0
6 260 # electrical.distribution.multiSumElec.internalElectricalPinIn[1].PElecLoa
@@ -19574,7 +19549,7 @@ double initialValue(11451,6)
6 257 # electrical.distribution.realToElecConJoi.use_souLoa
-2 1 0 0
6 257 # electrical.distribution.realToElecConJoi.use_souGen
- -2 3.4639210586638537E+03 0 0
+ -2 3.6568533163153807E+03 0 0
6 256 # electrical.distribution.add.y
-1 1 0 0
1 280 # electrical.distribution.add.k1
@@ -19604,7 +19579,7 @@ double initialValue(11451,6)
6 260 # electrical.control.useProBus.intGains[2]
-2 0 0 0
6 260 # electrical.control.useProBus.intGains[3]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # electrical.control.buiMeaBus.TZoneOpeMea[1]
-2 9.1169226331583686E-01 0 0
6 260 # electrical.control.weaBus.lat
@@ -19618,11 +19593,11 @@ double initialValue(11451,6)
6 260 # electrical.weaBus.lon
-2 0 0 1.0000000000000000E+100
6 260 # electrical.weaBus.alt
- -2 3.3155317535351705E+03 0 0
+ -2 3.5084640111866993E+03 0 0
6 260 # electrical.internalElectricalPin[1].PElecLoa
-2 0 0 0
6 260 # electrical.internalElectricalPin[1].PElecGen
- -2 1.4838930512868336E+02 0 0
+ -2 1.4838930512868114E+02 0 0
6 260 # electrical.internalElectricalPin[2].PElecLoa
-2 0 0 0
6 260 # electrical.internalElectricalPin[2].PElecGen
@@ -19638,7 +19613,7 @@ double initialValue(11451,6)
6 260 # electrical.useProBus.intGains[2]
-2 0 0 0
6 260 # electrical.useProBus.intGains[3]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # electrical.buiMeaBus.TZoneOpeMea[1]
-2 0 0 0
6 1284 # electrical.zeroTraLoad.internalElectricalPin.PElecLoa
@@ -19802,15 +19777,15 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.dpDem_nominal[1]
-2 4000 0 0
6 256 # hydraulic.generation.dpDemOld_design[1]
- -2 -4.1131967696537131E-01 -100000 100000
+ -2 -4.1131967696537136E-01 -100000 100000
6 452 # hydraulic.generation.portGen_out[1].m_flow
-2 3.0296293317636091E+05 0 1.0000000000000000E+08
6 324 # hydraulic.generation.portGen_out[1].p
- -2 1.6423796385049919E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7532397365747156E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.generation.portGen_out[1].h_outflow
- -2 4.1131967696537131E-01 -100000 100000
+ -2 4.1131967696537136E-01 -100000 100000
6 452 # hydraulic.generation.portGen_in[1].m_flow
- -2 1.1989215391126162E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.1981011805297062E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.generation.portGen_in[1].h_outflow
-2 9.1169226331583686E-01 0 0
6 260 # hydraulic.generation.weaBus.lat
@@ -19944,16 +19919,20 @@ double initialValue(11451,6)
1 280 # hydraulic.generation.TSoilConst
-2 1 0 0
6 257 # hydraulic.generation.use_rev
- -2 1 0 0
- 6 261 # hydraulic.generation.defCtrl.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.defCtrl.sigBus.iceFacChiMea
+ -1 5.0000000000000000E-01 0 0
+ 1 280 # hydraulic.generation.defCtrl.minIceFac
+ -2 5.0000000000000000E-01 0 0
+ 6 256 # hydraulic.generation.defCtrl.hys.uLow
+ -1 9.8999999999999999E-01 0 0
+ 1 280 # hydraulic.generation.defCtrl.hys.uHigh
+ -1 1 0 0
+ 1 281 # hydraulic.generation.defCtrl.hys.pre_y_start
-2 1 0 0
- 6 257 # hydraulic.generation.defCtrl.hea
- -2 1 0 0
- 6 257 # hydraulic.generation.defCtrl.booCon.k
- -2 1 0 0
- 6 257 # hydraulic.generation.defCtrl.booCon.y
+ 6 321 # hydraulic.generation.defCtrl.hys.y
+ -1 1.0000000000000000E-10 0 0
+ 1 280 # hydraulic.generation.defCtrl.derIceFac_min
-1 2.9114999999999998E+02 0 1.0000000000000000E+100
1 280 # hydraulic.generation.TConCoo_nominal
-1 3.0314999999999998E+02 0 1.0000000000000000E+100
@@ -19966,13 +19945,13 @@ double initialValue(11451,6)
6 257 # hydraulic.generation.heatPump.allowFlowReversal2
-2 3.0462958879342559E+05 0 1.0000000000000000E+08
6 324 # hydraulic.generation.heatPump.port_a1.p
- -2 1.6423093865523266E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7531964089410283E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.generation.heatPump.port_a1.h_outflow
-2 3.0444440483597398E+05 0 1.0000000000000000E+08
6 324 # hydraulic.generation.heatPump.port_b1.p
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 260 # hydraulic.generation.heatPump.port_a2.p
- -2 2.7448268304077363E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.5333894130648565E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.generation.heatPump.port_a2.h_outflow
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 260 # hydraulic.generation.heatPump.port_b2.p
@@ -19990,9 +19969,9 @@ double initialValue(11451,6)
6 320 # hydraulic.generation.heatPump.dp1
-2 0 0 0
6 256 # hydraulic.generation.heatPump.dp2
- -2 3.1045982500538315E+02 1 10000
+ -2 3.1042061092398211E+02 1 10000
6 1280 # hydraulic.generation.heatPump.state_a1_inflow.T
- -2 3.1240381545184010E+02 1 10000
+ -2 3.1505343538658497E+02 1 10000
6 1280 # hydraulic.generation.heatPump.state_b1_inflow.T
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.state_a2_inflow.p
@@ -20008,26 +19987,16 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.state_b2_inflow.X[2]
-2 1 0 0
6 257 # hydraulic.generation.heatPump.refCyc.use_rev
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.sigBus.iceFacChiMea
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.swiQEva.u2
- -2 0 0 0
+ -2 -4.4484889285784793E+03 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.swiQEva.u1
+ -2 3.9875000000000005E+03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.swiQEva.u3
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.swiQCon.u2
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.swiQCon.u3
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.swiPEle.u2
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.swiPEle.u3
- -2 1 0 0
- 6 1281 # hydraulic.generation.heatPump.refCyc.pasTrhModSet.u
- -2 1 0 0
- 6 1281 # hydraulic.generation.heatPump.refCyc.pasTrhModSet.y
+ -2 7.9529627688211658E+03 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.swiQCon.u1
+ -2 3.5044738402426865E+03 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.swiPEle.u1
-2 1 0 0
6 257 # hydraulic.generation.heatPump.refCyc.allowDifferentDeviceIdentifiers
-2 3.7755713589226020E+03 0 0
@@ -20036,11 +20005,9 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal
-2 2.7114999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.iceFacChiMea
- -2 -4.4408920985006262E-16 0 1
+ -2 6.0204761020320841E-01 0 1
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac
-2 0 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.use_varDen
@@ -20066,29 +20033,29 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatFor_internal.y
-2 -2.3999999999999770E-07 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatNat_internal.y
+ -2 1 0 0
+ 6 321 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2
-2 9.2246316462868075E-08 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.y
-2 1.2702317776936932E-03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u2
- -2 -6.4884226907008305E-18 0 0
+ -2 8.6702183015772444E-03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u3
+ -2 1.2702317776936932E-03 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y
-2 15 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.k
-2 1.3836947469430210E-06 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.y
- -2 -9.9821887549243545E-18 0 0
+ -2 1.3338797387041915E-02 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u1
-2 6.5000000000000002E-01 0 0
6 320 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u2
-2 -2.9985007496251872E-06 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.k
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u2
-2 4.8414427499394820E-02 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.k
- -2 1.0000000000000004E+00 0 0
+ -2 3.9795238979679154E-01 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.y
-2 1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.u1
@@ -20108,9 +20075,9 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.conDen.y
-2 2.0655000000000001E+01 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce_max
- -2 2.0655000000000008E+01 0 2.0655000000000001E+01
+ -2 8.2197066112527288E+00 0 2.0655000000000001E+01
2 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce
- -2 0 0 0
+ -2 1.2702317776936932E-03 0 0
3 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.der(mIce)
-1 1.7999999999999999E-01 0 0
1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.corCoeffSev
@@ -20156,21 +20123,19 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon
-2 1.0145400000000000E+03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.iceFacChiMea
-2 -1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k1
-2 1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k2
- -2 -7.4963765746329655E+03 0 0
+ -2 -7.3889321262765025E+03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.proRedQEva.u2
-2 1.0198759001371853E+04 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QHea_flow_nominal
-2 1 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.useInHeaPum
- -2 1.0807918157224123E+04 0 0
+ -2 1.0893405966519189E+04 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u2
-2 7.3915983827448228E-01 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFac
@@ -20186,7 +20151,7 @@ double initialValue(11451,6)
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.use_TEvaOutForTab
-2 1 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.use_TConOutForTab
- -2 4.4801427392507194E+03 0 0
+ -2 4.7411583513839705E+03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.y
-2 0 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableOnFile
@@ -20304,7 +20269,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u_max[2]
-2 4 0 0
6 1282 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID.id
- -2 1.4621895830344982E+04 0 0
+ -2 1.4737551206717473E+04 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.y
-2 0 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableOnFile
@@ -20868,14 +20833,12 @@ double initialValue(11451,6)
1 281 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TEvaOutForOpeEnv
-1 1 0 0
1 281 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TConOutForOpeEnv
- -1 0 0 0
+ -1 2000 0 0
1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle_nominal
-2 3.0314999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TCon_nominal
-2 2.9114999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TEva_nominal
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.iceFacChiMea
-2 1 0 1
@@ -20884,40 +20847,26 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpCon
-2 1.0145400000000000E+03 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpEva
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCon_flow
-2 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.iceFacChiMea
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.hea
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QEva_flow
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u1
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u2
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.y
-2 -1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k1
-2 1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k2
-2 1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y
-2 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCoo_flow_nominal
-2 0 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.useInChi
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.k
- -2 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.y
+ -1 6.2500000000000000E+00 0 0
+ 1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.COP_constant
+ -1 2.7500000000000002E-01 0 0
+ 1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.y_constant
+ -2 550 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k
+ -2 -3.4375000000000005E+03 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k
-2 3.7755713589226020E+03 0 0
6 256 # hydraulic.generation.heatPump.PEle_nominal
-2 1 0 0
@@ -21062,7 +21011,7 @@ double initialValue(11451,6)
6 257 # hydraulic.generation.heatPump.calEff
-1 5.0000000000000003E-02 0 0
1 280 # hydraulic.generation.heatPump.limWarSca
- -2 3.3290599497672726E-12 0 0
+ -2 -4.4484889285784793E+03 0 0
6 256 # hydraulic.generation.heatPump.Q2_flow
-2 1 0 0
6 257 # hydraulic.generation.heatPump.con.allowFlowReversal
@@ -21184,7 +21133,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.generation.heatPump.con.vol.dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.medium.d
- -2 3.1240213638987393E+02 1 10000
+ -2 3.1505239983128649E+02 1 10000
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.medium.X[1]
@@ -21192,13 +21141,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.medium.MM
- -2 3.9252136389873954E+01 0 0
+ -2 4.1902399831286516E+01 0 0
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.medium.T_degC
-2 3.0444440483597401E+00 0 0
6 1344 # hydraulic.generation.heatPump.con.vol.dynBal.medium.p_bar
- -2 1.6649800799377821E+06 0 0
+ -2 1.7773978039747754E+06 0 0
2 1296 # hydraulic.generation.heatPump.con.vol.dynBal.U
- -2 -3.1101586335710177E+01 0 0
+ -2 -1.8167748426636535E+01 0 0
3 1280 # hydraulic.generation.heatPump.con.vol.dynBal.der(U)
-2 1.0138041550338135E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.m
@@ -21206,15 +21155,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.mb_flow
- -2 -3.3426431689268647E+03 0 0
+ -2 -7.9711305172478023E+03 0 0
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.Hb_flow
-2 1.0182989264953641E-02 0 0
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.CSen
- -2 6.4208773466463143E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 6.4141287540999489E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.ports_H_flow[1]
- -2 -6.7551416635390007E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -7.2112418058247291E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.generation.heatPump.con.vol.dynBal.cp_default
@@ -21242,7 +21191,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.con.preDro.m_flow_small
-2 0 0 0
6 769 # hydraulic.generation.heatPump.con.preDro.show_T
- -2 1.8518395745163187E+02 0 0
+ -2 1.8518395745163190E+02 0 0
6 320 # hydraulic.generation.heatPump.con.preDro.dp
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.con.preDro._m_flow_start
@@ -21302,7 +21251,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.con.preHea.alpha
-2 0 0 0
6 388 # hydraulic.generation.heatPump.con.senT.port.Q_flow
- -2 3.1240213638987393E+02 1 10000
+ -2 3.1505239983128649E+02 1 10000
6 256 # hydraulic.generation.heatPump.con.T
-2 1 0 0
6 257 # hydraulic.generation.heatPump.eva.allowFlowReversal
@@ -21460,11 +21409,11 @@ double initialValue(11451,6)
3 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.der(Xi[1])
-2 1.2000000000000000E+00 0 100000
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.d
- -2 2.7555318105158727E+02 1 10000
+ -2 2.7346910928169274E+02 1 10000
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.T
-2 9.8999999999999999E-01 0 1
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]
- -2 -5.6989231695922637E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.9103605869351435E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.u
-2 2.8879594599429981E+02 0 1.0000000000000000E+07
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.R_s
@@ -21472,15 +21421,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.MM
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.state.p
- -2 2.4031810515872962E+00 0 0
+ -2 3.1910928169276076E-01 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.T_degC
-2 1.0132500000000000E+00 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.p_bar
- -2 2.4031810515872833E+00 0 0
+ -2 3.1910928169275188E-01 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.medium.dT
- -2 -3.6080640367252883E+06 0 0
+ -2 -3.7419278771089269E+06 0 0
2 1296 # hydraulic.generation.heatPump.eva.vol.dynBal.U
- -2 -6.8108304151940864E+00 0 0
+ -2 6.8282537942886847E+00 0 0
3 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.der(U)
-2 6.3311329690788433E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.m
@@ -21490,7 +21439,7 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.mb_flow
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.mbXi_flow[1]
- -2 -6.8108304151974153E+00 0 0
+ -2 4.4553171823727680E+03 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.Hb_flow
-2 5.2759441408990369E+01 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.fluidVolume
@@ -21498,7 +21447,7 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.CSen
-2 5.7919401304273488E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.ports_H_flow[1]
- -2 -5.7926212134688685E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.3464084121900720E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.ports_H_flow[2]
-2 2.1103776563596150E-02 0 0
6 1280 # hydraulic.generation.heatPump.eva.vol.dynBal.ports_mXi_flow[1, 1]
@@ -21612,10 +21561,8 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.eva.preHea.alpha
-2 0 0 0
6 388 # hydraulic.generation.heatPump.eva.senT.port.Q_flow
- -2 2.7555318105158727E+02 1 10000
+ -2 2.7346910928169274E+02 1 10000
6 256 # hydraulic.generation.heatPump.eva.T
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.sigBus.iceFacChiMea
-2 2.1103776563596148E+00 0 0
@@ -21684,8 +21631,6 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.ySet
-2 1 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.yOut
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.iceFacChiMea
-2 1 0 0
@@ -21754,6 +21699,8 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.dT
-2 1 0 0
6 257 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.isUppBou
+ -2 1 0 0
+ 6 321 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr
-2 1 0 0
6 258 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout
-2 3.4314999999999998E+02 0 0
@@ -21824,7 +21771,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.k1
-2 1 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.k2
- -2 -3.0747863610126046E+01 0 0
+ -2 -2.8097600168713484E+01 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.y
-2 1 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.k1
@@ -21932,7 +21879,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uHigh
-1 0 0 0
1 281 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.pre_y_start
- -2 -1.2403181051587296E+01 0 0
+ -2 -1.0319109281692761E+01 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u
-2 0 0 0
6 321 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y
@@ -21942,7 +21889,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uHigh
-1 0 0 0
1 281 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.pre_y_start
- -2 -5.7596818948412704E+01 0 0
+ -2 -5.9680890718307239E+01 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u
-2 0 0 0
6 321 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y
@@ -21958,7 +21905,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.k1
-2 1 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.k2
- -2 -2.7309825005383175E+01 0 0
+ -2 -2.7270610923982133E+01 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.y
-2 -1 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.k1
@@ -22008,10 +21955,6 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[1]
-2 70 -100 100
6 1280 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[2]
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u2
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.iceFacChiMea
-2 1 0 0
@@ -22130,8 +22073,6 @@ double initialValue(11451,6)
6 1354 # hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff
-2 1 0 0
6 1354 # hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.iceFacChiMea
-2 1 0 0
@@ -22208,7 +22149,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.hys.u
-2 1 0 0
6 321 # hydraulic.generation.heatPump.hys.y
- -2 3.1045982500538315E+02 0 0
+ -2 3.1042061092398211E+02 0 0
6 256 # hydraulic.generation.heatPump.senTConIn.y
-2 2.7554999999999995E+02 0 0
6 256 # hydraulic.generation.heatPump.senTEvaIn.y
@@ -22222,38 +22163,28 @@ double initialValue(11451,6)
1 281 # hydraulic.generation.heatPump.eff.hys.pre_y_start
-2 1 0 0
6 321 # hydraulic.generation.heatPump.eff.hys.y
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.eff.hea
- -2 0 0 1.0000000000000000E+100
- 6 256 # hydraulic.generation.heatPump.eff.EER
- -2 3.0197416371185570E-04 0 0
+ -2 2.8534954049785389E-04 0 0
6 256 # hydraulic.generation.heatPump.eff.invXReg.y
-2 3.7755713589226025E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.eff.invXReg.delta
- -2 3.3115415825911546E+03 0 0
+ -2 7.9529627688211658E+03 0 0
6 1280 # hydraulic.generation.heatPump.eff.copCom.u1
- -2 9.9999999999999900E-01 0 0
+ -2 2.2693742716796597E+00 0 0
6 1280 # hydraulic.generation.heatPump.eff.copCom.y
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.swi.u3
+ -2 2.2693742716796597E+00 0 0
+ 6 1280 # hydraulic.generation.heatPump.eff.swi.y
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.zer.k
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.zer.y
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.swiCoo.u1
- -2 1 0 0
- 6 1281 # hydraulic.generation.heatPump.eff.swiCoo.u2
- -2 0 0 0
- 6 1280 # hydraulic.generation.heatPump.eff.swiCoo.y
- -2 1 0 0
- 6 1281 # hydraulic.generation.heatPump.eff.swiHea.u2
-2 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.swiHea.u3
-2 0 0 0
6 1281 # hydraulic.generation.heatPump.eff.absQEva_flow.generateEvent
- -2 1 0 0
- 6 261 # hydraulic.generation.heatPump.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heatPump.sigBus.iceFacChiMea
-2 0 0 0
@@ -22286,11 +22217,9 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.TConCoo_nominal
-2 3.0314999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.TEvaCoo_nominal
- -2 1 0 0
- 6 257 # hydraulic.generation.heatPump.hea
-2 0 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.EER
- -2 9.9999999999999900E-01 0 1.0000000000000000E+100
+ -2 2.2693742716796597E+00 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.COP
-2 1 0 0
6 258 # hydraulic.generation.bou_sinkAir.nPorts
@@ -22380,9 +22309,9 @@ double initialValue(11451,6)
6 258 # hydraulic.generation.KPIWel.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.generation.KPIWel.integrator2.y_start
- -2 4.8836069016195947E+08 0 0
+ -2 5.1098049733009362E+08 0 0
2 272 # hydraulic.generation.KPIWel.integrator2.y
- -2 3.3115415825911577E+03 0 0
+ -2 3.5044738402426865E+03 0 0
3 256 # hydraulic.generation.KPIWel.integrator2.der(y)
-2 0 0 0
6 769 # hydraulic.generation.KPIWel.integrator2.local_reset
@@ -22408,9 +22337,9 @@ double initialValue(11451,6)
6 1281 # hydraulic.generation.pump.wrongEnergyMassBalanceConfiguration
-2 1 0 0
6 257 # hydraulic.generation.pump.allowFlowReversal
- -2 1.5610430782252323E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5594023610594124E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.generation.pump.port_a.h_outflow
- -2 1.5610430782252323E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5594023610594124E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.generation.pump.port_b.h_outflow
-2 0 0 1.0000000000000000E+100
6 256 # hydraulic.generation.pump.per.pressure.V_flow[1]
@@ -22538,17 +22467,17 @@ double initialValue(11451,6)
6 320 # hydraulic.generation.pump.y_actual
-2 3.9901709440125961E+00 0 0
6 320 # hydraulic.generation.pump.P
- -2 3.1045982500538315E+02 1 10000
+ -2 3.1042061092398211E+02 1 10000
6 260 # hydraulic.generation.pump.heatPort.T
-2 0 0 0
6 388 # hydraulic.generation.pump.heatPort.Q_flow
- -2 4.1314329145384862E-04 0 0
+ -2 4.1314329145384867E-04 0 0
6 320 # hydraulic.generation.pump.VMachine_flow
- -2 4.6295887934255852E+03 0 0
+ -2 4.6295887934255843E+03 0 0
6 320 # hydraulic.generation.pump.dpMachine
- -2 4.7934877453402158E-01 0 0
+ -2 4.7934877453402153E-01 0 0
6 320 # hydraulic.generation.pump.eta
- -2 6.8478396362003091E-01 0 1.0000000000000000E+100
+ -2 6.8478396362003080E-01 0 1.0000000000000000E+100
6 320 # hydraulic.generation.pump.etaHyd
-2 6.9999999999999996E-01 0 0
6 320 # hydraulic.generation.pump.etaMot
@@ -22684,7 +22613,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.generation.pump.vol.dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.d
- -2 3.1045982500538310E+02 1 10000
+ -2 3.1042061092398211E+02 1 10000
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.X[1]
@@ -22692,13 +22621,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.MM
- -2 3.7309825005383118E+01 0 0
+ -2 3.7270610923982133E+01 0 0
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.generation.pump.vol.dynBal.medium.p_bar
- -2 1.0550613059276766E+05 0 0
+ -2 1.0539523953410475E+05 0 0
2 1296 # hydraulic.generation.pump.vol.dynBal.U
- -2 -3.1148372776442557E+00 0 0
+ -2 -4.2524983442854142E-01 0 0
3 1280 # hydraulic.generation.pump.vol.dynBal.der(U)
-2 6.7586943668920896E-01 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.pump.vol.dynBal.m
@@ -22710,9 +22639,9 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.pump.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.generation.pump.vol.dynBal.CSen
- -2 6.4205658629185498E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 6.4140862291165060E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.pump.vol.dynBal.ports_H_flow[1]
- -2 -6.4208773466463143E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -6.4141287540999489E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.pump.vol.dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.generation.pump.vol.dynBal.cp_default
@@ -22744,7 +22673,7 @@ double initialValue(11451,6)
6 769 # hydraulic.generation.pump.preSou.show_T
-2 1 0 0
6 769 # hydraulic.generation.pump.preSou.show_V_flow
- -2 4.1314329145384862E-04 0 0
+ -2 4.1314329145384867E-04 0 0
6 1344 # hydraulic.generation.pump.preSou.V_flow
-2 0 0 0
6 1281 # hydraulic.generation.pump.preSou.control_m_flow
@@ -22890,11 +22819,11 @@ double initialValue(11451,6)
6 1282 # hydraulic.generation.pump.eff.nOri
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.pump.eff.rho
- -2 1.9126835521936980E+00 0 0
+ -2 1.9126835521936978E+00 0 0
6 1344 # hydraulic.generation.pump.eff.WFlo
-2 2.7931196608088169E+00 0 0
6 1344 # hydraulic.generation.pump.eff.WHyd
- -2 4.4680454329539021E-01 0 0
+ -2 4.4680454329539027E-01 0 0
6 1344 # hydraulic.generation.pump.eff.r_V
-2 1 0 0
6 1281 # hydraulic.generation.pump.eff.preSpe
@@ -23174,9 +23103,9 @@ double initialValue(11451,6)
6 258 # hydraulic.generation.KPIQHP.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.generation.KPIQHP.integrator2.y_start
- -2 5.4825690235533690E+08 0 0
+ -2 1.1819428641975813E+09 0 0
2 272 # hydraulic.generation.KPIQHP.integrator2.y
- -2 3.3115415825911546E+03 0 0
+ -2 7.9529627688211658E+03 0 0
3 256 # hydraulic.generation.KPIQHP.integrator2.der(y)
-2 0 0 0
6 769 # hydraulic.generation.KPIQHP.integrator2.local_reset
@@ -23224,17 +23153,17 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.senTGenOut.tau
-2 3 1 4
6 258 # hydraulic.generation.senTGenOut.initType
- -2 1.2171572041495111E+00 0 0
+ -2 1.2171572041495113E+00 0 0
6 1344 # hydraulic.generation.senTGenOut.k
-2 1 0 0
6 1281 # hydraulic.generation.senTGenOut.dynamic
- -2 1.2171572041495111E+00 0 0
+ -2 1.2171572041495113E+00 0 0
6 1344 # hydraulic.generation.senTGenOut.mNor_flow
-2 1 0 0
6 1280 # hydraulic.generation.senTGenOut.tauInv
- -2 3.1240436531267352E+02 0 1.0000000000000000E+100
+ -2 3.1505377649525434E+02 0 1.0000000000000000E+100
2 272 # hydraulic.generation.senTGenOut.T
- -2 -6.8024506391888744E-04 0 0
+ -2 -4.2767144088926695E-04 0 0
3 256 # hydraulic.generation.senTGenOut.der(T)
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.senTGenOut.T_start
@@ -23248,11 +23177,11 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.senTGenOut.tauHeaTraInv
-2 1200 0 0
6 1280 # hydraulic.generation.senTGenOut.ratTau
- -2 3.1240381545184010E+02 1 10000
+ -2 3.1505343538658497E+02 1 10000
6 1280 # hydraulic.generation.senTGenOut.TMed
- -2 3.1240381545184010E+02 1 10000
+ -2 3.1505343538658497E+02 1 10000
6 1280 # hydraulic.generation.senTGenOut.T_a_inflow
- -2 3.1240838956025988E+02 1 10000
+ -2 3.1505693714974080E+02 1 10000
6 1280 # hydraulic.generation.senTGenOut.T_b_inflow
-2 1 0 0
6 257 # hydraulic.generation.realToElecCon.use_souLoa
@@ -23348,12 +23277,8 @@ double initialValue(11451,6)
6 769 # hydraulic.generation.KPIHeaPum.integrator1.local_reset
-2 0 0 0
6 768 # hydraulic.generation.KPIHeaPum.integrator1.local_set
- -2 1 0 0
- 6 261 # hydraulic.generation.heaPumSigBusPasThr.vapComBus.hea
-2 1 0 1
6 260 # hydraulic.generation.heaPumSigBusPasThr.vapComBus.iceFacChiMea
- -2 1 0 0
- 6 261 # hydraulic.generation.sigBus.hea
-2 1 0 1
6 260 # hydraulic.generation.sigBus.iceFacChiMea
-1 9.6999999999999997E-01 0 0
@@ -23436,7 +23361,7 @@ double initialValue(11451,6)
6 257 # hydraulic.generation.eleHea.vol.allowFlowReversal
-2 1.0000000000000000E-03 0 0
6 256 # hydraulic.generation.eleHea.vol.V
- -2 3.1240381545184010E+02 1 10000
+ -2 3.1505343538658497E+02 1 10000
6 256 # hydraulic.generation.eleHea.vol.T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.eleHea.vol.rho_start
@@ -23488,7 +23413,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.generation.eleHea.vol.dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.eleHea.vol.dynBal.medium.d
- -2 3.1240381545184010E+02 1 10000
+ -2 3.1505343538658497E+02 1 10000
6 1280 # hydraulic.generation.eleHea.vol.dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.generation.eleHea.vol.dynBal.medium.X[1]
@@ -23496,13 +23421,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.eleHea.vol.dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.eleHea.vol.dynBal.medium.MM
- -2 3.9253815451840126E+01 0 0
+ -2 4.1903435386584988E+01 0 0
6 1280 # hydraulic.generation.eleHea.vol.dynBal.medium.T_degC
-2 3.0296293317636094E+00 0 0
6 1344 # hydraulic.generation.eleHea.vol.dynBal.medium.p_bar
- -2 1.6351301747806309E+05 0 0
+ -2 1.7455009363774749E+05 0 0
2 1296 # hydraulic.generation.eleHea.vol.dynBal.U
- -2 -2.8896010476455558E+00 0 0
+ -2 -1.7821508291963255E+00 0 0
3 1280 # hydraulic.generation.eleHea.vol.dynBal.der(U)
-2 9.9558600000000008E-01 0 1.0000000000000000E+100
6 1280 # hydraulic.generation.eleHea.vol.dynBal.m
@@ -23510,15 +23435,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.eleHea.vol.dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.generation.eleHea.vol.dynBal.mb_flow
- -2 -2.8896010476455558E+00 0 0
+ -2 -1.7821508291963255E+00 0 0
6 1280 # hydraulic.generation.eleHea.vol.dynBal.Hb_flow
-2 1.0000000000000000E-03 0 0
6 1280 # hydraulic.generation.eleHea.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.generation.eleHea.vol.dynBal.CSen
- -2 6.7551416635390007E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 7.2112418058247291E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.eleHea.vol.dynBal.ports_H_flow[1]
- -2 -6.7554306236437653E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -7.2114200209076487E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.generation.eleHea.vol.dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.generation.eleHea.vol.dynBal.cp_default
@@ -23546,7 +23471,7 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.eleHea.preDro.m_flow_small
-2 0 0 0
6 769 # hydraulic.generation.eleHea.preDro.show_T
- -2 1.4814716596130547E+03 0 0
+ -2 1.4814716596130552E+03 0 0
6 320 # hydraulic.generation.eleHea.preDro.dp
-2 0 0 0
6 1280 # hydraulic.generation.eleHea.preDro._m_flow_start
@@ -23656,7 +23581,7 @@ double initialValue(11451,6)
6 258 # hydraulic.generation.KPIEleHea.integerConstant.y
-2 1 0 0
6 258 # hydraulic.generation.KPIEleHea.triggeredAdd.u
- -2 37 0 0
+ -2 19 0 0
6 322 # hydraulic.generation.KPIEleHea.triggeredAdd.y
-2 0 0 0
6 769 # hydraulic.generation.KPIEleHea.triggeredAdd.use_reset
@@ -23678,7 +23603,7 @@ double initialValue(11451,6)
6 258 # hydraulic.generation.KPIEleHea.integrator1.initType
-1 0 0 0
1 280 # hydraulic.generation.KPIEleHea.integrator1.y_start
- -2 7.0206879443975733E+04 0 0
+ -2 3.2411367115015637E+04 0 0
2 272 # hydraulic.generation.KPIEleHea.integrator1.y
-2 0 0 0
3 256 # hydraulic.generation.KPIEleHea.integrator1.der(y)
@@ -23698,7 +23623,7 @@ double initialValue(11451,6)
6 258 # hydraulic.generation.KPIQEleHea_flow.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.generation.KPIQEleHea_flow.integrator2.y_start
- -2 9.9266831056672525E+08 0 0
+ -2 4.5827043292665952E+08 0 0
2 272 # hydraulic.generation.KPIQEleHea_flow.integrator2.y
-2 0 0 0
3 256 # hydraulic.generation.KPIQEleHea_flow.integrator2.der(y)
@@ -23718,7 +23643,7 @@ double initialValue(11451,6)
6 258 # hydraulic.generation.KPIPEleEleHea.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.generation.KPIPEleEleHea.integrator2.y_start
- -2 1.0233693923368344E+09 0 0
+ -2 4.7244374528521967E+08 0 0
2 272 # hydraulic.generation.KPIPEleEleHea.integrator2.y
-2 0 0 0
3 256 # hydraulic.generation.KPIPEleEleHea.integrator2.der(y)
@@ -23844,7 +23769,7 @@ double initialValue(11451,6)
6 260 # hydraulic.control.useProBus.intGains[2]
-2 0 0 0
6 260 # hydraulic.control.useProBus.intGains[3]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # hydraulic.control.buiMeaBus.TZoneOpeMea[1]
-2 3.2314999999999998E+02 0 0
6 260 # hydraulic.control.sigBusHyd.TSetDHW
@@ -23860,7 +23785,7 @@ double initialValue(11451,6)
1 280 # hydraulic.control.valCtrl.k[1]
-1 1800 0 0
1 280 # hydraulic.control.valCtrl.Ti[1]
- -2 2.5733512227934057E+00 0 0
+ -2 2.2734274742275602E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].controlError
-2 2 1 4
6 258 # hydraulic.control.valCtrl.PI[1].controllerType
@@ -23900,7 +23825,7 @@ double initialValue(11451,6)
6 257 # hydraulic.control.valCtrl.PI[1].strict
-2 1 0 0
6 768 # hydraulic.control.valCtrl.PI[1].unitTime
- -2 2.5733512227934057E+00 0 0
+ -2 2.2734274742275602E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].addP.y
-2 1 0 0
6 256 # hydraulic.control.valCtrl.PI[1].addP.k1
@@ -23908,13 +23833,13 @@ double initialValue(11451,6)
1 280 # hydraulic.control.valCtrl.PI[1].addP.k2
-1 1 0 0
1 280 # hydraulic.control.valCtrl.PI[1].P.k
- -2 2.5733512227934057E+00 0 0
+ -2 2.2734274742275602E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].P.y
-2 2.0000000000000001E-01 0 0
6 256 # hydraulic.control.valCtrl.PI[1].gainPID.k
- -2 7.2898391754243157E+00 0 0
+ -2 7.0430952618881024E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].gainPID.u
- -2 1.4579678350848633E+00 0 0
+ -2 1.4086190523776205E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].gainPID.y
-1 1 0 0
1 280 # hydraulic.control.valCtrl.PI[1].addPID.k1
@@ -23930,7 +23855,7 @@ double initialValue(11451,6)
6 257 # hydraulic.control.valCtrl.PI[1].limiter.strict
-2 2 1 4
6 258 # hydraulic.control.valCtrl.PI[1].limiter.homotopyType
- -2 1.4579678350848633E+00 0 0
+ -2 1.4086190523776205E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].limiter.u
-2 1 0 0
6 769 # hydraulic.control.valCtrl.PI[1].with_I
@@ -23954,11 +23879,11 @@ double initialValue(11451,6)
6 258 # hydraulic.control.valCtrl.PI[1].I.initType
-2 0 0 0
6 256 # hydraulic.control.valCtrl.PI[1].I.y_start
- -2 2.9085472321943584E-02 0 0
+ -2 3.3216276852243709E-03 0 0
6 256 # hydraulic.control.valCtrl.PI[1].I.u
- -2 4.7164879526309100E+00 0 0
+ -2 4.7696677876605422E+00 0 0
2 272 # hydraulic.control.valCtrl.PI[1].I.y
- -2 1.6158595734413101E-05 0 0
+ -2 1.8453487140135394E-06 0 0
3 256 # hydraulic.control.valCtrl.PI[1].I.der(y)
-2 0 0 0
6 769 # hydraulic.control.valCtrl.PI[1].I.local_reset
@@ -23970,9 +23895,9 @@ double initialValue(11451,6)
1 280 # hydraulic.control.valCtrl.PI[1].addI.k2
-1 1 0 0
1 280 # hydraulic.control.valCtrl.PI[1].addI.k3
- -2 -2.5442657504714621E+00 0 0
+ -2 -2.2701058465423358E+00 0 0
6 256 # hydraulic.control.valCtrl.PI[1].addI.u3
- -2 -4.5796783508486327E-01 0 0
+ -2 -4.0861905237762053E-01 0 0
6 256 # hydraulic.control.valCtrl.PI[1].addSat.y
-1 1 0 0
1 280 # hydraulic.control.valCtrl.PI[1].addSat.k1
@@ -24032,7 +23957,7 @@ double initialValue(11451,6)
6 256 # hydraulic.control.priGenPIDCtrl.ySet
-2 3.1614365415124274E+02 0 0
6 256 # hydraulic.control.priGenPIDCtrl.TSet
- -2 3.7392888385692231E+00 0 0
+ -2 1.0898776559884027E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.feedback.y
-1 1 0 0
1 280 # hydraulic.control.priGenPIDCtrl.intAbs.k
@@ -24044,11 +23969,11 @@ double initialValue(11451,6)
6 258 # hydraulic.control.priGenPIDCtrl.intAbs.initType
-1 0 0 0
1 280 # hydraulic.control.priGenPIDCtrl.intAbs.y_start
- -2 3.7392888385692231E+00 0 0
+ -2 1.0898776559884027E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.intAbs.u
- -2 8.7985519397243229E+05 0 0
+ -2 5.7869435454963450E+05 0 0
2 272 # hydraulic.control.priGenPIDCtrl.intAbs.y
- -2 3.7392888385692231E+00 0 0
+ -2 1.0898776559884027E+00 0 0
3 256 # hydraulic.control.priGenPIDCtrl.intAbs.der(y)
-2 0 0 0
6 769 # hydraulic.control.priGenPIDCtrl.intAbs.local_reset
@@ -24066,11 +23991,11 @@ double initialValue(11451,6)
6 258 # hydraulic.control.priGenPIDCtrl.intSqu.initType
-1 0 0 0
1 280 # hydraulic.control.priGenPIDCtrl.intSqu.y_start
- -2 1.3982281018248370E+01 0 0
+ -2 1.1878333050227750E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.intSqu.u
- -2 8.9514779263502397E+06 0 0
+ -2 7.3891173114770874E+06 0 0
2 272 # hydraulic.control.priGenPIDCtrl.intSqu.y
- -2 1.3982281018248370E+01 0 0
+ -2 1.1878333050227750E+00 0 0
3 256 # hydraulic.control.priGenPIDCtrl.intSqu.der(y)
-2 0 0 0
6 769 # hydraulic.control.priGenPIDCtrl.intSqu.local_reset
@@ -24094,7 +24019,7 @@ double initialValue(11451,6)
6 256 # hydraulic.control.priGenPIDCtrl.Nd
-2 1 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.y
- -2 3.7392888385692231E+00 0 0
+ -2 1.0898776559884027E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.controlError
-2 4 1 4
6 258 # hydraulic.control.priGenPIDCtrl.PID.controllerType
@@ -24136,7 +24061,7 @@ double initialValue(11451,6)
6 257 # hydraulic.control.priGenPIDCtrl.PID.limitsAtInit
-2 1 0 0
6 768 # hydraulic.control.priGenPIDCtrl.PID.unitTime
- -2 3.7392888385692231E+00 0 0
+ -2 1.0898776559884027E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.addP.y
-2 1 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.addP.k1
@@ -24144,13 +24069,13 @@ double initialValue(11451,6)
1 280 # hydraulic.control.priGenPIDCtrl.PID.addP.k2
-1 1 0 0
1 280 # hydraulic.control.priGenPIDCtrl.PID.P.k
- -2 3.7392888385692231E+00 0 0
+ -2 1.0898776559884027E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.P.y
-2 2.9999999999999999E-01 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.gainPID.k
- -2 6.0966249952108598E+00 0 0
+ -2 4.2494833560633278E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.gainPID.u
- -2 1.8289874985632579E+00 0 0
+ -2 1.2748450068189983E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.gainPID.y
-1 1 0 0
1 280 # hydraulic.control.priGenPIDCtrl.PID.addPID.k1
@@ -24168,7 +24093,7 @@ double initialValue(11451,6)
6 257 # hydraulic.control.priGenPIDCtrl.PID.limiter.strict
-2 1 1 4
6 258 # hydraulic.control.priGenPIDCtrl.PID.limiter.homotopyType
- -2 1.8289874985632579E+00 0 0
+ -2 1.2748450068189983E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.limiter.u
-2 0 0 0
6 1280 # hydraulic.control.priGenPIDCtrl.PID.limiter.simplifiedExpr
@@ -24184,7 +24109,7 @@ double initialValue(11451,6)
6 256 # hydraulic.control.priGenPIDCtrl.PID.addFF.k2
-2 1 0 0
6 321 # hydraulic.control.priGenPIDCtrl.PID.IsOn
- -2 -3.1240436531267352E+02 0 0
+ -2 -3.1505377649525434E+02 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.addD.y
-2 0 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.addD.k1
@@ -24200,11 +24125,11 @@ double initialValue(11451,6)
6 258 # hydraulic.control.priGenPIDCtrl.PID.I.initType
-2 0 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.I.y_start
- -2 6.6896476981641628E-01 0 0
+ -2 7.1933186288409168E-02 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.I.u
- -2 2.3573361566416366E+00 0 0
+ -2 3.1596057000749247E+00 0 0
2 272 # hydraulic.control.priGenPIDCtrl.PID.I.y
- -2 5.5747064151368030E-04 0 0
+ -2 5.9944321907007642E-05 0 0
3 256 # hydraulic.control.priGenPIDCtrl.PID.I.der(y)
-2 0 0 0
6 768 # hydraulic.control.priGenPIDCtrl.PID.I.local_set
@@ -24232,9 +24157,9 @@ double initialValue(11451,6)
1 280 # hydraulic.control.priGenPIDCtrl.PID.addI.k2
-1 1 0 0
1 280 # hydraulic.control.priGenPIDCtrl.PID.addI.k3
- -2 -3.0703240687528068E+00 0 0
+ -2 -1.0179444696999935E+00 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.addI.u3
- -2 -8.2898749856325793E-01 0 0
+ -2 -2.7484500681899826E-01 0 0
6 256 # hydraulic.control.priGenPIDCtrl.PID.addSat.y
-1 1 0 0
1 280 # hydraulic.control.priGenPIDCtrl.PID.addSat.k1
@@ -24308,7 +24233,7 @@ double initialValue(11451,6)
6 256 # hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth
-2 1 0 0
6 257 # hydraulic.control.buiAndDHWCtr.hysBui.hysSto.pre_y_start
- -2 1.6925594937019973E+05 0 0
+ -2 1.6583275402387671E+05 0 0
6 328 # hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y
-2 0 0 0
6 329 # hydraulic.control.buiAndDHWCtr.hysBui.trigTime.u
@@ -24364,7 +24289,7 @@ double initialValue(11451,6)
6 256 # hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth
-2 1 0 0
6 257 # hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.pre_y_start
- -2 1.6395225951375271E+05 0 0
+ -2 1.6543051474975198E+05 0 0
6 328 # hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y
-2 0 0 0
6 329 # hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.u
@@ -24776,15 +24701,15 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.dpDem_nominal[1]
-2 0 0 0
6 256 # hydraulic.distribution.dpDemOld_design[1]
- -2 1.6425710192012749E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7533862503451557E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.portGen_in[1].h_outflow
- -2 1.5609673503315262E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5593920223895591E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.portGen_out[1].h_outflow
-2 -3.1759997251723698E-01 -100000 100000
6 388 # hydraulic.distribution.portBui_out[1].m_flow
- -2 1.6581004833494977E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7246657568555884E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.portBui_out[1].h_outflow
- -2 1.1987273380553654E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.1979103873358874E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.portBui_in[1].h_outflow
-2 0 0 0
6 260 # hydraulic.distribution.internalElectricalPin.PElecLoa
@@ -24840,11 +24765,11 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.m_flow_small_layer_HE
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoDHW.heatPort.T
- -2 -7.0402352837850510E-07 -100000 100000
+ -2 -7.0402352837851527E-07 -100000 100000
6 452 # hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow
- -2 2.0483216579698218E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.0238593252596506E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow
- -2 2.2886978405726232E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.2978342801367209E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow
-2 1.2341700000000000E-01 0 0
6 1280 # hydraulic.distribution.stoDHW.V
@@ -24906,7 +24831,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[1].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer[1].use_C_flow
- -2 -1.1536543944691365E+01 0 0
+ -2 -1.1196571332469384E+01 0 0
6 388 # hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer[1].dynBal.energyDynamics
@@ -24942,7 +24867,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.d
- -2 3.2210428946964140E+02 1 10000
+ -2 3.2151967599186565E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.X[1]
@@ -24950,13 +24875,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.MM
- -2 4.8954289469641424E+01 0 0
+ -2 4.8369675991865677E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.medium.p_bar
- -2 6.2918187370795291E+06 0 0
+ -2 6.2166816638369486E+06 0 0
2 1296 # hydraulic.distribution.stoDHW.layer[1].dynBal.U
- -2 -1.1536543944691365E+01 0 0
+ -2 -1.1196571332469384E+01 0 0
3 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.der(U)
-2 3.0718059340500002E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[1].dynBal.m
@@ -25026,9 +24951,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoDHW.layer[2].allowFlowReversal
-2 3.0854250000000000E-02 0 0
6 256 # hydraulic.distribution.stoDHW.layer[2].V
- -2 2.1334854858204260E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.1180832432790581E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow
- -2 3.2414152690775393E+02 1 10000
+ -2 3.2377340447607691E+02 1 10000
6 256 # hydraulic.distribution.stoDHW.layer[2].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[2].rho_start
@@ -25046,7 +24971,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[2].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer[2].use_C_flow
- -2 -8.7810706961207039E+00 0 0
+ -2 -8.6539173979871489E+00 0 0
6 388 # hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer[2].dynBal.energyDynamics
@@ -25082,7 +25007,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.d
- -2 3.2414152690775393E+02 1 10000
+ -2 3.2377340447607691E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.X[1]
@@ -25090,13 +25015,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.MM
- -2 5.0991526907753951E+01 0 0
+ -2 5.0623404476076928E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.medium.p_bar
- -2 6.5536533755527316E+06 0 0
+ -2 6.5063406755164806E+06 0 0
2 1296 # hydraulic.distribution.stoDHW.layer[2].dynBal.U
- -2 -8.7810706961207039E+00 0 0
+ -2 -8.6539173979871489E+00 0 0
3 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.der(U)
-2 3.0718059340500002E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[2].dynBal.m
@@ -25166,9 +25091,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoDHW.layer[3].allowFlowReversal
-2 3.0854250000000000E-02 0 0
6 256 # hydraulic.distribution.stoDHW.layer[3].V
- -2 2.2151629600871084E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.2109165249736101E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow
- -2 3.2609366539405130E+02 1 10000
+ -2 3.2599217315902507E+02 1 10000
6 256 # hydraulic.distribution.stoDHW.layer[3].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[3].rho_start
@@ -25186,7 +25111,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[3].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer[3].use_C_flow
- -2 -9.3937057030560869E+00 0 0
+ -2 -9.3430835791877342E+00 0 0
6 388 # hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer[3].dynBal.energyDynamics
@@ -25222,7 +25147,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.d
- -2 3.2609366539405130E+02 1 10000
+ -2 3.2599217315902501E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.X[1]
@@ -25230,13 +25155,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.MM
- -2 5.2943665394051322E+01 0 0
+ -2 5.2842173159025037E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.medium.p_bar
- -2 6.8045507256833436E+06 0 0
+ -2 6.7915065011031404E+06 0 0
2 1296 # hydraulic.distribution.stoDHW.layer[3].dynBal.U
- -2 -9.3937057030560869E+00 0 0
+ -2 -9.3430835791877342E+00 0 0
3 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.der(U)
-2 3.0718059340500002E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[3].dynBal.m
@@ -25322,7 +25247,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[4].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer[4].use_C_flow
- -2 -1.5549510440659724E+01 0 0
+ -2 -1.5759881539830982E+01 0 0
6 388 # hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer[4].dynBal.energyDynamics
@@ -25358,7 +25283,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.d
- -2 3.2784892935469833E+02 1 10000
+ -2 3.2806724629536694E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.X[1]
@@ -25366,13 +25291,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.MM
- -2 5.4698929354698350E+01 0 0
+ -2 5.4917246295366965E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.medium.p_bar
- -2 7.0301449033491882E+06 0 0
+ -2 7.0582039484870434E+06 0 0
2 1296 # hydraulic.distribution.stoDHW.layer[4].dynBal.U
- -2 -1.5549510440659724E+01 0 0
+ -2 -1.5759881539830980E+01 0 0
3 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.der(U)
-2 3.0718059340500002E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer[4].dynBal.m
@@ -25442,7 +25367,7 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoDHW.layer_HE[1].allowFlowReversal
-2 1.9679020662430103E-03 0 0
6 256 # hydraulic.distribution.stoDHW.layer_HE[1].V
- -2 3.2210606257098044E+02 1 10000
+ -2 3.2152139878727650E+02 1 10000
6 256 # hydraulic.distribution.stoDHW.layer_HE[1].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].rho_start
@@ -25460,7 +25385,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[1].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer_HE[1].use_C_flow
- -2 -7.4186560023067616E-01 0 0
+ -2 -7.2081759989632710E-01 0 0
6 388 # hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.energyDynamics
@@ -25496,7 +25421,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.d
- -2 3.2210606257098038E+02 1 10000
+ -2 3.2152139878727650E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.X[1]
@@ -25504,13 +25429,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.MM
- -2 4.8956062570980407E+01 0 0
+ -2 4.8371398787276519E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p_bar
- -2 4.0131040462377825E+05 0 0
+ -2 3.9651770587953395E+05 0 0
2 1296 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.U
- -2 -7.3586588283104670E-01 0 0
+ -2 -7.1418008239674391E-01 0 0
3 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.der(U)
-2 1.9592157465226137E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m
@@ -25518,15 +25443,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.mb_flow
- -2 5.9997173996294006E-03 0 0
+ -2 6.6375174995832176E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.Hb_flow
-2 1.9679020662430103E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.CSen
- -2 -1.4420666408980234E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -1.4248445831110604E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports_H_flow[1]
- -2 1.5020638148943175E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 1.4912197581068926E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[1].dynBal.cp_default
@@ -25580,9 +25505,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoDHW.layer_HE[2].allowFlowReversal
-2 1.9679020662430103E-03 0 0
6 256 # hydraulic.distribution.stoDHW.layer_HE[2].V
- -2 2.1335420683366153E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.1181390933644259E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow
- -2 3.2414287926234738E+02 1 10000
+ -2 3.2377473932515358E+02 1 10000
6 256 # hydraulic.distribution.stoDHW.layer_HE[2].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].rho_start
@@ -25600,7 +25525,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[2].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer_HE[2].use_C_flow
- -2 -5.6582516189964738E-01 0 0
+ -2 -5.5850085367883373E-01 0 0
6 388 # hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.energyDynamics
@@ -25636,7 +25561,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.d
- -2 3.2414287926234738E+02 1 10000
+ -2 3.2377473932515352E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.X[1]
@@ -25644,13 +25569,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.MM
- -2 5.0992879262347401E+01 0 0
+ -2 5.0624739325153541E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p_bar
- -2 4.1800692161535233E+05 0 0
+ -2 4.1498914650447160E+05 0 0
2 1296 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.U
- -2 -5.6007460454106828E-01 0 0
+ -2 -5.5196486576722881E-01 0 0
3 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.der(U)
-2 1.9592157465226137E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m
@@ -25658,15 +25583,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.mb_flow
- -2 5.7505573585791003E-03 0 0
+ -2 6.5359879116049513E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.Hb_flow
-2 1.9679020662430103E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.CSen
- -2 -1.5020638148943175E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -1.4912197581068926E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports_H_flow[1]
- -2 1.5595693884801085E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 1.5565796372229421E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[2].dynBal.cp_default
@@ -25720,9 +25645,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoDHW.layer_HE[3].allowFlowReversal
-2 1.9679020662430103E-03 0 0
6 256 # hydraulic.distribution.stoDHW.layer_HE[3].V
- -2 2.2152233918546472E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.2109767280193136E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow
- -2 3.2609510974796001E+02 1 10000
+ -2 3.2599361204635068E+02 1 10000
6 256 # hydraulic.distribution.stoDHW.layer_HE[3].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].rho_start
@@ -25740,7 +25665,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[3].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer_HE[3].use_C_flow
- -2 -6.0431767540412695E-01 0 0
+ -2 -6.0203045703324287E-01 0 0
6 388 # hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.energyDynamics
@@ -25776,7 +25701,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.d
- -2 3.2609510974795995E+02 1 10000
+ -2 3.2599361204635068E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.X[1]
@@ -25784,13 +25709,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.MM
- -2 5.2945109747959975E+01 0 0
+ -2 5.2843612046350700E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p_bar
- -2 4.3401005513868592E+05 0 0
+ -2 4.3317804207304853E+05 0 0
2 1296 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.U
- -2 -5.9914490134091747E-01 0 0
+ -2 -5.9591548100244107E-01 0 0
3 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.der(U)
-2 1.9592157465226137E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m
@@ -25798,15 +25723,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.mb_flow
- -2 5.1727740632095121E-03 0 0
+ -2 6.1149760308017997E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.Hb_flow
-2 1.9679020662430103E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.CSen
- -2 -1.5595693884801085E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -1.5565796372229421E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports_H_flow[1]
- -2 1.6112971291122036E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 1.6177293975309601E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[3].dynBal.cp_default
@@ -25860,7 +25785,7 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoDHW.layer_HE[4].allowFlowReversal
-2 1.9679020662430103E-03 0 0
6 256 # hydraulic.distribution.stoDHW.layer_HE[4].V
- -2 3.2785119121827489E+02 1 10000
+ -2 3.2806955736464437E+02 1 10000
6 256 # hydraulic.distribution.stoDHW.layer_HE[4].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].rho_start
@@ -25878,7 +25803,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[4].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoDHW.layer_HE[4].use_C_flow
- -2 -9.4636372041054539E-01 0 0
+ -2 -9.6695138567474725E-01 0 0
6 388 # hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.energyDynamics
@@ -25914,7 +25839,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.d
- -2 3.2785119121827489E+02 1 10000
+ -2 3.2806955736464437E+02 1 10000
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.X[1]
@@ -25922,13 +25847,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.MM
- -2 5.4701191218274914E+01 0 0
+ -2 5.4919557364644390E+01 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p_bar
- -2 4.4840528482821857E+05 0 0
+ -2 4.5019531045433180E+05 0 0
2 1296 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.U
- -2 -9.9185256886672990E-01 0 0
+ -2 -1.0052818079700061E+00 0 0
3 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.der(U)
-2 1.9592157465226137E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m
@@ -25936,15 +25861,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.mb_flow
- -2 -4.5488848456184477E-02 0 0
+ -2 -3.8330422295258890E-02 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.Hb_flow
-2 1.9679020662430103E-03 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.CSen
- -2 -1.6112971291122036E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -1.6177293975309601E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports_H_flow[1]
- -2 1.1564086445503588E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 1.2344251745783712E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.cp_default
@@ -25964,49 +25889,49 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal._simplify_mWat_flow
-2 0 0 0
6 1280 # hydraulic.distribution.stoDHW.layer_HE[4].dynBal.mWat_flow_internal
- -2 -1.7731013389834516E-03 0 0
+ -2 -1.7227954108420818E-03 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[1].dT
-2 4.1840000000000003E+02 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[1].G
- -2 -1.3523545934504000E-03 0 0
+ -2 -1.3348490766702525E-03 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[2].dT
-2 4.1840000000000003E+02 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[2].G
- -2 -1.4443539087096724E-03 0 0
+ -2 -1.4388873256052648E-03 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[3].dT
-2 4.1840000000000003E+02 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[3].G
- -2 -2.2618635765070394E-03 0 0
+ -2 -2.3110692774253039E-03 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[4].dT
-2 4.1840000000000003E+02 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer_HE[4].G
- -2 1.3098033064775800E+01 0 0
+ -2 1.2824111358758664E+01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[1].Q_flow
- -2 2.7954289469641481E+01 0 0
+ -2 2.7369675991865677E+01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[1].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoDHW.heatTransfer[1].port_b.T
-2 4.6855181488337738E-01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[1].G
- -2 9.3126587577601185E+00 0 0
+ -2 9.1983531874625744E+00 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[2].Q_flow
- -2 2.9991526907753951E+01 0 0
+ -2 2.9623404476076928E+01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[2].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoDHW.heatTransfer[2].port_b.T
-2 3.1050965782447182E-01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[2].G
- -2 9.9188166111662976E+00 0 0
+ -2 9.8873022919964626E+00 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[3].Q_flow
- -2 3.1943665394051322E+01 0 0
+ -2 3.1842173159025094E+01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[3].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoDHW.heatTransfer[3].port_b.T
-2 3.1050965782447182E-01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[3].G
- -2 1.5789694508770660E+01 0 0
+ -2 1.5891987307540699E+01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[4].Q_flow
- -2 3.3698929354698407E+01 0 0
+ -2 3.3917246295366965E+01 0 0
6 256 # hydraulic.distribution.stoDHW.heatTransfer[4].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoDHW.heatTransfer[4].port_b.T
@@ -26020,7 +25945,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.bouyancy[1].dx
-2 4.0000000000000002E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[1].kappa
- -2 2.0372374381124700E+00 0 0
+ -2 2.2537284842112513E+00 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[1].dT
-2 5.9799999999999998E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[1].lambda_eff
@@ -26032,7 +25957,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.bouyancy[1].lambda
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.stoDHW.bouyancy[1].rho
- -2 8.1962351985375859E-01 0 0
+ -2 9.0672242639295275E-01 0 0
6 388 # hydraulic.distribution.stoDHW.bouyancy[1].port_a.Q_flow
-2 1.4407654551673180E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].A
@@ -26042,7 +25967,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].dx
-2 4.0000000000000002E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].kappa
- -2 1.9521384862973719E+00 0 0
+ -2 2.2187686829481663E+00 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].dT
-2 5.9799999999999998E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].lambda_eff
@@ -26054,7 +25979,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].lambda
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.stoDHW.bouyancy[2].rho
- -2 7.8538641959352595E-01 0 0
+ -2 8.9265736218954506E-01 0 0
6 388 # hydraulic.distribution.stoDHW.bouyancy[2].port_a.Q_flow
-2 1.4407654551673180E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].A
@@ -26064,7 +25989,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].dx
-2 4.0000000000000002E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].kappa
- -2 1.7552639606470848E+00 0 0
+ -2 2.0750731363418708E+00 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].dT
-2 5.9799999999999998E-01 0 0
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].lambda_eff
@@ -26076,7 +26001,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].lambda
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.stoDHW.bouyancy[3].rho
- -2 7.0617965229961022E-01 0 0
+ -2 8.3484561796503143E-01 0 0
6 388 # hydraulic.distribution.stoDHW.bouyancy[3].port_a.Q_flow
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.fixTemBuf.T
@@ -26128,15 +26053,15 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.m_flow_small_layer
-2 3.3793471834460452E-05 0 0
6 256 # hydraulic.distribution.stoBuf.m_flow_small_layer_HE
- -2 1.5606546761107308E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5590207746717744E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.port_a_consumer.h_outflow
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoBuf.heatPort.T
- -2 -4.1131897294184294E-01 -100000 100000
+ -2 -4.1131897294184300E-01 -100000 100000
6 452 # hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow
- -2 1.5609665161640753E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5593912273960604E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow
- -2 1.6580247242342462E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7248143815476532E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow
-2 3.1227699697784811E-01 0 0
6 1280 # hydraulic.distribution.stoBuf.V
@@ -26198,7 +26123,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[1].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer[1].use_C_flow
- -2 2.4680892435886426E+03 0 0
+ -2 2.9336470913496742E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer[1].dynBal.energyDynamics
@@ -26234,7 +26159,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.d
- -2 3.1045054197205377E+02 1 10000
+ -2 3.1041149079043436E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.X[1]
@@ -26242,13 +26167,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.MM
- -2 3.7300541972053793E+01 0 0
+ -2 3.7261490790434380E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p_bar
- -2 1.2130134093474647E+07 0 0
+ -2 1.2117434651469029E+07 0 0
2 1296 # hydraulic.distribution.stoBuf.layer[1].dynBal.U
- -2 -3.6539027805455316E+02 0 0
+ -2 -4.8968999826618528E+01 0 0
3 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.der(U)
-2 7.7724651578296971E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.m
@@ -26256,15 +26181,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.mb_flow
- -2 -2.8334795216431958E+03 0 0
+ -2 -2.9826160911762927E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.Hb_flow
-2 7.8069249244462027E-02 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.CSen
- -2 4.6732908702523353E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.6531879427779415E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.ports_H_flow[1]
- -2 -4.9566388224166549E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.9514495518955708E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[1].dynBal.cp_default
@@ -26318,9 +26243,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoBuf.layer[2].allowFlowReversal
-2 7.8069249244462027E-02 0 0
6 256 # hydraulic.distribution.stoBuf.layer[2].V
- -2 1.6205676008782728E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.6305665494228003E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow
- -2 3.1188249524087649E+02 1 10000
+ -2 3.1212147584662523E+02 1 10000
6 256 # hydraulic.distribution.stoBuf.layer[2].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[2].rho_start
@@ -26338,7 +26263,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[2].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer[2].use_C_flow
- -2 1.4030302890333139E+03 0 0
+ -2 2.2160098175970738E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer[2].dynBal.energyDynamics
@@ -26374,7 +26299,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.d
- -2 3.1188249524087644E+02 1 10000
+ -2 3.1212147584662517E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.X[1]
@@ -26382,13 +26307,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.MM
- -2 3.8732495240876460E+01 0 0
+ -2 3.8971475846625196E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p_bar
- -2 1.2595805213734038E+07 0 0
+ -2 1.2673521692911310E+07 0 0
2 1296 # hydraulic.distribution.stoBuf.layer[2].dynBal.U
- -2 -4.9980403692654841E+02 0 0
+ -2 -5.6283791867947457E+01 0 0
3 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.der(U)
-2 7.7724651578296971E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.m
@@ -26396,15 +26321,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.mb_flow
- -2 -1.9028343259598623E+03 0 0
+ -2 -2.2722936094650213E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.Hb_flow
-2 7.8069249244462027E-02 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.CSen
- -2 4.9566388224166549E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.9514495518955708E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.ports_H_flow[1]
- -2 -5.1469222550126411E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.1786789128420729E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[2].dynBal.cp_default
@@ -26458,9 +26383,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoBuf.layer[3].allowFlowReversal
-2 7.8069249244462027E-02 0 0
6 256 # hydraulic.distribution.stoBuf.layer[3].V
- -2 1.6544224753722854E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.6846136259104504E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow
- -2 3.1269164616090546E+02 1 10000
+ -2 3.1341323197682721E+02 1 10000
6 256 # hydraulic.distribution.stoBuf.layer[3].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[3].rho_start
@@ -26478,7 +26403,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[3].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer[3].use_C_flow
- -2 1.8204576354081533E+02 0 0
+ -2 1.6413870889685898E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer[3].dynBal.energyDynamics
@@ -26514,7 +26439,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.d
- -2 3.1269164616090541E+02 1 10000
+ -2 3.1341323197682715E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.X[1]
@@ -26522,13 +26447,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.MM
- -2 3.9541646160905429E+01 0 0
+ -2 4.0263231976827171E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p_bar
- -2 1.2858941046161449E+07 0 0
+ -2 1.3093600711794127E+07 0 0
2 1296 # hydraulic.distribution.stoBuf.layer[3].dynBal.U
- -2 -8.9318495734647274E+02 0 0
+ -2 -7.5147911742878705E+01 0 0
3 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.der(U)
-2 7.7724651578296971E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.m
@@ -26536,15 +26461,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.mb_flow
- -2 -1.0752307208872880E+03 0 0
+ -2 -1.7165350007114685E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.Hb_flow
-2 7.8069249244462027E-02 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.CSen
- -2 5.1469222550126411E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 5.1786789128420729E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.ports_H_flow[1]
- -2 -5.2544453271013699E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.3503324129132197E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[3].dynBal.cp_default
@@ -26614,7 +26539,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[4].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer[4].use_C_flow
- -2 -6.1152496895542254E+02 0 0
+ -2 1.1687560233138104E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer[4].dynBal.energyDynamics
@@ -26650,7 +26575,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.d
- -2 3.1277955266131687E+02 1 10000
+ -2 3.1437050088086966E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.X[1]
@@ -26658,13 +26583,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.MM
- -2 3.9629552661316893E+01 0 0
+ -2 4.1220500880869679E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p_bar
- -2 1.2887528235014550E+07 0 0
+ -2 1.3404904504062045E+07 0 0
2 1296 # hydraulic.distribution.stoBuf.layer[4].dynBal.U
- -2 -7.2833849220350794E+02 0 0
+ -2 -1.0329954542945394E+02 0 0
3 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.der(U)
-2 7.7724651578296971E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.m
@@ -26672,15 +26597,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.mb_flow
- -2 -1.1681352324808540E+02 0 0
+ -2 -1.2720555687432643E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.Hb_flow
-2 7.8069249244462027E-02 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.CSen
- -2 5.2544453271013699E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 5.3503324129132197E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.ports_H_flow[1]
- -2 -5.2661266794261785E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.4775379697875462E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer[4].dynBal.cp_default
@@ -26734,7 +26659,7 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoBuf.layer_HE[1].allowFlowReversal
-2 3.6702312694532951E-03 0 0
6 256 # hydraulic.distribution.stoBuf.layer_HE[1].V
- -2 3.1045799512820446E+02 1 10000
+ -2 3.1042034482304155E+02 1 10000
6 256 # hydraulic.distribution.stoBuf.layer_HE[1].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].rho_start
@@ -26752,7 +26677,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[1].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer_HE[1].use_C_flow
- -2 -2.4760098093021943E+03 0 0
+ -2 -2.9413943762947074E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.energyDynamics
@@ -26788,7 +26713,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.d
- -2 3.1045799512820446E+02 1 10000
+ -2 3.1042034482304155E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.X[1]
@@ -26796,13 +26721,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.MM
- -2 3.7307995128204482E+01 0 0
+ -2 3.7270344823041569E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p_bar
- -2 5.7038198349612486E+05 0 0
+ -2 5.6980636811759160E+05 0 0
2 1296 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.U
- -2 -1.7200969146396346E+01 0 0
+ -2 -2.3038187664260477E+00 0 0
3 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.der(U)
-2 3.6540308686299281E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m
@@ -26810,15 +26735,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.mb_flow
- -2 2.4588088401557980E+03 0 0
+ -2 2.9390905575282814E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.Hb_flow
-2 3.6702312694532951E-03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.CSen
- -2 -6.4205514422521410E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -6.4140719806706751E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports_H_flow[1]
- -2 6.6664323262677208E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 6.7079810364235032E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[1].dynBal.cp_default
@@ -26872,9 +26797,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoBuf.layer_HE[2].allowFlowReversal
-2 3.6702312694532951E-03 0 0
6 256 # hydraulic.distribution.stoBuf.layer_HE[2].V
- -2 1.6207451551743271E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.6308464908502909E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow
- -2 3.1188673889039978E+02 1 10000
+ -2 3.1212816660732051E+02 1 10000
6 256 # hydraulic.distribution.stoBuf.layer_HE[2].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].rho_start
@@ -26892,7 +26817,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[2].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer_HE[2].use_C_flow
- -2 -1.4097809886800135E+03 0 0
+ -2 -2.2227347419349908E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.energyDynamics
@@ -26928,7 +26853,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.d
- -2 3.1188673889039973E+02 1 10000
+ -2 3.1212816660732045E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.X[1]
@@ -26936,13 +26861,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.MM
- -2 3.8736738890399749E+01 0 0
+ -2 3.8978166607320475E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p_bar
- -2 5.9222528271893936E+05 0 0
+ -2 5.9591634195637587E+05 0 0
2 1296 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.U
- -2 -2.3589088631593995E+01 0 0
+ -2 -2.6505031456845245E+00 0 0
3 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.der(U)
-2 3.6540308686299281E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m
@@ -26950,15 +26875,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.mb_flow
- -2 1.3861919000484195E+03 0 0
+ -2 2.2200842387893063E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.Hb_flow
-2 3.6702312694532951E-03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.CSen
- -2 -6.6664323262677208E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -6.7079810364235032E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports_H_flow[1]
- -2 6.8050515162725627E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 6.9299894603024339E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[2].dynBal.cp_default
@@ -27012,9 +26937,9 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoBuf.layer_HE[3].allowFlowReversal
-2 3.6702312694532951E-03 0 0
6 256 # hydraulic.distribution.stoBuf.layer_HE[3].V
- -2 1.6544462968973571E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.6848212497317200E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow
- -2 3.1269221550901904E+02 1 10000
+ -2 3.1341819430525140E+02 1 10000
6 256 # hydraulic.distribution.stoBuf.layer_HE[3].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].rho_start
@@ -27032,7 +26957,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[3].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer_HE[3].use_C_flow
- -2 -1.8914289270355266E+02 0 0
+ -2 -1.6485329982198264E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.energyDynamics
@@ -27068,7 +26993,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.d
- -2 3.1269221550901898E+02 1 10000
+ -2 3.1341819430525140E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.X[1]
@@ -27076,13 +27001,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.MM
- -2 3.9542215509019002E+01 0 0
+ -2 4.0268194305251427E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p_bar
- -2 6.0453978393534175E+05 0 0
+ -2 6.1563888546433579E+05 0 0
2 1296 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.U
- -2 -4.1955387007933041E+01 0 0
+ -2 -3.5396078940784719E+00 0 0
3 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.der(U)
-2 3.6540308686299281E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m
@@ -27090,15 +27015,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.mb_flow
- -2 1.4718750569561962E+02 0 0
+ -2 1.6449933903257479E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.Hb_flow
-2 3.6702312694532951E-03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.CSen
- -2 -6.8050515162725627E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -6.9299894603024339E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports_H_flow[1]
- -2 6.8197702668421247E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 7.0944887993350087E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[3].dynBal.cp_default
@@ -27152,7 +27077,7 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.stoBuf.layer_HE[4].allowFlowReversal
-2 3.6702312694532951E-03 0 0
6 256 # hydraulic.distribution.stoBuf.layer_HE[4].V
- -2 3.1277774197500588E+02 1 10000
+ -2 3.1437405309626320E+02 1 10000
6 256 # hydraulic.distribution.stoBuf.layer_HE[4].T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].rho_start
@@ -27170,7 +27095,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[4].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.distribution.stoBuf.layer_HE[4].use_C_flow
- -2 6.0152732304746587E+02 0 0
+ -2 -1.1800799528864482E+03 0 0
6 388 # hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.energyDynamics
@@ -27206,7 +27131,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.d
- -2 3.1277774197500588E+02 1 10000
+ -2 3.1437405309626320E+02 1 10000
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.X[1]
@@ -27214,13 +27139,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.MM
- -2 3.9627741975005904E+01 0 0
+ -2 4.1224053096263219E+01 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p_bar
- -2 6.0584735233035602E+05 0 0
+ -2 6.3025249928319629E+05 0 0
2 1296 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.U
- -2 -3.4112885183324579E+01 0 0
+ -2 -4.8647800046637713E+00 0 0
3 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.der(U)
-2 3.6540308686299281E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m
@@ -27228,15 +27153,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.mb_flow
- -2 -6.3564020823079045E+02 0 0
+ -2 1.1752151728817844E+03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.Hb_flow
-2 3.6702312694532951E-03 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.CSen
- -2 -6.8197702668421247E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -7.0944887993350087E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports_H_flow[1]
- -2 6.7562062460190456E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 7.2120103166231871E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.cp_default
@@ -27256,49 +27181,49 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal._simplify_mWat_flow
-2 0 0 0
6 1280 # hydraulic.distribution.stoBuf.layer_HE[4].dynBal.mWat_flow_internal
- -2 -7.4531561506887556E-03 0 0
+ -2 -8.8540326071893105E-03 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[1].dT
-2 3.3220957125302992E+05 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[1].G
- -2 -4.2436495232891502E-03 0 0
+ -2 -6.6907606952781862E-03 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[2].dT
-2 3.3220957125302992E+05 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[2].G
- -2 -5.6934811357223225E-04 0 0
+ -2 -4.9623284241988586E-03 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[3].dT
-2 3.3220957125302992E+05 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[3].G
- -2 1.8106863109892402E-03 0 0
+ -2 -3.5522153935403367E-03 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[4].dT
-2 3.3220957125302992E+05 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer_HE[4].G
- -2 8.7056023865659462E+00 0 0
+ -2 8.6847463892324210E+00 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[1].Q_flow
- -2 1.6300541972053793E+01 0 0
+ -2 1.6261490790434380E+01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[1].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoBuf.heatTransfer[1].port_b.T
-2 5.3406827831191928E-01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[1].G
- -2 6.4092620491972712E+00 0 0
+ -2 6.4956395897584400E+00 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[2].Q_flow
- -2 1.7732495240876517E+01 0 0
+ -2 1.7971475846625253E+01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[2].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoBuf.heatTransfer[2].port_b.T
-2 3.6144163368631821E-01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[2].G
- -2 6.7017228796313288E+00 0 0
+ -2 6.9625340357829586E+00 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[3].Q_flow
- -2 1.8541646160905486E+01 0 0
+ -2 1.9263231976827228E+01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[3].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoBuf.heatTransfer[3].port_b.T
-2 3.6144163368631821E-01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[3].G
- -2 9.9494531155507477E+00 0 0
+ -2 1.0799128092050717E+01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[4].Q_flow
- -2 1.8629552661316893E+01 0 0
+ -2 2.0220500880869679E+01 0 0
6 256 # hydraulic.distribution.stoBuf.heatTransfer[4].dT
-2 2.9414999999999998E+02 0 1.0000000000000000E+100
6 260 # hydraulic.distribution.stoBuf.heatTransfer[4].port_b.T
@@ -27312,7 +27237,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.bouyancy[1].dx
-2 4.0000000000000002E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[1].kappa
- -2 1.4319532688227241E+00 0 0
+ -2 1.7099850561908738E+00 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[1].dT
-2 5.9799999999999998E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[1].lambda_eff
@@ -27324,7 +27249,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.bouyancy[1].lambda
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.stoBuf.bouyancy[1].rho
- -2 7.8503667301428126E-01 0 0
+ -2 9.3746144419913446E-01 0 0
6 388 # hydraulic.distribution.stoBuf.bouyancy[1].port_a.Q_flow
-2 2.6752844149784927E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].A
@@ -27334,7 +27259,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].dx
-2 4.0000000000000002E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].kappa
- -2 8.0915092002896927E-01 0 0
+ -2 1.2917561302019749E+00 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].dT
-2 5.9799999999999998E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].lambda_eff
@@ -27346,7 +27271,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].lambda
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.stoBuf.bouyancy[2].rho
- -2 4.4359907551188826E-01 0 0
+ -2 7.0817669604070277E-01 0 0
6 388 # hydraulic.distribution.stoBuf.bouyancy[2].port_a.Q_flow
-2 2.6752844149784927E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].A
@@ -27356,7 +27281,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].dx
-2 4.0000000000000002E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].kappa
- -2 8.7906500411406796E-02 0 0
+ -2 9.5726890404245069E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].dT
-2 5.9799999999999998E-01 0 0
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].lambda_eff
@@ -27368,7 +27293,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].lambda
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.stoBuf.bouyancy[3].rho
- -2 4.8192792405883152E-02 0 0
+ -2 5.2480148058696696E-01 0 0
6 388 # hydraulic.distribution.stoBuf.bouyancy[3].port_a.Q_flow
-2 2 1 4
6 258 # hydraulic.distribution.threeWayValveWithFlowReturn.energyDynamics
@@ -27428,11 +27353,11 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.threeWayValveWithFlowReturn.parameters.y_start
-2 1 0 0
6 257 # hydraulic.distribution.threeWayValveWithFlowReturn.parameters.from_dp
- -2 1.5609665161640753E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5593912273960604E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.h_outflow
-2 3.0000000023437262E+05 0 1.0000000000000000E+08
6 324 # hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.p
- -2 2.0483216579698218E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.0238593252596506E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.h_outflow
-2 3.0148146658818045E+05 0 1.0000000000000000E+08
6 324 # hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.p
@@ -27478,7 +27403,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_small
-2 0 0 0
6 769 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.show_T
- -2 -1.4814665881804403E+03 0 0
+ -2 -1.4814665881804412E+03 0 0
6 320 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp
-2 0 0 0
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1._m_flow_start
@@ -27568,7 +27493,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_small
-2 0 0 0
6 769 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.show_T
- -2 -2.9629329419882656E+03 0 0
+ -2 -2.9629329419883088E+03 0 0
6 320 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp
-2 0 0 0
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3._m_flow_start
@@ -27722,7 +27647,7 @@ double initialValue(11451,6)
6 257 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.allowFlowReversal
-2 3.3943297549845469E-03 0 0
6 256 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.V
- -2 3.1240838956025988E+02 1 10000
+ -2 3.1505693714974080E+02 1 10000
6 256 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.rho_start
@@ -27790,7 +27715,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.d
- -2 3.1240838956025988E+02 1 10000
+ -2 3.1505693714974075E+02 1 10000
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.X[1]
@@ -27798,13 +27723,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.MM
- -2 3.9258389560259900E+01 0 0
+ -2 4.1906937149740770E+01 0 0
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T_degC
-2 3.0296293317636094E+00 0 0
6 1344 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.p_bar
- -2 5.5508177473479277E+05 0 0
+ -2 5.9253008865969244E+05 0 0
2 1296 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.U
- -2 -7.8718646172586695E+00 0 0
+ -2 -6.0263996728416114E+00 0 0
3 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.der(U)
-2 3.3793471834460451E+00 0 1.0000000000000000E+100
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.m
@@ -27816,11 +27741,11 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.CSen
- -2 -6.7562062460190456E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -7.2120103166231871E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports_H_flow[1]
- -2 6.7554306236437653E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 7.2114200209076487E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports_H_flow[2]
- -2 -1.1564086445503588E-01 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -1.2344251745783712E-01 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports_H_flow[3]
-2 4184 0 0
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.cp_default
@@ -27842,13 +27767,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.mWat_flow_internal
-2 1 0 1
6 320 # hydraulic.distribution.threeWayValveWithFlowReturn.uBuf
- -2 3.2784892935469838E+02 1 10000
+ -2 3.2806724629536694E+02 1 10000
6 256 # hydraulic.distribution.T_stoDHWTop.y
- -2 3.1277955266131687E+02 1 10000
+ -2 3.1437050088086966E+02 1 10000
6 256 # hydraulic.distribution.T_stoBufTop.y
- -2 3.1045054197205377E+02 1 10000
+ -2 3.1041149079043436E+02 1 10000
6 256 # hydraulic.distribution.T_stoBufBot.y
- -2 3.2210428946964146E+02 1 10000
+ -2 3.2151967599186565E+02 1 10000
6 256 # hydraulic.distribution.T_stoDHWBot.y
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 256 # hydraulic.distribution.parStoBuf.rho
@@ -28030,9 +27955,9 @@ double initialValue(11451,6)
6 258 # hydraulic.distribution.eneKPICalBuf.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.distribution.eneKPICalBuf.integrator2.y_start
- -2 5.3517837326884493E+06 0 0
+ -2 5.7859798598214388E+06 0 0
2 272 # hydraulic.distribution.eneKPICalBuf.integrator2.y
- -2 3.1766040430945296E+01 0 0
+ -2 3.2942048106824537E+01 0 0
3 256 # hydraulic.distribution.eneKPICalBuf.integrator2.der(y)
-2 0 0 0
6 769 # hydraulic.distribution.eneKPICalBuf.integrator2.local_reset
@@ -28050,9 +27975,9 @@ double initialValue(11451,6)
6 258 # hydraulic.distribution.eneKPICalDHW.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.distribution.eneKPICalDHW.integrator2.y_start
- -2 7.0984294617475094E+06 0 0
+ -2 7.2711278995888978E+06 0 0
2 272 # hydraulic.distribution.eneKPICalDHW.integrator2.y
- -2 4.8119202942472874E+01 0 0
+ -2 4.7801754145758395E+01 0 0
3 256 # hydraulic.distribution.eneKPICalDHW.integrator2.der(y)
-2 0 0 0
6 769 # hydraulic.distribution.eneKPICalDHW.integrator2.local_reset
@@ -28110,7 +28035,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.resBui.m_flow_small
-2 0 0 0
6 769 # hydraulic.distribution.resBui.show_T
- -2 1.4814665881804406E+03 0 0
+ -2 1.4814665881804410E+03 0 0
6 352 # hydraulic.distribution.resBui.dp
-2 0 0 0
6 1280 # hydraulic.distribution.resBui._m_flow_start
@@ -28152,7 +28077,7 @@ double initialValue(11451,6)
6 256 # hydraulic.distribution.resDHW.m_flow_small
-2 0 0 0
6 769 # hydraulic.distribution.resDHW.show_T
- -2 2.3437262480221092E-04 0 0
+ -2 2.3437262480221430E-04 0 0
6 352 # hydraulic.distribution.resDHW.dp
-2 0 0 0
6 1280 # hydraulic.distribution.resDHW._m_flow_start
@@ -28322,15 +28247,15 @@ double initialValue(11451,6)
6 256 # hydraulic.transfer.hBui
-2 1.2400000000000000E+00 0 0
6 256 # hydraulic.transfer.nHeaTra
- -2 1.4714393182130088E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.4651096805511849E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.portTra_out[1].h_outflow
- -2 1.6581944673393093E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7246790386206334E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.portTra_in[1].h_outflow
-2 1 0 0
6 260 # hydraulic.transfer.outBusTra.opening[1]
- -2 3.1277955266131687E+02 0 0
+ -2 3.1437050088086966E+02 0 0
6 260 # hydraulic.transfer.outBusTra.TSup[1]
- -2 3.0831824374314073E+02 0 0
+ -2 3.0816696177225583E+02 0 0
6 260 # hydraulic.transfer.outBusTra.TRet[1]
-2 1 0 0
6 260 # hydraulic.transfer.traControlBus.opening[1]
@@ -28342,7 +28267,7 @@ double initialValue(11451,6)
6 257 # hydraulic.transfer.use_oldRad_design[1]
-2 1 0 0
6 257 # hydraulic.transfer.rad[1].allowFlowReversal
- -2 1.6106943516381588E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.6644148592132909E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.rad[1].port_a.h_outflow
-2 3.1759997251723698E-01 0 0
6 256 # hydraulic.transfer.rad[1].m_flow_nominal
@@ -28404,7 +28329,7 @@ double initialValue(11451,6)
6 256 # hydraulic.transfer.rad[1].dp_nominal
-2 0 0 0
6 257 # hydraulic.transfer.rad[1].linearized
- -2 -8.2363941083883637E+03 0 0
+ -2 -8.3540947817370961E+03 0 0
6 256 # hydraulic.transfer.rad[1].Q_flow
-2 4184 0 0
6 1280 # hydraulic.transfer.rad[1].cp_nominal
@@ -28452,25 +28377,25 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].UAEle
-2 1 0 0
6 1280 # hydraulic.transfer.rad[1].k
- -2 -2.0069870143399498E+01 0 0
+ -2 -2.1053897340702008E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTCon[1]
- -2 -1.9117120655792235E+01 0 0
+ -2 -1.9722476903676750E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTCon[2]
- -2 -1.8299973994063976E+01 0 0
+ -2 -1.8490373090175581E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTCon[3]
- -2 -1.7533302344427966E+01 0 0
+ -2 -1.7348940066867044E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTCon[4]
- -2 -1.6741594965934155E+01 0 0
+ -2 -1.6290389246483414E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTCon[5]
- -2 -2.1395035849580438E+01 0 0
+ -2 -2.2318681107095870E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTRad[1]
- -2 -2.0442286361973174E+01 0 0
+ -2 -2.0987260670070611E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTRad[2]
- -2 -1.9625139700244915E+01 0 0
+ -2 -1.9755156856569442E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTRad[3]
- -2 -1.8858468050608906E+01 0 0
+ -2 -1.8613723833260906E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTRad[4]
- -2 -1.8066760672115095E+01 0 0
+ -2 -1.7555173012877276E+01 0 0
6 1280 # hydraulic.transfer.rad[1].dTRad[5]
-1 2.9314999999999998E+02 0 1.0000000000000000E+100
1 1304 # hydraulic.transfer.rad[1].preSumCon.T_ref
@@ -28478,15 +28403,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].preSumCon.alpha
-2 5 0 0
6 1282 # hydraulic.transfer.rad[1].sumCon.nin
- -2 -1.1590334249615814E+03 0 0
+ -2 -1.2299090701835080E+03 0 0
6 1280 # hydraulic.transfer.rad[1].sumCon.u[1]
- -2 -1.0912005588793613E+03 0 0
+ -2 -1.1342085288791700E+03 0 0
6 1280 # hydraulic.transfer.rad[1].sumCon.u[2]
- -2 -1.0336637571122747E+03 0 0
+ -2 -1.0470160500066315E+03 0 0
6 1280 # hydraulic.transfer.rad[1].sumCon.u[3]
- -2 -9.8023841481567467E+02 0 0
+ -2 -9.6747367578901412E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumCon.u[4]
- -2 -9.2565419396074640E+02 0 0
+ -2 -8.9482006809956408E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumCon.u[5]
-2 -1 0 0
6 1280 # hydraulic.transfer.rad[1].sumCon.k[1]
@@ -28500,15 +28425,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].sumCon.k[5]
-2 5 0 0
6 1282 # hydraulic.transfer.rad[1].sumRad.nin
- -2 -6.7559049966236864E+02 0 0
+ -2 -7.1194159011897523E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumRad.u[1]
- -2 -6.3848681124005566E+02 0 0
+ -2 -6.5966057510840153E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumRad.u[2]
- -2 -6.0699233846499715E+02 0 0
+ -2 -6.1198276138407493E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumRad.u[3]
- -2 -5.7772789781405982E+02 0 0
+ -2 -5.6844524865347057E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumRad.u[4]
- -2 -5.4780621147724469E+02 0 0
+ -2 -5.2863721351428637E+02 0 0
6 1280 # hydraulic.transfer.rad[1].sumRad.u[5]
-2 -1 0 0
6 1280 # hydraulic.transfer.rad[1].sumRad.k[1]
@@ -28600,7 +28525,7 @@ double initialValue(11451,6)
6 257 # hydraulic.transfer.rad[1].vol[1].allowFlowReversal
-2 1.5414524106140588E-02 0 0
6 256 # hydraulic.transfer.rad[1].vol[1].V
- -2 3.1164651892060607E+02 1 10000
+ -2 3.1293046986647443E+02 1 10000
6 256 # hydraulic.transfer.rad[1].vol[1].T
-2 1.5346484396736084E+01 0 0
6 256 # hydraulic.transfer.rad[1].vol[1].m
@@ -28620,7 +28545,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[1].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.transfer.rad[1].vol[1].use_C_flow
- -2 -1.8346239246239502E+03 0 0
+ -2 -1.9418506603024832E+03 0 0
6 388 # hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.transfer.rad[1].vol[1].dynBal.energyDynamics
@@ -28658,7 +28583,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.d
- -2 3.1164651892060607E+02 1 10000
+ -2 3.1293046986647443E+02 1 10000
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.X[1]
@@ -28666,13 +28591,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.MM
- -2 3.8496518920606093E+01 0 0
+ -2 3.9780469866474448E+01 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.medium.p_bar
- -2 3.8172431207032753E+06 0 0
+ -2 3.9445573052804475E+06 0 0
2 1296 # hydraulic.transfer.rad[1].vol[1].dynBal.U
- -2 -3.2602038049885687E+02 0 0
+ -2 -2.7860487947905995E+01 0 0
3 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.der(U)
-2 1.5346484396736084E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.m
@@ -28680,15 +28605,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.mb_flow
- -2 1.5086035441250933E+03 0 0
+ -2 1.9139901723545772E+03 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.Hb_flow
-2 1.5414524106140588E-02 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.fluidVolume
-2 3.4948446895818757E+04 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.CSen
- -2 5.2664251725519905E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 5.4775801526696785E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.ports_H_flow[1]
- -2 -5.1155648181394812E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.2861811354342208E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.transfer.rad[1].vol[1].dynBal.cp_default
@@ -28742,9 +28667,9 @@ double initialValue(11451,6)
6 257 # hydraulic.transfer.rad[1].vol[2].allowFlowReversal
-2 1.5414524106140588E-02 0 0
6 256 # hydraulic.transfer.rad[1].vol[2].V
- -2 1.5708313130766709E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.6087082281281540E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow
- -2 3.1069376943299881E+02 1 10000
+ -2 3.1159904942944917E+02 1 10000
6 256 # hydraulic.transfer.rad[1].vol[2].T
-2 1.5346484396736084E+01 0 0
6 256 # hydraulic.transfer.rad[1].vol[2].m
@@ -28764,7 +28689,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[2].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.transfer.rad[1].vol[2].use_C_flow
- -2 -1.7296873701194170E+03 0 0
+ -2 -1.7938691039875716E+03 0 0
6 388 # hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.transfer.rad[1].vol[2].dynBal.energyDynamics
@@ -28802,7 +28727,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.d
- -2 3.1069376943299881E+02 1 10000
+ -2 3.1159904942944917E+02 1 10000
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.X[1]
@@ -28810,13 +28735,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.MM
- -2 3.7543769432998829E+01 0 0
+ -2 3.8449049429449190E+01 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.medium.p_bar
- -2 3.7227702559015811E+06 0 0
+ -2 3.8125361343667805E+06 0 0
2 1296 # hydraulic.transfer.rad[1].vol[2].dynBal.U
- -2 -4.6363737496120012E+02 0 0
+ -2 -2.4626653820837873E+01 0 0
3 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.der(U)
-2 1.5346484396736084E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.m
@@ -28824,15 +28749,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.mb_flow
- -2 1.2660499951582169E+03 0 0
+ -2 1.7692424501667338E+03 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.Hb_flow
-2 1.5414524106140588E-02 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.fluidVolume
-2 3.4948446895818757E+04 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.CSen
- -2 5.1155648181394812E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 5.2861811354342208E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.ports_H_flow[1]
- -2 -4.9889598186236595E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.1092568904175474E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.transfer.rad[1].vol[2].dynBal.cp_default
@@ -28886,9 +28811,9 @@ double initialValue(11451,6)
6 257 # hydraulic.transfer.rad[1].vol[3].allowFlowReversal
-2 1.5414524106140588E-02 0 0
6 256 # hydraulic.transfer.rad[1].vol[3].V
- -2 1.5366418967499607E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5571570045712651E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow
- -2 3.0987662277127055E+02 1 10000
+ -2 3.1036694561594800E+02 1 10000
6 256 # hydraulic.transfer.rad[1].vol[3].T
-2 1.5346484396736084E+01 0 0
6 256 # hydraulic.transfer.rad[1].vol[3].m
@@ -28908,7 +28833,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[3].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.transfer.rad[1].vol[3].use_C_flow
- -2 -1.6406560955772718E+03 0 0
+ -2 -1.6589988113907066E+03 0 0
6 388 # hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.transfer.rad[1].vol[3].dynBal.energyDynamics
@@ -28946,7 +28871,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.d
- -2 3.0987662277127055E+02 1 10000
+ -2 3.1036694561594800E+02 1 10000
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.X[1]
@@ -28954,13 +28879,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.MM
- -2 3.6726622771270570E+01 0 0
+ -2 3.7216945615948021E+01 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.medium.p_bar
- -2 3.6417435147689339E+06 0 0
+ -2 3.6903630148756527E+06 0 0
2 1296 # hydraulic.transfer.rad[1].vol[3].dynBal.U
- -2 -5.5480032700292099E+02 0 0
+ -2 -2.1732092900919270E+01 0 0
3 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.der(U)
-2 1.5346484396736084E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.m
@@ -28968,15 +28893,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.mb_flow
- -2 1.0858557685743508E+03 0 0
+ -2 1.6372667184897873E+03 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.Hb_flow
-2 1.5414524106140588E-02 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.fluidVolume
-2 3.4948446895818757E+04 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.CSen
- -2 4.9889598186236595E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 5.1092568904175474E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.ports_H_flow[1]
- -2 -4.8803742417662244E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.9455302185685687E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.transfer.rad[1].vol[3].dynBal.cp_default
@@ -29030,9 +28955,9 @@ double initialValue(11451,6)
6 257 # hydraulic.transfer.rad[1].vol[4].allowFlowReversal
-2 1.5414524106140588E-02 0 0
6 256 # hydraulic.transfer.rad[1].vol[4].V
- -2 1.5045643549291900E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.5093994468760359E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow
- -2 3.0910995112163454E+02 1 10000
+ -2 3.0922551259263946E+02 1 10000
6 256 # hydraulic.transfer.rad[1].vol[4].T
-2 1.5346484396736084E+01 0 0
6 256 # hydraulic.transfer.rad[1].vol[4].m
@@ -29052,7 +28977,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[4].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.transfer.rad[1].vol[4].use_C_flow
- -2 -1.5579663126297346E+03 0 0
+ -2 -1.5359189244424847E+03 0 0
6 388 # hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.transfer.rad[1].vol[4].dynBal.energyDynamics
@@ -29090,7 +29015,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.d
- -2 3.0910995112163454E+02 1 10000
+ -2 3.0922551259263946E+02 1 10000
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.X[1]
@@ -29098,13 +29023,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.MM
- -2 3.5959951121634560E+01 0 0
+ -2 3.6075512592639484E+01 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.medium.p_bar
- -2 3.5657217818312915E+06 0 0
+ -2 3.5771806420758152E+06 0 0
2 1296 # hydraulic.transfer.rad[1].vol[4].dynBal.U
- -2 -5.3918367256000420E+02 0 0
+ -2 -1.9139023292969341E+01 0 0
3 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.der(U)
-2 1.5346484396736084E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.m
@@ -29112,15 +29037,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.mb_flow
- -2 1.0187826400697304E+03 0 0
+ -2 1.5167799011495154E+03 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.Hb_flow
-2 1.5414524106140588E-02 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.fluidVolume
-2 3.4948446895818757E+04 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.CSen
- -2 4.8803742417662244E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.9455302185685687E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.ports_H_flow[1]
- -2 -4.7784959777592514E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.7938522284536171E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.transfer.rad[1].vol[4].dynBal.cp_default
@@ -29174,7 +29099,7 @@ double initialValue(11451,6)
6 257 # hydraulic.transfer.rad[1].vol[5].allowFlowReversal
-2 1.5414524106140588E-02 0 0
6 256 # hydraulic.transfer.rad[1].vol[5].V
- -2 3.0831824374314073E+02 1 10000
+ -2 3.0816696177225583E+02 1 10000
6 256 # hydraulic.transfer.rad[1].vol[5].T
-2 1.5346484396736084E+01 0 0
6 256 # hydraulic.transfer.rad[1].vol[5].m
@@ -29194,7 +29119,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[5].useSteadyStateTwoPort
-2 0 0 0
6 257 # hydraulic.transfer.rad[1].vol[5].use_C_flow
- -2 -1.4734604054379911E+03 0 0
+ -2 -1.4234572816138505E+03 0 0
6 388 # hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow
-2 2 1 4
6 1282 # hydraulic.transfer.rad[1].vol[5].dynBal.energyDynamics
@@ -29232,7 +29157,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.d
- -2 3.0831824374314073E+02 1 10000
+ -2 3.0816696177225583E+02 1 10000
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.X[1]
@@ -29240,13 +29165,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.MM
- -2 3.5168243743140749E+01 0 0
+ -2 3.5016961772255854E+01 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.T_degC
-2 3.0000000000000004E+00 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.medium.p_bar
- -2 3.4872175526463520E+06 0 0
+ -2 3.4722167141591706E+06 0 0
2 1296 # hydraulic.transfer.rad[1].vol[5].dynBal.U
- -2 -4.2140933036883007E+02 0 0
+ -2 -1.6814424857094082E+01 0 0
3 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.der(U)
-2 1.5346484396736084E+01 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.m
@@ -29254,15 +29179,15 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.der(m)
-2 0 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.mb_flow
- -2 1.0520510750691610E+03 0 0
+ -2 1.4066428567567564E+03 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.Hb_flow
-2 1.5414524106140588E-02 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.fluidVolume
-2 3.4948446895818757E+04 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.CSen
- -2 4.7784959777592514E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.7938522284536171E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.ports_H_flow[1]
- -2 -4.6732908702523353E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.6531879427779415E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.transfer.rad[1].vol[5].dynBal.cp_default
@@ -29386,9 +29311,9 @@ double initialValue(11451,6)
6 258 # hydraulic.transfer.intKPICalHeaFlo.integrator2.initType
-1 1.0000000000000001E-15 0 0
1 280 # hydraulic.transfer.intKPICalHeaFlo.integrator2.y_start
- -2 1.4495296356993980E+09 0 0
+ -2 1.5442268793516254E+09 0 0
2 272 # hydraulic.transfer.intKPICalHeaFlo.integrator2.y
- -2 8.2363941083883637E+03 0 0
+ -2 8.3540947817370961E+03 0 0
3 256 # hydraulic.transfer.intKPICalHeaFlo.integrator2.der(y)
-2 0 0 0
6 769 # hydraulic.transfer.intKPICalHeaFlo.integrator2.local_reset
@@ -29414,7 +29339,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.pumFixMFlo[1].wrongEnergyMassBalanceConfiguration
-2 1 0 0
6 257 # hydraulic.transfer.pumFixMFlo[1].allowFlowReversal
- -2 1.6581944673393093E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 1.7246790386206334E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.transfer.pumFixMFlo[1].port_b.h_outflow
-2 0 0 1.0000000000000000E+100
6 256 # hydraulic.transfer.pumFixMFlo[1].per.pressure.V_flow[1]
@@ -29542,7 +29467,7 @@ double initialValue(11451,6)
6 288 # hydraulic.transfer.pumFixMFlo[1].y_actual
-2 1.1586789411904622E+01 0 0
6 256 # hydraulic.transfer.pumFixMFlo[1].P
- -2 3.1278179893258385E+02 1 10000
+ -2 3.1437081832267285E+02 1 10000
6 260 # hydraulic.transfer.pumFixMFlo[1].heatPort.T
-2 0 0 0
6 388 # hydraulic.transfer.pumFixMFlo[1].heatPort.Q_flow
@@ -29688,7 +29613,7 @@ double initialValue(11451,6)
6 1281 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.standardOrderComponents
-2 9.9558600000000001E+02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.d
- -2 3.1278179893258380E+02 1 10000
+ -2 3.1437081832267285E+02 1 10000
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T
-2 1 0 1
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.X[1]
@@ -29696,13 +29621,13 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.R_s
-2 1.8015268000000001E-02 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.MM
- -2 3.9631798932583820E+01 0 0
+ -2 4.1220818322672869E+01 0 0
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T_degC
-2 2.8391204164661952E+00 0 0
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p_bar
- -2 5.2664251725519905E+04 0 0
+ -2 5.4775801526696785E+04 0 0
2 1296 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.U
- -2 -2.9849312581209233E+00 0 0
+ -2 -4.2182882132328819E-01 0 0
3 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.der(U)
-2 3.1759997251723698E-01 0 1.0000000000000000E+100
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m
@@ -29714,9 +29639,9 @@ double initialValue(11451,6)
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.CSen
- -2 5.2661266794261785E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 5.4775379697875462E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports_H_flow[1]
- -2 -5.2664251725519905E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.4775801526696785E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports_H_flow[2]
-2 4184 0 0
6 1280 # hydraulic.transfer.pumFixMFlo[1].vol.dynBal.cp_default
@@ -30230,13 +30155,13 @@ double initialValue(11451,6)
6 260 # hydraulic.weaBus.alt
-2 1 0 0
6 260 # hydraulic.outBusHyd.tra.opening[1]
- -2 3.1277955266131687E+02 0 0
+ -2 3.1437050088086966E+02 0 0
6 260 # hydraulic.outBusHyd.tra.TSup[1]
- -2 3.0831824374314073E+02 0 0
+ -2 3.0816696177225583E+02 0 0
6 260 # hydraulic.outBusHyd.tra.TRet[1]
- -2 2.2886032042005807E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.2977375849981530E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.portDHW_out.h_outflow
- -2 2.0482474714097992E+05 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.0237872434996601E+05 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # hydraulic.portDHW_in.h_outflow
-2 1 0 0
6 260 # hydraulic.useProBus.intGains[1]
@@ -30244,7 +30169,7 @@ double initialValue(11451,6)
6 260 # hydraulic.useProBus.intGains[2]
-2 0 0 0
6 260 # hydraulic.useProBus.intGains[3]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # hydraulic.buiMeaBus.TZoneOpeMea[1]
-2 3.2314999999999998E+02 0 0
6 260 # hydraulic.sigBusHyd.TSetDHW
@@ -30414,7 +30339,7 @@ double initialValue(11451,6)
6 256 # ventilation.generation.dpDem_nominal[1]
-2 1.0122502930351051E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.portVent_out[1].p
- -2 1.0142497025746237E+05 0 1.0000000000000000E+08
+ -2 1.0142497025746238E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.portVent_in[1].p
-2 9.1169226331583686E-01 0 0
6 260 # ventilation.generation.weaBus.lat
@@ -30428,23 +30353,23 @@ double initialValue(11451,6)
6 257 # ventilation.generation.hex.allowFlowReversal1
-2 1 0 0
6 257 # ventilation.generation.hex.allowFlowReversal2
- -2 1.0887281405591706E-01 -100000 100000
+ -2 1.0887281405590912E-01 -100000 100000
6 388 # ventilation.generation.hex.port_a1.m_flow
- -2 2.7445551525209459E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 2.7445135881923692E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.hex.port_a1.h_outflow
- -2 1.0122502952302407E+05 0 1.0000000000000000E+08
+ -2 1.0122502952302409E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.hex.port_b1.p
- -2 4.0455630319313685E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.0696509350258944E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.hex.port_b1.h_outflow
- -2 1.0887271838121459E-01 -100000 100000
+ -2 1.0887271838121700E-01 -100000 100000
6 388 # ventilation.generation.hex.port_a2.m_flow
- -2 1.0162491090381870E+05 0 1.0000000000000000E+08
+ -2 1.0162491090381872E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.hex.port_a2.p
- -2 4.3709733327382099E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.4010333390905857E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.hex.port_a2.h_outflow
- -2 1.0152494060254580E+05 0 1.0000000000000000E+08
+ -2 1.0152494060254582E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.hex.port_b2.p
- -2 3.0697691188175926E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 3.0757910998831572E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.hex.port_b2.h_outflow
-2 1.0888888888888890E-01 0 1.0000000000000000E+100
6 256 # ventilation.generation.hex.m1_flow_nominal
@@ -30456,7 +30381,7 @@ double initialValue(11451,6)
6 256 # ventilation.generation.hex.m2_flow_small
-2 0 0 0
6 769 # ventilation.generation.hex.show_T
- -2 9.9970476975926431E+01 0 0
+ -2 9.9970476975911879E+01 0 0
6 256 # ventilation.generation.hex.dp1
-2 9.9970301272900542E+01 0 0
6 256 # ventilation.generation.hex.dp2
@@ -30464,15 +30389,15 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.hex.state_a1_inflow.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.hex.state_a1_inflow.X[2]
- -2 2.8837462972827404E+02 1 10000
+ -2 2.8861164688645363E+02 1 10000
6 1280 # ventilation.generation.hex.state_b1_inflow.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.hex.state_b1_inflow.X[2]
- -2 2.9158017223656014E+02 1 10000
+ -2 2.9187695605314531E+02 1 10000
6 1280 # ventilation.generation.hex.state_a2_inflow.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.hex.state_a2_inflow.X[2]
- -2 2.7875745517641320E+02 1 10000
+ -2 2.7881632010130642E+02 1 10000
6 1280 # ventilation.generation.hex.state_b2_inflow.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.hex.state_b2_inflow.X[2]
@@ -30502,7 +30427,7 @@ double initialValue(11451,6)
6 257 # ventilation.generation.hex.prescribedHeatFlowRate2
-2 1 0 0
6 769 # ventilation.generation.hex.homotopyInitialization
- -2 1.4164994717195416E+03 0 0
+ -2 1.4427246496655093E+03 0 0
6 256 # ventilation.generation.hex.Q1_flow
-2 0 -100000 100000
6 256 # ventilation.generation.hex.mWat1_flow
@@ -30520,7 +30445,7 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.hex.bal1.m_flow_small
-2 0 0 0
6 769 # ventilation.generation.hex.bal1.show_T
- -2 9.9970476975926431E+01 0 0
+ -2 9.9970476975911879E+01 0 0
6 1280 # ventilation.generation.hex.bal1.dp
-2 0 0 0
6 1280 # ventilation.generation.hex.bal1._m_flow_start
@@ -30570,7 +30495,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.hex.bal1.vol.use_m_flowInv
-2 1 0 0
6 1280 # ventilation.generation.hex.bal1.vol.s[1]
- -2 9.1850294186976758E+00 0 0
+ -2 9.1850294186983454E+00 0 0
6 1280 # ventilation.generation.hex.bal1.vol.m_flowInv
-2 0 0 0
6 1280 # ventilation.generation.hex.bal1.vol.mXi_flow[1]
@@ -30612,7 +30537,7 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.hex.bal1.preDro.m_flow_small
-2 0 0 0
6 769 # ventilation.generation.hex.bal1.preDro.show_T
- -2 9.9970476975926431E+01 0 0
+ -2 9.9970476975911879E+01 0 0
6 1280 # ventilation.generation.hex.bal1.preDro.dp
-2 0 0 0
6 1280 # ventilation.generation.hex.bal1.preDro._m_flow_start
@@ -30650,7 +30575,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.hex.bal1.preDro.computeFlowResistance
-2 0 0 0
6 1280 # ventilation.generation.hex.bal1.preDro.coeff
- -2 4.0455630319313685E+04 0 0
+ -2 4.0696509350258944E+04 0 0
6 1280 # ventilation.generation.hex.bal1.hOut
-2 1.0000000000000000E-02 0 1
6 1280 # ventilation.generation.hex.bal1.XiOut[1]
@@ -30714,7 +30639,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.hex.bal2.vol.use_m_flowInv
-2 1 0 0
6 1280 # ventilation.generation.hex.bal2.vol.s[1]
- -2 9.1850374902785994E+00 0 0
+ -2 9.1850374902783969E+00 0 0
6 1280 # ventilation.generation.hex.bal2.vol.m_flowInv
-2 0 0 0
6 1280 # ventilation.generation.hex.bal2.vol.mXi_flow[1]
@@ -30756,7 +30681,7 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.hex.bal2.preDro.m_flow_small
-2 0 0 0
6 769 # ventilation.generation.hex.bal2.preDro.show_T
- -2 9.9970301272900500E+01 0 0
+ -2 9.9970301272904905E+01 0 0
6 1280 # ventilation.generation.hex.bal2.preDro.dp
-2 0 0 0
6 1280 # ventilation.generation.hex.bal2.preDro._m_flow_start
@@ -30794,23 +30719,23 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.hex.bal2.preDro.computeFlowResistance
-2 0 0 0
6 1280 # ventilation.generation.hex.bal2.preDro.coeff
- -2 3.0697691188175926E+04 0 0
+ -2 3.0757910998831572E+04 0 0
6 1280 # ventilation.generation.hex.bal2.hOut
- -2 9.9999999999999933E-03 0 1
+ -2 9.9999999999999915E-03 0 1
6 1280 # ventilation.generation.hex.bal2.XiOut[1]
-2 0 0 0
6 1280 # ventilation.generation.hex.bal2.masExc.y
-2 2.7554999999999995E+02 1 10000
6 256 # ventilation.generation.hex.T_in1
- -2 2.9158017223656014E+02 1 10000
+ -2 2.9187695605314531E+02 1 10000
6 256 # ventilation.generation.hex.T_in2
- -2 1.1045582477229009E+02 0 1.0000000000000000E+100
+ -2 1.1045582477228204E+02 0 1.0000000000000000E+100
6 256 # ventilation.generation.hex.C1_flow
- -2 1.1045572770647745E+02 0 1.0000000000000000E+100
+ -2 1.1045572770647989E+02 0 1.0000000000000000E+100
6 256 # ventilation.generation.hex.C2_flow
- -2 1.1045572770647745E+02 0 1.0000000000000000E+100
+ -2 1.1045572770647989E+02 0 1.0000000000000000E+100
6 256 # ventilation.generation.hex.CMin_flow
- -2 1.7706243396494269E+03 0 0
+ -2 1.8034058120818866E+03 0 0
6 256 # ventilation.generation.hex.QMax_flow
-1 1.0000000000000000E-03 0 0
1 1304 # ventilation.generation.hex.delta
@@ -30886,7 +30811,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanFlow.wrongEnergyMassBalanceConfiguration
-2 1 0 0
6 257 # ventilation.generation.fanFlow.allowFlowReversal
- -2 4.0456140844523165E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.0696604232182661E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.fanFlow.port_a.h_outflow
-2 0 0 1.0000000000000000E+100
6 256 # ventilation.generation.fanFlow.per.pressure.V_flow[1]
@@ -31010,17 +30935,17 @@ double initialValue(11451,6)
6 256 # ventilation.generation.fanFlow.riseTime
-2 4 1 4
6 258 # ventilation.generation.fanFlow.init
- -2 2.8837462972827404E+02 1 10000
+ -2 2.8861164688645363E+02 1 10000
6 260 # ventilation.generation.fanFlow.heatPort.T
-2 0 0 0
6 388 # ventilation.generation.fanFlow.heatPort.Q_flow
- -2 9.0816947944238710E-02 0 0
+ -2 9.0816947944242415E-02 0 0
6 256 # ventilation.generation.fanFlow.VMachine_flow
-2 1.9994073443829257E+02 0 0
6 256 # ventilation.generation.fanFlow.dpMachine
- -2 4.8946943357510153E-01 0 0
+ -2 4.8946943357511397E-01 0 0
6 256 # ventilation.generation.fanFlow.eta
- -2 6.9924204796443079E-01 0 1.0000000000000000E+100
+ -2 6.9924204796444855E-01 0 1.0000000000000000E+100
6 256 # ventilation.generation.fanFlow.etaHyd
-2 6.9999999999999996E-01 0 0
6 256 # ventilation.generation.fanFlow.etaMot
@@ -31096,7 +31021,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanFlow.vol.allowFlowReversal
-2 1.8148148148148149E-01 0 0
6 1280 # ventilation.generation.fanFlow.vol.V
- -2 2.1756291127573778E-03 0 1.0000000000000000E+100
+ -2 2.1756291127573782E-03 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanFlow.vol.mXi[1]
-2 1.2000000000000000E+00 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanFlow.vol.rho_start
@@ -31174,47 +31099,47 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanFlow.vol.dynBal.medium.standardOrderComponents
-2 1.0000000000000000E-02 0 1
2 1296 # ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]
- -2 -2.9900376846255579E-18 0 0
+ -2 -5.7309055621989846E-16 0 0
3 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.der(Xi[1])
- -2 1.1988160417234530E+00 0 100000
+ -2 1.1988160417234532E+00 0 100000
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.d
- -2 2.8837462972827404E+02 1 10000
+ -2 2.8861164688645363E+02 1 10000
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.X[2]
- -2 -4.3981359155476835E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.3740895767817339E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.u
-2 2.8879594599429981E+02 0 1.0000000000000000E+07
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.R_s
-2 2.8790127130676930E-02 1.0000000000000000E-03 2.5000000000000000E-01
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.MM
- -2 1.5224629728274067E+01 0 0
+ -2 1.5461646886453650E+01 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.T_degC
- -2 1.0122502952302408E+00 0 0
+ -2 1.0122502952302410E+00 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.p_bar
- -2 1.5224629728274060E+01 0 0
+ -2 1.5461646886453625E+01 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.medium.dT
- -2 -9.5687125397293639E+03 0 0
+ -2 -9.5163966250549402E+03 0 0
2 1296 # ventilation.generation.fanFlow.vol.dynBal.U
- -2 -5.5582316204890958E-02 0 0
+ -2 -1.0330062545108376E-02 0 0
3 1280 # ventilation.generation.fanFlow.vol.dynBal.der(U)
- -2 2.1756291127573776E-01 0 1.0000000000000000E+100
+ -2 2.1756291127573782E-01 0 1.0000000000000000E+100
2 1296 # ventilation.generation.fanFlow.vol.dynBal.m
- -2 -6.9388939039072284E-17 0 0
+ -2 -1.2462253451417382E-14 0 0
3 1280 # ventilation.generation.fanFlow.vol.dynBal.der(m)
- -2 -6.5052130349130266E-19 0 0
+ -2 -1.2468324983583301E-16 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.mbXi_flow[1]
-2 1.8148148148148149E-01 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.CSen
- -2 4.4045183172695597E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.4307434952153089E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.fanFlow.vol.dynBal.ports_H_flow[1]
- -2 -4.4045738995857646E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.4307538252778540E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.fanFlow.vol.dynBal.ports_H_flow[2]
- -2 1.0887281405591706E-03 0 0
+ -2 1.0887281405590912E-03 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.ports_mXi_flow[1, 1]
- -2 -1.0887281405591713E-03 0 0
+ -2 -1.0887281405592159E-03 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.ports_mXi_flow[2, 1]
-2 1.0145400000000000E+03 0 0
6 1280 # ventilation.generation.fanFlow.vol.dynBal.cp_default
@@ -31252,7 +31177,7 @@ double initialValue(11451,6)
6 769 # ventilation.generation.fanFlow.preSou.show_T
-2 1 0 0
6 769 # ventilation.generation.fanFlow.preSou.show_V_flow
- -2 9.0816947944238710E-02 0 0
+ -2 9.0816947944242402E-02 0 0
6 1280 # ventilation.generation.fanFlow.preSou.V_flow
-2 0 0 0
6 1281 # ventilation.generation.fanFlow.preSou.control_m_flow
@@ -31260,7 +31185,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanFlow.preSou.control_dp
-2 0 0 0
6 1280 # ventilation.generation.fanFlow.preSou.m_flow_internal
- -2 1.1988160417234530E+00 0 1.0000000000000000E+100
+ -2 1.1988160417234532E+00 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanFlow.rho_inlet.y
-2 1 0 0
6 1281 # ventilation.generation.fanFlow.senMasFlo.allowFlowReversal
@@ -31400,11 +31325,11 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.fanFlow.eff.V_flow_max
-2 3 1 1.0000000000000000E+100
6 1282 # ventilation.generation.fanFlow.eff.nOri
- -2 1.8158007271415272E+01 0 0
+ -2 1.8158007271416011E+01 0 0
6 1280 # ventilation.generation.fanFlow.eff.WFlo
- -2 2.5968128381688707E+01 0 0
+ -2 2.5968128381689105E+01 0 0
6 1280 # ventilation.generation.fanFlow.eff.WHyd
- -2 5.0041991724376422E-01 0 0
+ -2 5.0041991724378465E-01 0 0
6 1280 # ventilation.generation.fanFlow.eff.r_V
-2 1 0 0
6 1281 # ventilation.generation.fanFlow.eff.preSpe
@@ -31660,7 +31585,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanFlow.eff.haveDPMax
-2 4.0651851851851864E-03 0 0
6 1280 # ventilation.generation.fanFlow.eff.deltaP
- -2 1.4905175729285605E+00 0 1.0000000000000000E+100
+ -2 1.4905175729285833E+00 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanFlow.eff.yMot
-2 1 0 1
6 256 # ventilation.generation.fanFlow.y_start
@@ -31674,15 +31599,15 @@ double initialValue(11451,6)
1 280 # ventilation.generation.yFan.k
-2 1 0 0
6 257 # ventilation.generation.TExhIn.allowFlowReversal
- -2 1.0887281405591223E-01 -100000 100000
+ -2 1.0887281405590485E-01 -100000 100000
6 388 # ventilation.generation.TExhIn.port_a.m_flow
- -2 1.0182485150636450E+05 0 1.0000000000000000E+08
+ -2 1.0182485150636452E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.TExhIn.port_a.p
- -2 4.3708291940879746E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.4009390994158042E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.TExhIn.port_a.h_outflow
- -2 4.3705330438605517E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.4009066865527864E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.TExhIn.port_b.h_outflow
- -2 9.9999999999999950E-03 0 1
+ -2 9.9999999999999933E-03 0 1
6 260 # ventilation.generation.TExhIn.port_b.Xi_outflow[1]
-2 1.0888888888888890E-01 0 1.0000000000000000E+100
6 256 # ventilation.generation.TExhIn.m_flow_nominal
@@ -31692,17 +31617,17 @@ double initialValue(11451,6)
6 256 # ventilation.generation.TExhIn.tau
-2 3 1 4
6 258 # ventilation.generation.TExhIn.initType
- -2 9.9985237398286730E-01 0 0
+ -2 9.9985237398279958E-01 0 0
6 1280 # ventilation.generation.TExhIn.k
-2 1 0 0
6 1281 # ventilation.generation.TExhIn.dynamic
- -2 9.9985237398286730E-01 0 0
+ -2 9.9985237398279958E-01 0 0
6 1280 # ventilation.generation.TExhIn.mNor_flow
-2 1 0 0
6 1280 # ventilation.generation.TExhIn.tauInv
- -2 2.9157755456353146E+02 0 1.0000000000000000E+100
+ -2 2.9187666859740187E+02 0 1.0000000000000000E+100
2 272 # ventilation.generation.TExhIn.T
- -2 -3.0134163300974120E-04 0 0
+ -2 -3.2022870826965902E-05 0 0
3 256 # ventilation.generation.TExhIn.der(T)
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # ventilation.generation.TExhIn.T_start
@@ -31716,17 +31641,17 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.TExhIn.tauHeaTraInv
-2 1200 0 0
6 1280 # ventilation.generation.TExhIn.ratTau
- -2 2.9157725317740602E+02 1 10000
+ -2 2.9187663656980294E+02 1 10000
6 1280 # ventilation.generation.TExhIn.TMed
- -2 2.9157725317740602E+02 1 10000
+ -2 2.9187663656980294E+02 1 10000
6 1280 # ventilation.generation.TExhIn.T_a_inflow
- -2 2.9158017223656014E+02 1 10000
+ -2 2.9187695605314531E+02 1 10000
6 1280 # ventilation.generation.TExhIn.T_b_inflow
-2 1 0 0
6 258 # ventilation.generation.bouExh.nPorts
-2 0 0 0
6 257 # ventilation.generation.bouExh.verifyInputs
- -2 1.0887281405591646E-01 -100000 100000
+ -2 1.0887281405591887E-01 -100000 100000
6 388 # ventilation.generation.bouExh.ports[1].m_flow
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.bouExh.ports[1].p
@@ -31906,17 +31831,17 @@ double initialValue(11451,6)
6 256 # ventilation.generation.fanRet.riseTime
-2 4 1 4
6 258 # ventilation.generation.fanRet.init
- -2 2.9157725317740602E+02 1 10000
+ -2 2.9187663656980294E+02 1 10000
6 260 # ventilation.generation.fanRet.heatPort.T
-2 0 0 0
6 388 # ventilation.generation.fanRet.heatPort.Q_flow
- -2 9.0816948141177523E-02 0 0
+ -2 9.0816948141171361E-02 0 0
6 288 # ventilation.generation.fanRet.VMachine_flow
- -2 5.9982220285398944E+02 0 0
+ -2 5.9982220285400399E+02 0 0
6 256 # ventilation.generation.fanRet.dpMachine
- -2 4.8946943386257369E-01 0 0
+ -2 4.8946943386256458E-01 0 0
6 256 # ventilation.generation.fanRet.eta
- -2 6.9924204837510529E-01 0 1.0000000000000000E+100
+ -2 6.9924204837509230E-01 0 1.0000000000000000E+100
6 256 # ventilation.generation.fanRet.etaHyd
-2 6.9999999999999996E-01 0 0
6 256 # ventilation.generation.fanRet.etaMot
@@ -31924,7 +31849,7 @@ double initialValue(11451,6)
6 256 # ventilation.generation.fanRet.m_flow_small
-2 0 0 0
6 769 # ventilation.generation.fanRet.show_T
- -2 -5.9982220285398944E+02 0 0
+ -2 -5.9982220285400399E+02 0 0
6 256 # ventilation.generation.fanRet.dp
-2 2.1777777777777779E-01 0 0
6 1280 # ventilation.generation.fanRet._m_flow_nominal
@@ -31992,7 +31917,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanRet.vol.allowFlowReversal
-2 1.8148148148148149E-01 0 0
6 1280 # ventilation.generation.fanRet.vol.V
- -2 2.1756291080393727E-03 0 1.0000000000000000E+100
+ -2 2.1756291080393723E-03 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanRet.vol.mXi[1]
-2 1.2000000000000000E+00 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanRet.vol.rho_start
@@ -32068,49 +31993,49 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanRet.vol.dynBal.medium.preferredMediumStates
-2 1 0 0
6 1281 # ventilation.generation.fanRet.vol.dynBal.medium.standardOrderComponents
- -2 9.9999999999999950E-03 0 1
+ -2 9.9999999999999933E-03 0 1
2 1296 # ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]
- -2 2.2225946837248503E-16 0 0
+ -2 5.6113040669824687E-16 0 0
3 1280 # ventilation.generation.fanRet.vol.dynBal.medium.der(Xi[1])
-2 1.1988160391237366E+00 0 100000
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.d
- -2 2.9157725317740602E+02 1 10000
+ -2 2.9187663656980294E+02 1 10000
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.X[2]
- -2 -4.0732169561394483E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.0428433134472136E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.u
-2 2.8879594599429981E+02 0 1.0000000000000000E+07
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.R_s
-2 2.8790127130676930E-02 1.0000000000000000E-03 2.5000000000000000E-01
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.MM
- -2 1.8427253177406044E+01 0 0
+ -2 1.8726636569802963E+01 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.T_degC
-2 1.0122502930351052E+00 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.p_bar
- -2 1.8427253177406048E+01 0 0
+ -2 1.8726636569802949E+01 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.medium.dT
- -2 -8.8618093731365207E+03 0 0
+ -2 -8.7957275919781077E+03 0 0
2 1296 # ventilation.generation.fanRet.vol.dynBal.U
- -2 -6.6759522314896458E-02 0 0
+ -2 -7.0740356759415582E-03 0 0
3 1280 # ventilation.generation.fanRet.vol.dynBal.der(U)
-2 2.1756291080393739E-01 0 1.0000000000000000E+100
2 1296 # ventilation.generation.fanRet.vol.dynBal.m
- -2 4.8294701571194310E-15 0 0
+ -2 1.2212453270876722E-14 0 0
3 1280 # ventilation.generation.fanRet.vol.dynBal.der(m)
- -2 4.8355416892853498E-17 0 0
+ -2 1.2208116462186780E-16 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.mbXi_flow[1]
-2 1.8148148148148149E-01 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.CSen
- -2 4.7582555545721843E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.7913838795888223E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.fanRet.vol.dynBal.ports_H_flow[1]
- -2 -4.7583223140944992E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.7913909536244983E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.fanRet.vol.dynBal.ports_H_flow[2]
- -2 1.0887281405591702E-03 0 0
+ -2 1.0887281405591697E-03 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.ports_mXi_flow[1, 1]
- -2 -1.0887281405591218E-03 0 0
+ -2 -1.0887281405590477E-03 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.ports_mXi_flow[2, 1]
-2 1.0145400000000000E+03 0 0
6 1280 # ventilation.generation.fanRet.vol.dynBal.cp_default
@@ -32148,7 +32073,7 @@ double initialValue(11451,6)
6 769 # ventilation.generation.fanRet.preSou.show_T
-2 1 0 0
6 769 # ventilation.generation.fanRet.preSou.show_V_flow
- -2 9.0816948141177523E-02 0 0
+ -2 9.0816948141171361E-02 0 0
6 1280 # ventilation.generation.fanRet.preSou.V_flow
-2 0 0 0
6 1281 # ventilation.generation.fanRet.preSou.control_m_flow
@@ -32176,7 +32101,7 @@ double initialValue(11451,6)
6 1284 # ventilation.generation.fanRet.senRelPre.port_b.h_outflow
-2 0 0 1
6 1284 # ventilation.generation.fanRet.senRelPre.port_b.Xi_outflow[1]
- -2 5.9982220285398944E+02 0 0
+ -2 5.9982220285400399E+02 0 0
6 1280 # ventilation.generation.fanRet.senRelPre.p_rel
-2 1 0 0
6 769 # ventilation.generation.fanRet.eff.homotopyInitialization
@@ -32296,11 +32221,11 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.fanRet.eff.V_flow_max
-2 3 1 1.0000000000000000E+100
6 1282 # ventilation.generation.fanRet.eff.nOri
- -2 5.4474021890517626E+01 0 0
+ -2 5.4474021890515246E+01 0 0
6 1280 # ventilation.generation.fanRet.eff.WFlo
- -2 7.7904385208389641E+01 0 0
+ -2 7.7904385208387680E+01 0 0
6 1280 # ventilation.generation.fanRet.eff.WHyd
- -2 5.0041991832893729E-01 0 0
+ -2 5.0041991832890331E-01 0 0
6 1280 # ventilation.generation.fanRet.eff.r_V
-2 1 0 0
6 1281 # ventilation.generation.fanRet.eff.preSpe
@@ -32556,7 +32481,7 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.fanRet.eff.haveDPMax
-2 1.2195555555555560E-02 0 0
6 1280 # ventilation.generation.fanRet.eff.deltaP
- -2 1.4905175741401075E+00 0 1.0000000000000000E+100
+ -2 1.4905175741400700E+00 0 1.0000000000000000E+100
6 1280 # ventilation.generation.fanRet.eff.yMot
-2 1 0 1
6 256 # ventilation.generation.fanRet.y_start
@@ -32580,17 +32505,17 @@ double initialValue(11451,6)
6 256 # ventilation.generation.TSup.tau
-2 3 1 4
6 258 # ventilation.generation.TSup.initType
- -2 9.9985237398291171E-01 0 0
+ -2 9.9985237398283877E-01 0 0
6 1280 # ventilation.generation.TSup.k
-2 1 0 0
6 1281 # ventilation.generation.TSup.dynamic
- -2 9.9985237398291171E-01 0 0
+ -2 9.9985237398283877E-01 0 0
6 1280 # ventilation.generation.TSup.mNor_flow
-2 1 0 0
6 1280 # ventilation.generation.TSup.tauInv
- -2 2.8837437935757822E+02 0 1.0000000000000000E+100
+ -2 2.8861160019720012E+02 0 1.0000000000000000E+100
2 272 # ventilation.generation.TSup.T
- -2 -2.5280053579321700E-04 0 0
+ -2 -4.6825944994664788E-05 0 0
3 256 # ventilation.generation.TSup.der(T)
-2 2.9314999999999998E+02 0 1.0000000000000000E+100
6 256 # ventilation.generation.TSup.T_start
@@ -32604,11 +32529,11 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.TSup.tauHeaTraInv
-2 1200 0 0
6 1280 # ventilation.generation.TSup.ratTau
- -2 2.8837412651971698E+02 1 10000
+ -2 2.8861155336434138E+02 1 10000
6 1280 # ventilation.generation.TSup.TMed
- -2 2.8837412651971698E+02 1 10000
+ -2 2.8861155336434138E+02 1 10000
6 1280 # ventilation.generation.TSup.T_a_inflow
- -2 2.8837462972827404E+02 1 10000
+ -2 2.8861164688645363E+02 1 10000
6 1280 # ventilation.generation.TSup.T_b_inflow
-2 2 1 4
6 258 # ventilation.generation.threeWayValve_b.energyDynamics
@@ -32630,11 +32555,11 @@ double initialValue(11451,6)
6 256 # ventilation.generation.threeWayValve_b.mSenFac
-2 0 0 0
6 1281 # ventilation.generation.threeWayValve_b.wrongEnergyMassBalanceConfiguration
- -2 9.5674701874356300E-08 -100000 100000
+ -2 9.5674701874359926E-08 -100000 100000
6 388 # ventilation.generation.threeWayValve_b.port_1.m_flow
- -2 1.0157492575318225E+05 0 1.0000000000000000E+08
+ -2 1.0157492575318227E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.threeWayValve_b.port_1.p
- -2 3.0699132574678282E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 3.0758853395579390E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.generation.threeWayValve_b.port_1.h_outflow
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.threeWayValve_b.port_2.p
@@ -32664,7 +32589,7 @@ double initialValue(11451,6)
6 256 # ventilation.generation.threeWayValve_b.res1.m_flow_small
-2 0 0 0
6 769 # ventilation.generation.threeWayValve_b.res1.show_T
- -2 2.4992575318225113E+02 0 0
+ -2 2.4992575318226062E+02 0 0
6 256 # ventilation.generation.threeWayValve_b.res1.dp
-2 0 0 0
6 1280 # ventilation.generation.threeWayValve_b.res1._m_flow_start
@@ -32762,7 +32687,7 @@ double initialValue(11451,6)
6 256 # ventilation.generation.threeWayValve_b.res3.m_flow_small
-2 0 0 0
6 769 # ventilation.generation.threeWayValve_b.res3.show_T
- -2 1.9994060254580094E+02 0 0
+ -2 1.9994060254580981E+02 0 0
6 288 # ventilation.generation.threeWayValve_b.res3.dp
-2 0 0 0
6 1280 # ventilation.generation.threeWayValve_b.res3._m_flow_start
@@ -32924,7 +32849,7 @@ double initialValue(11451,6)
6 260 # ventilation.generation.threeWayValve_b.vol.ports[2].p
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 260 # ventilation.generation.threeWayValve_b.vol.ports[3].p
- -2 2.7875745517641320E+02 1 10000
+ -2 2.7881632010130642E+02 1 10000
6 256 # ventilation.generation.threeWayValve_b.vol.T
-2 1.0132500000000000E+05 0 0
6 256 # ventilation.generation.threeWayValve_b.vol.p
@@ -33014,15 +32939,15 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.p
-2 9.9999999999999933E-03 0 1
2 1296 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]
- -2 1.9913917453815390E-19 0 0
+ -2 0 0 0
3 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.der(Xi[1])
-2 1.2000000000000000E+00 0 100000
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.d
- -2 2.7875745517641320E+02 1 10000
+ -2 2.7881632010130642E+02 1 10000
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]
- -2 -5.3738367425321718E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -5.3678646604420610E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.u
-2 2.8879594599429981E+02 0 1.0000000000000000E+07
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.R_s
@@ -33030,15 +32955,15 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.MM
-2 1.0132500000000000E+05 0 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.state.p
- -2 5.6074551764132252E+00 0 0
+ -2 5.6663201013064395E+00 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.T_degC
-2 1.0132500000000000E+00 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.p_bar
- -2 5.6074551764132519E+00 0 0
+ -2 5.6663201013064128E+00 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.medium.dT
- -2 -5.8515111196461425E+04 0 0
+ -2 -5.8450081858146885E+04 0 0
2 1296 # ventilation.generation.threeWayValve_b.vol.dynBal.U
- -2 -1.5568301930534290E-01 0 0
+ -2 -1.0133355449397641E-01 0 0
3 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.der(U)
-2 1.0888888888888888E+00 0 1.0000000000000000E+100
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.m
@@ -33046,23 +32971,23 @@ double initialValue(11451,6)
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.der(m)
-2 0 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.mb_flow
- -2 2.1684043449710089E-19 0 0
+ -2 0 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.mbXi_flow[1]
-2 9.0740740740740744E-01 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.CSen
- -2 4.1817778008809998E-03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.2105853630382117E-03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.ports_H_flow[1]
- -2 -3.3423009524808767E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -3.3488029263101835E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.ports_H_flow[2]
- -2 3.3421410876837704E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 3.3486973821703264E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.ports_H_flow[3]
- -2 9.5674701874356227E-10 0 0
+ -2 9.5674701874359846E-10 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.ports_mXi_flow[1, 1]
- -2 -1.0887281405591639E-03 0 0
+ -2 -1.0887281405591879E-03 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.ports_mXi_flow[2, 1]
- -2 1.0887271838121452E-03 0 0
+ -2 1.0887271838121691E-03 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.ports_mXi_flow[3, 1]
-2 1.0145400000000000E+03 0 0
6 1280 # ventilation.generation.threeWayValve_b.vol.dynBal.cp_default
@@ -33380,7 +33305,7 @@ double initialValue(11451,6)
6 257 # ventilation.generation.threeWayValve_a.vol.allowFlowReversal
-2 9.0740740740740744E-01 0 0
6 256 # ventilation.generation.threeWayValve_a.vol.V
- -2 2.9158017223656014E+02 1 10000
+ -2 2.9187695605314531E+02 1 10000
6 256 # ventilation.generation.threeWayValve_a.vol.T
-2 1.0942605419989268E-02 0 1.0000000000000000E+100
6 256 # ventilation.generation.threeWayValve_a.vol.mXi[1]
@@ -33458,53 +33383,53 @@ double initialValue(11451,6)
6 1281 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.preferredMediumStates
-2 1 0 0
6 1281 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.standardOrderComponents
- -2 9.9999999999999933E-03 0 1
+ -2 9.9999999999999915E-03 0 1
2 1296 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]
- -2 -3.8641514615607983E-17 0 0
+ -2 -1.2821056387845314E-16 0 0
3 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.der(Xi[1])
-2 1.2059197809784101E+00 0 100000
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.d
- -2 2.9158017223656014E+02 1 10000
+ -2 2.9187695605314531E+02 1 10000
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.T
-2 9.8999999999999999E-01 0 1
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]
- -2 -4.0729208059120254E+04 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.0428109005841958E+04 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.u
-2 2.8879594599429981E+02 0 1.0000000000000000E+07
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.R_s
-2 2.8790127130676930E-02 1.0000000000000000E-03 2.5000000000000000E-01
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.MM
- -2 1.8430172236560168E+01 0 0
+ -2 1.8726956053145329E+01 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.T_degC
- -2 1.0182485150636451E+00 0 0
+ -2 1.0182485150636453E+00 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.p_bar
- -2 1.8430172236560178E+01 0 0
+ -2 1.8726956053145333E+01 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.medium.dT
- -2 -4.4568365285960019E+04 0 0
+ -2 -4.4238884472724356E+04 0 0
2 1296 # ventilation.generation.threeWayValve_a.vol.dynBal.U
- -2 -3.2242708661397046E-01 0 0
+ -2 -3.5288796700115199E-02 0 0
3 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.der(U)
- -2 1.0942605419989275E+00 0 1.0000000000000000E+100
+ -2 1.0942605419989277E+00 0 1.0000000000000000E+100
2 1296 # ventilation.generation.threeWayValve_a.vol.dynBal.m
- -2 -4.2327252813834093E-15 0 0
+ -2 -1.4016565685892601E-14 0 0
3 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.der(m)
- -2 -4.2283884726934673E-17 0 0
+ -2 -1.4029576111962427E-16 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.mbXi_flow[1]
-2 9.0740740740740744E-01 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.fluidVolume
-2 0 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.CSen
- -2 -4.1817778008809998E-03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.2105853630382117E-03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.ports_H_flow[1]
- -2 4.7583223140944992E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 4.7913909536244983E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.ports_H_flow[2]
- -2 -4.7586405594033122E+03 -1.0000000000000000E+08 1.0000000000000000E+08
+ -2 -4.7914220318358357E+03 -1.0000000000000000E+08 1.0000000000000000E+08
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.ports_H_flow[3]
- -2 -9.5674701874356227E-10 0 0
+ -2 -9.5674701874359846E-10 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.ports_mXi_flow[1, 1]
- -2 1.0887281405591218E-03 0 0
+ -2 1.0887281405590477E-03 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.ports_mXi_flow[2, 1]
- -2 -1.0887271838121452E-03 0 0
+ -2 -1.0887271838121691E-03 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.ports_mXi_flow[3, 1]
-2 1.0145400000000000E+03 0 0
6 1280 # ventilation.generation.threeWayValve_a.vol.dynBal.cp_default
@@ -33700,7 +33625,7 @@ double initialValue(11451,6)
6 256 # ventilation.distribution.resSup[1].m_flow_small
-2 0 0 0
6 769 # ventilation.distribution.resSup[1].show_T
- -2 9.9970476975926587E+01 0 0
+ -2 9.9970476975934758E+01 0 0
6 256 # ventilation.distribution.resSup[1].dp
-2 0 0 0
6 1280 # ventilation.distribution.resSup[1]._m_flow_start
@@ -33844,7 +33769,7 @@ double initialValue(11451,6)
6 260 # ventilation.control.weaBus.lon
-2 0 0 1.0000000000000000E+100
6 260 # ventilation.control.weaBus.alt
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # ventilation.control.buiMeaBus.TZoneOpeMea[1]
-2 1 0 0
6 260 # ventilation.control.useProBus.intGains[1]
@@ -33866,13 +33791,13 @@ double initialValue(11451,6)
6 260 # ventilation.weaBus.lon
-2 0 0 1.0000000000000000E+100
6 260 # ventilation.weaBus.alt
- -2 4.0456140844523165E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.0696604232182661E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.portVent_in[1].h_outflow
-2 1.0000000000000000E-02 0 1
6 260 # ventilation.portVent_in[1].Xi_outflow[1]
- -2 4.3705330438605517E+04 -1.0000000000000000E+10 1.0000000000000000E+10
+ -2 4.4009066865527864E+04 -1.0000000000000000E+10 1.0000000000000000E+10
6 260 # ventilation.portVent_out[1].h_outflow
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # ventilation.buiMeaBus.TZoneOpeMea[1]
-2 1 0 0
6 260 # ventilation.useProBus.intGains[1]
@@ -33892,37 +33817,37 @@ double initialValue(11451,6)
6 260 # ventilation.multiSumElec.internalElectricalPinIn[2].PElecLoa
-2 0 0 0
6 260 # ventilation.multiSumElec.internalElectricalPinIn[2].PElecGen
- -2 2.9157664877720657E+02 0 0
+ -2 2.9187657252577242E+02 0 0
4 260 # outputs.building.TZone[1]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
4 260 # outputs.building.TZoneOpe[1]
-2 0 0 0
4 260 # outputs.building.dTComCoo[1]
-2 0 0 0
4 260 # outputs.building.dTComCooOpe[1]
- -2 2.5748184973538553E+05 0 0
+ -2 2.0304059929251790E+05 0 0
4 260 # outputs.building.dTComHea[1]
- -2 3.1805294465342752E+05 0 0
+ -2 2.7267616819028667E+05 0 0
4 260 # outputs.building.dTComHeaOpe[1]
- -2 6.6365294465343386E+05 0 0
+ -2 6.1827616819028463E+05 0 0
4 260 # outputs.building.dTCtrlHeaOpe[1]
- -2 6.0305814661149599E+05 0 0
+ -2 5.4861689616862545E+05 0 0
4 260 # outputs.building.dTCtrl[1]
- -2 4.8119202942472874E+01 0 0
+ -2 4.7801754145758395E+01 0 0
4 260 # outputs.hydraulic.dis.QDHWLos_flow.value
- -2 7.0984294617475094E+06 0 0
+ -2 7.2711278995888978E+06 0 0
4 260 # outputs.hydraulic.dis.QDHWLos_flow.integral
- -2 3.1766040430945296E+01 0 0
+ -2 3.2942048106824537E+01 0 0
4 260 # outputs.hydraulic.dis.QBufLos_flow.value
- -2 5.3517837326884493E+06 0 0
+ -2 5.7859798598214388E+06 0 0
4 260 # outputs.hydraulic.dis.QBufLos_flow.integral
- -2 3.3115415825911546E+03 0 0
+ -2 7.9529627688211658E+03 0 0
4 260 # outputs.hydraulic.gen.QHeaPum_flow.value
- -2 5.4825690235533690E+08 0 0
+ -2 1.1819428641975813E+09 0 0
4 260 # outputs.hydraulic.gen.QHeaPum_flow.integral
- -2 3.3115415825911577E+03 0 0
+ -2 3.5044738402426865E+03 0 0
4 260 # outputs.hydraulic.gen.PEleHeaPum.value
- -2 4.8836069016195947E+08 0 0
+ -2 5.1098049733009362E+08 0 0
4 260 # outputs.hydraulic.gen.PEleHeaPum.integral
-2 0 0 0
4 326 # outputs.hydraulic.gen.heaPum.numSwi
@@ -33932,49 +33857,49 @@ double initialValue(11451,6)
4 260 # outputs.hydraulic.gen.heaPum.totOnTim
-2 0 0 0
4 324 # outputs.hydraulic.gen.QEleHea_flow.value
- -2 9.9266831056672525E+08 0 0
+ -2 4.5827043292665952E+08 0 0
4 260 # outputs.hydraulic.gen.QEleHea_flow.integral
-2 0 0 0
4 324 # outputs.hydraulic.gen.PEleEleHea.value
- -2 1.0233693923368344E+09 0 0
+ -2 4.7244374528521967E+08 0 0
4 260 # outputs.hydraulic.gen.PEleEleHea.integral
- -2 37 0 0
+ -2 19 0 0
4 326 # outputs.hydraulic.gen.eleHea.numSwi
-2 0 0 0
4 260 # outputs.hydraulic.gen.eleHea.sinOnTim
- -2 7.0206879443975733E+04 0 0
+ -2 3.2411367115015637E+04 0 0
4 260 # outputs.hydraulic.gen.eleHea.totOnTim
- -2 8.2363941083883637E+03 0 0
+ -2 8.3540947817370961E+03 0 0
4 260 # outputs.hydraulic.tra.QRad_flow.value
- -2 1.4495296356993980E+09 0 0
+ -2 1.5442268793516254E+09 0 0
4 260 # outputs.hydraulic.tra.QRad_flow.integral
-2 1 0 0
4 260 # outputs.hydraulic.tra.opening[1]
- -2 3.1277955266131687E+02 0 0
+ -2 3.1437050088086966E+02 0 0
4 260 # outputs.hydraulic.tra.TSup[1]
- -2 3.0831824374314073E+02 0 0
+ -2 3.0816696177225583E+02 0 0
4 260 # outputs.hydraulic.tra.TRet[1]
-2 0 0 0
4 260 # outputs.DHW.Q_flow.value
- -2 4.2738428537688360E+07 0 0
+ -2 4.5555927914718270E+07 0 0
4 260 # outputs.DHW.Q_flow.integral
- -2 2.9157755456353146E+02 0 1.0000000000000000E+100
+ -2 2.9187666859740187E+02 0 1.0000000000000000E+100
4 260 # outputs.ventilation.generation.TExhIn
- -2 3.7097326259555295E+01 0 0
+ -2 3.7097326259555864E+01 0 0
4 260 # outputs.ventilation.generation.PVentSup
- -2 1.1129197886912806E+02 0 0
+ -2 1.1129197886912527E+02 0 0
4 260 # outputs.ventilation.generation.PelVentRet
-2 0 0 0
4 260 # outputs.electrical.dis.PEleGen.value
- -2 3.7040604586458312E+02 0 0
+ -2 4.9967536734272231E+05 0 0
4 260 # outputs.electrical.dis.PEleGen.integral
- -2 3.4639210586638537E+03 0 0
+ -2 3.6568533163153807E+03 0 0
4 260 # outputs.electrical.dis.PEleLoa.value
- -2 1.5062588872543545E+09 0 0
+ -2 9.7845261647802103E+08 0 0
4 260 # outputs.electrical.dis.PEleLoa.integral
-2 0 0 0
4 260 # outputs.electrical.gen.PElePV.value
- -2 3.1802740132250469E+07 0 0
+ -2 3.1802475986385055E+07 0 0
4 260 # outputs.electrical.gen.PElePV.integral
-2 9.1169226331583686E-01 0 0
6 260 # weaDat.weaBus.lat
@@ -34432,7 +34357,7 @@ double initialValue(11451,6)
6 260 # control.useProBus.intGains[2]
-2 0 0 0
6 260 # control.useProBus.intGains[3]
- -2 2.9091406592411613E+02 0 0
+ -2 2.9124418064257549E+02 0 0
6 260 # control.buiMeaBus.TZoneOpeMea[1]
-2 0 0 0
6 256 # control.reaExp.y
@@ -34454,7 +34379,7 @@ double initialValue(11451,6)
1 280 # control.dTDHW
-2 3.2814999999999998E+02 0 0
6 256 # control.constTSetDHW.k
- -2 3.4639210586638537E+03 0 0
+ -2 3.6568533163153807E+03 0 0
4 260 # electricalGrid.PElecLoa
-2 0 0 0
4 260 # electricalGrid.PElecGen
@@ -34502,7 +34427,7 @@ double initialValue(11451,6)
# Which variables will be important for initialization and continue
# is indicated by value in column 6 & dsStartMasks.
#
-char initialDescription(11451,320)
+char initialDescription(11426,320)
=true to disable features which are not available in open modelica [:#(type=Boolean)]
Number of zones to transfer heat to [:#(type=Integer)]
Nominal heating load at outdoor air temperature of each zone [W]
@@ -38697,11 +38622,13 @@ Nominal heat flow rate of secondary generation component (e.g. auxilliar heater)
Turn false to use water as temperature source [:#(type=Boolean)]
Constant soil temperature for ground source heat pumps [K|degC]
=true if the heat pump is reversible [:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
-Heating mode for heat pump [:#(type=Boolean)]
-Constant output value [:#(type=Boolean)]
-Connector of Boolean output signal [:#(type=Boolean)]
+Minimal allowed icing Factor to trigger the defrost
+If y=true and u<uLow, switch to y=false
+If y=false and u>uHigh, switch to y=true
+Value of pre(y) at initial time [:#(type=Boolean)]
+[:#(type=Boolean)]
+Minimal change of iceFac to be considered as increasing frost
Nominal temperature of the cooled fluid [K|degC]
Nominal temperature of the heated fluid [K|degC]
Nominal cooling capacity [W]
@@ -38729,21 +38656,15 @@ Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]
True if the refrigerant machine is reversible [:#(type=Boolean)]
-Connector of Boolean input signal [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of second Real input signal [W]
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of second Real input signal [W]
-Connector of Boolean input signal [:#(type=Boolean)]
+Connector of first Real input signal [W]
Connector of second Real input signal [W]
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of Boolean output signal [:#(type=Boolean)]
+Connector of first Real input signal [W]
+Connector of first Real input signal [W]
if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde [:#(type=Boolean)]
Nominal electrical power consumption [W]
Nominal temperature at secondary condenser side [K|degC]
Nominal temperature at secondary evaporator side [K|degC]
-Connector of Boolean input signal [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Icing factor from 0 to 1 to estimate influence of icing [1]
=true to use variable density based on PT1 Element, e.g. Korn et al. [:#(type=Boolean)]
@@ -38758,16 +38679,16 @@ Maximal possible mass of ice on HE surface. This value is limited by the volume
Distance between two fins. Used to calculate the maximal mass of ice on the HE [m]
Value of Real output
Value of Real output
+Connector of Boolean input signal [:#(type=Boolean)]
Connector of Real output signal
Connector of first Real input signal
-Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
+Connector of Real output signal
Gain value multiplied with input signal [1]
Output signal connector
Connector of Real input signal 1
Connector of Real input signal 2
Gain value multiplied with input signal [1]
-Connector of second Boolean input signal [:#(type=Boolean)]
Gain value multiplied with input signal [1]
Output signal connector
Connector of Real input signal 1
@@ -38803,7 +38724,6 @@ Relative humidity above which is mild frosting
Evaporator medium specific heat capacity [J/(kg.K)]
Evaporator medium specific heat capacity [J/(kg.K)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Gain of input signal 1
Gain of input signal 2
@@ -39162,28 +39082,20 @@ Points to define upper boundary for sink temperature
Nominal electrical power consumption [W]
Nominal temperature at secondary condenser side [K|degC]
Nominal temperature at secondary evaporator side [K|degC]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Icing factor from 0 to 1 to estimate influence of icing [1]
Evaporator medium specific heat capacity [J/(kg.K)]
Evaporator medium specific heat capacity [J/(kg.K)]
-Electrical Power consumed by the device [W]
-Heat flow rate through condenser [W]
Icing factor from 0 to 1 to estimate influence of icing [1]
-=true for heating, =false for cooling [:#(type=Boolean)]
-Heat flow rate through evaporator [W]
-Connector of Real input signal 1
-Connector of Real input signal 2
-Connector of Real output signal
Gain of input signal 1
Gain of input signal 2
Connector of Real input signal 1
-Connector of Real input signal 2
-Connector of Real output signal
Nominal cooling capacity [W]
=false to indicate that this model is used as a heat pump [:#(type=Boolean)]
+COP during defrost (useful side is the evaporator)
+Constant defrost compressor speed
+Constant output value
Constant output value
-Connector of Real output signal
Nominal electrical power consumption [W]
=true if the chiller or heat pump is reversible [:#(type=Boolean)]
if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde [:#(type=Boolean)]
@@ -39532,7 +39444,6 @@ Reference temperature [K|degC]
Temperature coefficient of heat flow rate [1/K]
Heat flow rate (positive if flowing from outside into the component) [W]
Temperature of the condenser volume [K|degC]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Nominal mass flow rate in evaporator medium [kg/s]
Nominal mass flow rate in condenser medium [kg/s]
@@ -39567,7 +39478,6 @@ Percentage of mass flow rate in evaporator required to operate the device
Percentage of mass flow rate in condenser required to operate the device
Input for relative compressor speed from 0 to 1
Output for relative compressor speed from 0 to 1
-Connector of second Boolean input signal [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
@@ -39602,6 +39512,7 @@ Table for boundary with second column as useful temperature side
Table for boundary with second column as useful temperature side
Delta value used to avoid state events when used as a safety control [K,]
=true if it is an upper boundary, false for lower [:#(type=Boolean)]
+=false when an error occurs [:#(type=Boolean)]
Number of outputs [:#(type=Integer)]
Connector of Real output signals
= true, if table is defined on file or in function usertab [:#(type=Boolean)]
@@ -39729,8 +39640,6 @@ Scale ambient side to icon size
Scale ambient side to icon size
Scale useful side to icon size
Scale useful side to icon size
-Connector of second Boolean input signal [:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
=false to ignore minimum on-time constraint [:#(type=Boolean)]
Minimum on-time [s|min]
@@ -39790,7 +39699,6 @@ Indicates if the device has to stay on [:#(type=Boolean)]
Indicates if device needs to run at minimal limit [:#(type=Integer)]
Indicates if device needs to turn off [:#(type=Integer)]
Indicates if device is at normal operation [:#(type=Integer)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
@@ -39836,22 +39744,17 @@ If y=true and u<uLow, switch to y=false
If y=false and u>uHigh, switch to y=true
Value of pre(y) at initial time [:#(type=Boolean)]
[:#(type=Boolean)]
-=true for heating, false for cooling [:#(type=Boolean)]
-Output for calculated EER value [1]
Connector of Real output signal
Abscissa value below which approximation occurs
Connector of Real input signal 1
Connector of Real output signal
Connector of second Real input signal
+Connector of Real output signal
Constant output value
Connector of Real output signal
Connector of first Real input signal
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of Real output signal
-Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
Choose whether events shall be generated [:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
=true to allow input to bus connector, not applicable with internal safety control [:#(type=Boolean)]
=true to enable COP output [:#(type=Boolean)]
@@ -39868,7 +39771,6 @@ Nominal temperature of the heated fluid [K|degC]
Nominal temperature of the cooled fluid [K|degC]
Nominal temperature of the cooled fluid [K|degC]
Nominal temperature of the heated fluid [K|degC]
-=true for heating, =false for cooling [:#(type=Boolean)]
Energy efficieny ratio [1]
Coefficient of performance [1]
Number of ports [:#(type=Integer)]
@@ -40399,9 +40301,7 @@ Connector of Real output signal [s]
der(Connector of Real output signal) [1]
[:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Electric heater efficiency
Volume to model thermal inertia of water [m3]
diff --git a/BuildingSim/working_dir/Modelica_RollOut/dsin.txt b/BuildingSim/working_dir/Modelica_RollOut/dsin.txt
index e4371b5d6f22944134ed499bb7e440ddd0a63320..f24cd60e36356dde831ea0598f3e782f0bbc4bca 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/dsin.txt
+++ b/BuildingSim/working_dir/Modelica_RollOut/dsin.txt
@@ -10,7 +10,7 @@ double experiment(7,1)
0 # StartTime Time at which integration starts
# (and linearization and trimming time)
1.7280000000000000E+05 # StopTime Time at which integration stops
- 600 # Increment Communication step size, if > 0
+ 1 # Increment Communication step size, if > 0
0 # nInterval Number of communication intervals, if > 0
9.9999999999999995E-07 # Tolerance Relative precision of signals for
# simulation, linearization and trimming
@@ -102,7 +102,7 @@ int settings(13,1)
# Names of initial variables
-char initialName(11451,112)
+char initialName(11426,112)
use_openModelica
systemParameters.nZones
systemParameters.QBui_flow_nominal[1]
@@ -4297,11 +4297,13 @@ hydraulic.generation.QSec_flow_nominal
hydraulic.generation.use_airSource
hydraulic.generation.TSoilConst
hydraulic.generation.use_rev
-hydraulic.generation.defCtrl.sigBus.hea
hydraulic.generation.defCtrl.sigBus.iceFacChiMea
-hydraulic.generation.defCtrl.hea
-hydraulic.generation.defCtrl.booCon.k
-hydraulic.generation.defCtrl.booCon.y
+hydraulic.generation.defCtrl.minIceFac
+hydraulic.generation.defCtrl.hys.uLow
+hydraulic.generation.defCtrl.hys.uHigh
+hydraulic.generation.defCtrl.hys.pre_y_start
+hydraulic.generation.defCtrl.hys.y
+hydraulic.generation.defCtrl.derIceFac_min
hydraulic.generation.TConCoo_nominal
hydraulic.generation.TEvaCoo_nominal
hydraulic.generation.QCoo_flow_nominal
@@ -4329,21 +4331,15 @@ hydraulic.generation.heatPump.state_b2_inflow.p
hydraulic.generation.heatPump.state_b2_inflow.T
hydraulic.generation.heatPump.state_b2_inflow.X[2]
hydraulic.generation.heatPump.refCyc.use_rev
-hydraulic.generation.heatPump.refCyc.sigBus.hea
hydraulic.generation.heatPump.refCyc.sigBus.iceFacChiMea
-hydraulic.generation.heatPump.refCyc.swiQEva.u2
+hydraulic.generation.heatPump.refCyc.swiQEva.u1
hydraulic.generation.heatPump.refCyc.swiQEva.u3
-hydraulic.generation.heatPump.refCyc.swiQCon.u2
-hydraulic.generation.heatPump.refCyc.swiQCon.u3
-hydraulic.generation.heatPump.refCyc.swiPEle.u2
-hydraulic.generation.heatPump.refCyc.swiPEle.u3
-hydraulic.generation.heatPump.refCyc.pasTrhModSet.u
-hydraulic.generation.heatPump.refCyc.pasTrhModSet.y
+hydraulic.generation.heatPump.refCyc.swiQCon.u1
+hydraulic.generation.heatPump.refCyc.swiPEle.u1
hydraulic.generation.heatPump.refCyc.allowDifferentDeviceIdentifiers
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.PEle_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.hea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.iceFacChiMea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.use_varDen
@@ -4358,16 +4354,16 @@ hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.mIce_max
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.d
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatFor_internal.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatNat_internal.y
+hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u3
+hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.k
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u1
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.k
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u2
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.k
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.u1
@@ -4403,7 +4399,6 @@ hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_m
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild[4]
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva
-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.hea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.iceFacChiMea
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k1
hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k2
@@ -4762,28 +4757,20 @@ hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TConOutForOpeEnv
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TCon_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TEva_nominal
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.hea
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.iceFacChiMea
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpCon
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpEva
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCon_flow
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.iceFacChiMea
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.hea
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QEva_flow
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u1
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u2
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k1
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k2
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCoo_flow_nominal
hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.useInChi
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.k
-hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.y
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.COP_constant
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.y_constant
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k
+hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k
hydraulic.generation.heatPump.PEle_nominal
hydraulic.generation.heatPump.use_rev
hydraulic.generation.heatPump.allowDifferentDeviceIdentifiers
@@ -5132,7 +5119,6 @@ hydraulic.generation.heatPump.eva.preHea.T_ref
hydraulic.generation.heatPump.eva.preHea.alpha
hydraulic.generation.heatPump.eva.senT.port.Q_flow
hydraulic.generation.heatPump.eva.T
-hydraulic.generation.heatPump.safCtr.sigBus.hea
hydraulic.generation.heatPump.safCtr.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.mEva_flow_nominal
hydraulic.generation.heatPump.safCtr.mCon_flow_nominal
@@ -5167,7 +5153,6 @@ hydraulic.generation.heatPump.safCtr.safCtrPar.r_mEvaMinPer_flow
hydraulic.generation.heatPump.safCtr.safCtrPar.r_mConMinPer_flow
hydraulic.generation.heatPump.safCtr.opeEnv.ySet
hydraulic.generation.heatPump.safCtr.opeEnv.yOut
-hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.hea
hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2
hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u3
@@ -5202,6 +5187,7 @@ hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[2, 1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[2, 2]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.dT
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.isUppBou
+hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile
@@ -5329,8 +5315,6 @@ hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[2]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[1]
hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[2]
-hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u2
-hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.hea
hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.onOffCtr.use_minOnTime
hydraulic.generation.heatPump.safCtr.onOffCtr.minOnTime
@@ -5390,7 +5374,6 @@ hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.staOn
hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin
hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff
hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe
-hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.hea
hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.iceFacChiMea
hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2
hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u3
@@ -5436,22 +5419,17 @@ hydraulic.generation.heatPump.eff.hys.uLow
hydraulic.generation.heatPump.eff.hys.uHigh
hydraulic.generation.heatPump.eff.hys.pre_y_start
hydraulic.generation.heatPump.eff.hys.y
-hydraulic.generation.heatPump.eff.hea
-hydraulic.generation.heatPump.eff.EER
hydraulic.generation.heatPump.eff.invXReg.y
hydraulic.generation.heatPump.eff.invXReg.delta
hydraulic.generation.heatPump.eff.copCom.u1
hydraulic.generation.heatPump.eff.copCom.y
hydraulic.generation.heatPump.eff.swi.u3
+hydraulic.generation.heatPump.eff.swi.y
hydraulic.generation.heatPump.eff.zer.k
hydraulic.generation.heatPump.eff.zer.y
hydraulic.generation.heatPump.eff.swiCoo.u1
-hydraulic.generation.heatPump.eff.swiCoo.u2
-hydraulic.generation.heatPump.eff.swiCoo.y
-hydraulic.generation.heatPump.eff.swiHea.u2
hydraulic.generation.heatPump.eff.swiHea.u3
hydraulic.generation.heatPump.eff.absQEva_flow.generateEvent
-hydraulic.generation.heatPump.sigBus.hea
hydraulic.generation.heatPump.sigBus.iceFacChiMea
hydraulic.generation.heatPump.use_busConOnl
hydraulic.generation.heatPump.use_COP
@@ -5468,7 +5446,6 @@ hydraulic.generation.heatPump.TConHea_nominal
hydraulic.generation.heatPump.TEvaHea_nominal
hydraulic.generation.heatPump.TConCoo_nominal
hydraulic.generation.heatPump.TEvaCoo_nominal
-hydraulic.generation.heatPump.hea
hydraulic.generation.heatPump.EER
hydraulic.generation.heatPump.COP
hydraulic.generation.bou_sinkAir.nPorts
@@ -5999,9 +5976,7 @@ hydraulic.generation.KPIHeaPum.integrator1.y
hydraulic.generation.KPIHeaPum.integrator1.der(y)
hydraulic.generation.KPIHeaPum.integrator1.local_reset
hydraulic.generation.KPIHeaPum.integrator1.local_set
-hydraulic.generation.heaPumSigBusPasThr.vapComBus.hea
hydraulic.generation.heaPumSigBusPasThr.vapComBus.iceFacChiMea
-hydraulic.generation.sigBus.hea
hydraulic.generation.sigBus.iceFacChiMea
hydraulic.generation.parEleHea.eta
hydraulic.generation.parEleHea.V_hr
@@ -11555,7 +11530,7 @@ control.constTSetDHW.k
electricalGrid.PElecLoa
electricalGrid.PElecGen
-double initialValue(11451,6)
+double initialValue(11426,6)
0 0 0 0
6 257 # use_openModelica
0 1 0 0
@@ -19944,16 +19919,20 @@ double initialValue(11451,6)
1 280 # hydraulic.generation.TSoilConst
0 1 0 0
6 257 # hydraulic.generation.use_rev
- 0 1 0 0
- 6 261 # hydraulic.generation.defCtrl.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.defCtrl.sigBus.iceFacChiMea
- 0 1 0 0
- 6 257 # hydraulic.generation.defCtrl.hea
- 0 1 0 0
- 6 257 # hydraulic.generation.defCtrl.booCon.k
- 0 1 0 0
- 6 257 # hydraulic.generation.defCtrl.booCon.y
+ -1 5.0000000000000000E-01 0 0
+ 1 280 # hydraulic.generation.defCtrl.minIceFac
+ 0 0 0 0
+ 6 256 # hydraulic.generation.defCtrl.hys.uLow
+ -1 9.8999999999999999E-01 0 0
+ 1 280 # hydraulic.generation.defCtrl.hys.uHigh
+ -1 1 0 0
+ 1 281 # hydraulic.generation.defCtrl.hys.pre_y_start
+ 0 0 0 0
+ 6 321 # hydraulic.generation.defCtrl.hys.y
+ -1 1.0000000000000000E-10 0 0
+ 1 280 # hydraulic.generation.defCtrl.derIceFac_min
-1 2.9114999999999998E+02 0 1.0000000000000000E+100
1 280 # hydraulic.generation.TConCoo_nominal
-1 3.0314999999999998E+02 0 1.0000000000000000E+100
@@ -20008,26 +19987,16 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.state_b2_inflow.X[2]
0 1 0 0
6 257 # hydraulic.generation.heatPump.refCyc.use_rev
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.sigBus.iceFacChiMea
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.swiQEva.u2
+ 0 0 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.swiQEva.u1
0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.swiQEva.u3
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.swiQCon.u2
0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.swiQCon.u3
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.swiPEle.u2
+ 6 256 # hydraulic.generation.heatPump.refCyc.swiQCon.u1
0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.swiPEle.u3
- 0 1 0 0
- 6 1281 # hydraulic.generation.heatPump.refCyc.pasTrhModSet.u
- 0 1 0 0
- 6 1281 # hydraulic.generation.heatPump.refCyc.pasTrhModSet.y
+ 6 256 # hydraulic.generation.heatPump.refCyc.swiPEle.u1
0 0 0 0
6 257 # hydraulic.generation.heatPump.refCyc.allowDifferentDeviceIdentifiers
0 0 0 0
@@ -20036,8 +20005,6 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal
0 2.7114999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.iceFacChiMea
0 0 0 1
@@ -20067,13 +20034,15 @@ double initialValue(11451,6)
0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatNat_internal.y
0 0 0 0
+ 6 321 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2
+ 0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.y
0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u2
0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u3
+ 0 0 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y
0 15 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.k
0 0 0 0
@@ -20084,8 +20053,6 @@ double initialValue(11451,6)
6 320 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u2
0 1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.k
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u2
0 4.8414427499394820E-02 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.k
0 0 0 0
@@ -20156,8 +20123,6 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon
0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.iceFacChiMea
0 -1 0 0
@@ -20868,14 +20833,12 @@ double initialValue(11451,6)
1 281 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TEvaOutForOpeEnv
-1 1 0 0
1 281 # hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TConOutForOpeEnv
- -1 0 0 0
+ -1 2000 0 0
1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle_nominal
0 2.8814999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TCon_nominal
0 2.8814999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TEva_nominal
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.iceFacChiMea
0 1 0 1
@@ -20884,22 +20847,8 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpCon
0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpEva
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCon_flow
0 1 0 1
6 260 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.iceFacChiMea
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.hea
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QEva_flow
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u1
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u2
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.y
0 -1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k1
0 1 0 0
@@ -20907,17 +20856,17 @@ double initialValue(11451,6)
0 1 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1
0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y
- 0 0 0 0
6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCoo_flow_nominal
0 0 0 0
6 257 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.useInChi
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.k
- 0 0 0 0
- 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.y
+ -1 6.2500000000000000E+00 0 0
+ 1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.COP_constant
+ -1 2.7500000000000002E-01 0 0
+ 1 280 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.y_constant
+ 0 1 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k
+ 0 1 0 0
+ 6 256 # hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k
0 0 0 0
6 256 # hydraulic.generation.heatPump.PEle_nominal
0 1 0 0
@@ -21614,8 +21563,6 @@ double initialValue(11451,6)
6 388 # hydraulic.generation.heatPump.eva.senT.port.Q_flow
0 2.6264999999999998E+02 1 10000
6 256 # hydraulic.generation.heatPump.eva.T
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.sigBus.iceFacChiMea
0 0 0 0
@@ -21684,8 +21631,6 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.ySet
0 0 0 0
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.yOut
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.iceFacChiMea
0 0 0 0
@@ -21754,6 +21699,8 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.dT
0 1 0 0
6 257 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.isUppBou
+ 0 0 0 0
+ 6 321 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr
0 1 0 0
6 258 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout
0 0 0 0
@@ -22008,10 +21955,6 @@ double initialValue(11451,6)
6 1280 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[1]
0 0 -100 100
6 1280 # hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[2]
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u2
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.iceFacChiMea
0 1 0 0
@@ -22130,8 +22073,6 @@ double initialValue(11451,6)
6 1354 # hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff
0 1 0 0
6 1354 # hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.iceFacChiMea
0 0 0 0
@@ -22222,10 +22163,6 @@ double initialValue(11451,6)
1 281 # hydraulic.generation.heatPump.eff.hys.pre_y_start
0 0 0 0
6 321 # hydraulic.generation.heatPump.eff.hys.y
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.eff.hea
- 0 0 0 1.0000000000000000E+100
- 6 256 # hydraulic.generation.heatPump.eff.EER
0 0 0 0
6 256 # hydraulic.generation.heatPump.eff.invXReg.y
0 0 0 1.0000000000000000E+100
@@ -22237,23 +22174,17 @@ double initialValue(11451,6)
0 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.swi.u3
0 0 0 0
+ 6 1280 # hydraulic.generation.heatPump.eff.swi.y
+ 0 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.zer.k
0 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.zer.y
0 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.swiCoo.u1
- 0 1 0 0
- 6 1281 # hydraulic.generation.heatPump.eff.swiCoo.u2
- 0 0 0 0
- 6 1280 # hydraulic.generation.heatPump.eff.swiCoo.y
- 0 1 0 0
- 6 1281 # hydraulic.generation.heatPump.eff.swiHea.u2
0 0 0 0
6 1280 # hydraulic.generation.heatPump.eff.swiHea.u3
0 0 0 0
6 1281 # hydraulic.generation.heatPump.eff.absQEva_flow.generateEvent
- 0 1 0 0
- 6 261 # hydraulic.generation.heatPump.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.heatPump.sigBus.iceFacChiMea
0 0 0 0
@@ -22286,8 +22217,6 @@ double initialValue(11451,6)
6 256 # hydraulic.generation.heatPump.TConCoo_nominal
0 2.8814999999999998E+02 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.TEvaCoo_nominal
- 0 1 0 0
- 6 257 # hydraulic.generation.heatPump.hea
0 0 0 1.0000000000000000E+100
6 256 # hydraulic.generation.heatPump.EER
0 0 0 1.0000000000000000E+100
@@ -23348,12 +23277,8 @@ double initialValue(11451,6)
6 769 # hydraulic.generation.KPIHeaPum.integrator1.local_reset
0 0 0 0
6 768 # hydraulic.generation.KPIHeaPum.integrator1.local_set
- 0 1 0 0
- 6 261 # hydraulic.generation.heaPumSigBusPasThr.vapComBus.hea
0 1 0 1
6 260 # hydraulic.generation.heaPumSigBusPasThr.vapComBus.iceFacChiMea
- 0 1 0 0
- 6 261 # hydraulic.generation.sigBus.hea
0 1 0 1
6 260 # hydraulic.generation.sigBus.iceFacChiMea
-1 9.6999999999999997E-01 0 0
@@ -34504,7 +34429,7 @@ double initialValue(11451,6)
# Which variables will be important for initialization and continue
# is indicated by value in column 6 & dsStartMasks.
#
-char initialDescription(11451,320)
+char initialDescription(11426,320)
=true to disable features which are not available in open modelica [:#(type=Boolean)]
Number of zones to transfer heat to [:#(type=Integer)]
Nominal heating load at outdoor air temperature of each zone [W]
@@ -38699,11 +38624,13 @@ Nominal heat flow rate of secondary generation component (e.g. auxilliar heater)
Turn false to use water as temperature source [:#(type=Boolean)]
Constant soil temperature for ground source heat pumps [K|degC]
=true if the heat pump is reversible [:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
-Heating mode for heat pump [:#(type=Boolean)]
-Constant output value [:#(type=Boolean)]
-Connector of Boolean output signal [:#(type=Boolean)]
+Minimal allowed icing Factor to trigger the defrost
+If y=true and u<uLow, switch to y=false
+If y=false and u>uHigh, switch to y=true
+Value of pre(y) at initial time [:#(type=Boolean)]
+[:#(type=Boolean)]
+Minimal change of iceFac to be considered as increasing frost
Nominal temperature of the cooled fluid [K|degC]
Nominal temperature of the heated fluid [K|degC]
Nominal cooling capacity [W]
@@ -38731,21 +38658,15 @@ Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]
True if the refrigerant machine is reversible [:#(type=Boolean)]
-Connector of Boolean input signal [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of second Real input signal [W]
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of second Real input signal [W]
-Connector of Boolean input signal [:#(type=Boolean)]
+Connector of first Real input signal [W]
Connector of second Real input signal [W]
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of Boolean output signal [:#(type=Boolean)]
+Connector of first Real input signal [W]
+Connector of first Real input signal [W]
if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde [:#(type=Boolean)]
Nominal electrical power consumption [W]
Nominal temperature at secondary condenser side [K|degC]
Nominal temperature at secondary evaporator side [K|degC]
-Connector of Boolean input signal [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Icing factor from 0 to 1 to estimate influence of icing [1]
=true to use variable density based on PT1 Element, e.g. Korn et al. [:#(type=Boolean)]
@@ -38760,16 +38681,16 @@ Maximal possible mass of ice on HE surface. This value is limited by the volume
Distance between two fins. Used to calculate the maximal mass of ice on the HE [m]
Value of Real output
Value of Real output
+Connector of Boolean input signal [:#(type=Boolean)]
Connector of Real output signal
Connector of first Real input signal
-Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
+Connector of Real output signal
Gain value multiplied with input signal [1]
Output signal connector
Connector of Real input signal 1
Connector of Real input signal 2
Gain value multiplied with input signal [1]
-Connector of second Boolean input signal [:#(type=Boolean)]
Gain value multiplied with input signal [1]
Output signal connector
Connector of Real input signal 1
@@ -38805,7 +38726,6 @@ Relative humidity above which is mild frosting
Evaporator medium specific heat capacity [J/(kg.K)]
Evaporator medium specific heat capacity [J/(kg.K)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Gain of input signal 1
Gain of input signal 2
@@ -39164,28 +39084,20 @@ Points to define upper boundary for sink temperature
Nominal electrical power consumption [W]
Nominal temperature at secondary condenser side [K|degC]
Nominal temperature at secondary evaporator side [K|degC]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Icing factor from 0 to 1 to estimate influence of icing [1]
Evaporator medium specific heat capacity [J/(kg.K)]
Evaporator medium specific heat capacity [J/(kg.K)]
-Electrical Power consumed by the device [W]
-Heat flow rate through condenser [W]
Icing factor from 0 to 1 to estimate influence of icing [1]
-=true for heating, =false for cooling [:#(type=Boolean)]
-Heat flow rate through evaporator [W]
-Connector of Real input signal 1
-Connector of Real input signal 2
-Connector of Real output signal
Gain of input signal 1
Gain of input signal 2
Connector of Real input signal 1
-Connector of Real input signal 2
-Connector of Real output signal
Nominal cooling capacity [W]
=false to indicate that this model is used as a heat pump [:#(type=Boolean)]
+COP during defrost (useful side is the evaporator)
+Constant defrost compressor speed
+Constant output value
Constant output value
-Connector of Real output signal
Nominal electrical power consumption [W]
=true if the chiller or heat pump is reversible [:#(type=Boolean)]
if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde [:#(type=Boolean)]
@@ -39534,7 +39446,6 @@ Reference temperature [K|degC]
Temperature coefficient of heat flow rate [1/K]
Heat flow rate (positive if flowing from outside into the component) [W]
Temperature of the condenser volume [K|degC]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Nominal mass flow rate in evaporator medium [kg/s]
Nominal mass flow rate in condenser medium [kg/s]
@@ -39569,7 +39480,6 @@ Percentage of mass flow rate in evaporator required to operate the device
Percentage of mass flow rate in condenser required to operate the device
Input for relative compressor speed from 0 to 1
Output for relative compressor speed from 0 to 1
-Connector of second Boolean input signal [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
@@ -39604,6 +39514,7 @@ Table for boundary with second column as useful temperature side
Table for boundary with second column as useful temperature side
Delta value used to avoid state events when used as a safety control [K,]
=true if it is an upper boundary, false for lower [:#(type=Boolean)]
+=false when an error occurs [:#(type=Boolean)]
Number of outputs [:#(type=Integer)]
Connector of Real output signals
= true, if table is defined on file or in function usertab [:#(type=Boolean)]
@@ -39731,8 +39642,6 @@ Scale ambient side to icon size
Scale ambient side to icon size
Scale useful side to icon size
Scale useful side to icon size
-Connector of second Boolean input signal [:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
=false to ignore minimum on-time constraint [:#(type=Boolean)]
Minimum on-time [s|min]
@@ -39792,7 +39701,6 @@ Indicates if the device has to stay on [:#(type=Boolean)]
Indicates if device needs to run at minimal limit [:#(type=Integer)]
Indicates if device needs to turn off [:#(type=Integer)]
Indicates if device is at normal operation [:#(type=Integer)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
@@ -39838,22 +39746,17 @@ If y=true and u<uLow, switch to y=false
If y=false and u>uHigh, switch to y=true
Value of pre(y) at initial time [:#(type=Boolean)]
[:#(type=Boolean)]
-=true for heating, false for cooling [:#(type=Boolean)]
-Output for calculated EER value [1]
Connector of Real output signal
Abscissa value below which approximation occurs
Connector of Real input signal 1
Connector of Real output signal
Connector of second Real input signal
+Connector of Real output signal
Constant output value
Connector of Real output signal
Connector of first Real input signal
-Connector of Boolean input signal [:#(type=Boolean)]
-Connector of Real output signal
-Connector of Boolean input signal [:#(type=Boolean)]
Connector of second Real input signal
Choose whether events shall be generated [:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
=true to allow input to bus connector, not applicable with internal safety control [:#(type=Boolean)]
=true to enable COP output [:#(type=Boolean)]
@@ -39870,7 +39773,6 @@ Nominal temperature of the heated fluid [K|degC]
Nominal temperature of the cooled fluid [K|degC]
Nominal temperature of the cooled fluid [K|degC]
Nominal temperature of the heated fluid [K|degC]
-=true for heating, =false for cooling [:#(type=Boolean)]
Energy efficieny ratio [1]
Coefficient of performance [1]
Number of ports [:#(type=Integer)]
@@ -40401,9 +40303,7 @@ Connector of Real output signal [s]
der(Connector of Real output signal) [1]
[:#(type=Boolean)]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
-=true for heating, =false for cooling [:#(type=Boolean)]
Icing factor from 0 to 1 to estimate influence of icing [1]
Electric heater efficiency
Volume to model thermal inertia of water [m3]
diff --git a/BuildingSim/working_dir/Modelica_RollOut/dslog.txt b/BuildingSim/working_dir/Modelica_RollOut/dslog.txt
index da5c9d31e5755ab18c8096ed3153c95beffbdcae..d0da43cb066308eff8e8a9df9554e117671f1e1b 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/dslog.txt
+++ b/BuildingSim/working_dir/Modelica_RollOut/dslog.txt
@@ -1,5 +1,5 @@
Log-file of program ./dymosim
-(generated: Mon Mar 17 14:59:59 2025)
+(generated: Wed Mar 26 12:59:01 2025)
dymosim started
... "RollOut.HeatPumpMonoenergeticResidentialBuilding" simulating
@@ -11,21 +11,21 @@ Integration started at T = 0 using integration method DASSL
(DAE multi-step solver (dassl/dasslrt of Petzold modified by Dassault Systemes))
Integration terminated successfully at T = 172800
- CPU-time for integration : 8.82 seconds
- CPU-time for one grid interval : 30.6 milliseconds
- CPU-time for initialization : 0.212 seconds
- Number of result points : 1449
- Number of grid points : 289
- Number of accepted steps : 21624
- Number of f-evaluations (dynamics) : 38148
- Number of crossing function evaluations : 25310
- Number of Jacobian-evaluations : 7831
+ CPU-time for integration : 23.9 seconds
+ CPU-time for one grid interval : 0.138 milliseconds
+ CPU-time for initialization : 0.183 seconds
+ Number of result points : 173763
+ Number of grid points : 172801
+ Number of accepted steps : 19597
+ Number of f-evaluations (dynamics) : 33429
+ Number of crossing function evaluations : 194877
+ Number of Jacobian-evaluations : 8390
Number of model time events : 133
Number of input time events : 0
- Number of state events : 484
+ Number of state events : 415
Number of step events : 0
Minimum integration stepsize : 8.64e-51
- Maximum integration stepsize : 273
+ Maximum integration stepsize : 383
Maximum integration order : 5
Calling terminal section
... "dsfinal.txt" creating (final states)
diff --git a/BuildingSim/working_dir/Modelica_RollOut/dsmodel.c b/BuildingSim/working_dir/Modelica_RollOut/dsmodel.c
index 14b3d54131475a5a4eb46fb5287acce470ca6075..661a59a644a77386241e2eb7ad448c80af141e9c 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/dsmodel.c
+++ b/BuildingSim/working_dir/Modelica_RollOut/dsmodel.c
@@ -1,14 +1,14 @@
#define DYNEventSpecial
/* DSblock model generated by Dymola from Modelica model RollOut.HeatPumpMonoenergeticResidentialBuilding
- Dymola Version 2023x, 2022-10-07 translated this at Mon Mar 17 14:59:52 2025
+ Dymola Version 2023x, 2022-10-07 translated this at Wed Mar 26 12:58:54 2025
*/
#include <matrixop.h>
#include "matrixop.c"
-static const char* DymArrays111[1]={"SimpleLiquidWater"};
-static double DymArrays113[2]={21.524999999999995, 0.114};
-static const char* DymArrays112[2]={"water", "air"};
+static const char* DymArrays110[1]={"SimpleLiquidWater"};
+static double DymArrays112[2]={21.524999999999995, 0.114};
+static const char* DymArrays111[2]={"water", "air"};
static double DymArrays41[3]={0.0, 0.0, 0.0};
#if defined(DynSimStruct)
static double DymArrays60[3]={0.0, 0.0, 0.001};
@@ -20,7 +20,6 @@ static double DymArrays77[3]={0.001, 0.3379347183446045, 1000.0};
static double DymArrays95[3]={0.0040651851851851864, 1.0, -1.0};
static double DymArrays100[3]={0.01219555555555556, 1.0, -1.0};
static double DymArrays53[3]={1.0, -1.0, 1.0};
-static double DymArrays108[3]={1.0, 0.0, 0.0};
static double DymArrays26[3]={1.0, 1E-06, 1367.7};
static double DymArrays18[3]={1.0, 1.0, 2.0};
static double DymArrays20[3]={1.0, 2.0, 1.0};
@@ -49,10 +48,10 @@ static double DymArrays67[3]={13288.382850121196, 262.65, 328.15};
static double DymArrays87[3]={13288.382850121196, 13288.382850121196, 262.65};
static double DymArrays83[3]={19213.618833465865, 16854.05160830339,
7078.701675487424};
-static double DymArrays109[3]={101325.0, 101325.0, 101325.0};
+static double DymArrays108[3]={101325.0, 101325.0, 101325.0};
static double DymArrays57[4]={-0.05, 0.0, -0.05, 0.0};
#endif
-static double DymArrays110[4]={0.0, 0.0, 0.0, 0.0};
+static double DymArrays109[4]={0.0, 0.0, 0.0, 0.0};
#if defined(DynSimStruct)
static double DymArrays71[4]={0.0, 1E-14, 3.0, 0.0};
static double DymArrays93[4]={0.0, 0.09074074074074075, 0.1814814814814815,
@@ -129,13 +128,13 @@ static double DymArrays45[7]={2.0, 3.0, 4.0, 5.0, 3.0, 3.0, 1.0};
static double DymArrays94[8]={0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0};
static double DymArrays2[8]={1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0};
#endif
-static double DymArrays115[8]={700.0, 2500.0, 7500.0, 15000.0, 35000.0, 70000.0,
+static double DymArrays114[8]={700.0, 2500.0, 7500.0, 15000.0, 35000.0, 70000.0,
80000.0, 90000.0};
-static double DymArrays114[9]={0.0, 0.1, 0.2, 0.3, 0.4, 0.6, 0.8, 1.0, 1.2};
+static double DymArrays113[9]={0.0, 0.1, 0.2, 0.3, 0.4, 0.6, 0.8, 1.0, 1.2};
#if defined(DynSimStruct)
static double DymArrays4[9]={4.0, 10.0, 10.0, 10.0, 10.0, 10.0, 10.0, 10.0, 10.0};
#endif
-static double DymArrays116[72]={1E-06, 1E-06, 1E-06, 1E-06, 1E-06, 1E-06, 1E-06,
+static double DymArrays115[72]={1E-06, 1E-06, 1E-06, 1E-06, 1E-06, 1E-06, 1E-06,
1E-06, 0.319836509737628, 0.329886760993909, 0.458027464511497,
0.576112127457564, 0.643957112752703, 0.724359122802955, 1.0, 1.0,
0.551721742352314, 0.613279531297038, 0.752726767477942, 0.843179028784475,
@@ -1372,7 +1371,7 @@ DYMOLA_STATIC struct DymStruc4 IBPSA_Fluid_Movers_BaseClasses_Characteristics_m
MarkObject retmark_ = PushMark();
motorEfficiencyx_0yMot.y_0member=RealTemporary( 1, 9);
RePushMark(&retmark_);
- RealAssign (motorEfficiencyx_0yMot.y_0member, RealTemporaryDense( DymArrays114,
+ RealAssign (motorEfficiencyx_0yMot.y_0member, RealTemporaryDense( DymArrays113,
1, 9));
Release();
nPoi0_0 = 9;
@@ -1384,11 +1383,11 @@ DYMOLA_STATIC struct DymStruc4 IBPSA_Fluid_Movers_BaseClasses_Characteristics_m
nSiz0_0 = 8;
u20_0=RealTemporary( 1, nSiz0_0);
PushMark();
- RealAssign (u20_0, RealTemporaryDense( DymArrays115, 1, 8));
+ RealAssign (u20_0, RealTemporaryDense( DymArrays114, 1, 8));
Release();
tab0_0=RealTemporary( 2, nPoi0_0, nSiz0_0);
PushMark();
- RealAssign (tab0_0, RealTemporaryDense( DymArrays116, 2, 9, 8));
+ RealAssign (tab0_0, RealTemporaryDense( DymArrays115, 2, 9, 8));
Release();
/* Start of real code */
if (Px_0nominal > 1E-06) {
@@ -4911,15 +4910,15 @@ BreakSectionFunctionDef(33)
BreakSectionFunctionDef(34)
BreakSectionDef(35);
BreakSectionDef(36);
-BreakSectionFunctionDef(37)
- BreakSectionDef(38);
+ BreakSectionDef(37);
+BreakSectionFunctionDef(38)
BreakSectionDef(39);
BreakSectionDef(40);
BreakSectionDef(41);
BreakSectionDef(42);
-BreakSectionFunctionDef(43)
+ BreakSectionDef(43);
BreakSectionDef(44);
- BreakSectionDef(45);
+BreakSectionFunctionDef(45)
BreakSectionFunctionDef(46)
BreakSectionFunctionDef(47)
BreakSectionFunctionDef(48)
@@ -4937,30 +4936,30 @@ BreakSectionFunctionDef(58)
#define NX2_ 12
#define NU_ 0
#define NY_ 44
-#define NW_ 9756
-#define NWP_ 8283
-#define NP_ 1493
+#define NW_ 9725
+#define NWP_ 8243
+#define NP_ 1499
#define NPS_ 0
#define ND_ 0
#define NXP_ 0
#define NInitial_ 21
#define MAXAuxStr_ 31
#define MAXAuxStrLen_ 500
-#define NHash1_ 589275149
-#define NHash2_ 508034637
+#define NHash1_ -1336118157
+#define NHash2_ -1536512278
#define NHash3_ 0
#define NI_ 0
-#define NRelF_ 146
-#define NRel_ 156
+#define NRelF_ 155
+#define NRel_ 158
#define NTim_ 4
#define NSamp_ 3
#define NCons_ 0
-#define NA_ 4601
-#define SizePre_ 72
+#define NA_ 4635
+#define SizePre_ 74
#define SizeEq_ 65
#define SizeDelay_ 1
#define QNLmax_ 23
-#define MAXAux 342
+#define MAXAux 343
#define NrDymolaTimers_ 0
#define NWhen_ 56
#define NCheckIf_ 0
@@ -4993,32 +4992,32 @@ DYMOLA_STATIC int QJacobianCG_[100]={18 , 32 , 1 , 10 , 11 , 12 , 13 , 14 , 15
, 51 , 75 , 5 , 6 , 39 , 52 , 53 , 76 , 3 , 7 , 54 , 77 , 3 , 8 , 36 , 78 , 5
, 9 , 49 , 55 , 66 , 79 , 1 , 60 , 1 , 61 , 1 , 62 , 1 , 63 , 1 , 64 , 1 , 68
, 1 , 69 , 1 , 72 , 1 , 73 , 0 , 0};
-static int QJacobianGrp0[62]={8, 1 , 26 , 1 , 2 , 4 , 5 , 6 , 7 , 10 , 11 , 12
+static int QJacobianGrp0[63]={8, 1 , 26 , 1 , 2 , 4 , 5 , 6 , 7 , 10 , 11 , 12
, 13 , 14 , 15 , 36 , 49 , 50 , 51 , 52 , 60 , 61 , 62 , 63 , 64 , 65 , 66 , 67
- , 71 , 17 , 2 , 17 , 41 , 21 , 3 , 22 , 24 , 27 , 23 , 1 , 23 , 43 , 5 , 42
- , 43 , 44 , 47 , 59 , 57 , 5 , 28 , 31 , 48 , 56 , 57 , 70 , 1 , 70 , 74 , 1
- , 74 , 0};
-static int QJacobianGrp1[58]={5, 2 , 25 , 2 , 4 , 5 , 6 , 7 , 10 , 11 , 12 , 13
+ , 71 , 17 , 2 , 17 , 41 , 21 , 4 , 21 , 22 , 24 , 27 , 23 , 1 , 23 , 43 , 5
+ , 42 , 43 , 44 , 47 , 59 , 57 , 5 , 28 , 31 , 48 , 56 , 57 , 70 , 1 , 70 , 74
+ , 1 , 74 , 0};
+static int QJacobianGrp1[59]={5, 2 , 25 , 2 , 4 , 5 , 6 , 7 , 10 , 11 , 12 , 13
, 14 , 15 , 36 , 49 , 50 , 51 , 52 , 60 , 61 , 62 , 63 , 64 , 65 , 66 , 68 , 72
- , 22 , 8 , 19 , 20 , 22 , 24 , 25 , 26 , 27 , 31 , 41 , 5 , 17 , 41 , 42 , 45
- , 59 , 47 , 4 , 43 , 46 , 47 , 48 , 71 , 4 , 1 , 70 , 71 , 77 , 0};
+ , 22 , 9 , 19 , 20 , 21 , 22 , 24 , 25 , 26 , 27 , 31 , 41 , 5 , 17 , 41 , 42
+ , 45 , 59 , 47 , 4 , 43 , 46 , 47 , 48 , 71 , 4 , 1 , 70 , 71 , 77 , 0};
static int QJacobianGrp2[59]={5, 3 , 33 , 1 , 2 , 3 , 4 , 5 , 6 , 7 , 10 , 11 , 12
, 13 , 14 , 15 , 19 , 20 , 36 , 49 , 50 , 51 , 52 , 60 , 61 , 62 , 63 , 64 , 65
, 66 , 67 , 68 , 69 , 71 , 72 , 73 , 24 , 1 , 24 , 26 , 4 , 22 , 26 , 45 , 53
, 42 , 5 , 41 , 42 , 43 , 46 , 59 , 48 , 4 , 44 , 47 , 48 , 57 , 0};
-static int QJacobianGrp3[65]={7, 4 , 14 , 2 , 4 , 5 , 6 , 7 , 13 , 14 , 15 , 60
- , 61 , 62 , 63 , 64 , 65 , 28 , 10 , 19 , 20 , 22 , 24 , 25 , 27 , 28 , 37 , 38
- , 39 , 44 , 5 , 16 , 43 , 44 , 48 , 59 , 45 , 5 , 26 , 41 , 45 , 46 , 53 , 50
- , 5 , 49 , 50 , 51 , 54 , 58 , 56 , 4 , 52 , 55 , 56 , 57 , 67 , 6 , 1 , 67
- , 68 , 74 , 76 , 78 , 0};
+static int QJacobianGrp3[66]={7, 4 , 14 , 2 , 4 , 5 , 6 , 7 , 13 , 14 , 15 , 60
+ , 61 , 62 , 63 , 64 , 65 , 28 , 11 , 19 , 20 , 21 , 22 , 24 , 25 , 27 , 28 , 37
+ , 38 , 39 , 44 , 5 , 16 , 43 , 44 , 48 , 59 , 45 , 5 , 26 , 41 , 45 , 46 , 53
+ , 50 , 5 , 49 , 50 , 51 , 54 , 58 , 56 , 4 , 52 , 55 , 56 , 57 , 67 , 6 , 1
+ , 67 , 68 , 74 , 76 , 78 , 0};
static int QJacobianGrp4[45]={5, 5 , 14 , 2 , 4 , 5 , 6 , 7 , 13 , 14 , 15 , 60
, 61 , 62 , 63 , 64 , 65 , 31 , 4 , 22 , 28 , 31 , 57 , 46 , 4 , 42 , 45 , 46
, 47 , 51 , 5 , 50 , 51 , 52 , 55 , 58 , 75 , 6 , 68 , 74 , 75 , 76 , 77 , 78
, 0};
-static int QJacobianGrp5[47]={5, 6 , 14 , 2 , 4 , 5 , 6 , 7 , 13 , 14 , 15 , 60
- , 61 , 62 , 63 , 64 , 65 , 39 , 7 , 19 , 20 , 22 , 24 , 25 , 27 , 39 , 52 , 5
- , 51 , 52 , 56 , 58 , 66 , 53 , 5 , 26 , 45 , 49 , 53 , 54 , 76 , 4 , 68 , 74
- , 76 , 78 , 0};
+static int QJacobianGrp5[48]={5, 6 , 14 , 2 , 4 , 5 , 6 , 7 , 13 , 14 , 15 , 60
+ , 61 , 62 , 63 , 64 , 65 , 39 , 8 , 19 , 20 , 21 , 22 , 24 , 25 , 27 , 39 , 52
+ , 5 , 51 , 52 , 56 , 58 , 66 , 53 , 5 , 26 , 45 , 49 , 53 , 54 , 76 , 4 , 68
+ , 74 , 76 , 78 , 0};
static int QJacobianGrp6[34]={3, 7 , 14 , 2 , 4 , 5 , 6 , 7 , 13 , 14 , 15 , 60
, 61 , 62 , 63 , 64 , 65 , 54 , 4 , 50 , 53 , 54 , 55 , 77 , 8 , 68 , 70 , 71
, 74 , 75 , 76 , 77 , 78 , 0};
@@ -5065,253 +5064,253 @@ DYMOLA_STATIC double QJacobianCD_[80]={0 , 44 , 50 , 54 , 56 , 56 , 54 , 50 , 4
TranslatedEquations
InitialSection
#if defined(DynSimStruct)
-DYNX(W_,8477) = 288.15;
-DYNX(W_,8487) = 293.15;
-DYNX(W_,8488) = 293.15;
-DYNX(W_,8489) = 288.15;
-DYNX(W_,8490) = 288.15;
-DYNX(W_,8510) = 0;
-DYNX(W_,8512) = 45300.945;
-DYNX(W_,8513) = 0;
+DYNX(W_,8440) = 288.15;
+DYNX(W_,8450) = 293.15;
+DYNX(W_,8451) = 293.15;
+DYNX(W_,8452) = 288.15;
+DYNX(W_,8453) = 288.15;
+DYNX(W_,8473) = 0;
+DYNX(W_,8475) = 45300.945;
+DYNX(W_,8476) = 0;
+DYNX(W_,8481) = 288.15;
+DYNX(W_,8483) = 288.15;
+DYNX(W_,8493) = 1000.0;
+DYNX(W_,8497) = 20.0;
+DYNX(W_,8505) = 288.15;
+DYNX(W_,8507) = 288.15;
+DYNX(W_,8510) = 288.15;
+DYNX(W_,8512) = 288.15;
+DYNX(W_,8514) = 288.15;
+DYNX(W_,8516) = 288.15;
DYNX(W_,8518) = 288.15;
DYNX(W_,8520) = 288.15;
-DYNX(W_,8530) = 1000.0;
-DYNX(W_,8534) = 20.0;
-DYNX(W_,8542) = 288.15;
-DYNX(W_,8544) = 288.15;
-DYNX(W_,8547) = 288.15;
-DYNX(W_,8549) = 288.15;
-DYNX(W_,8551) = 288.15;
-DYNX(W_,8553) = 288.15;
-DYNX(W_,8555) = 288.15;
-DYNX(W_,8557) = 288.15;
-DYNX(W_,8559) = 288.15;
-DYNX(W_,8567) = 0;
-DYNX(W_,8572) = 0;
-DYNX(W_,8582) = 0;
-DYNX(W_,8585) = 0;
-DYNX(W_,8587) = 0;
-DYNX(W_,8589) = 0;
-DYNX(W_,8592) = 0;
-DYNX(W_,8604) = 288.15;
-DYNX(W_,8607) = 0;
-DYNX(W_,8621) = 288.15;
-DYNX(W_,8630) = 288.15;
-DYNX(W_,8636) = 288.15;
-DYNX(W_,8698) = 288.15;
-DYNX(W_,8699) = 288.15;
-DYNX(W_,8700) = 288.15;
-DYNX(W_,8701) = 288.15;
-DYNX(W_,8702) = 288.15;
-DYNX(W_,8703) = 288.15;
-DYNX(W_,8704) = 288.15;
-DYNX(W_,8705) = 288.15;
-DYNX(W_,8712) = 288.15;
-DYNX(W_,8713) = 288.15;
-DYNX(W_,8714) = 288.15;
-DYNX(W_,8715) = 288.15;
-DYNX(W_,8718) = 288.15;
-DYNX(W_,8288) = 0;
+DYNX(W_,8522) = 288.15;
+DYNX(W_,8530) = 0;
+DYNX(W_,8535) = 0;
+DYNX(W_,8545) = 0;
+DYNX(W_,8548) = 0;
+DYNX(W_,8550) = 0;
+DYNX(W_,8552) = 0;
+DYNX(W_,8555) = 0;
+DYNX(W_,8567) = 288.15;
+DYNX(W_,8570) = 0;
+DYNX(W_,8584) = 288.15;
+DYNX(W_,8593) = 288.15;
+DYNX(W_,8599) = 288.15;
+DYNX(W_,8661) = 288.15;
+DYNX(W_,8662) = 288.15;
+DYNX(W_,8663) = 288.15;
+DYNX(W_,8664) = 288.15;
+DYNX(W_,8665) = 288.15;
+DYNX(W_,8666) = 288.15;
+DYNX(W_,8667) = 288.15;
+DYNX(W_,8668) = 288.15;
+DYNX(W_,8675) = 288.15;
+DYNX(W_,8676) = 288.15;
+DYNX(W_,8677) = 288.15;
+DYNX(W_,8678) = 288.15;
+DYNX(W_,8681) = 288.15;
+DYNX(W_,8248) = 0;
+DYNX(W_,8249) = 0;
+DYNX(W_,8250) = 0;
+DYNX(W_,8251) = 0;
+DYNX(W_,8252) = 0;
+DYNX(W_,8253) = 0;
+DYNX(W_,8254) = 0;
+DYNX(W_,8255) = 0;
+DYNX(W_,8256) = 0;
+DYNX(W_,8262) = false;
+DYNX(W_,8911) = 288.15;
+DYNX(W_,8912) = 288.15;
+DYNX(W_,8264) = 0;
+DYNX(W_,8268) = 0;
+DYNX(W_,8269) = 0;
+DYNX(W_,8984) = 0;
+DYNX(W_,9002) = 0;
+DYNX(W_,9003) = 0.49;
+DYNX(W_,9004) = 0.7;
+DYNX(W_,9005) = 0.7;
+DYNX(W_,9013) = 0.00010044335697769957;
+DYNX(W_,9014) = 0.833;
+DYNX(W_,8272) = 0;
+DYNX(W_,8273) = 0;
+DYNX(W_,9028) = 1.3;
+DYNX(W_,9030) = 0;
+DYNX(W_,9035) = 0.5;
+DYNX(W_,8275) = 0;
+DYNX(W_,8278) = 0;
+DYNX(W_,8281) = 0;
+DYNX(W_,9062) = 1.3;
+DYNX(W_,9064) = 0;
+DYNX(W_,9069) = 0.5;
+DYNX(W_,8286) = 0;
DYNX(W_,8289) = 0;
-DYNX(W_,8290) = 0;
-DYNX(W_,8291) = 0;
DYNX(W_,8292) = 0;
-DYNX(W_,8293) = 0;
-DYNX(W_,8294) = 0;
-DYNX(W_,8295) = 0;
DYNX(W_,8296) = 0;
-DYNX(W_,8302) = false;
-DYNX(W_,8948) = 288.15;
-DYNX(W_,8949) = 288.15;
-DYNX(W_,8304) = 0;
-DYNX(W_,8308) = 0;
-DYNX(W_,8309) = 0;
-DYNX(W_,9021) = 0;
-DYNX(W_,9039) = 0;
-DYNX(W_,9040) = 0.49;
-DYNX(W_,9041) = 0.7;
-DYNX(W_,9042) = 0.7;
-DYNX(W_,9050) = 0.00010044335697769957;
+DYNX(W_,9102) = 83680.0;
+DYNX(W_,9103) = 45300.945;
+DYNX(W_,9104) = 293.15;
+DYNX(W_,9105) = 293.15;
#endif
BreakSectionFunctionCallNew(57);
BreakSectionFunctionEnd()
BreakSectionFunctionStart(56);
#if defined(DynSimStruct)
-DYNX(W_,9051) = 0.833;
-DYNX(W_,8312) = 0;
-DYNX(W_,8313) = 0;
-DYNX(W_,9065) = 1.3;
-DYNX(W_,9067) = 0;
-DYNX(W_,9072) = 0.5;
-DYNX(W_,8315) = 0;
-DYNX(W_,8318) = 0;
-DYNX(W_,8321) = 0;
-DYNX(W_,9099) = 1.3;
-DYNX(W_,9101) = 0;
-DYNX(W_,9106) = 0.5;
-DYNX(W_,8326) = 0;
-DYNX(W_,8329) = 0;
-DYNX(W_,8332) = 0;
-DYNX(W_,8336) = 0;
-DYNX(W_,9139) = 83680.0;
-DYNX(W_,9140) = 45300.945;
-DYNX(W_,9141) = 293.15;
-DYNX(W_,9142) = 293.15;
-DYNX(W_,9143) = 293.15;
-DYNX(W_,8344) = 0;
-DYNX(W_,8346) = 0;
-DYNX(W_,9169) = 262.65;
-DYNX(W_,9172) = 1000.0;
-DYNX(W_,9175) = 20.0;
-DYNX(W_,9182) = 262.65;
-DYNX(W_,8364) = true;
-DYNX(W_,8376) = true;
-DYNX(W_,8378) = false;
-DYNX(W_,8379) = true;
-DYNX(W_,8380) = false;
-DYNX(W_,8381) = true;
-DYNX(W_,8384) = 0;
-DYNX(W_,8385) = 0;
-DYNX(W_,8386) = 1;
-DYNX(W_,8392) = true;
-DYNX(W_,9202) = 45300.945;
-DYNX(W_,8394) = 1;
-DYNX(W_,8396) = 0;
-DYNX(W_,8398) = 0.49;
-DYNX(W_,8399) = 0.7;
-DYNX(W_,8400) = 0.7;
-DYNX(W_,8401) = 0;
-DYNX(W_,8406) = 0.0006788659509969093;
-DYNX(W_,8407) = 0.833;
-DYNX(W_,8409) = 1;
-DYNX(W_,9211) = 293.15;
-DYNX(W_,9212) = 293.15;
-DYNX(W_,8414) = 0;
-DYNX(W_,8416) = 0;
-DYNX(W_,8421) = true;
-DYNX(W_,8424) = true;
-DYNX(W_,8425) = 1;
-DYNX(W_,8426) = true;
-DYNX(W_,8428) = false;
-DYNX(W_,8431) = true;
-DYNX(W_,8433) = false;
-DYNX(W_,8438) = true;
-DYNX(W_,8439) = true;
-DYNX(W_,8441) = 1.0;
-DYNX(W_,8445) = true;
-DYNX(W_,9254) = 83680.0;
-DYNX(W_,9256) = 0;
-DYNX(W_,9257) = 83680.0;
-DYNX(W_,9258) = 83680.0;
-DYNX(W_,8452) = 0;
-DYNX(W_,9259) = 209200.0;
-DYNX(W_,9260) = 209200.0;
-DYNX(W_,9262) = 323.15;
-DYNX(W_,9267) = 209200.0;
+DYNX(W_,9106) = 293.15;
+DYNX(W_,8306) = 0;
+DYNX(W_,8308) = 0;
+DYNX(W_,9136) = 262.65;
+DYNX(W_,9139) = 1000.0;
+DYNX(W_,9142) = 20.0;
+DYNX(W_,9149) = 262.65;
+DYNX(W_,8327) = true;
+DYNX(W_,8339) = true;
+DYNX(W_,8341) = false;
+DYNX(W_,8342) = true;
+DYNX(W_,8343) = false;
+DYNX(W_,8344) = true;
+DYNX(W_,8347) = 0;
+DYNX(W_,8348) = 0;
+DYNX(W_,8349) = 1;
+DYNX(W_,8355) = true;
+DYNX(W_,9171) = 45300.945;
+DYNX(W_,8357) = 1;
+DYNX(W_,8359) = 0;
+DYNX(W_,8361) = 0.49;
+DYNX(W_,8362) = 0.7;
+DYNX(W_,8363) = 0.7;
+DYNX(W_,8364) = 0;
+DYNX(W_,8369) = 0.0006788659509969093;
+DYNX(W_,8370) = 0.833;
+DYNX(W_,8372) = 1;
+DYNX(W_,9180) = 293.15;
+DYNX(W_,9181) = 293.15;
+DYNX(W_,8377) = 0;
+DYNX(W_,8379) = 0;
+DYNX(W_,8384) = true;
+DYNX(W_,8387) = true;
+DYNX(W_,8388) = 1;
+DYNX(W_,8389) = true;
+DYNX(W_,8391) = false;
+DYNX(W_,8394) = true;
+DYNX(W_,8396) = false;
+DYNX(W_,8401) = true;
+DYNX(W_,8402) = true;
+DYNX(W_,8404) = 1.0;
+DYNX(W_,8408) = true;
+DYNX(W_,9223) = 83680.0;
+DYNX(W_,9225) = 0;
+DYNX(W_,9226) = 83680.0;
+DYNX(W_,9227) = 83680.0;
+DYNX(W_,8415) = 0;
+DYNX(W_,9228) = 209200.0;
+DYNX(W_,9229) = 209200.0;
+DYNX(W_,9231) = 323.15;
+DYNX(W_,9236) = 209200.0;
+DYNX(W_,9237) = 323.15;
+DYNX(W_,9239) = 323.15;
+DYNX(W_,9244) = 209200.0;
+DYNX(W_,9245) = 323.15;
+DYNX(W_,9247) = 323.15;
+DYNX(W_,9253) = 323.15;
+DYNX(W_,9258) = 323.15;
+DYNX(W_,9260) = 323.15;
+DYNX(W_,9265) = 209200.0;
+DYNX(W_,9266) = 323.15;
DYNX(W_,9268) = 323.15;
-DYNX(W_,9270) = 323.15;
-DYNX(W_,9275) = 209200.0;
+DYNX(W_,9273) = 209200.0;
+DYNX(W_,9274) = 323.15;
DYNX(W_,9276) = 323.15;
-DYNX(W_,9278) = 323.15;
-DYNX(W_,9284) = 323.15;
-DYNX(W_,9289) = 323.15;
-DYNX(W_,9291) = 323.15;
-DYNX(W_,9296) = 209200.0;
-DYNX(W_,9297) = 323.15;
-DYNX(W_,9299) = 323.15;
-DYNX(W_,9304) = 209200.0;
-DYNX(W_,9305) = 323.15;
-DYNX(W_,9307) = 323.15;
-DYNX(W_,9312) = 323.15;
-DYNX(W_,9314) = 323.15;
-DYNX(W_,8453) = 0;
-DYNX(W_,8454) = 300000;
-DYNX(W_,8455) = 300000;
-DYNX(W_,8456) = 0;
-DYNX(W_,8459) = 0;
-DYNX(W_,9430) = 323.15;
-DYNX(W_,9433) = 323.15;
-DYNX(W_,8465) = 0;
-DYNX(W_,8466) = 0;
-DYNX(W_,9434) = 83680.0;
-DYNX(W_,9440) = 83680.0;
-DYNX(W_,9501) = 0;
-DYNX(W_,9503) = 1.0;
-DYNX(W_,9506) = 0;
-DYNX(W_,9508) = 0.49;
-DYNX(W_,9509) = 0.7;
-DYNX(W_,9510) = 0.7;
-DYNX(W_,9511) = 0;
-DYNX(W_,9521) = 0.00031900807415656405;
-DYNX(W_,9522) = 0.833;
-DYNX(W_,9526) = 209200.0;
-DYNX(W_,9534) = 0;
-DYNX(W_,9535) = 45300.945;
-DYNX(W_,9537) = 45300.945;
-DYNX(W_,9538) = 0;
-DYNX(W_,9539) = 101325;
-DYNX(W_,9540) = 45300.945;
-DYNX(W_,9541) = 101325;
+DYNX(W_,9281) = 323.15;
+DYNX(W_,9283) = 323.15;
+DYNX(W_,8416) = 0;
+DYNX(W_,8417) = 300000;
+DYNX(W_,8418) = 300000;
+DYNX(W_,8419) = 0;
+DYNX(W_,8422) = 0;
+DYNX(W_,9399) = 323.15;
+DYNX(W_,9402) = 323.15;
+DYNX(W_,8428) = 0;
+DYNX(W_,8429) = 0;
+DYNX(W_,9403) = 83680.0;
+DYNX(W_,9409) = 83680.0;
+DYNX(W_,9470) = 0;
+DYNX(W_,9472) = 1.0;
+DYNX(W_,9475) = 0;
+DYNX(W_,9477) = 0.49;
+DYNX(W_,9478) = 0.7;
+DYNX(W_,9479) = 0.7;
+DYNX(W_,9480) = 0;
+DYNX(W_,9490) = 0.00031900807415656405;
+DYNX(W_,9491) = 0.833;
+DYNX(W_,9495) = 209200.0;
+DYNX(W_,9503) = 0;
+DYNX(W_,9504) = 45300.945;
+DYNX(W_,9506) = 45300.945;
+DYNX(W_,9507) = 0;
+DYNX(W_,9508) = 101325;
+DYNX(W_,9509) = 45300.945;
+DYNX(W_,9510) = 101325;
+DYNX(W_,9511) = 45300.945;
+DYNX(W_,9514) = 293.15;
+DYNX(W_,9515) = 293.15;
+DYNX(W_,9516) = 0.99;
+DYNX(W_,9517) = 293.15;
+DYNX(W_,9518) = 0.99;
+DYNX(W_,9519) = 293.15;
+DYNX(W_,9520) = 0.99;
+DYNX(W_,9522) = 0;
+DYNX(W_,9524) = 0;
+DYNX(W_,9527) = 0;
+DYNX(W_,9529) = 0;
+DYNX(W_,9532) = 293.15;
+DYNX(W_,9533) = 293.15;
DYNX(W_,9542) = 45300.945;
-DYNX(W_,9545) = 293.15;
-DYNX(W_,9546) = 293.15;
-DYNX(W_,9547) = 0.99;
-DYNX(W_,9548) = 293.15;
-DYNX(W_,9549) = 0.99;
-DYNX(W_,9550) = 293.15;
-DYNX(W_,9551) = 0.99;
-DYNX(W_,9553) = 0;
-DYNX(W_,9555) = 0;
-DYNX(W_,9558) = 0;
-DYNX(W_,9560) = 0;
-DYNX(W_,9563) = 293.15;
-DYNX(W_,9564) = 293.15;
-DYNX(W_,9573) = 45300.945;
-DYNX(W_,9576) = 0;
-DYNX(W_,9578) = 0.49;
-DYNX(W_,9579) = 0.7;
-DYNX(W_,9580) = 0.7;
-DYNX(W_,9581) = 0;
-DYNX(W_,9587) = 1000.0;
-DYNX(W_,9591) = 20.0;
-DYNX(W_,9602) = 0.1814814814814815;
-DYNX(W_,9603) = 0.833;
-DYNX(W_,9606) = 45300.945;
-DYNX(W_,9609) = 1;
-DYNX(W_,9612) = 293.15;
-DYNX(W_,9613) = 293.15;
-DYNX(W_,9614) = 0;
-DYNX(W_,9616) = 0;
-DYNX(W_,9618) = 0.49;
-DYNX(W_,9619) = 0.7;
-DYNX(W_,9620) = 0.7;
+DYNX(W_,9545) = 0;
+DYNX(W_,9547) = 0.49;
+DYNX(W_,9548) = 0.7;
+DYNX(W_,9549) = 0.7;
+DYNX(W_,9550) = 0;
+DYNX(W_,9556) = 1000.0;
+DYNX(W_,9560) = 20.0;
+DYNX(W_,9571) = 0.1814814814814815;
+DYNX(W_,9572) = 0.833;
+DYNX(W_,9575) = 45300.945;
+DYNX(W_,9578) = 1;
+DYNX(W_,9581) = 293.15;
+DYNX(W_,9582) = 293.15;
+DYNX(W_,9583) = 0;
+DYNX(W_,9585) = 0;
+DYNX(W_,9587) = 0.49;
+DYNX(W_,9588) = 0.7;
+DYNX(W_,9589) = 0.7;
+DYNX(W_,9590) = 0;
+DYNX(W_,9596) = 1000.0;
+DYNX(W_,9600) = 20.0;
+DYNX(W_,9611) = 0.1814814814814815;
+DYNX(W_,9612) = 0.833;
+DYNX(W_,9613) = 1;
+DYNX(W_,9616) = 293.15;
+DYNX(W_,9617) = 293.15;
+DYNX(W_,9618) = 0;
+DYNX(W_,9619) = 101325;
+DYNX(W_,9620) = 45300.945;
DYNX(W_,9621) = 0;
-DYNX(W_,9627) = 1000.0;
+DYNX(W_,9622) = 0;
+DYNX(W_,9628) = 1000.0;
DYNX(W_,9631) = 20.0;
-DYNX(W_,9642) = 0.1814814814814815;
-DYNX(W_,9643) = 0.833;
-DYNX(W_,9644) = 1;
-DYNX(W_,9647) = 293.15;
-DYNX(W_,9648) = 293.15;
-DYNX(W_,9649) = 0;
-DYNX(W_,9650) = 101325;
-DYNX(W_,9651) = 45300.945;
-DYNX(W_,9652) = 0;
-DYNX(W_,9653) = 0;
-DYNX(W_,9659) = 1000.0;
-DYNX(W_,9662) = 20.0;
-DYNX(W_,9670) = 0;
-DYNX(W_,9671) = 0;
-DYNX(W_,9678) = 1000.0;
-DYNX(W_,9682) = 20.0;
-DYNX(W_,9690) = 0;
-DYNX(W_,9691) = 0;
-DYNX(W_,9737) = 288.15;
-DYNX(W_,8467) = 0;
-DYNX(W_,8468) = 0;
-DYNX(W_,8469) = 0;
-DYNX(W_,8470) = 0;
-DYNX(W_,8471) = 0;
+DYNX(W_,9639) = 0;
+DYNX(W_,9640) = 0;
+DYNX(W_,9647) = 1000.0;
+DYNX(W_,9651) = 20.0;
+DYNX(W_,9659) = 0;
+DYNX(W_,9660) = 0;
+DYNX(W_,9706) = 288.15;
+DYNX(W_,8430) = 0;
+DYNX(W_,8431) = 0;
+DYNX(W_,8432) = 0;
+DYNX(W_,8433) = 0;
+DYNX(W_,8434) = 0;
#endif
DYNX(Aux_,10) = 83680.0;
DYNX(Aux_,11) = 83680.0;
@@ -5388,8 +5387,6 @@ DYNX(Aux_,63) = 45300.945;
DYNX(Aux_,65) = 45300.945;
DYNX(Aux_,67) = 45300.945;
DYNX(Aux_,69) = 45300.945;
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(58);
DYNX(Aux_,71) = 45300.945;
DYNX(Aux_,73) = 45300.945;
DYNX(Aux_,75) = 45300.945;
@@ -5411,6 +5408,10 @@ DYNX(Aux_,127) = 45300.945;
DYNX(Aux_,129) = 45300.945;
#if defined(DynSimStruct)
DYNX(F_,3) = 0;
+#endif
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(58);
+#if defined(DynSimStruct)
DYNX(F_,4) = 0;
DYNX(F_,5) = 0;
DYNX(F_,6) = 0;
@@ -5753,1114 +5754,1114 @@ DYNX(W_,2541) = 293.15;
DYNX(W_,2543) = 3;
DYNX(W_,2547) = true;
DYNX(W_,2548) = true;
-DYNX(W_,2554) = true;
-DYNX(W_,2555) = true;
-DYNX(W_,2562) = false;
-DYNX(W_,2586) = false;
-memcpy(&DYNX(W_,2587), &DymArrays17, sizeof(double)*4);
-DYNX(W_,2604) = 20.655;
-DYNX(W_,2612) = true;
-DYNX(W_,2618) = false;
-DYNX(W_,2619) = true;
-DYNX(W_,2737) = false;
-DYNX(W_,2738) = 4;
-DYNX(W_,2739) = 12;
-DYNX(W_,2846) = false;
-DYNX(W_,2847) = true;
-DYNX(W_,2873) = true;
-DYNX(W_,2877) = 125;
-DYNX(W_,2879) = false;
-DYNX(W_,2888) = 0;
-DYNX(W_,2890) = false;
-DYNX(W_,2896) = true;
+DYNX(W_,2551) = true;
+DYNX(W_,2552) = true;
+DYNX(W_,2559) = false;
+DYNX(W_,2574) = false;
+memcpy(&DYNX(W_,2575), &DymArrays17, sizeof(double)*4);
+DYNX(W_,2590) = 20.655;
+DYNX(W_,2597) = true;
+DYNX(W_,2603) = false;
+DYNX(W_,2604) = true;
+DYNX(W_,2722) = false;
+DYNX(W_,2723) = 4;
+DYNX(W_,2724) = 12;
+DYNX(W_,2831) = false;
+DYNX(W_,2832) = true;
+DYNX(W_,2848) = true;
+DYNX(W_,2852) = 125;
+DYNX(W_,2854) = false;
+DYNX(W_,2863) = 0;
+DYNX(W_,2865) = false;
+DYNX(W_,2871) = true;
+DYNX(W_,2872) = true;
+DYNX(W_,2875) = true;
+DYNX(W_,2877) = true;
+DYNX(W_,2880) = true;
+DYNX(W_,2890) = true;
+DYNX(W_,2891) = false;
+DYNX(W_,2892) = false;
+DYNX(W_,2893) = true;
+DYNX(W_,2894) = false;
DYNX(W_,2897) = true;
DYNX(W_,2900) = true;
-DYNX(W_,2902) = true;
-DYNX(W_,2905) = true;
-DYNX(W_,2915) = true;
-DYNX(W_,2916) = false;
-DYNX(W_,2917) = false;
-DYNX(W_,2918) = true;
-DYNX(W_,2919) = false;
-DYNX(W_,2922) = true;
-DYNX(W_,2925) = true;
-DYNX(W_,2926) = true;
-DYNX(W_,2931) = 2;
-DYNX(W_,2933) = true;
-DYNX(W_,2934) = true;
-DYNX(W_,2937) = false;
-DYNX(W_,2942) = 125;
-DYNX(W_,2945) = true;
-DYNX(W_,2947) = 2;
-memcpy(&DYNX(W_,2951), &DymArrays12, sizeof(double)*4);
+DYNX(W_,2901) = true;
+DYNX(W_,2906) = 2;
+DYNX(W_,2908) = true;
+DYNX(W_,2909) = true;
+DYNX(W_,2912) = false;
+DYNX(W_,2917) = 125;
+DYNX(W_,2920) = true;
+DYNX(W_,2922) = 2;
+memcpy(&DYNX(W_,2926), &DymArrays12, sizeof(double)*4);
+DYNX(W_,2936) = true;
+DYNX(W_,2937) = true;
+DYNX(W_,2939) = 2;
+DYNX(W_,2949) = false;
+DYNX(W_,2950) = false;
+DYNX(W_,2952) = 2;
DYNX(W_,2961) = true;
-DYNX(W_,2962) = true;
-DYNX(W_,2964) = 2;
-DYNX(W_,2974) = false;
-DYNX(W_,2975) = false;
-DYNX(W_,2977) = 2;
-DYNX(W_,2986) = true;
-DYNX(W_,2987) = 2;
+DYNX(W_,2962) = 2;
+DYNX(W_,2963) = false;
+DYNX(W_,2964) = false;
+DYNX(W_,2965) = false;
+DYNX(W_,2983) = false;
+DYNX(W_,2985) = true;
DYNX(W_,2988) = false;
-DYNX(W_,2989) = false;
-DYNX(W_,2990) = false;
+DYNX(W_,2991) = true;
+DYNX(W_,2993) = 125;
+DYNX(W_,2998) = 125;
DYNX(W_,3008) = false;
-DYNX(W_,3010) = true;
-DYNX(W_,3013) = false;
-DYNX(W_,3016) = true;
-DYNX(W_,3018) = 125;
-DYNX(W_,3023) = 125;
-DYNX(W_,3033) = false;
-DYNX(W_,3039) = true;
-DYNX(W_,3044) = false;
-DYNX(W_,3050) = 0;
-DYNX(W_,3053) = true;
-DYNX(W_,3055) = 2;
-memcpy(&DYNX(W_,3060), &DymArrays12, sizeof(double)*4);
-DYNX(W_,3071) = true;
-DYNX(W_,3072) = true;
-DYNX(W_,3074) = 2;
-DYNX(W_,3091) = false;
-DYNX(W_,3092) = false;
-DYNX(W_,3094) = 2;
-DYNX(W_,3104) = true;
-DYNX(W_,3105) = 2;
-DYNX(W_,3106) = false;
-DYNX(W_,3107) = false;
-DYNX(W_,3110) = false;
-DYNX(W_,3131) = true;
-DYNX(W_,3133) = true;
-DYNX(W_,3138) = false;
-DYNX(W_,3142) = true;
-DYNX(W_,3144) = 0;
-DYNX(W_,3149) = 0;
-DYNX(W_,3161) = false;
-DYNX(W_,3172) = true;
-DYNX(W_,3175) = true;
-DYNX(W_,3177) = true;
-DYNX(W_,3180) = true;
-DYNX(W_,3190) = true;
-DYNX(W_,3191) = false;
-DYNX(W_,3192) = false;
+DYNX(W_,3014) = true;
+DYNX(W_,3019) = false;
+DYNX(W_,3025) = 0;
+DYNX(W_,3028) = true;
+DYNX(W_,3030) = 2;
+memcpy(&DYNX(W_,3035), &DymArrays12, sizeof(double)*4);
+DYNX(W_,3046) = true;
+DYNX(W_,3047) = true;
+DYNX(W_,3049) = 2;
+DYNX(W_,3066) = false;
+DYNX(W_,3067) = false;
+DYNX(W_,3069) = 2;
+DYNX(W_,3079) = true;
+DYNX(W_,3080) = 2;
+DYNX(W_,3081) = false;
+DYNX(W_,3082) = false;
+DYNX(W_,3085) = false;
+DYNX(W_,3106) = true;
+DYNX(W_,3108) = true;
+DYNX(W_,3113) = false;
+DYNX(W_,3117) = true;
+DYNX(W_,3119) = 0;
+DYNX(W_,3124) = 0;
+DYNX(W_,3136) = false;
+DYNX(W_,3146) = true;
+DYNX(W_,3149) = true;
+DYNX(W_,3151) = true;
+DYNX(W_,3154) = true;
+DYNX(W_,3164) = true;
+DYNX(W_,3165) = false;
+DYNX(W_,3166) = false;
+DYNX(W_,3167) = true;
+DYNX(W_,3168) = false;
+DYNX(W_,3171) = true;
+DYNX(W_,3179) = false;
+DYNX(W_,3180) = false;
DYNX(W_,3193) = true;
DYNX(W_,3194) = false;
-DYNX(W_,3197) = true;
-DYNX(W_,3206) = false;
-DYNX(W_,3207) = false;
-DYNX(W_,3220) = true;
-DYNX(W_,3221) = false;
-DYNX(W_,3222) = false;
-DYNX(W_,3223) = true;
-DYNX(W_,3231) = 1;
-DYNX(W_,3244) = 3;
-DYNX(W_,3281) = 1;
-DYNX(W_,3294) = 3;
-DYNX(W_,3328) = true;
-DYNX(W_,3330) = true;
-DYNX(W_,3332) = true;
-DYNX(W_,3345) = false;
-DYNX(W_,3346) = false;
-DYNX(W_,3363) = false;
-DYNX(W_,3364) = false;
-DYNX(W_,3377) = true;
-DYNX(W_,3382) = true;
-DYNX(W_,3405) = false;
-DYNX(W_,3406) = true;
-DYNX(W_,3407) = true;
-DYNX(W_,3416) = 1;
-DYNX(W_,3417) = false;
-DYNX(W_,3419) = 3;
-DYNX(W_,3423) = false;
-DYNX(W_,3424) = false;
-DYNX(W_,3425) = false;
-DYNX(W_,3426) = false;
-DYNX(W_,3428) = false;
-DYNX(W_,3429) = false;
-DYNX(W_,3430) = true;
-DYNX(W_,3431) = 1;
-DYNX(W_,3432) = false;
-DYNX(W_,3434) = 3;
-DYNX(W_,3438) = false;
-DYNX(W_,3439) = false;
-DYNX(W_,3440) = false;
-DYNX(W_,3441) = false;
-DYNX(W_,3443) = true;
-DYNX(W_,3447) = true;
-DYNX(W_,3448) = false;
-DYNX(W_,3449) = false;
-DYNX(W_,3453) = 2;
-DYNX(W_,3461) = true;
-DYNX(W_,3500) = 3;
-DYNX(W_,3504) = false;
-DYNX(W_,3507) = false;
-DYNX(W_,3512) = false;
-DYNX(W_,3517) = 1;
-DYNX(W_,3519) = 3;
-memcpy(&DYNX(W_,3526), &DymArrays12, sizeof(double)*4);
-DYNX(W_,3536) = true;
-DYNX(W_,3537) = true;
-DYNX(W_,3539) = 2;
-DYNX(W_,3549) = false;
+DYNX(W_,3195) = false;
+DYNX(W_,3196) = true;
+DYNX(W_,3204) = 1;
+DYNX(W_,3217) = 3;
+DYNX(W_,3254) = 1;
+DYNX(W_,3267) = 3;
+DYNX(W_,3299) = true;
+DYNX(W_,3301) = true;
+DYNX(W_,3303) = true;
+DYNX(W_,3316) = false;
+DYNX(W_,3317) = false;
+DYNX(W_,3333) = false;
+DYNX(W_,3334) = false;
+DYNX(W_,3347) = true;
+DYNX(W_,3352) = true;
+DYNX(W_,3369) = false;
+DYNX(W_,3370) = true;
+DYNX(W_,3371) = true;
+DYNX(W_,3378) = 1;
+DYNX(W_,3379) = false;
+DYNX(W_,3381) = 3;
+DYNX(W_,3385) = false;
+DYNX(W_,3386) = false;
+DYNX(W_,3387) = false;
+DYNX(W_,3388) = false;
+DYNX(W_,3390) = false;
+DYNX(W_,3391) = false;
+DYNX(W_,3392) = true;
+DYNX(W_,3393) = 1;
+DYNX(W_,3394) = false;
+DYNX(W_,3396) = 3;
+DYNX(W_,3400) = false;
+DYNX(W_,3401) = false;
+DYNX(W_,3402) = false;
+DYNX(W_,3403) = false;
+DYNX(W_,3405) = true;
+DYNX(W_,3409) = true;
+DYNX(W_,3410) = false;
+DYNX(W_,3411) = false;
+DYNX(W_,3415) = 2;
+DYNX(W_,3423) = true;
+DYNX(W_,3462) = 3;
+DYNX(W_,3466) = false;
+DYNX(W_,3469) = false;
+DYNX(W_,3474) = false;
+DYNX(W_,3479) = 1;
+DYNX(W_,3481) = 3;
+memcpy(&DYNX(W_,3488), &DymArrays12, sizeof(double)*4);
+DYNX(W_,3498) = true;
+DYNX(W_,3499) = true;
+DYNX(W_,3501) = 2;
+DYNX(W_,3511) = false;
+DYNX(W_,3516) = false;
+DYNX(W_,3521) = 2;
+DYNX(W_,3530) = true;
+DYNX(W_,3531) = 2;
+DYNX(W_,3532) = false;
+DYNX(W_,3533) = false;
+DYNX(W_,3535) = false;
DYNX(W_,3554) = false;
-DYNX(W_,3559) = 2;
-DYNX(W_,3568) = true;
-DYNX(W_,3569) = 2;
-DYNX(W_,3570) = false;
-DYNX(W_,3571) = false;
-DYNX(W_,3573) = false;
-DYNX(W_,3592) = false;
-DYNX(W_,3594) = true;
-DYNX(W_,3596) = false;
-DYNX(W_,3597) = true;
-DYNX(W_,3598) = false;
-DYNX(W_,3599) = true;
-DYNX(W_,3602) = true;
-DYNX(W_,3609) = true;
-DYNX(W_,3660) = 1;
-DYNX(W_,3666) = 3;
-DYNX(W_,3668) = true;
-DYNX(W_,3669) = false;
-DYNX(W_,3686) = 3;
-DYNX(W_,3693) = 4;
-DYNX(W_,3702) = 5;
+DYNX(W_,3556) = true;
+DYNX(W_,3558) = false;
+DYNX(W_,3559) = true;
+DYNX(W_,3560) = false;
+DYNX(W_,3561) = true;
+DYNX(W_,3564) = true;
+DYNX(W_,3571) = true;
+DYNX(W_,3622) = 1;
+DYNX(W_,3628) = 3;
+DYNX(W_,3630) = true;
+DYNX(W_,3631) = false;
+DYNX(W_,3648) = 3;
+DYNX(W_,3655) = 4;
+DYNX(W_,3664) = 5;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(3);
#if defined(DynSimStruct)
-DYNX(W_,3800) = true;
-DYNX(W_,3801) = false;
-DYNX(W_,3802) = false;
-DYNX(W_,3806) = 1;
-DYNX(W_,3807) = false;
-DYNX(W_,3809) = 3;
-DYNX(W_,3811) = false;
-DYNX(W_,3812) = false;
+DYNX(W_,3762) = true;
+DYNX(W_,3763) = false;
+DYNX(W_,3764) = false;
+DYNX(W_,3768) = 1;
+DYNX(W_,3769) = false;
+DYNX(W_,3771) = 3;
+DYNX(W_,3773) = false;
+DYNX(W_,3774) = false;
+DYNX(W_,3775) = false;
+DYNX(W_,3776) = false;
+DYNX(W_,3778) = false;
+DYNX(W_,3780) = true;
+DYNX(W_,3781) = false;
+DYNX(W_,3782) = true;
+DYNX(W_,3795) = true;
+DYNX(W_,3796) = false;
+DYNX(W_,3802) = 3;
+DYNX(W_,3803) = false;
+DYNX(W_,3804) = true;
+DYNX(W_,3805) = true;
+DYNX(W_,3806) = true;
+DYNX(W_,3807) = true;
+DYNX(W_,3808) = false;
DYNX(W_,3813) = false;
DYNX(W_,3814) = false;
-DYNX(W_,3816) = false;
-DYNX(W_,3818) = true;
+DYNX(W_,3818) = false;
DYNX(W_,3819) = false;
-DYNX(W_,3820) = true;
-DYNX(W_,3833) = true;
-DYNX(W_,3834) = false;
-DYNX(W_,3840) = 3;
-DYNX(W_,3841) = false;
-DYNX(W_,3842) = true;
-DYNX(W_,3843) = true;
-DYNX(W_,3844) = true;
-DYNX(W_,3845) = true;
-DYNX(W_,3846) = false;
-DYNX(W_,3851) = false;
-DYNX(W_,3852) = false;
-DYNX(W_,3856) = false;
-DYNX(W_,3857) = false;
-DYNX(W_,3865) = 1000;
-DYNX(W_,3866) = true;
-DYNX(W_,3867) = true;
-DYNX(W_,3870) = false;
-DYNX(W_,3875) = 1000;
+DYNX(W_,3825) = 1000;
+DYNX(W_,3826) = true;
+DYNX(W_,3827) = true;
+DYNX(W_,3830) = false;
+DYNX(W_,3835) = 1000;
+DYNX(W_,3838) = true;
+DYNX(W_,3840) = 2;
+memcpy(&DYNX(W_,3843), &DymArrays12, sizeof(double)*4);
+DYNX(W_,3853) = true;
+DYNX(W_,3854) = true;
+DYNX(W_,3856) = 2;
+DYNX(W_,3866) = false;
+DYNX(W_,3867) = false;
+DYNX(W_,3869) = 2;
DYNX(W_,3878) = true;
-DYNX(W_,3880) = 2;
-memcpy(&DYNX(W_,3883), &DymArrays12, sizeof(double)*4);
-DYNX(W_,3893) = true;
-DYNX(W_,3894) = true;
-DYNX(W_,3896) = 2;
-DYNX(W_,3906) = false;
-DYNX(W_,3907) = false;
-DYNX(W_,3909) = 2;
-DYNX(W_,3918) = true;
-DYNX(W_,3919) = 2;
-DYNX(W_,3920) = false;
-DYNX(W_,3921) = false;
-DYNX(W_,3922) = false;
-DYNX(W_,3940) = false;
-DYNX(W_,3942) = true;
+DYNX(W_,3879) = 2;
+DYNX(W_,3880) = false;
+DYNX(W_,3881) = false;
+DYNX(W_,3882) = false;
+DYNX(W_,3900) = false;
+DYNX(W_,3902) = true;
+DYNX(W_,3905) = false;
+DYNX(W_,3908) = true;
+DYNX(W_,3910) = 1000;
+DYNX(W_,3915) = 1000;
+DYNX(W_,3927) = false;
+DYNX(W_,3931) = true;
+DYNX(W_,3932) = true;
+DYNX(W_,3933) = true;
+DYNX(W_,3934) = true;
+DYNX(W_,3938) = true;
+DYNX(W_,3939) = false;
+DYNX(W_,3944) = false;
DYNX(W_,3945) = false;
-DYNX(W_,3948) = true;
-DYNX(W_,3950) = 1000;
-DYNX(W_,3955) = 1000;
-DYNX(W_,3967) = false;
-DYNX(W_,3971) = true;
-DYNX(W_,3972) = true;
-DYNX(W_,3973) = true;
-DYNX(W_,3974) = true;
-DYNX(W_,3978) = true;
-DYNX(W_,3979) = false;
-DYNX(W_,3984) = false;
-DYNX(W_,3985) = false;
-DYNX(W_,3989) = false;
-DYNX(W_,3990) = false;
-DYNX(W_,3994) = false;
-DYNX(W_,3995) = false;
-DYNX(W_,3996) = false;
-DYNX(W_,4000) = false;
-DYNX(W_,4001) = false;
-DYNX(W_,4002) = false;
-DYNX(W_,4007) = true;
-DYNX(W_,4008) = false;
-DYNX(W_,4012) = 1;
-DYNX(W_,4013) = 1;
-DYNX(W_,4024) = 1;
-DYNX(W_,4025) = 1;
-DYNX(W_,4044) = 1;
-DYNX(W_,4045) = 1;
-DYNX(W_,4062) = false;
-memcpy(&DYNX(W_,4063), &DymArrays18, sizeof(double)*3);
+DYNX(W_,3949) = false;
+DYNX(W_,3950) = false;
+DYNX(W_,3954) = false;
+DYNX(W_,3955) = false;
+DYNX(W_,3956) = false;
+DYNX(W_,3960) = false;
+DYNX(W_,3961) = false;
+DYNX(W_,3962) = false;
+DYNX(W_,3967) = true;
+DYNX(W_,3968) = false;
+DYNX(W_,3972) = 1;
+DYNX(W_,3973) = 1;
+DYNX(W_,3984) = 1;
+DYNX(W_,3985) = 1;
+DYNX(W_,4004) = 1;
+DYNX(W_,4005) = 1;
+DYNX(W_,4022) = false;
+memcpy(&DYNX(W_,4023), &DymArrays18, sizeof(double)*3);
+DYNX(W_,4030) = false;
+DYNX(W_,4034) = 1;
+DYNX(W_,4041) = true;
+DYNX(W_,4042) = false;
+DYNX(W_,4045) = false;
+DYNX(W_,4046) = false;
+memcpy(&DYNX(W_,4052), &DymArrays19, sizeof(double)*6);
+DYNX(W_,4058) = false;
+DYNX(W_,4059) = true;
+DYNX(W_,4060) = 0.3;
+DYNX(W_,4061) = 0;
+DYNX(W_,4063) = false;
+DYNX(W_,4064) = false;
+DYNX(W_,4069) = false;
DYNX(W_,4070) = false;
-DYNX(W_,4074) = 1;
-DYNX(W_,4081) = true;
-DYNX(W_,4082) = false;
-DYNX(W_,4085) = false;
-DYNX(W_,4086) = false;
-memcpy(&DYNX(W_,4092), &DymArrays19, sizeof(double)*6);
-DYNX(W_,4098) = false;
-DYNX(W_,4099) = true;
-DYNX(W_,4100) = 0.3;
-DYNX(W_,4101) = 0;
-DYNX(W_,4103) = false;
-DYNX(W_,4104) = false;
-DYNX(W_,4109) = false;
-DYNX(W_,4110) = false;
-DYNX(W_,4117) = 0.3;
-DYNX(W_,4120) = 0;
-DYNX(W_,4122) = 4;
-DYNX(W_,4125) = 0.0;
-DYNX(W_,4132) = false;
-DYNX(W_,4140) = 1;
-DYNX(W_,4149) = true;
-DYNX(W_,4150) = true;
-DYNX(W_,4154) = true;
-DYNX(W_,4155) = false;
-DYNX(W_,4169) = 2;
-DYNX(W_,4170) = true;
-DYNX(W_,4171) = 1;
-memcpy(&DYNX(W_,4177), &DymArrays20, sizeof(double)*3);
-DYNX(W_,4180) = false;
-DYNX(W_,4181) = true;
-DYNX(W_,4218) = 3;
-DYNX(W_,4219) = 2;
-DYNX(W_,4222) = 3;
-DYNX(W_,4225) = 3;
-DYNX(W_,4230) = 1;
-DYNX(W_,4257) = false;
-DYNX(W_,4260) = true;
-DYNX(W_,4266) = false;
-DYNX(W_,4269) = true;
-DYNX(W_,4277) = 1;
-DYNX(W_,4284) = 1;
-DYNX(W_,4285) = true;
-DYNX(W_,4294) = 1;
-DYNX(W_,4295) = true;
-DYNX(W_,4304) = 1;
-DYNX(W_,4314) = 1;
-DYNX(W_,4321) = 2;
-DYNX(W_,4330) = false;
-DYNX(W_,4331) = true;
-DYNX(W_,4332) = false;
-DYNX(W_,4335) = 1;
-DYNX(W_,4336) = 1;
-DYNX(W_,4358) = 850.8057654170559;
-DYNX(W_,4359) = 323.15;
-DYNX(W_,4361) = 0.123417;
-memcpy(&DYNX(W_,4363), &DymArrays21, sizeof(double)*5);
-DYNX(W_,4368) = true;
-DYNX(W_,4381) = false;
-DYNX(W_,4382) = 4;
-DYNX(W_,4396) = true;
-DYNX(W_,4397) = 2;
-memcpy(&DYNX(W_,4411), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4420) = false;
-DYNX(W_,4421) = true;
-DYNX(W_,4423) = 2;
-DYNX(W_,4425) = true;
-DYNX(W_,4433) = false;
-DYNX(W_,4434) = false;
-DYNX(W_,4436) = 2;
-DYNX(W_,4445) = true;
-DYNX(W_,4446) = 2;
-DYNX(W_,4447) = false;
-DYNX(W_,4448) = false;
-DYNX(W_,4449) = false;
+DYNX(W_,4077) = 0.3;
+DYNX(W_,4080) = 0;
+DYNX(W_,4082) = 4;
+DYNX(W_,4085) = 0.0;
+DYNX(W_,4092) = false;
+DYNX(W_,4100) = 1;
+DYNX(W_,4109) = true;
+DYNX(W_,4110) = true;
+DYNX(W_,4114) = true;
+DYNX(W_,4115) = false;
+DYNX(W_,4129) = 2;
+DYNX(W_,4130) = true;
+DYNX(W_,4131) = 1;
+memcpy(&DYNX(W_,4137), &DymArrays20, sizeof(double)*3);
+DYNX(W_,4140) = false;
+DYNX(W_,4141) = true;
+DYNX(W_,4178) = 3;
+DYNX(W_,4179) = 2;
+DYNX(W_,4182) = 3;
+DYNX(W_,4185) = 3;
+DYNX(W_,4190) = 1;
+DYNX(W_,4217) = false;
+DYNX(W_,4220) = true;
+DYNX(W_,4226) = false;
+DYNX(W_,4229) = true;
+DYNX(W_,4237) = 1;
+DYNX(W_,4244) = 1;
+DYNX(W_,4245) = true;
+DYNX(W_,4254) = 1;
+DYNX(W_,4255) = true;
+DYNX(W_,4264) = 1;
+DYNX(W_,4274) = 1;
+DYNX(W_,4281) = 2;
+DYNX(W_,4290) = false;
+DYNX(W_,4291) = true;
+DYNX(W_,4292) = false;
+DYNX(W_,4295) = 1;
+DYNX(W_,4296) = 1;
+DYNX(W_,4318) = 850.8057654170559;
+DYNX(W_,4319) = 323.15;
+DYNX(W_,4321) = 0.123417;
+memcpy(&DYNX(W_,4323), &DymArrays21, sizeof(double)*5);
+DYNX(W_,4328) = true;
+DYNX(W_,4341) = false;
+DYNX(W_,4342) = 4;
+DYNX(W_,4356) = true;
+DYNX(W_,4357) = 2;
+memcpy(&DYNX(W_,4371), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4380) = false;
+DYNX(W_,4381) = true;
+DYNX(W_,4383) = 2;
+DYNX(W_,4385) = true;
+DYNX(W_,4393) = false;
+DYNX(W_,4394) = false;
+DYNX(W_,4396) = 2;
+DYNX(W_,4405) = true;
+DYNX(W_,4406) = 2;
+DYNX(W_,4407) = false;
+DYNX(W_,4408) = false;
+DYNX(W_,4409) = false;
+DYNX(W_,4428) = false;
+memcpy(&DYNX(W_,4430), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4439) = false;
+DYNX(W_,4440) = true;
+DYNX(W_,4442) = 2;
+DYNX(W_,4444) = true;
+DYNX(W_,4452) = false;
+DYNX(W_,4453) = false;
+DYNX(W_,4455) = 2;
+DYNX(W_,4464) = true;
+DYNX(W_,4465) = 2;
+DYNX(W_,4466) = false;
+DYNX(W_,4467) = false;
DYNX(W_,4468) = false;
-memcpy(&DYNX(W_,4470), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4479) = false;
-DYNX(W_,4480) = true;
-DYNX(W_,4482) = 2;
-DYNX(W_,4484) = true;
-DYNX(W_,4492) = false;
-DYNX(W_,4493) = false;
-DYNX(W_,4495) = 2;
-DYNX(W_,4504) = true;
-DYNX(W_,4505) = 2;
-DYNX(W_,4506) = false;
-DYNX(W_,4507) = false;
-DYNX(W_,4508) = false;
+DYNX(W_,4487) = false;
+memcpy(&DYNX(W_,4489), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4498) = false;
+DYNX(W_,4499) = true;
+DYNX(W_,4501) = 2;
+DYNX(W_,4503) = true;
+DYNX(W_,4511) = false;
+DYNX(W_,4512) = false;
+DYNX(W_,4514) = 2;
+DYNX(W_,4523) = true;
+DYNX(W_,4524) = 2;
+DYNX(W_,4525) = false;
+DYNX(W_,4526) = false;
DYNX(W_,4527) = false;
-memcpy(&DYNX(W_,4529), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4538) = false;
-DYNX(W_,4539) = true;
-DYNX(W_,4541) = 2;
-DYNX(W_,4543) = true;
-DYNX(W_,4551) = false;
-DYNX(W_,4552) = false;
-DYNX(W_,4554) = 2;
-DYNX(W_,4563) = true;
-DYNX(W_,4564) = 2;
-DYNX(W_,4565) = false;
-DYNX(W_,4566) = false;
-DYNX(W_,4567) = false;
+DYNX(W_,4546) = false;
+memcpy(&DYNX(W_,4548), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4557) = false;
+DYNX(W_,4558) = true;
+DYNX(W_,4560) = 2;
+DYNX(W_,4562) = true;
+DYNX(W_,4570) = false;
+DYNX(W_,4571) = false;
+DYNX(W_,4573) = 2;
+DYNX(W_,4582) = true;
+DYNX(W_,4583) = 2;
+DYNX(W_,4584) = false;
+DYNX(W_,4585) = false;
DYNX(W_,4586) = false;
-memcpy(&DYNX(W_,4588), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4597) = false;
-DYNX(W_,4598) = true;
-DYNX(W_,4600) = 2;
-DYNX(W_,4602) = true;
-DYNX(W_,4610) = false;
-DYNX(W_,4611) = false;
-DYNX(W_,4613) = 2;
-DYNX(W_,4622) = true;
-DYNX(W_,4623) = 2;
-DYNX(W_,4624) = false;
-DYNX(W_,4625) = false;
-DYNX(W_,4626) = false;
+DYNX(W_,4605) = false;
+memcpy(&DYNX(W_,4607), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4616) = false;
+DYNX(W_,4617) = true;
+DYNX(W_,4619) = 2;
+DYNX(W_,4621) = true;
+DYNX(W_,4629) = false;
+DYNX(W_,4630) = false;
+DYNX(W_,4632) = 2;
+DYNX(W_,4641) = true;
+DYNX(W_,4642) = 2;
+DYNX(W_,4643) = false;
+DYNX(W_,4644) = false;
DYNX(W_,4645) = false;
-memcpy(&DYNX(W_,4647), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4656) = false;
-DYNX(W_,4657) = true;
-DYNX(W_,4659) = 2;
-DYNX(W_,4661) = true;
-DYNX(W_,4669) = false;
-DYNX(W_,4670) = false;
-DYNX(W_,4672) = 2;
-DYNX(W_,4681) = true;
-DYNX(W_,4682) = 2;
-DYNX(W_,4683) = false;
-DYNX(W_,4684) = false;
-DYNX(W_,4685) = false;
+DYNX(W_,4664) = false;
+memcpy(&DYNX(W_,4666), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4675) = false;
+DYNX(W_,4676) = true;
+DYNX(W_,4678) = 2;
+DYNX(W_,4680) = true;
+DYNX(W_,4688) = false;
+DYNX(W_,4689) = false;
+DYNX(W_,4691) = 2;
+DYNX(W_,4700) = true;
+DYNX(W_,4701) = 2;
+DYNX(W_,4702) = false;
+DYNX(W_,4703) = false;
DYNX(W_,4704) = false;
-memcpy(&DYNX(W_,4706), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4715) = false;
-DYNX(W_,4716) = true;
-DYNX(W_,4718) = 2;
-DYNX(W_,4720) = true;
-DYNX(W_,4728) = false;
-DYNX(W_,4729) = false;
-DYNX(W_,4731) = 2;
-DYNX(W_,4740) = true;
-DYNX(W_,4741) = 2;
-DYNX(W_,4742) = false;
-DYNX(W_,4743) = false;
-DYNX(W_,4744) = false;
+DYNX(W_,4723) = false;
+memcpy(&DYNX(W_,4725), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4734) = false;
+DYNX(W_,4735) = true;
+DYNX(W_,4737) = 2;
+DYNX(W_,4739) = true;
+DYNX(W_,4747) = false;
+DYNX(W_,4748) = false;
+DYNX(W_,4750) = 2;
+DYNX(W_,4759) = true;
+DYNX(W_,4760) = 2;
+DYNX(W_,4761) = false;
+DYNX(W_,4762) = false;
DYNX(W_,4763) = false;
-memcpy(&DYNX(W_,4765), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4774) = false;
-DYNX(W_,4775) = true;
-DYNX(W_,4777) = 2;
-DYNX(W_,4779) = true;
-DYNX(W_,4787) = false;
-DYNX(W_,4788) = false;
-DYNX(W_,4790) = 2;
-DYNX(W_,4799) = true;
-DYNX(W_,4800) = 2;
-DYNX(W_,4801) = false;
-DYNX(W_,4802) = false;
-DYNX(W_,4803) = false;
-DYNX(W_,4822) = false;
-memcpy(&DYNX(W_,4824), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4833) = false;
-DYNX(W_,4834) = true;
-DYNX(W_,4836) = 2;
-DYNX(W_,4838) = true;
-DYNX(W_,4846) = false;
-DYNX(W_,4847) = false;
-DYNX(W_,4849) = 2;
-DYNX(W_,4858) = true;
-DYNX(W_,4859) = 2;
-DYNX(W_,4860) = false;
+DYNX(W_,4782) = false;
+memcpy(&DYNX(W_,4784), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4793) = false;
+DYNX(W_,4794) = true;
+DYNX(W_,4796) = 2;
+DYNX(W_,4798) = true;
+DYNX(W_,4806) = false;
+DYNX(W_,4807) = false;
+DYNX(W_,4809) = 2;
+DYNX(W_,4818) = true;
+DYNX(W_,4819) = 2;
+DYNX(W_,4820) = false;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(4);
#if defined(DynSimStruct)
-DYNX(W_,4861) = false;
-DYNX(W_,4862) = false;
-DYNX(W_,4881) = false;
-DYNX(W_,4921) = 4;
-DYNX(W_,4935) = true;
-DYNX(W_,4936) = 2;
-memcpy(&DYNX(W_,4950), &DymArrays12, sizeof(double)*4);
-DYNX(W_,4959) = false;
-DYNX(W_,4960) = true;
-DYNX(W_,4962) = 2;
-DYNX(W_,4964) = true;
-DYNX(W_,4972) = false;
-DYNX(W_,4973) = false;
-DYNX(W_,4975) = 2;
-DYNX(W_,4984) = true;
-DYNX(W_,4985) = 2;
-DYNX(W_,4986) = false;
-DYNX(W_,4987) = false;
-DYNX(W_,4988) = false;
+DYNX(W_,4821) = false;
+DYNX(W_,4822) = false;
+DYNX(W_,4841) = false;
+DYNX(W_,4881) = 4;
+DYNX(W_,4895) = true;
+DYNX(W_,4896) = 2;
+memcpy(&DYNX(W_,4910), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4919) = false;
+DYNX(W_,4920) = true;
+DYNX(W_,4922) = 2;
+DYNX(W_,4924) = true;
+DYNX(W_,4932) = false;
+DYNX(W_,4933) = false;
+DYNX(W_,4935) = 2;
+DYNX(W_,4944) = true;
+DYNX(W_,4945) = 2;
+DYNX(W_,4946) = false;
+DYNX(W_,4947) = false;
+DYNX(W_,4948) = false;
+DYNX(W_,4967) = false;
+memcpy(&DYNX(W_,4969), &DymArrays12, sizeof(double)*4);
+DYNX(W_,4978) = false;
+DYNX(W_,4979) = true;
+DYNX(W_,4981) = 2;
+DYNX(W_,4983) = true;
+DYNX(W_,4991) = false;
+DYNX(W_,4992) = false;
+DYNX(W_,4994) = 2;
+DYNX(W_,5003) = true;
+DYNX(W_,5004) = 2;
+DYNX(W_,5005) = false;
+DYNX(W_,5006) = false;
DYNX(W_,5007) = false;
-memcpy(&DYNX(W_,5009), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5018) = false;
-DYNX(W_,5019) = true;
-DYNX(W_,5021) = 2;
-DYNX(W_,5023) = true;
-DYNX(W_,5031) = false;
-DYNX(W_,5032) = false;
-DYNX(W_,5034) = 2;
-DYNX(W_,5043) = true;
-DYNX(W_,5044) = 2;
-DYNX(W_,5045) = false;
-DYNX(W_,5046) = false;
-DYNX(W_,5047) = false;
+DYNX(W_,5026) = false;
+memcpy(&DYNX(W_,5028), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5037) = false;
+DYNX(W_,5038) = true;
+DYNX(W_,5040) = 2;
+DYNX(W_,5042) = true;
+DYNX(W_,5050) = false;
+DYNX(W_,5051) = false;
+DYNX(W_,5053) = 2;
+DYNX(W_,5062) = true;
+DYNX(W_,5063) = 2;
+DYNX(W_,5064) = false;
+DYNX(W_,5065) = false;
DYNX(W_,5066) = false;
-memcpy(&DYNX(W_,5068), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5077) = false;
-DYNX(W_,5078) = true;
-DYNX(W_,5080) = 2;
-DYNX(W_,5082) = true;
-DYNX(W_,5090) = false;
-DYNX(W_,5091) = false;
-DYNX(W_,5093) = 2;
-DYNX(W_,5102) = true;
-DYNX(W_,5103) = 2;
-DYNX(W_,5104) = false;
-DYNX(W_,5105) = false;
-DYNX(W_,5106) = false;
+DYNX(W_,5085) = false;
+memcpy(&DYNX(W_,5087), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5096) = false;
+DYNX(W_,5097) = true;
+DYNX(W_,5099) = 2;
+DYNX(W_,5101) = true;
+DYNX(W_,5109) = false;
+DYNX(W_,5110) = false;
+DYNX(W_,5112) = 2;
+DYNX(W_,5121) = true;
+DYNX(W_,5122) = 2;
+DYNX(W_,5123) = false;
+DYNX(W_,5124) = false;
DYNX(W_,5125) = false;
-memcpy(&DYNX(W_,5127), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5136) = false;
-DYNX(W_,5137) = true;
-DYNX(W_,5139) = 2;
-DYNX(W_,5141) = true;
-DYNX(W_,5149) = false;
-DYNX(W_,5150) = false;
-DYNX(W_,5152) = 2;
-DYNX(W_,5161) = true;
-DYNX(W_,5162) = 2;
-DYNX(W_,5163) = false;
-DYNX(W_,5164) = false;
-DYNX(W_,5165) = false;
+DYNX(W_,5144) = false;
+memcpy(&DYNX(W_,5146), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5155) = false;
+DYNX(W_,5156) = true;
+DYNX(W_,5158) = 2;
+DYNX(W_,5160) = true;
+DYNX(W_,5168) = false;
+DYNX(W_,5169) = false;
+DYNX(W_,5171) = 2;
+DYNX(W_,5180) = true;
+DYNX(W_,5181) = 2;
+DYNX(W_,5182) = false;
+DYNX(W_,5183) = false;
DYNX(W_,5184) = false;
-memcpy(&DYNX(W_,5186), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5195) = false;
-DYNX(W_,5196) = true;
-DYNX(W_,5198) = 2;
-DYNX(W_,5200) = true;
-DYNX(W_,5208) = false;
-DYNX(W_,5209) = false;
-DYNX(W_,5211) = 2;
-DYNX(W_,5220) = true;
-DYNX(W_,5221) = 2;
-DYNX(W_,5222) = false;
-DYNX(W_,5223) = false;
-DYNX(W_,5224) = false;
+DYNX(W_,5203) = false;
+memcpy(&DYNX(W_,5205), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5214) = false;
+DYNX(W_,5215) = true;
+DYNX(W_,5217) = 2;
+DYNX(W_,5219) = true;
+DYNX(W_,5227) = false;
+DYNX(W_,5228) = false;
+DYNX(W_,5230) = 2;
+DYNX(W_,5239) = true;
+DYNX(W_,5240) = 2;
+DYNX(W_,5241) = false;
+DYNX(W_,5242) = false;
DYNX(W_,5243) = false;
-memcpy(&DYNX(W_,5245), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5254) = false;
-DYNX(W_,5255) = true;
-DYNX(W_,5257) = 2;
-DYNX(W_,5259) = true;
-DYNX(W_,5267) = false;
-DYNX(W_,5268) = false;
-DYNX(W_,5270) = 2;
-DYNX(W_,5279) = true;
-DYNX(W_,5280) = 2;
-DYNX(W_,5281) = false;
-DYNX(W_,5282) = false;
-DYNX(W_,5283) = false;
+DYNX(W_,5262) = false;
+memcpy(&DYNX(W_,5264), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5273) = false;
+DYNX(W_,5274) = true;
+DYNX(W_,5276) = 2;
+DYNX(W_,5278) = true;
+DYNX(W_,5286) = false;
+DYNX(W_,5287) = false;
+DYNX(W_,5289) = 2;
+DYNX(W_,5298) = true;
+DYNX(W_,5299) = 2;
+DYNX(W_,5300) = false;
+DYNX(W_,5301) = false;
DYNX(W_,5302) = false;
-memcpy(&DYNX(W_,5304), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5313) = false;
-DYNX(W_,5314) = true;
-DYNX(W_,5316) = 2;
-DYNX(W_,5318) = true;
-DYNX(W_,5326) = false;
-DYNX(W_,5327) = false;
-DYNX(W_,5329) = 2;
-DYNX(W_,5338) = true;
-DYNX(W_,5339) = 2;
-DYNX(W_,5340) = false;
-DYNX(W_,5341) = false;
-DYNX(W_,5342) = false;
+DYNX(W_,5321) = false;
+memcpy(&DYNX(W_,5323), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5332) = false;
+DYNX(W_,5333) = true;
+DYNX(W_,5335) = 2;
+DYNX(W_,5337) = true;
+DYNX(W_,5345) = false;
+DYNX(W_,5346) = false;
+DYNX(W_,5348) = 2;
+DYNX(W_,5357) = true;
+DYNX(W_,5358) = 2;
+DYNX(W_,5359) = false;
+DYNX(W_,5360) = false;
DYNX(W_,5361) = false;
-memcpy(&DYNX(W_,5363), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5372) = false;
-DYNX(W_,5373) = true;
-DYNX(W_,5375) = 2;
-DYNX(W_,5377) = true;
-DYNX(W_,5385) = false;
-DYNX(W_,5386) = false;
-DYNX(W_,5388) = 2;
-DYNX(W_,5397) = true;
-DYNX(W_,5398) = 2;
-DYNX(W_,5399) = false;
-DYNX(W_,5400) = false;
-DYNX(W_,5401) = false;
-DYNX(W_,5420) = false;
-DYNX(W_,5458) = 2;
-DYNX(W_,5481) = false;
-DYNX(W_,5487) = 2;
-memcpy(&DYNX(W_,5498), &DymArrays22, sizeof(double)*3);
-DYNX(W_,5503) = true;
-DYNX(W_,5506) = false;
-DYNX(W_,5509) = true;
-DYNX(W_,5517) = 1;
-DYNX(W_,5524) = false;
-DYNX(W_,5526) = false;
-DYNX(W_,5532) = true;
-DYNX(W_,5535) = false;
-DYNX(W_,5540) = true;
-DYNX(W_,5543) = false;
-DYNX(W_,5546) = true;
-DYNX(W_,5554) = 1;
-DYNX(W_,5561) = false;
-DYNX(W_,5563) = false;
-DYNX(W_,5567) = true;
-DYNX(W_,5568) = false;
-DYNX(W_,5572) = false;
-DYNX(W_,5573) = 1;
-DYNX(W_,5581) = true;
-DYNX(W_,5594) = 2;
-DYNX(W_,5595) = 2;
-DYNX(W_,5604) = false;
-DYNX(W_,5605) = true;
-DYNX(W_,5607) = 3;
-DYNX(W_,5617) = false;
-DYNX(W_,5622) = false;
-DYNX(W_,5627) = 2;
-DYNX(W_,5636) = true;
-DYNX(W_,5637) = 3;
-DYNX(W_,5638) = false;
-DYNX(W_,5639) = false;
-DYNX(W_,5641) = false;
-DYNX(W_,5659) = false;
-DYNX(W_,5664) = 4;
-DYNX(W_,5688) = 4;
-DYNX(W_,5689) = 0.123417;
-DYNX(W_,5700) = 3;
-DYNX(W_,5701) = 1.084453570009339;
-DYNX(W_,5704) = true;
-DYNX(W_,5705) = 45.185565417055784;
-DYNX(W_,5712) = false;
-DYNX(W_,5713) = false;
-DYNX(W_,5714) = false;
-DYNX(W_,5718) = false;
-DYNX(W_,5719) = false;
-DYNX(W_,5720) = false;
-DYNX(W_,5734) = false;
-DYNX(W_,5735) = true;
+DYNX(W_,5380) = false;
+DYNX(W_,5418) = 2;
+DYNX(W_,5441) = false;
+DYNX(W_,5447) = 2;
+memcpy(&DYNX(W_,5458), &DymArrays22, sizeof(double)*3);
+DYNX(W_,5463) = true;
+DYNX(W_,5466) = false;
+DYNX(W_,5469) = true;
+DYNX(W_,5477) = 1;
+DYNX(W_,5484) = false;
+DYNX(W_,5486) = false;
+DYNX(W_,5492) = true;
+DYNX(W_,5495) = false;
+DYNX(W_,5500) = true;
+DYNX(W_,5503) = false;
+DYNX(W_,5506) = true;
+DYNX(W_,5514) = 1;
+DYNX(W_,5521) = false;
+DYNX(W_,5523) = false;
+DYNX(W_,5527) = true;
+DYNX(W_,5528) = false;
+DYNX(W_,5532) = false;
+DYNX(W_,5533) = 1;
+DYNX(W_,5541) = true;
+DYNX(W_,5554) = 2;
+DYNX(W_,5555) = 2;
+DYNX(W_,5564) = false;
+DYNX(W_,5565) = true;
+DYNX(W_,5567) = 3;
+DYNX(W_,5577) = false;
+DYNX(W_,5582) = false;
+DYNX(W_,5587) = 2;
+DYNX(W_,5596) = true;
+DYNX(W_,5597) = 3;
+DYNX(W_,5598) = false;
+DYNX(W_,5599) = false;
+DYNX(W_,5601) = false;
+DYNX(W_,5619) = false;
+DYNX(W_,5624) = 4;
+DYNX(W_,5648) = 4;
+DYNX(W_,5649) = 0.123417;
+DYNX(W_,5660) = 3;
+DYNX(W_,5661) = 1.084453570009339;
+DYNX(W_,5664) = true;
+DYNX(W_,5665) = 45.185565417055784;
+DYNX(W_,5672) = false;
+DYNX(W_,5673) = false;
+DYNX(W_,5674) = false;
+DYNX(W_,5678) = false;
+DYNX(W_,5679) = false;
+DYNX(W_,5680) = false;
+DYNX(W_,5694) = false;
+DYNX(W_,5695) = true;
+DYNX(W_,5698) = false;
+DYNX(W_,5701) = true;
+DYNX(W_,5703) = 1000;
+DYNX(W_,5708) = 1000;
+DYNX(W_,5713) = true;
+DYNX(W_,5716) = false;
+DYNX(W_,5719) = true;
+DYNX(W_,5721) = 1000;
+DYNX(W_,5726) = 1000;
+DYNX(W_,5731) = 1;
+DYNX(W_,5732) = false;
+DYNX(W_,5735) = 3;
+DYNX(W_,5737) = false;
DYNX(W_,5738) = false;
-DYNX(W_,5741) = true;
-DYNX(W_,5743) = 1000;
-DYNX(W_,5748) = 1000;
-DYNX(W_,5753) = true;
-DYNX(W_,5756) = false;
-DYNX(W_,5759) = true;
-DYNX(W_,5761) = 1000;
-DYNX(W_,5766) = 1000;
-DYNX(W_,5771) = 1;
-DYNX(W_,5772) = false;
-DYNX(W_,5775) = 3;
-DYNX(W_,5777) = false;
-DYNX(W_,5778) = false;
-DYNX(W_,5779) = false;
-DYNX(W_,5780) = false;
-DYNX(W_,5782) = false;
-DYNX(W_,5784) = true;
-DYNX(W_,5785) = false;
-DYNX(W_,5786) = 2;
-DYNX(W_,5795) = false;
-DYNX(W_,5796) = true;
-DYNX(W_,5797) = false;
-DYNX(W_,5800) = 1;
-DYNX(W_,5801) = 1;
-DYNX(W_,5810) = 1.0;
-DYNX(W_,5820) = 10;
-memcpy(&DYNX(W_,5824), &DymArrays23, sizeof(double)*3);
-DYNX(W_,5833) = 133.0;
-DYNX(W_,5834) = 6.4;
-DYNX(W_,5839) = true;
-DYNX(W_,5842) = false;
-DYNX(W_,5846) = 2;
-DYNX(W_,5855) = true;
-DYNX(W_,5856) = 5;
-DYNX(W_,5868) = 0;
-DYNX(W_,5894) = 5;
-DYNX(W_,5900) = 5;
-DYNX(W_,5907) = true;
+DYNX(W_,5739) = false;
+DYNX(W_,5740) = false;
+DYNX(W_,5742) = false;
+DYNX(W_,5744) = true;
+DYNX(W_,5745) = false;
+DYNX(W_,5746) = 2;
+DYNX(W_,5755) = false;
+DYNX(W_,5756) = true;
+DYNX(W_,5757) = false;
+DYNX(W_,5760) = 1;
+DYNX(W_,5761) = 1;
+DYNX(W_,5770) = 1.0;
+DYNX(W_,5780) = 10;
+memcpy(&DYNX(W_,5784), &DymArrays23, sizeof(double)*3);
+DYNX(W_,5793) = 133.0;
+DYNX(W_,5794) = 6.4;
+DYNX(W_,5799) = true;
+DYNX(W_,5802) = false;
+DYNX(W_,5806) = 2;
+DYNX(W_,5815) = true;
+DYNX(W_,5816) = 5;
+DYNX(W_,5828) = 0;
+DYNX(W_,5854) = 5;
+DYNX(W_,5860) = 5;
+DYNX(W_,5867) = true;
+DYNX(W_,5870) = false;
+DYNX(W_,5874) = true;
+DYNX(W_,5876) = 0;
+DYNX(W_,5881) = 0;
+memcpy(&DYNX(W_,5886), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5896) = false;
+DYNX(W_,5897) = true;
+DYNX(W_,5899) = 2;
+DYNX(W_,5901) = true;
DYNX(W_,5910) = false;
-DYNX(W_,5914) = true;
-DYNX(W_,5916) = 0;
-DYNX(W_,5921) = 0;
-memcpy(&DYNX(W_,5926), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5936) = false;
-DYNX(W_,5937) = true;
-DYNX(W_,5939) = 2;
-DYNX(W_,5941) = true;
-DYNX(W_,5950) = false;
-DYNX(W_,5951) = false;
-DYNX(W_,5953) = 2;
-DYNX(W_,5962) = true;
-DYNX(W_,5963) = 2;
-DYNX(W_,5964) = false;
-DYNX(W_,5965) = false;
-DYNX(W_,5967) = false;
+DYNX(W_,5911) = false;
+DYNX(W_,5913) = 2;
+DYNX(W_,5922) = true;
+DYNX(W_,5923) = 2;
+DYNX(W_,5924) = false;
+DYNX(W_,5925) = false;
+DYNX(W_,5927) = false;
+DYNX(W_,5946) = false;
+memcpy(&DYNX(W_,5948), &DymArrays12, sizeof(double)*4);
+DYNX(W_,5958) = false;
+DYNX(W_,5959) = true;
+DYNX(W_,5961) = 2;
+DYNX(W_,5963) = true;
+DYNX(W_,5972) = false;
+DYNX(W_,5973) = false;
+DYNX(W_,5975) = 2;
+DYNX(W_,5984) = true;
+DYNX(W_,5985) = 2;
DYNX(W_,5986) = false;
-memcpy(&DYNX(W_,5988), &DymArrays12, sizeof(double)*4);
-DYNX(W_,5998) = false;
-DYNX(W_,5999) = true;
-DYNX(W_,6001) = 2;
-DYNX(W_,6003) = true;
-DYNX(W_,6012) = false;
-DYNX(W_,6013) = false;
-DYNX(W_,6015) = 2;
-DYNX(W_,6024) = true;
-DYNX(W_,6025) = 2;
-DYNX(W_,6026) = false;
-DYNX(W_,6027) = false;
-DYNX(W_,6029) = false;
-DYNX(W_,6048) = false;
-memcpy(&DYNX(W_,6050), &DymArrays12, sizeof(double)*4);
-DYNX(W_,6060) = false;
-DYNX(W_,6061) = true;
-DYNX(W_,6063) = 2;
-DYNX(W_,6065) = true;
-DYNX(W_,6074) = false;
-DYNX(W_,6075) = false;
-DYNX(W_,6077) = 2;
-DYNX(W_,6086) = true;
+DYNX(W_,5987) = false;
+DYNX(W_,5989) = false;
+DYNX(W_,6008) = false;
+memcpy(&DYNX(W_,6010), &DymArrays12, sizeof(double)*4);
+DYNX(W_,6020) = false;
+DYNX(W_,6021) = true;
+DYNX(W_,6023) = 2;
+DYNX(W_,6025) = true;
+DYNX(W_,6034) = false;
+DYNX(W_,6035) = false;
+DYNX(W_,6037) = 2;
+DYNX(W_,6046) = true;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(5);
#if defined(DynSimStruct)
-DYNX(W_,6087) = 2;
-DYNX(W_,6088) = false;
-DYNX(W_,6089) = false;
-DYNX(W_,6091) = false;
+DYNX(W_,6047) = 2;
+DYNX(W_,6048) = false;
+DYNX(W_,6049) = false;
+DYNX(W_,6051) = false;
+DYNX(W_,6070) = false;
+memcpy(&DYNX(W_,6072), &DymArrays12, sizeof(double)*4);
+DYNX(W_,6082) = false;
+DYNX(W_,6083) = true;
+DYNX(W_,6085) = 2;
+DYNX(W_,6087) = true;
+DYNX(W_,6096) = false;
+DYNX(W_,6097) = false;
+DYNX(W_,6099) = 2;
+DYNX(W_,6108) = true;
+DYNX(W_,6109) = 2;
DYNX(W_,6110) = false;
-memcpy(&DYNX(W_,6112), &DymArrays12, sizeof(double)*4);
-DYNX(W_,6122) = false;
-DYNX(W_,6123) = true;
-DYNX(W_,6125) = 2;
-DYNX(W_,6127) = true;
-DYNX(W_,6136) = false;
-DYNX(W_,6137) = false;
-DYNX(W_,6139) = 2;
-DYNX(W_,6148) = true;
-DYNX(W_,6149) = 2;
-DYNX(W_,6150) = false;
-DYNX(W_,6151) = false;
-DYNX(W_,6153) = false;
+DYNX(W_,6111) = false;
+DYNX(W_,6113) = false;
+DYNX(W_,6132) = false;
+memcpy(&DYNX(W_,6134), &DymArrays12, sizeof(double)*4);
+DYNX(W_,6144) = false;
+DYNX(W_,6145) = true;
+DYNX(W_,6147) = 2;
+DYNX(W_,6149) = true;
+DYNX(W_,6158) = false;
+DYNX(W_,6159) = false;
+DYNX(W_,6161) = 2;
+DYNX(W_,6170) = true;
+DYNX(W_,6171) = 2;
DYNX(W_,6172) = false;
-memcpy(&DYNX(W_,6174), &DymArrays12, sizeof(double)*4);
-DYNX(W_,6184) = false;
-DYNX(W_,6185) = true;
-DYNX(W_,6187) = 2;
-DYNX(W_,6189) = true;
-DYNX(W_,6198) = false;
-DYNX(W_,6199) = false;
-DYNX(W_,6201) = 2;
-DYNX(W_,6210) = true;
-DYNX(W_,6211) = 2;
-DYNX(W_,6212) = false;
-DYNX(W_,6213) = false;
-DYNX(W_,6215) = false;
-DYNX(W_,6234) = false;
-DYNX(W_,6246) = true;
-DYNX(W_,6249) = false;
-DYNX(W_,6252) = true;
-DYNX(W_,6254) = 16087.958353380509;
-DYNX(W_,6259) = 16087.958353380509;
-DYNX(W_,6265) = 5;
-DYNX(W_,6266) = false;
-DYNX(W_,6267) = false;
-DYNX(W_,6268) = false;
-DYNX(W_,6272) = 2;
-DYNX(W_,6281) = true;
-DYNX(W_,6321) = 3;
-DYNX(W_,6325) = false;
-DYNX(W_,6328) = false;
-DYNX(W_,6332) = false;
-DYNX(W_,6337) = 2;
-DYNX(W_,6339) = 3;
-memcpy(&DYNX(W_,6346), &DymArrays12, sizeof(double)*4);
-DYNX(W_,6356) = true;
-DYNX(W_,6357) = true;
-DYNX(W_,6359) = 2;
-DYNX(W_,6369) = false;
-DYNX(W_,6374) = false;
-DYNX(W_,6379) = 2;
-DYNX(W_,6388) = true;
-DYNX(W_,6389) = 2;
-DYNX(W_,6390) = false;
-DYNX(W_,6391) = false;
-DYNX(W_,6393) = false;
-DYNX(W_,6411) = false;
-DYNX(W_,6413) = true;
-DYNX(W_,6416) = false;
-DYNX(W_,6417) = true;
-DYNX(W_,6418) = true;
-DYNX(W_,6419) = false;
-DYNX(W_,6422) = true;
-DYNX(W_,6429) = true;
-DYNX(W_,6480) = 2;
-DYNX(W_,6486) = 3;
-DYNX(W_,6488) = false;
-DYNX(W_,6489) = true;
-DYNX(W_,6506) = 3;
-DYNX(W_,6513) = 4;
-DYNX(W_,6522) = 5;
+DYNX(W_,6173) = false;
+DYNX(W_,6175) = false;
+DYNX(W_,6194) = false;
+DYNX(W_,6206) = true;
+DYNX(W_,6209) = false;
+DYNX(W_,6212) = true;
+DYNX(W_,6214) = 16087.958353380509;
+DYNX(W_,6219) = 16087.958353380509;
+DYNX(W_,6225) = 5;
+DYNX(W_,6226) = false;
+DYNX(W_,6227) = false;
+DYNX(W_,6228) = false;
+DYNX(W_,6232) = 2;
+DYNX(W_,6241) = true;
+DYNX(W_,6281) = 3;
+DYNX(W_,6285) = false;
+DYNX(W_,6288) = false;
+DYNX(W_,6292) = false;
+DYNX(W_,6297) = 2;
+DYNX(W_,6299) = 3;
+memcpy(&DYNX(W_,6306), &DymArrays12, sizeof(double)*4);
+DYNX(W_,6316) = true;
+DYNX(W_,6317) = true;
+DYNX(W_,6319) = 2;
+DYNX(W_,6329) = false;
+DYNX(W_,6334) = false;
+DYNX(W_,6339) = 2;
+DYNX(W_,6348) = true;
+DYNX(W_,6349) = 2;
+DYNX(W_,6350) = false;
+DYNX(W_,6351) = false;
+DYNX(W_,6353) = false;
+DYNX(W_,6371) = false;
+DYNX(W_,6373) = true;
+DYNX(W_,6376) = false;
+DYNX(W_,6377) = true;
+DYNX(W_,6378) = true;
+DYNX(W_,6379) = false;
+DYNX(W_,6382) = true;
+DYNX(W_,6389) = true;
+DYNX(W_,6440) = 2;
+DYNX(W_,6446) = 3;
+DYNX(W_,6448) = false;
+DYNX(W_,6449) = true;
+DYNX(W_,6466) = 3;
+DYNX(W_,6473) = 4;
+DYNX(W_,6482) = 5;
+DYNX(W_,6581) = false;
+DYNX(W_,6584) = 1;
+DYNX(W_,6586) = 133.0;
+DYNX(W_,6587) = 6.4;
+memcpy(&DYNX(W_,6589), &DymArrays24, sizeof(double)*6);
+DYNX(W_,6606) = 3;
+DYNX(W_,6613) = 2;
+DYNX(W_,6619) = false;
+DYNX(W_,6620) = true;
DYNX(W_,6621) = false;
-DYNX(W_,6624) = 1;
-DYNX(W_,6626) = 133.0;
-DYNX(W_,6627) = 6.4;
-memcpy(&DYNX(W_,6629), &DymArrays24, sizeof(double)*6);
-DYNX(W_,6646) = 3;
-DYNX(W_,6653) = 2;
-DYNX(W_,6659) = false;
-DYNX(W_,6660) = true;
-DYNX(W_,6661) = false;
-DYNX(W_,6665) = 1;
-DYNX(W_,6678) = 2;
-DYNX(W_,6688) = false;
-DYNX(W_,6689) = true;
-DYNX(W_,6690) = false;
-DYNX(W_,6693) = 1;
-DYNX(W_,6694) = 1;
-DYNX(W_,6698) = 0.1088888888888889;
+DYNX(W_,6625) = 1;
+DYNX(W_,6638) = 2;
+DYNX(W_,6648) = false;
+DYNX(W_,6649) = true;
+DYNX(W_,6650) = false;
+DYNX(W_,6653) = 1;
+DYNX(W_,6654) = 1;
+DYNX(W_,6658) = 0.1088888888888889;
+DYNX(W_,6677) = true;
+DYNX(W_,6678) = true;
+DYNX(W_,6679) = 0.1088888888888889;
+DYNX(W_,6680) = 0.1088888888888889;
+DYNX(W_,6683) = false;
+DYNX(W_,6687) = 100;
+DYNX(W_,6692) = 100;
+DYNX(W_,6695) = true;
+DYNX(W_,6696) = true;
+DYNX(W_,6697) = true;
+DYNX(W_,6700) = true;
+DYNX(W_,6701) = true;
+DYNX(W_,6702) = true;
+DYNX(W_,6703) = 0.1088888888888889;
+DYNX(W_,6705) = false;
+DYNX(W_,6710) = 100;
+DYNX(W_,6713) = true;
+DYNX(W_,6714) = true;
+DYNX(W_,6715) = true;
DYNX(W_,6717) = true;
-DYNX(W_,6718) = true;
-DYNX(W_,6719) = 0.1088888888888889;
-DYNX(W_,6720) = 0.1088888888888889;
-DYNX(W_,6723) = false;
-DYNX(W_,6727) = 100;
-DYNX(W_,6732) = 100;
-DYNX(W_,6735) = true;
-DYNX(W_,6736) = true;
-DYNX(W_,6737) = true;
-DYNX(W_,6740) = true;
-DYNX(W_,6741) = true;
-DYNX(W_,6742) = true;
-DYNX(W_,6743) = 0.1088888888888889;
-DYNX(W_,6745) = false;
-DYNX(W_,6750) = 100;
-DYNX(W_,6753) = true;
-DYNX(W_,6754) = true;
-DYNX(W_,6755) = true;
-DYNX(W_,6757) = true;
-DYNX(W_,6760) = false;
-DYNX(W_,6764) = true;
+DYNX(W_,6720) = false;
+DYNX(W_,6724) = true;
+DYNX(W_,6725) = true;
+DYNX(W_,6726) = false;
+DYNX(W_,6727) = false;
+DYNX(W_,6744) = 200;
+DYNX(W_,6746) = true;
+DYNX(W_,6747) = 0.1088888888888889;
+DYNX(W_,6749) = false;
+DYNX(W_,6752) = true;
+DYNX(W_,6754) = 100;
+DYNX(W_,6758) = 0.1088888888888889;
+DYNX(W_,6759) = 100;
DYNX(W_,6765) = true;
-DYNX(W_,6766) = false;
-DYNX(W_,6767) = false;
-DYNX(W_,6784) = 200;
-DYNX(W_,6786) = true;
-DYNX(W_,6787) = 0.1088888888888889;
+DYNX(W_,6766) = 0.1088888888888889;
+DYNX(W_,6768) = false;
+DYNX(W_,6773) = 100;
+DYNX(W_,6776) = true;
+DYNX(W_,6777) = true;
+DYNX(W_,6778) = true;
+DYNX(W_,6780) = true;
+DYNX(W_,6783) = false;
+DYNX(W_,6787) = true;
+DYNX(W_,6788) = true;
DYNX(W_,6789) = false;
-DYNX(W_,6792) = true;
-DYNX(W_,6794) = 100;
-DYNX(W_,6798) = 0.1088888888888889;
-DYNX(W_,6799) = 100;
-DYNX(W_,6805) = true;
-DYNX(W_,6806) = 0.1088888888888889;
-DYNX(W_,6808) = false;
-DYNX(W_,6813) = 100;
-DYNX(W_,6816) = true;
-DYNX(W_,6817) = true;
-DYNX(W_,6818) = true;
-DYNX(W_,6820) = true;
-DYNX(W_,6823) = false;
-DYNX(W_,6827) = true;
-DYNX(W_,6828) = true;
-DYNX(W_,6829) = false;
-DYNX(W_,6830) = false;
-DYNX(W_,6847) = 200;
-DYNX(W_,6849) = true;
-DYNX(W_,6850) = 0.1088888888888889;
-DYNX(W_,6852) = false;
-DYNX(W_,6855) = true;
-DYNX(W_,6857) = 100;
-DYNX(W_,6861) = 0.1088888888888889;
-DYNX(W_,6862) = 100;
-DYNX(W_,6868) = 1014.54;
-DYNX(W_,6869) = 1014.54;
-DYNX(W_,6872) = 1;
-DYNX(W_,6873) = false;
-DYNX(W_,6874) = 3;
-DYNX(W_,6877) = false;
-DYNX(W_,6878) = false;
-DYNX(W_,6879) = false;
-DYNX(W_,6880) = true;
-DYNX(W_,6881) = true;
-DYNX(W_,6882) = false;
-DYNX(W_,6883) = true;
-DYNX(W_,6884) = 2;
-DYNX(W_,6892) = true;
-DYNX(W_,6931) = 3;
-DYNX(W_,6935) = false;
-DYNX(W_,6938) = false;
-DYNX(W_,6943) = false;
-DYNX(W_,6948) = 1;
-DYNX(W_,6950) = 3;
-memcpy(&DYNX(W_,6959), &DymArrays12, sizeof(double)*4);
-DYNX(W_,6970) = true;
-DYNX(W_,6971) = true;
-DYNX(W_,6973) = 2;
-DYNX(W_,6987) = false;
+DYNX(W_,6790) = false;
+DYNX(W_,6807) = 200;
+DYNX(W_,6809) = true;
+DYNX(W_,6810) = 0.1088888888888889;
+DYNX(W_,6812) = false;
+DYNX(W_,6815) = true;
+DYNX(W_,6817) = 100;
+DYNX(W_,6821) = 0.1088888888888889;
+DYNX(W_,6822) = 100;
+DYNX(W_,6828) = 1014.54;
+DYNX(W_,6829) = 1014.54;
+DYNX(W_,6832) = 1;
+DYNX(W_,6833) = false;
+DYNX(W_,6834) = 3;
+DYNX(W_,6837) = false;
+DYNX(W_,6838) = false;
+DYNX(W_,6839) = false;
+DYNX(W_,6840) = true;
+DYNX(W_,6841) = true;
+DYNX(W_,6842) = false;
+DYNX(W_,6843) = true;
+DYNX(W_,6844) = 2;
+DYNX(W_,6852) = true;
+DYNX(W_,6891) = 3;
+DYNX(W_,6895) = false;
+DYNX(W_,6898) = false;
+DYNX(W_,6903) = false;
+DYNX(W_,6908) = 1;
+DYNX(W_,6910) = 3;
+memcpy(&DYNX(W_,6919), &DymArrays12, sizeof(double)*4);
+DYNX(W_,6930) = true;
+DYNX(W_,6931) = true;
+DYNX(W_,6933) = 2;
+DYNX(W_,6947) = false;
+DYNX(W_,6952) = false;
+DYNX(W_,6957) = 2;
+DYNX(W_,6967) = true;
+DYNX(W_,6968) = 2;
+DYNX(W_,6969) = false;
+DYNX(W_,6970) = false;
+DYNX(W_,6972) = false;
+DYNX(W_,6986) = true;
+DYNX(W_,6988) = true;
+DYNX(W_,6990) = false;
+DYNX(W_,6991) = true;
DYNX(W_,6992) = false;
-DYNX(W_,6997) = 2;
-DYNX(W_,7007) = true;
-DYNX(W_,7008) = 2;
-DYNX(W_,7009) = false;
-DYNX(W_,7010) = false;
-DYNX(W_,7012) = false;
-DYNX(W_,7026) = true;
-DYNX(W_,7028) = true;
-DYNX(W_,7030) = false;
-DYNX(W_,7031) = true;
-DYNX(W_,7032) = false;
-DYNX(W_,7033) = true;
-DYNX(W_,7035) = true;
-DYNX(W_,7044) = true;
-DYNX(W_,7095) = 1;
-DYNX(W_,7101) = 3;
-DYNX(W_,7102) = true;
-DYNX(W_,7103) = false;
-DYNX(W_,7120) = 3;
-DYNX(W_,7127) = 4;
-DYNX(W_,7136) = 5;
-DYNX(W_,7233) = true;
-DYNX(W_,7246) = 1;
-DYNX(W_,7247) = false;
-DYNX(W_,7250) = 3;
-DYNX(W_,7254) = false;
-DYNX(W_,7255) = false;
-DYNX(W_,7256) = false;
-DYNX(W_,7257) = false;
-DYNX(W_,7259) = false;
-DYNX(W_,7260) = false;
-DYNX(W_,7261) = true;
-DYNX(W_,7262) = 2;
-DYNX(W_,7270) = true;
-DYNX(W_,7309) = 3;
-DYNX(W_,7313) = false;
-DYNX(W_,7316) = false;
-DYNX(W_,7321) = false;
-DYNX(W_,7326) = 1;
-DYNX(W_,7328) = 3;
-memcpy(&DYNX(W_,7337), &DymArrays12, sizeof(double)*4);
-DYNX(W_,7348) = true;
-DYNX(W_,7349) = true;
-DYNX(W_,7351) = 2;
-DYNX(W_,7365) = false;
+DYNX(W_,6993) = true;
+DYNX(W_,6995) = true;
+DYNX(W_,7004) = true;
+DYNX(W_,7055) = 1;
+DYNX(W_,7061) = 3;
+DYNX(W_,7062) = true;
+DYNX(W_,7063) = false;
+DYNX(W_,7080) = 3;
+DYNX(W_,7087) = 4;
+DYNX(W_,7096) = 5;
+DYNX(W_,7193) = true;
+DYNX(W_,7206) = 1;
+DYNX(W_,7207) = false;
+DYNX(W_,7210) = 3;
+DYNX(W_,7214) = false;
+DYNX(W_,7215) = false;
+DYNX(W_,7216) = false;
+DYNX(W_,7217) = false;
+DYNX(W_,7219) = false;
+DYNX(W_,7220) = false;
+DYNX(W_,7221) = true;
+DYNX(W_,7222) = 2;
+DYNX(W_,7230) = true;
+DYNX(W_,7269) = 3;
+DYNX(W_,7273) = false;
+DYNX(W_,7276) = false;
+DYNX(W_,7281) = false;
+DYNX(W_,7286) = 1;
+DYNX(W_,7288) = 3;
+memcpy(&DYNX(W_,7297), &DymArrays12, sizeof(double)*4);
+DYNX(W_,7308) = true;
+DYNX(W_,7309) = true;
+DYNX(W_,7311) = 2;
+DYNX(W_,7325) = false;
+DYNX(W_,7330) = false;
+DYNX(W_,7335) = 2;
+DYNX(W_,7345) = true;
+DYNX(W_,7346) = 2;
+DYNX(W_,7347) = false;
+DYNX(W_,7348) = false;
+DYNX(W_,7350) = false;
+DYNX(W_,7364) = true;
+DYNX(W_,7366) = true;
+DYNX(W_,7368) = false;
+DYNX(W_,7369) = true;
DYNX(W_,7370) = false;
-DYNX(W_,7375) = 2;
-DYNX(W_,7385) = true;
-DYNX(W_,7386) = 2;
-DYNX(W_,7387) = false;
-DYNX(W_,7388) = false;
-DYNX(W_,7390) = false;
-DYNX(W_,7404) = true;
-DYNX(W_,7406) = true;
-DYNX(W_,7408) = false;
-DYNX(W_,7409) = true;
-DYNX(W_,7410) = false;
-DYNX(W_,7411) = true;
-DYNX(W_,7413) = true;
-DYNX(W_,7422) = true;
-DYNX(W_,7473) = 1;
-DYNX(W_,7479) = 3;
-DYNX(W_,7480) = true;
-DYNX(W_,7481) = false;
-DYNX(W_,7498) = 3;
-DYNX(W_,7505) = 4;
-DYNX(W_,7514) = 5;
-DYNX(W_,7611) = 100;
-DYNX(W_,7612) = true;
-DYNX(W_,7625) = 2;
-memcpy(&DYNX(W_,7637), &DymArrays22, sizeof(double)*3);
-DYNX(W_,7642) = true;
-DYNX(W_,7644) = 0.1088888888888889;
-DYNX(W_,7646) = false;
-DYNX(W_,7649) = true;
+DYNX(W_,7371) = true;
+DYNX(W_,7373) = true;
+DYNX(W_,7382) = true;
+DYNX(W_,7433) = 1;
+DYNX(W_,7439) = 3;
+DYNX(W_,7440) = true;
+DYNX(W_,7441) = false;
+DYNX(W_,7458) = 3;
+DYNX(W_,7465) = 4;
+DYNX(W_,7474) = 5;
+DYNX(W_,7571) = 100;
+DYNX(W_,7572) = true;
+DYNX(W_,7585) = 2;
+memcpy(&DYNX(W_,7597), &DymArrays22, sizeof(double)*3);
+DYNX(W_,7602) = true;
+DYNX(W_,7604) = 0.1088888888888889;
+DYNX(W_,7606) = false;
+DYNX(W_,7609) = true;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(6);
#if defined(DynSimStruct)
-DYNX(W_,7655) = 0.1088888888888889;
-DYNX(W_,7657) = 1;
-DYNX(W_,7664) = false;
-DYNX(W_,7666) = false;
-DYNX(W_,7673) = true;
-DYNX(W_,7678) = false;
-DYNX(W_,7683) = true;
+DYNX(W_,7615) = 0.1088888888888889;
+DYNX(W_,7617) = 1;
+DYNX(W_,7624) = false;
+DYNX(W_,7626) = false;
+DYNX(W_,7633) = true;
+DYNX(W_,7638) = false;
+DYNX(W_,7643) = true;
+DYNX(W_,7645) = 0.1088888888888889;
+DYNX(W_,7647) = false;
+DYNX(W_,7650) = true;
+DYNX(W_,7656) = 0.1088888888888889;
+DYNX(W_,7658) = 1;
+DYNX(W_,7665) = false;
+DYNX(W_,7668) = false;
+DYNX(W_,7674) = true;
+DYNX(W_,7675) = false;
+DYNX(W_,7679) = false;
+DYNX(W_,7680) = 1;
DYNX(W_,7685) = 0.1088888888888889;
-DYNX(W_,7687) = false;
-DYNX(W_,7690) = true;
-DYNX(W_,7696) = 0.1088888888888889;
-DYNX(W_,7698) = 1;
-DYNX(W_,7705) = false;
+DYNX(W_,7688) = true;
+DYNX(W_,7697) = 2;
+DYNX(W_,7698) = 2;
DYNX(W_,7708) = false;
-DYNX(W_,7714) = true;
-DYNX(W_,7715) = false;
-DYNX(W_,7719) = false;
-DYNX(W_,7720) = 1;
-DYNX(W_,7725) = 0.1088888888888889;
-DYNX(W_,7728) = true;
-DYNX(W_,7737) = 2;
-DYNX(W_,7738) = 2;
-DYNX(W_,7748) = false;
+DYNX(W_,7709) = true;
+DYNX(W_,7711) = 3;
+DYNX(W_,7729) = false;
+DYNX(W_,7734) = false;
+DYNX(W_,7739) = 2;
DYNX(W_,7749) = true;
-DYNX(W_,7751) = 3;
-DYNX(W_,7769) = false;
-DYNX(W_,7774) = false;
-DYNX(W_,7779) = 2;
-DYNX(W_,7789) = true;
-DYNX(W_,7790) = 3;
-DYNX(W_,7791) = false;
-DYNX(W_,7792) = false;
-DYNX(W_,7797) = false;
-DYNX(W_,7818) = true;
-DYNX(W_,7820) = 2;
-memcpy(&DYNX(W_,7831), &DymArrays22, sizeof(double)*3);
-DYNX(W_,7836) = true;
-DYNX(W_,7837) = 0.1088888888888889;
-DYNX(W_,7839) = false;
-DYNX(W_,7842) = true;
-DYNX(W_,7848) = 0.1088888888888889;
-DYNX(W_,7850) = 1;
-DYNX(W_,7857) = false;
-DYNX(W_,7859) = false;
-DYNX(W_,7866) = true;
+DYNX(W_,7750) = 3;
+DYNX(W_,7751) = false;
+DYNX(W_,7752) = false;
+DYNX(W_,7757) = false;
+DYNX(W_,7778) = true;
+DYNX(W_,7780) = 2;
+memcpy(&DYNX(W_,7791), &DymArrays22, sizeof(double)*3);
+DYNX(W_,7796) = true;
+DYNX(W_,7797) = 0.1088888888888889;
+DYNX(W_,7799) = false;
+DYNX(W_,7802) = true;
+DYNX(W_,7808) = 0.1088888888888889;
+DYNX(W_,7810) = 1;
+DYNX(W_,7817) = false;
+DYNX(W_,7819) = false;
+DYNX(W_,7826) = true;
+DYNX(W_,7829) = false;
+DYNX(W_,7834) = true;
+DYNX(W_,7835) = 0.1088888888888889;
+DYNX(W_,7837) = false;
+DYNX(W_,7840) = true;
+DYNX(W_,7846) = 0.1088888888888889;
+DYNX(W_,7848) = 1;
+DYNX(W_,7855) = false;
+DYNX(W_,7858) = false;
+DYNX(W_,7864) = true;
+DYNX(W_,7865) = false;
DYNX(W_,7869) = false;
-DYNX(W_,7874) = true;
+DYNX(W_,7870) = 1;
DYNX(W_,7875) = 0.1088888888888889;
-DYNX(W_,7877) = false;
-DYNX(W_,7880) = true;
-DYNX(W_,7886) = 0.1088888888888889;
-DYNX(W_,7888) = 1;
-DYNX(W_,7895) = false;
+DYNX(W_,7878) = true;
+DYNX(W_,7887) = 2;
+DYNX(W_,7888) = 2;
DYNX(W_,7898) = false;
-DYNX(W_,7904) = true;
-DYNX(W_,7905) = false;
-DYNX(W_,7909) = false;
-DYNX(W_,7910) = 1;
-DYNX(W_,7915) = 0.1088888888888889;
-DYNX(W_,7918) = true;
-DYNX(W_,7927) = 2;
-DYNX(W_,7928) = 2;
+DYNX(W_,7899) = true;
+DYNX(W_,7901) = 3;
+DYNX(W_,7915) = false;
+DYNX(W_,7920) = false;
+DYNX(W_,7925) = 2;
+DYNX(W_,7935) = true;
+DYNX(W_,7936) = 3;
+DYNX(W_,7937) = false;
DYNX(W_,7938) = false;
-DYNX(W_,7939) = true;
-DYNX(W_,7941) = 3;
-DYNX(W_,7955) = false;
-DYNX(W_,7960) = false;
-DYNX(W_,7965) = 2;
-DYNX(W_,7975) = true;
-DYNX(W_,7976) = 3;
-DYNX(W_,7977) = false;
-DYNX(W_,7978) = false;
-DYNX(W_,7980) = false;
-DYNX(W_,7994) = true;
-DYNX(W_,8003) = false;
-DYNX(W_,8005) = false;
-DYNX(W_,8006) = false;
-DYNX(W_,8010) = true;
-DYNX(W_,8011) = false;
-DYNX(W_,8027) = false;
-DYNX(W_,8032) = 1;
-DYNX(W_,8033) = 1;
-DYNX(W_,8056) = true;
-DYNX(W_,8057) = 0.1088888888888889;
-DYNX(W_,8059) = false;
-DYNX(W_,8062) = true;
-DYNX(W_,8064) = 100;
-DYNX(W_,8068) = 0.1088888888888889;
-DYNX(W_,8069) = 100;
-DYNX(W_,8074) = true;
-DYNX(W_,8075) = 0.1088888888888889;
-DYNX(W_,8077) = false;
-DYNX(W_,8080) = true;
-DYNX(W_,8082) = 100;
-DYNX(W_,8086) = 0.1088888888888889;
-DYNX(W_,8087) = 100;
-DYNX(W_,8094) = false;
-DYNX(W_,8095) = 1;
-DYNX(W_,8096) = 1;
-DYNX(W_,8107) = 1;
-DYNX(W_,8108) = 1;
-DYNX(W_,8122) = false;
-DYNX(W_,8123) = 1;
-DYNX(W_,8124) = 1;
-DYNX(W_,8129) = 2;
-DYNX(W_,8137) = true;
-memcpy(&DYNX(W_,8138), &DymArrays25, sizeof(double)*12);
-DYNX(W_,8157) = 26;
-DYNX(W_,8191) = 2;
-DYNX(W_,8193) = 1;
-DYNX(W_,8195) = 1;
-DYNX(W_,8197) = 1;
-DYNX(W_,8199) = 1;
-DYNX(W_,8201) = 1;
-DYNX(W_,8203) = 1;
-DYNX(W_,8205) = 1;
-DYNX(W_,8207) = 1;
-DYNX(W_,8209) = 1;
-DYNX(W_,8211) = 1;
-memcpy(&DYNX(W_,8213), &DymArrays26, sizeof(double)*3);
-memcpy(&DYNX(W_,8217), &DymArrays27, sizeof(double)*10);
-DYNX(W_,8236) = 3;
-DYNX(W_,8251) = 1800;
-DYNX(W_,8256) = 1800;
-DYNX(W_,8262) = 0.3979486313076103;
-DYNX(W_,8263) = 0.017202423838958484;
-DYNX(W_,8271) = 1;
-DYNX(W_,8272) = 1;
-DYNX(W_,8277) = false;
+DYNX(W_,7940) = false;
+DYNX(W_,7954) = true;
+DYNX(W_,7963) = false;
+DYNX(W_,7965) = false;
+DYNX(W_,7966) = false;
+DYNX(W_,7970) = true;
+DYNX(W_,7971) = false;
+DYNX(W_,7987) = false;
+DYNX(W_,7992) = 1;
+DYNX(W_,7993) = 1;
+DYNX(W_,8016) = true;
+DYNX(W_,8017) = 0.1088888888888889;
+DYNX(W_,8019) = false;
+DYNX(W_,8022) = true;
+DYNX(W_,8024) = 100;
+DYNX(W_,8028) = 0.1088888888888889;
+DYNX(W_,8029) = 100;
+DYNX(W_,8034) = true;
+DYNX(W_,8035) = 0.1088888888888889;
+DYNX(W_,8037) = false;
+DYNX(W_,8040) = true;
+DYNX(W_,8042) = 100;
+DYNX(W_,8046) = 0.1088888888888889;
+DYNX(W_,8047) = 100;
+DYNX(W_,8054) = false;
+DYNX(W_,8055) = 1;
+DYNX(W_,8056) = 1;
+DYNX(W_,8067) = 1;
+DYNX(W_,8068) = 1;
+DYNX(W_,8082) = false;
+DYNX(W_,8083) = 1;
+DYNX(W_,8084) = 1;
+DYNX(W_,8089) = 2;
+DYNX(W_,8097) = true;
+memcpy(&DYNX(W_,8098), &DymArrays25, sizeof(double)*12);
+DYNX(W_,8117) = 26;
+DYNX(W_,8151) = 2;
+DYNX(W_,8153) = 1;
+DYNX(W_,8155) = 1;
+DYNX(W_,8157) = 1;
+DYNX(W_,8159) = 1;
+DYNX(W_,8161) = 1;
+DYNX(W_,8163) = 1;
+DYNX(W_,8165) = 1;
+DYNX(W_,8167) = 1;
+DYNX(W_,8169) = 1;
+DYNX(W_,8171) = 1;
+memcpy(&DYNX(W_,8173), &DymArrays26, sizeof(double)*3);
+memcpy(&DYNX(W_,8177), &DymArrays27, sizeof(double)*10);
+DYNX(W_,8196) = 3;
+DYNX(W_,8211) = 1800;
+DYNX(W_,8216) = 1800;
+DYNX(W_,8222) = 0.3979486313076103;
+DYNX(W_,8223) = 0.017202423838958484;
+DYNX(W_,8231) = 1;
+DYNX(W_,8232) = 1;
+DYNX(W_,8237) = false;
DYNX(W_,73) = 286.15;
DYNX(W_,90) = 1;
DYNX(W_,2536) = 1;
DYNX(W_,2537) = 3;
DYNX(W_,2538) = true;
-DYNX(W_,2878) = 0.1;
-DYNX(W_,2889) = 0.1;
-DYNX(W_,2932) = false;
-DYNX(W_,2943) = false;
-DYNX(W_,3051) = false;
-DYNX(W_,3876) = false;
-DYNX(W_,3877) = 0.1;
-DYNX(W_,4417) = 1;
-DYNX(W_,4476) = 1;
-DYNX(W_,4535) = 1;
-DYNX(W_,4594) = 1;
-DYNX(W_,4653) = 1;
-DYNX(W_,4712) = 1;
-DYNX(W_,4771) = 1;
-DYNX(W_,4830) = 1;
-DYNX(W_,4956) = 1;
-DYNX(W_,5015) = 1;
-DYNX(W_,5074) = 1;
-DYNX(W_,5133) = 1;
-DYNX(W_,5192) = 1;
-DYNX(W_,5251) = 1;
-DYNX(W_,5310) = 1;
-DYNX(W_,5369) = 1;
-DYNX(W_,5733) = 0.5;
-DYNX(W_,6635) = 0.5;
-DYNX(W_,6728) = false;
-DYNX(W_,6729) = 0.1;
-DYNX(W_,6733) = false;
-DYNX(W_,6734) = 0.1;
-DYNX(W_,7732) = false;
-DYNX(W_,7733) = false;
-DYNX(W_,7922) = false;
-DYNX(W_,7923) = false;
-DYNX(W_,8002) = 0.5;
-DYNX(W_,8004) = true;
-DYNX(W_,8007) = 1;
-DYNX(W_,8008) = 3;
-DYNX(W_,8009) = false;
+DYNX(W_,2853) = 0.1;
+DYNX(W_,2864) = 0.1;
+DYNX(W_,2907) = false;
+DYNX(W_,2918) = false;
+DYNX(W_,3026) = false;
+DYNX(W_,3836) = false;
+DYNX(W_,3837) = 0.1;
+DYNX(W_,4377) = 1;
+DYNX(W_,4436) = 1;
+DYNX(W_,4495) = 1;
+DYNX(W_,4554) = 1;
+DYNX(W_,4613) = 1;
+DYNX(W_,4672) = 1;
+DYNX(W_,4731) = 1;
+DYNX(W_,4790) = 1;
+DYNX(W_,4916) = 1;
+DYNX(W_,4975) = 1;
+DYNX(W_,5034) = 1;
+DYNX(W_,5093) = 1;
+DYNX(W_,5152) = 1;
+DYNX(W_,5211) = 1;
+DYNX(W_,5270) = 1;
+DYNX(W_,5329) = 1;
+DYNX(W_,5693) = 0.5;
+DYNX(W_,6595) = 0.5;
+DYNX(W_,6688) = false;
+DYNX(W_,6689) = 0.1;
+DYNX(W_,6693) = false;
+DYNX(W_,6694) = 0.1;
+DYNX(W_,7692) = false;
+DYNX(W_,7693) = false;
+DYNX(W_,7882) = false;
+DYNX(W_,7883) = false;
+DYNX(W_,7962) = 0.5;
+DYNX(W_,7964) = true;
+DYNX(W_,7967) = 1;
+DYNX(W_,7968) = 3;
+DYNX(W_,7969) = false;
DYNX(W_,84) = 13288.382850121196;
DYNX(W_,2) = 13288.382850121196;
DYNX(W_,6) = 294.15;
@@ -7032,7 +7033,7 @@ DYNX(W_,1067) = false;
DYNX(W_,1071) = 995.586;
DYNX(W_,1072) = 4184;
DYNX(W_,1073) = false;
-DYNX(W_,4356) = 0;
+DYNX(W_,4316) = 0;
DYNX(W_,1075) = 0.0;
memcpy(&DYNX(W_,1087), &DymArrays36, sizeof(double)*3);
DYNX(W_,1091) = -1;
@@ -7221,13 +7222,13 @@ memcpy(&DYNX(W_,2081), &DymArrays46, sizeof(double)*11);
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
26);
#if defined(DynSimStruct)
-DYNX(W_,8152) = 0.9116922633158369;
+DYNX(W_,8112) = 0.9116922633158369;
DYNX(W_,2112) = 0.9116922633158369;
-DYNX(W_,8151) = 0.22757907099030072;
+DYNX(W_,8111) = 0.22757907099030072;
DYNX(W_,2113) = 0.22757907099030072;
-DYNX(W_,8154) = 0.0;
+DYNX(W_,8114) = 0.0;
DYNX(W_,2114) = 0.0;
-DYNX(W_,8153) = 3600.0;
+DYNX(W_,8113) = 3600.0;
DYNX(W_,2115) = 3600.0;
memcpy(&DYNX(W_,2144), &DymArrays47, sizeof(double)*5);
DYNX(W_,2149) = false;
@@ -7263,1629 +7264,1627 @@ memcpy(&DYNX(W_,2479), &DymArrays29, sizeof(double)*3);
DYNX(W_,2486) = false;
DYNX(W_,2490) = 995.586;
DYNX(W_,2491) = 4184.0;
-DYNX(W_,5802) = 328.15;
-DYNX(W_,4348) = 328.15;
+DYNX(W_,5762) = 328.15;
+DYNX(W_,4308) = 328.15;
DYNX(W_,2501) = 0;
-DYNX(W_,5803) = 328.15;
-DYNX(W_,4349) = 328.15;
-DYNX(W_,5812) = 13288.382850121196;
-DYNX(W_,5822) = 13288.382850121196;
-DYNX(W_,4345) = 13288.382850121196;
+DYNX(W_,5763) = 328.15;
+DYNX(W_,4309) = 328.15;
+DYNX(W_,5772) = 13288.382850121196;
+DYNX(W_,5782) = 13288.382850121196;
+DYNX(W_,4305) = 13288.382850121196;
DYNX(W_,2504) = 14139.18861553825;
DYNX(W_,2498) = 0.3379347183446045;
-DYNX(W_,5813) = 13288.382850121196;
-DYNX(W_,5823) = 13288.382850121196;
-DYNX(W_,4346) = 13288.382850121196;
+DYNX(W_,5773) = 13288.382850121196;
+DYNX(W_,5783) = 13288.382850121196;
+DYNX(W_,4306) = 13288.382850121196;
DYNX(W_,2505) = 14139.18861553825;
-DYNX(W_,4006) = 1000;
+DYNX(W_,3966) = 1000;
DYNX(W_,2500) = 1125.0;
DYNX(W_,2503) = 0.0;
memcpy(&DYNX(W_,2509), &DymArrays51, sizeof(double)*3);
DYNX(W_,2513) = 1125.0;
-memcpy(&DYNX(W_,5727), &DymArrays52, sizeof(double)*3);
-DYNX(W_,4375) = 4000.0;
+memcpy(&DYNX(W_,5687), &DymArrays52, sizeof(double)*3);
+DYNX(W_,4335) = 4000.0;
DYNX(W_,2514) = 4000.0;
-DYNX(W_,4376) = 4000.0;
+DYNX(W_,4336) = 4000.0;
DYNX(W_,2515) = 4000.0;
DYNX(W_,2544) = 10198.759001371853;
DYNX(W_,2545) = 10198.759001371853;
-DYNX(W_,2552) = true;
-DYNX(W_,2876) = 0.3379347183446045;
-DYNX(W_,2558) = 0.3379347183446045;
-DYNX(W_,3408) = 10198.759001371853;
-DYNX(W_,3411) = 271.15;
-DYNX(W_,2583) = 271.15;
-DYNX(W_,2611) = 10198.759001371853;
-DYNX(W_,2560) = 3.379347183446045E-05;
-DYNX(W_,2569) = true;
+DYNX(W_,2851) = 0.3379347183446045;
+DYNX(W_,2555) = 0.3379347183446045;
+DYNX(W_,3372) = 10198.759001371853;
+DYNX(W_,3375) = 271.15;
+DYNX(W_,2572) = 271.15;
+DYNX(W_,2596) = 10198.759001371853;
+DYNX(W_,2557) = 3.379347183446045E-05;
+DYNX(W_,2566) = true;
#endif
DYNSetAuxString(did_, "Vitocal350AWI114", 15);
DYNSetAuxString(did_, "Vitocal350AWI114", 10);
#if defined(DynSimStruct)
-DYNX(W_,2592) = 15;
-DYNX(W_,2595) = 0.04841442749939482;
-memcpy(&DYNX(W_,2597), &DymArrays53, sizeof(double)*3);
-DYNX(W_,2602) = 918;
-DYNX(W_,2884) = 4184;
-DYNX(W_,2605) = 4184.0;
-DYNX(W_,2609) = -1;
-DYNX(W_,2610) = 1;
-DYNX(W_,2620) = false;
+DYNX(W_,2579) = 15;
+DYNX(W_,2581) = 0.04841442749939482;
+memcpy(&DYNX(W_,2583), &DymArrays53, sizeof(double)*3);
+DYNX(W_,2588) = 918;
+DYNX(W_,2859) = 4184;
+DYNX(W_,2591) = 4184.0;
+DYNX(W_,2594) = -1;
+DYNX(W_,2595) = 1;
+DYNX(W_,2605) = false;
#endif
DYNSetAuxString(did_, "NoName", 11);
DYNSetAuxString(did_, "NoName", 12);
#if defined(DynSimStruct)
-DYNX(W_,2669) = true;
-DYNX(W_,2678) = false;
+DYNX(W_,2654) = true;
+DYNX(W_,2663) = false;
#endif
DYNSetAuxString(did_, "NoName", 13);
DYNSetAuxString(did_, "NoName", 14);
#if defined(DynSimStruct)
-DYNX(W_,2727) = true;
+DYNX(W_,2712) = true;
#endif
-DYNSetAuxString(did_, "NoCooling", 16);
+DYNSetAuxString(did_, "DefrostEfficiency", 16);
#if defined(DynSimStruct)
-DYNX(W_,2853) = 4184.0;
-DYNX(W_,2863) = -1;
-DYNX(W_,2864) = 1;
-DYNX(W_,2869) = false;
-DYNX(W_,2870) = 0;
+DYNX(W_,2837) = 4184.0;
+DYNX(W_,2840) = -1;
+DYNX(W_,2841) = 1;
+DYNX(W_,2844) = false;
#endif
-DYNSetAuxString(did_, "NoCooling", 17);
+DYNSetAuxString(did_, "DefrostEfficiency", 17);
#if defined(DynSimStruct)
-DYNX(W_,2875) = 10.0;
-DYNX(W_,2883) = 995.586;
-DYNX(W_,2929) = 101325;
-DYNX(W_,2930) = 262.65;
-DYNX(W_,2935) = 0.3379347183446045;
-DYNX(W_,2936) = 3.379347183446045E-05;
-DYNX(W_,2938) = 0;
-DYNX(W_,2939) = 0;
-DYNX(W_,2940) = true;
-DYNX(W_,2941) = false;
-DYNX(W_,2944) = 0.1;
-DYNX(W_,2958) = 1;
+DYNX(W_,2850) = 10.0;
+DYNX(W_,2858) = 995.586;
+DYNX(W_,2904) = 101325;
+DYNX(W_,2905) = 262.65;
+DYNX(W_,2910) = 0.3379347183446045;
+DYNX(W_,2911) = 3.379347183446045E-05;
+DYNX(W_,2913) = 0;
+DYNX(W_,2914) = 0;
+DYNX(W_,2915) = true;
+DYNX(W_,2916) = false;
+DYNX(W_,2919) = 0.1;
+DYNX(W_,2933) = 1;
+DYNX(W_,2934) = false;
+DYNX(W_,2935) = false;
+DYNX(W_,2938) = 0.3379347183446045;
+DYNX(W_,2940) = 3.379347183446045E-05;
+DYNX(W_,2941) = true;
+DYNX(W_,3003) = 995.586;
+memcpy(&DYNX(W_,2943), &DymArrays54, sizeof(double)*4);
+DYNX(W_,2951) = 2;
+DYNX(W_,2953) = 2;
+DYNX(W_,2954) = 2;
+DYNX(W_,2958) = 1.0;
DYNX(W_,2959) = false;
DYNX(W_,2960) = false;
-DYNX(W_,2963) = 0.3379347183446045;
-DYNX(W_,2965) = 3.379347183446045E-05;
DYNX(W_,2966) = true;
-DYNX(W_,3028) = 995.586;
-memcpy(&DYNX(W_,2968), &DymArrays54, sizeof(double)*4);
-DYNX(W_,2976) = 2;
-DYNX(W_,2978) = 2;
-DYNX(W_,2979) = 2;
-DYNX(W_,2983) = 1.0;
-DYNX(W_,2984) = false;
-DYNX(W_,2985) = false;
-DYNX(W_,2991) = true;
-DYNX(W_,3006) = 995.586;
-DYNX(W_,3001) = 4184;
-DYNX(W_,3000) = 0.0;
-DYNX(W_,3002) = 995.586;
-DYNX(W_,3003) = false;
-DYNX(W_,3004) = 300000.0;
-DYNX(W_,3005) = 293.15;
-DYNX(W_,3011) = 0.3379347183446045;
-DYNX(W_,3012) = 3.379347183446045E-05;
-DYNX(W_,3014) = 0;
-DYNX(W_,3015) = 0;
-DYNX(W_,3017) = false;
-DYNX(W_,3019) = false;
-DYNX(W_,3026) = true;
-DYNX(W_,3024) = 0.1;
-DYNX(W_,3022) = 0.3379347183446045;
-DYNX(W_,3020) = 0.03379347183446045;
-DYNX(W_,3021) = 0.001;
-DYNX(W_,3025) = 0.030225800087031233;
-DYNX(W_,3027) = 0;
-DYNX(W_,3032) = true;
-DYNX(W_,3036) = 293.15;
-DYNX(W_,3037) = 0;
-DYNX(W_,3046) = 0;
-DYNX(W_,3047) = 0;
-DYNX(W_,3048) = true;
-DYNX(W_,3049) = false;
-DYNX(W_,3052) = 0.1;
-DYNX(W_,3056) = 101325.0;
-DYNX(W_,3057) = 262.65;
-DYNX(W_,3064) = 101325.0;
-DYNX(W_,3065) = 262.65;
-DYNX(W_,3068) = 1;
-DYNX(W_,3069) = false;
-DYNX(W_,3070) = true;
-DYNX(W_,3076) = true;
-DYNX(W_,3087) = 101325.0;
-memcpy(&DYNX(W_,3081), &DymArrays55, sizeof(double)*6);
-DYNX(W_,3088) = 262.65;
-DYNX(W_,3093) = 2;
-memcpy(&DYNX(W_,3095), &DymArrays56, sizeof(double)*4);
-DYNX(W_,3101) = 1.0;
-DYNX(W_,3102) = false;
-DYNX(W_,3103) = true;
-DYNX(W_,3111) = true;
-DYNX(W_,3124) = 101325.0;
-DYNX(W_,3128) = 1.2;
-DYNX(W_,3126) = 0.01;
-DYNX(W_,3121) = 1014.54;
-DYNX(W_,3120) = 0.0;
-DYNX(W_,3122) = 1.2;
-DYNX(W_,3123) = false;
-DYNX(W_,3125) = 293.15;
-DYNX(W_,3127) = 0.99;
-DYNX(W_,3129) = 1;
+DYNX(W_,2981) = 995.586;
+DYNX(W_,2976) = 4184;
+DYNX(W_,2975) = 0.0;
+DYNX(W_,2977) = 995.586;
+DYNX(W_,2978) = false;
+DYNX(W_,2979) = 300000.0;
+DYNX(W_,2980) = 293.15;
+DYNX(W_,2986) = 0.3379347183446045;
+DYNX(W_,2987) = 3.379347183446045E-05;
+DYNX(W_,2989) = 0;
+DYNX(W_,2990) = 0;
+DYNX(W_,2992) = false;
+DYNX(W_,2994) = false;
+DYNX(W_,3001) = true;
+DYNX(W_,2999) = 0.1;
+DYNX(W_,2997) = 0.3379347183446045;
+DYNX(W_,2995) = 0.03379347183446045;
+DYNX(W_,2996) = 0.001;
+DYNX(W_,3000) = 0.030225800087031233;
+DYNX(W_,3002) = 0;
+DYNX(W_,3007) = true;
+DYNX(W_,3011) = 293.15;
+DYNX(W_,3012) = 0;
+DYNX(W_,3021) = 0;
+DYNX(W_,3022) = 0;
+DYNX(W_,3023) = true;
+DYNX(W_,3024) = false;
+DYNX(W_,3027) = 0.1;
+DYNX(W_,3031) = 101325.0;
+DYNX(W_,3032) = 262.65;
+DYNX(W_,3039) = 101325.0;
+DYNX(W_,3040) = 262.65;
+DYNX(W_,3043) = 1;
+DYNX(W_,3044) = false;
+DYNX(W_,3045) = true;
+DYNX(W_,3051) = true;
+DYNX(W_,3062) = 101325.0;
+memcpy(&DYNX(W_,3056), &DymArrays55, sizeof(double)*6);
+DYNX(W_,3063) = 262.65;
+DYNX(W_,3068) = 2;
+memcpy(&DYNX(W_,3070), &DymArrays56, sizeof(double)*4);
+DYNX(W_,3076) = 1.0;
+DYNX(W_,3077) = false;
+DYNX(W_,3078) = true;
+DYNX(W_,3086) = true;
+DYNX(W_,3099) = 101325.0;
+DYNX(W_,3103) = 1.2;
+DYNX(W_,3101) = 0.01;
+DYNX(W_,3096) = 1014.54;
+DYNX(W_,3095) = 0.0;
+DYNX(W_,3097) = 1.2;
+DYNX(W_,3098) = false;
+DYNX(W_,3100) = 293.15;
+DYNX(W_,3102) = 0.99;
+DYNX(W_,3104) = 1;
+DYNX(W_,3115) = 0;
+DYNX(W_,3116) = 0;
+DYNX(W_,3118) = false;
+DYNX(W_,3120) = false;
+DYNX(W_,3127) = false;
+DYNX(W_,3125) = 0.1;
+DYNX(W_,3121) = 0;
+DYNX(W_,3126) = 0;
+DYNX(W_,3128) = 0;
+DYNX(W_,3130) = 101325.0;
+DYNX(W_,3131) = 262.65;
+DYNX(W_,3135) = false;
+DYNX(W_,3139) = 293.15;
DYNX(W_,3140) = 0;
-DYNX(W_,3141) = 0;
-DYNX(W_,3143) = false;
-DYNX(W_,3145) = false;
-DYNX(W_,3152) = false;
-DYNX(W_,3150) = 0.1;
-DYNX(W_,3146) = 0;
-DYNX(W_,3151) = 0;
-DYNX(W_,3153) = 0;
-DYNX(W_,3155) = 101325.0;
-DYNX(W_,3156) = 262.65;
-DYNX(W_,3160) = false;
-DYNX(W_,3164) = 293.15;
-DYNX(W_,3165) = 0;
-DYNX(W_,3170) = 0.3379347183446045;
-DYNX(W_,3203) = 0;
-DYNX(W_,3210) = 1;
-DYNX(W_,3230) = true;
-DYNX(W_,3232) = false;
+DYNX(W_,3144) = 0.3379347183446045;
+DYNX(W_,3176) = 0;
+DYNX(W_,3183) = 1;
+DYNX(W_,3203) = true;
+DYNX(W_,3205) = false;
#endif
DYNSetAuxString(did_, "NoName", 18);
DYNSetAuxString(did_, "NoName", 19);
#if defined(DynSimStruct)
-DYNX(W_,3237) = 2;
-DYNX(W_,3238) = 1;
-memcpy(&DYNX(W_,3245), &DymArrays57, sizeof(double)*4);
-memcpy(&DYNX(W_,3251), &DymArrays58, sizeof(double)*6);
-DYNX(W_,3258) = 0;
-DYNX(W_,3262) = 0;
-DYNX(W_,3280) = false;
-DYNX(W_,3282) = false;
+DYNX(W_,3210) = 2;
+DYNX(W_,3211) = 1;
+memcpy(&DYNX(W_,3218), &DymArrays57, sizeof(double)*4);
+memcpy(&DYNX(W_,3224), &DymArrays58, sizeof(double)*6);
+DYNX(W_,3231) = 0;
+DYNX(W_,3235) = 0;
+DYNX(W_,3253) = false;
+DYNX(W_,3255) = false;
#endif
DYNSetAuxString(did_, "NoName", 20);
DYNSetAuxString(did_, "NoName", 21);
#if defined(DynSimStruct)
-DYNX(W_,3287) = 2;
-DYNX(W_,3288) = 1;
-memcpy(&DYNX(W_,3295), &DymArrays57, sizeof(double)*4);
-memcpy(&DYNX(W_,3301), &DymArrays59, sizeof(double)*6);
-DYNX(W_,3308) = 0;
-DYNX(W_,3312) = 0;
-DYNX(W_,3342) = 3600;
-DYNX(W_,3349) = 1;
-DYNX(W_,3351) = 3600.0;
-DYNX(W_,3360) = 0;
-DYNX(W_,3367) = 1;
-DYNX(W_,3373) = false;
-DYNX(W_,3376) = false;
-DYNX(W_,3380) = 0;
-DYNX(W_,3381) = 0;
-memcpy(&DYNX(W_,3383), &DymArrays60, sizeof(double)*3);
-DYNX(W_,3387) = false;
-DYNX(W_,3395) = 0;
-DYNX(W_,3402) = false;
-DYNX(W_,3445) = true;
-DYNX(W_,3450) = 3;
-memcpy(&DYNX(W_,3454), &DymArrays29, sizeof(double)*3);
-DYNX(W_,3459) = 1;
-DYNX(W_,3460) = false;
-DYNX(W_,3462) = 0.0;
-DYNX(W_,3797) = 0.3379347183446045;
-DYNX(W_,3522) = 995.586;
-DYNX(W_,3463) = 0.00033943297549845466;
-DYNX(W_,3464) = 0.0006788659509969093;
-DYNX(W_,3798) = 5125.0;
-memcpy(&DYNX(W_,3465), &DymArrays61, sizeof(double)*3);
-DYNX(W_,3499) = true;
-DYNX(W_,3468) = 0.0009246622435992386;
-DYNX(W_,3469) = 5842.499999999999;
+DYNX(W_,3260) = 2;
+DYNX(W_,3261) = 1;
+memcpy(&DYNX(W_,3268), &DymArrays57, sizeof(double)*4);
+memcpy(&DYNX(W_,3274), &DymArrays59, sizeof(double)*6);
+DYNX(W_,3281) = 0;
+DYNX(W_,3285) = 0;
+DYNX(W_,3313) = 3600;
+DYNX(W_,3320) = 1;
+DYNX(W_,3322) = 3600.0;
+DYNX(W_,3330) = 0;
+DYNX(W_,3337) = 1;
+DYNX(W_,3343) = false;
+DYNX(W_,3346) = false;
+DYNX(W_,3350) = 0;
+DYNX(W_,3351) = 0;
+memcpy(&DYNX(W_,3353), &DymArrays60, sizeof(double)*3);
+DYNX(W_,3357) = false;
+DYNX(W_,3363) = 0;
+DYNX(W_,3367) = false;
+DYNX(W_,3407) = true;
+DYNX(W_,3412) = 3;
+memcpy(&DYNX(W_,3416), &DymArrays29, sizeof(double)*3);
+DYNX(W_,3421) = 1;
+DYNX(W_,3422) = false;
+DYNX(W_,3424) = 0.0;
+DYNX(W_,3759) = 0.3379347183446045;
+DYNX(W_,3484) = 995.586;
+DYNX(W_,3425) = 0.00033943297549845466;
+DYNX(W_,3426) = 0.0006788659509969093;
+DYNX(W_,3760) = 5125.0;
+memcpy(&DYNX(W_,3427), &DymArrays61, sizeof(double)*3);
+DYNX(W_,3461) = true;
+DYNX(W_,3430) = 0.0009246622435992386;
+DYNX(W_,3431) = 5842.499999999999;
+DYNX(W_,3465) = true;
+DYNX(W_,3467) = false;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(9);
#if defined(DynSimStruct)
+DYNX(W_,3471) = 4;
+memcpy(&DYNX(W_,3572), &DymArrays62, sizeof(double)*3);
+DYNX(W_,3475) = 0.675869436689209;
+DYNX(W_,3473) = 6.75869436689209E-05;
+memcpy(&DYNX(W_,3476), &DymArrays41, sizeof(double)*3);
+DYNX(W_,3480) = true;
+DYNX(W_,3577) = 2152.5;
+DYNX(W_,3626) = false;
+DYNX(W_,3482) = false;
+DYNX(W_,3575) = 5842.499999999999;
+DYNX(W_,3576) = 5125.0;
+DYNX(W_,3621) = true;
+DYNX(W_,3578) = 0.0009246622435992386;
+DYNX(W_,3624) = 0.0006788659509969093;
+DYNX(W_,3627) = 0.0009246622435992386;
+DYNX(W_,3483) = 0.0009246622435992386;
+DYNX(W_,3495) = 1;
+DYNX(W_,3496) = false;
+DYNX(W_,3497) = false;
+DYNX(W_,3500) = 0.675869436689209;
+DYNX(W_,3502) = 6.75869436689209E-05;
DYNX(W_,3503) = true;
-DYNX(W_,3505) = false;
-DYNX(W_,3509) = 4;
-memcpy(&DYNX(W_,3610), &DymArrays62, sizeof(double)*3);
-DYNX(W_,3513) = 0.675869436689209;
-DYNX(W_,3511) = 6.75869436689209E-05;
-memcpy(&DYNX(W_,3514), &DymArrays41, sizeof(double)*3);
-DYNX(W_,3518) = true;
-DYNX(W_,3615) = 2152.5;
-DYNX(W_,3664) = false;
-DYNX(W_,3520) = false;
-DYNX(W_,3613) = 5842.499999999999;
-DYNX(W_,3614) = 5125.0;
-DYNX(W_,3659) = true;
-DYNX(W_,3616) = 0.0009246622435992386;
-DYNX(W_,3662) = 0.0006788659509969093;
-DYNX(W_,3665) = 0.0009246622435992386;
-DYNX(W_,3521) = 0.0009246622435992386;
-DYNX(W_,3533) = 1;
-DYNX(W_,3534) = false;
-DYNX(W_,3535) = false;
-DYNX(W_,3538) = 0.675869436689209;
-DYNX(W_,3540) = 6.75869436689209E-05;
-DYNX(W_,3541) = true;
-DYNX(W_,3546) = 995.586;
-memcpy(&DYNX(W_,3543), &DymArrays40, sizeof(double)*3);
-DYNX(W_,3558) = 2;
-DYNX(W_,3560) = 2;
-DYNX(W_,3561) = 2;
-DYNX(W_,3565) = 1.0;
-DYNX(W_,3566) = false;
-DYNX(W_,3567) = false;
-DYNX(W_,3574) = true;
-DYNX(W_,3590) = 995.586;
-DYNX(W_,3585) = 4184;
-DYNX(W_,3584) = 0.0;
-DYNX(W_,3586) = 995.586;
-DYNX(W_,3587) = false;
-DYNX(W_,3588) = 300000.0;
-DYNX(W_,3589) = 293.15;
-DYNX(W_,3595) = 6.75869436689209E-05;
-DYNX(W_,3603) = 0;
-DYNX(W_,3604) = 0;
-DYNX(W_,3617) = 5842.499999999999;
-memcpy(&DYNX(W_,3656), &DymArrays41, sizeof(double)*3);
-DYNX(W_,3661) = true;
-DYNX(W_,3663) = 995.586;
-memcpy(&DYNX(W_,3670), &DymArrays41, sizeof(double)*3);
-DYNX(W_,3682) = 5842.499999999999;
-DYNX(W_,3793) = true;
-DYNX(W_,3685) = 2;
-memcpy(&DYNX(W_,3687), &DymArrays42, sizeof(double)*6);
-memcpy(&DYNX(W_,3694), &DymArrays63, sizeof(double)*5);
-DYNX(W_,3701) = 0.0;
-memcpy(&DYNX(W_,3703), &DymArrays44, sizeof(double)*10);
-memcpy(&DYNX(W_,3794), &DymArrays64, sizeof(double)*3);
-DYNX(W_,3803) = 3;
-memcpy(&DYNX(W_,3821), &DymArrays65, sizeof(double)*4);
-DYNX(W_,3825) = true;
-DYNX(W_,3826) = 1.0;
-DYNX(W_,3828) = true;
-DYNX(W_,3836) = 0;
-DYNX(W_,3847) = 3;
-DYNX(W_,3848) = 1;
-DYNX(W_,3853) = 0;
-DYNX(W_,3858) = 3;
-DYNX(W_,3868) = 0.3379347183446045;
-DYNX(W_,3869) = 3.379347183446045E-05;
-DYNX(W_,3871) = 0;
-DYNX(W_,3872) = 0;
-DYNX(W_,3873) = true;
-DYNX(W_,3874) = false;
-DYNX(W_,3879) = 30;
-DYNX(W_,3890) = 1;
-DYNX(W_,3891) = false;
-DYNX(W_,3892) = false;
-DYNX(W_,3895) = 0.3379347183446045;
-DYNX(W_,3897) = 3.379347183446045E-05;
-DYNX(W_,3898) = true;
-memcpy(&DYNX(W_,3900), &DymArrays54, sizeof(double)*4);
-DYNX(W_,3908) = 2;
-DYNX(W_,3910) = 2;
-DYNX(W_,3911) = 2;
-DYNX(W_,3915) = 1.0;
-DYNX(W_,3916) = false;
-DYNX(W_,3917) = false;
-DYNX(W_,3923) = true;
-DYNX(W_,3938) = 995.586;
-DYNX(W_,3933) = 4184;
-DYNX(W_,3932) = 0.0;
-DYNX(W_,3934) = 995.586;
-DYNX(W_,3935) = false;
-DYNX(W_,3936) = 300000.0;
-DYNX(W_,3937) = 293.15;
-DYNX(W_,3943) = 0.3379347183446045;
-DYNX(W_,3944) = 3.379347183446045E-05;
+DYNX(W_,3508) = 995.586;
+memcpy(&DYNX(W_,3505), &DymArrays40, sizeof(double)*3);
+DYNX(W_,3520) = 2;
+DYNX(W_,3522) = 2;
+DYNX(W_,3523) = 2;
+DYNX(W_,3527) = 1.0;
+DYNX(W_,3528) = false;
+DYNX(W_,3529) = false;
+DYNX(W_,3536) = true;
+DYNX(W_,3552) = 995.586;
+DYNX(W_,3547) = 4184;
+DYNX(W_,3546) = 0.0;
+DYNX(W_,3548) = 995.586;
+DYNX(W_,3549) = false;
+DYNX(W_,3550) = 300000.0;
+DYNX(W_,3551) = 293.15;
+DYNX(W_,3557) = 6.75869436689209E-05;
+DYNX(W_,3565) = 0;
+DYNX(W_,3566) = 0;
+DYNX(W_,3579) = 5842.499999999999;
+memcpy(&DYNX(W_,3618), &DymArrays41, sizeof(double)*3);
+DYNX(W_,3623) = true;
+DYNX(W_,3625) = 995.586;
+memcpy(&DYNX(W_,3632), &DymArrays41, sizeof(double)*3);
+DYNX(W_,3644) = 5842.499999999999;
+DYNX(W_,3755) = true;
+DYNX(W_,3647) = 2;
+memcpy(&DYNX(W_,3649), &DymArrays42, sizeof(double)*6);
+memcpy(&DYNX(W_,3656), &DymArrays63, sizeof(double)*5);
+DYNX(W_,3663) = 0.0;
+memcpy(&DYNX(W_,3665), &DymArrays44, sizeof(double)*10);
+memcpy(&DYNX(W_,3756), &DymArrays64, sizeof(double)*3);
+DYNX(W_,3765) = 3;
+memcpy(&DYNX(W_,3783), &DymArrays65, sizeof(double)*4);
+DYNX(W_,3787) = true;
+DYNX(W_,3788) = 1.0;
+DYNX(W_,3790) = true;
+DYNX(W_,3798) = 0;
+DYNX(W_,3809) = 3;
+DYNX(W_,3810) = 1;
+DYNX(W_,3815) = 0;
+DYNX(W_,3820) = 3;
+DYNX(W_,3828) = 0.3379347183446045;
+DYNX(W_,3829) = 3.379347183446045E-05;
+DYNX(W_,3831) = 0;
+DYNX(W_,3832) = 0;
+DYNX(W_,3833) = true;
+DYNX(W_,3834) = false;
+DYNX(W_,3839) = 30;
+DYNX(W_,3850) = 1;
+DYNX(W_,3851) = false;
+DYNX(W_,3852) = false;
+DYNX(W_,3855) = 0.3379347183446045;
+DYNX(W_,3857) = 3.379347183446045E-05;
+DYNX(W_,3858) = true;
+memcpy(&DYNX(W_,3860), &DymArrays54, sizeof(double)*4);
+DYNX(W_,3868) = 2;
+DYNX(W_,3870) = 2;
+DYNX(W_,3871) = 2;
+DYNX(W_,3875) = 1.0;
+DYNX(W_,3876) = false;
+DYNX(W_,3877) = false;
+DYNX(W_,3883) = true;
+DYNX(W_,3898) = 995.586;
+DYNX(W_,3893) = 4184;
+DYNX(W_,3892) = 0.0;
+DYNX(W_,3894) = 995.586;
+DYNX(W_,3895) = false;
+DYNX(W_,3896) = 300000.0;
+DYNX(W_,3897) = 293.15;
+DYNX(W_,3903) = 0.3379347183446045;
+DYNX(W_,3904) = 3.379347183446045E-05;
+DYNX(W_,3906) = 0;
+DYNX(W_,3907) = 0;
+DYNX(W_,3909) = false;
+DYNX(W_,3911) = false;
+DYNX(W_,3918) = true;
+DYNX(W_,3916) = 0.1;
+DYNX(W_,3914) = 0.3379347183446045;
+DYNX(W_,3912) = 0.03379347183446045;
+DYNX(W_,3913) = 0.001;
+DYNX(W_,3917) = 0.010686434104164361;
+DYNX(W_,3919) = 0;
+DYNX(W_,3920) = 995.586;
+DYNX(W_,3929) = 0;
+DYNX(W_,3937) = false;
+DYNX(W_,3940) = 3;
+DYNX(W_,3941) = 1;
DYNX(W_,3946) = 0;
-DYNX(W_,3947) = 0;
-DYNX(W_,3949) = false;
-DYNX(W_,3951) = false;
-DYNX(W_,3958) = true;
-DYNX(W_,3956) = 0.1;
-DYNX(W_,3954) = 0.3379347183446045;
-DYNX(W_,3952) = 0.03379347183446045;
-DYNX(W_,3953) = 0.001;
-DYNX(W_,3957) = 0.010686434104164361;
-DYNX(W_,3959) = 0;
-DYNX(W_,3960) = 995.586;
-DYNX(W_,3969) = 0;
-DYNX(W_,3977) = false;
-DYNX(W_,3980) = 3;
-DYNX(W_,3981) = 1;
-DYNX(W_,3986) = 0;
-DYNX(W_,3991) = 3;
-DYNX(W_,3997) = 3;
-DYNX(W_,4003) = 3;
-DYNX(W_,4014) = 14139.18861553825;
-DYNX(W_,4015) = 262.65;
-memcpy(&DYNX(W_,4018), &DymArrays66, sizeof(double)*6);
-memcpy(&DYNX(W_,4026), &DymArrays67, sizeof(double)*3);
-DYNX(W_,5804) = 10;
-DYNX(W_,5806) = 0.317599972517237;
-DYNX(W_,5827) = 0.317599972517237;
-DYNX(W_,4372) = 0.317599972517237;
-DYNX(W_,4341) = 0.317599972517237;
-DYNX(W_,4031) = 0.317599972517237;
-DYNX(W_,4377) = 0;
-DYNX(W_,4343) = 0.0;
-DYNX(W_,4032) = 0.0;
-DYNX(W_,4355) = 0.1;
-DYNX(W_,4036) = 0.1;
-DYNX(W_,4037) = 323.15;
-DYNX(W_,4039) = 0.123417;
-DYNX(W_,4041) = 3600;
-DYNX(W_,4042) = 2.24;
-DYNX(W_,4046) = 13288.382850121196;
-DYNX(W_,4047) = 262.65;
-DYNX(W_,5815) = 294.15;
-memcpy(&DYNX(W_,4048), &DymArrays68, sizeof(double)*4);
-DYNX(W_,6637) = 0.0;
-DYNX(W_,6636) = 766.0932549228814;
-DYNX(W_,6640) = 16854.05160830339;
-DYNX(W_,5808) = 16854.05160830339;
-DYNX(W_,4052) = 16854.05160830339;
-DYNX(W_,5809) = 0;
-DYNX(W_,4053) = 0.0;
-DYNX(W_,4054) = 1.0;
-DYNX(W_,5811) = 0.0;
-memcpy(&DYNX(W_,4055), &DymArrays69, sizeof(double)*4);
-DYNX(W_,5829) = 0.0;
-DYNX(W_,4059) = 0.0;
-DYNX(W_,4068) = 1;
-DYNX(W_,4071) = 3;
-DYNX(W_,4072) = 2;
-DYNX(W_,4073) = false;
-DYNX(W_,4077) = 1.0;
-DYNX(W_,4079) = false;
-DYNX(W_,4080) = 2;
-DYNX(W_,4087) = 3;
+DYNX(W_,3951) = 3;
+DYNX(W_,3957) = 3;
+DYNX(W_,3963) = 3;
+DYNX(W_,3974) = 14139.18861553825;
+DYNX(W_,3975) = 262.65;
+memcpy(&DYNX(W_,3978), &DymArrays66, sizeof(double)*6);
+memcpy(&DYNX(W_,3986), &DymArrays67, sizeof(double)*3);
+DYNX(W_,5764) = 10;
+DYNX(W_,5766) = 0.317599972517237;
+DYNX(W_,5787) = 0.317599972517237;
+DYNX(W_,4332) = 0.317599972517237;
+DYNX(W_,4301) = 0.317599972517237;
+DYNX(W_,3991) = 0.317599972517237;
+DYNX(W_,4337) = 0;
+DYNX(W_,4303) = 0.0;
+DYNX(W_,3992) = 0.0;
+DYNX(W_,4315) = 0.1;
+DYNX(W_,3996) = 0.1;
+DYNX(W_,3997) = 323.15;
+DYNX(W_,3999) = 0.123417;
+DYNX(W_,4001) = 3600;
+DYNX(W_,4002) = 2.24;
+DYNX(W_,4006) = 13288.382850121196;
+DYNX(W_,4007) = 262.65;
+DYNX(W_,5775) = 294.15;
+memcpy(&DYNX(W_,4008), &DymArrays68, sizeof(double)*4);
+DYNX(W_,6597) = 0.0;
+DYNX(W_,6596) = 766.0932549228814;
+DYNX(W_,6600) = 16854.05160830339;
+DYNX(W_,5768) = 16854.05160830339;
+DYNX(W_,4012) = 16854.05160830339;
+DYNX(W_,5769) = 0;
+DYNX(W_,4013) = 0.0;
+DYNX(W_,4014) = 1.0;
+DYNX(W_,5771) = 0.0;
+memcpy(&DYNX(W_,4015), &DymArrays69, sizeof(double)*4);
+DYNX(W_,5789) = 0.0;
+DYNX(W_,4019) = 0.0;
+DYNX(W_,4028) = 1;
+DYNX(W_,4031) = 3;
+DYNX(W_,4032) = 2;
+DYNX(W_,4033) = false;
+DYNX(W_,4037) = 1.0;
+DYNX(W_,4039) = false;
+DYNX(W_,4040) = 2;
+DYNX(W_,4047) = 3;
#endif
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/SGReady/EVU_Sperre_EON.txt",
22);
#if defined(DynSimStruct)
-DYNX(W_,4105) = 3;
-DYNX(W_,4108) = false;
-DYNX(W_,4111) = 3;
-DYNX(W_,4123) = 0.3;
-DYNX(W_,4128) = 1;
-DYNX(W_,4129) = 0;
-memcpy(&DYNX(W_,4133), &DymArrays70, sizeof(double)*3);
-DYNX(W_,4137) = 1;
-DYNX(W_,4138) = false;
-DYNX(W_,4139) = true;
-DYNX(W_,4141) = 1.0;
-DYNX(W_,4142) = 0.3;
-DYNX(W_,4146) = false;
-DYNX(W_,4147) = 1;
-DYNX(W_,4152) = 0.0;
-DYNX(W_,4156) = 3;
-DYNX(W_,4157) = 0.0;
-memcpy(&DYNX(W_,4159), &DymArrays71, sizeof(double)*4);
-DYNX(W_,4164) = true;
-DYNX(W_,4167) = 1;
-DYNX(W_,4168) = 0;
-memcpy(&DYNX(W_,4172), &DymArrays72, sizeof(double)*4);
+DYNX(W_,4065) = 3;
+DYNX(W_,4068) = false;
+DYNX(W_,4071) = 3;
+DYNX(W_,4083) = 0.3;
+DYNX(W_,4088) = 1;
+DYNX(W_,4089) = 0;
+memcpy(&DYNX(W_,4093), &DymArrays70, sizeof(double)*3);
+DYNX(W_,4097) = 1;
+DYNX(W_,4098) = false;
+DYNX(W_,4099) = true;
+DYNX(W_,4101) = 1.0;
+DYNX(W_,4102) = 0.3;
+DYNX(W_,4106) = false;
+DYNX(W_,4107) = 1;
+DYNX(W_,4112) = 0.0;
+DYNX(W_,4116) = 3;
+DYNX(W_,4117) = 0.0;
+memcpy(&DYNX(W_,4119), &DymArrays71, sizeof(double)*4);
+DYNX(W_,4124) = true;
+DYNX(W_,4127) = 1;
+DYNX(W_,4128) = 0;
+memcpy(&DYNX(W_,4132), &DymArrays72, sizeof(double)*4);
#endif
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/SGReady/EVU_Sperre_EON.txt",
23);
#if defined(DynSimStruct)
-DYNX(W_,4187) = false;
-DYNX(W_,4191) = true;
-DYNX(W_,4193) = 0;
-memcpy(&DYNX(W_,4197), &DymArrays73, sizeof(double)*4);
-DYNX(W_,4202) = 1;
+DYNX(W_,4147) = false;
+DYNX(W_,4151) = true;
+DYNX(W_,4153) = 0;
+memcpy(&DYNX(W_,4157), &DymArrays73, sizeof(double)*4);
+DYNX(W_,4162) = 1;
+DYNX(W_,4165) = true;
+DYNX(W_,4167) = 0;
+DYNX(W_,4171) = 323.15;
+DYNX(W_,4174) = 323.15;
+DYNX(W_,4176) = false;
+DYNX(W_,4193) = false;
+DYNX(W_,4195) = 0;
+DYNX(W_,4197) = 1;
+DYNX(W_,4199) = 0;
+DYNX(W_,4201) = 1;
+DYNX(W_,4202) = 0;
DYNX(W_,4205) = true;
-DYNX(W_,4207) = 0;
-DYNX(W_,4211) = 323.15;
-DYNX(W_,4214) = 323.15;
-DYNX(W_,4216) = false;
-DYNX(W_,4233) = false;
-DYNX(W_,4235) = 0;
-DYNX(W_,4237) = 1;
-DYNX(W_,4239) = 0;
-DYNX(W_,4241) = 1;
-DYNX(W_,4242) = 0;
-DYNX(W_,4245) = true;
-DYNX(W_,4251) = false;
+DYNX(W_,4211) = false;
#endif
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/SGReady/EVU_Sperre_EON.txt",
24);
#if defined(DynSimStruct)
-DYNX(W_,4264) = 2;
+DYNX(W_,4224) = 2;
#endif
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/SGReady/EVU_Sperre_EON.txt",
25);
#if defined(DynSimStruct)
-DYNX(W_,4275) = 2;
-DYNX(W_,4280) = false;
-DYNX(W_,4282) = 0;
-DYNX(W_,4286) = 0.0;
-DYNX(W_,4296) = 0.0;
-DYNX(W_,4307) = false;
-DYNX(W_,4309) = 0;
-DYNX(W_,4311) = 0;
-DYNX(W_,4317) = false;
-DYNX(W_,4319) = 0;
-memcpy(&DYNX(W_,4322), &DymArrays29, sizeof(double)*3);
-DYNX(W_,4329) = false;
-DYNX(W_,4333) = 995.586;
-DYNX(W_,4334) = 4184.0;
-DYNX(W_,5805) = 10;
-DYNX(W_,5807) = 0.317599972517237;
-DYNX(W_,5828) = 0.317599972517237;
-DYNX(W_,4373) = 0.317599972517237;
-DYNX(W_,4342) = 0.317599972517237;
-DYNX(W_,4347) = 262.65;
-memcpy(&DYNX(W_,4350), &DymArrays74, sizeof(double)*3);
-DYNX(W_,4354) = 0.0;
-DYNX(W_,4369) = 0.3379347183446045;
-DYNX(W_,4371) = 0.3379347183446045;
-DYNX(W_,4374) = 0.317599972517237;
-DYNX(W_,4378) = 0.0;
-DYNX(W_,5702) = 323.15;
-DYNX(W_,5703) = 294.15;
-DYNX(W_,5695) = 0.3379347183446045;
-DYNX(W_,5684) = 995.586;
-DYNX(W_,4394) = 0.1;
-DYNX(W_,4395) = 0.3379347183446045;
-memcpy(&DYNX(W_,4398), &DymArrays75, sizeof(double)*4);
-DYNX(W_,4403) = 1E-05;
-DYNX(W_,4404) = 3.379347183446045E-05;
-DYNX(W_,4416) = 323.15;
-DYNX(W_,4418) = false;
-DYNX(W_,4419) = false;
-DYNX(W_,4422) = 0.1;
-DYNX(W_,4424) = 1E-05;
-memcpy(&DYNX(W_,4427), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4432) = 323.15;
-DYNX(W_,4435) = 2;
-DYNX(W_,4437) = 2;
-DYNX(W_,4438) = 2;
-DYNX(W_,4440) = 323.15;
+DYNX(W_,4235) = 2;
+DYNX(W_,4240) = false;
+DYNX(W_,4242) = 0;
+DYNX(W_,4246) = 0.0;
+DYNX(W_,4256) = 0.0;
+DYNX(W_,4267) = false;
+DYNX(W_,4269) = 0;
+DYNX(W_,4271) = 0;
+DYNX(W_,4277) = false;
+DYNX(W_,4279) = 0;
+memcpy(&DYNX(W_,4282), &DymArrays29, sizeof(double)*3);
+DYNX(W_,4289) = false;
+DYNX(W_,4293) = 995.586;
+DYNX(W_,4294) = 4184.0;
+DYNX(W_,5765) = 10;
+DYNX(W_,5767) = 0.317599972517237;
+DYNX(W_,5788) = 0.317599972517237;
+DYNX(W_,4333) = 0.317599972517237;
+DYNX(W_,4302) = 0.317599972517237;
+DYNX(W_,4307) = 262.65;
+memcpy(&DYNX(W_,4310), &DymArrays74, sizeof(double)*3);
+DYNX(W_,4314) = 0.0;
+DYNX(W_,4329) = 0.3379347183446045;
+DYNX(W_,4331) = 0.3379347183446045;
+DYNX(W_,4334) = 0.317599972517237;
+DYNX(W_,4338) = 0.0;
+DYNX(W_,5662) = 323.15;
+DYNX(W_,5663) = 294.15;
+DYNX(W_,5655) = 0.3379347183446045;
+DYNX(W_,5644) = 995.586;
+DYNX(W_,4354) = 0.1;
+DYNX(W_,4355) = 0.3379347183446045;
+memcpy(&DYNX(W_,4358), &DymArrays75, sizeof(double)*4);
+DYNX(W_,4363) = 1E-05;
+DYNX(W_,4364) = 3.379347183446045E-05;
+DYNX(W_,4376) = 323.15;
+DYNX(W_,4378) = false;
+DYNX(W_,4379) = false;
+DYNX(W_,4382) = 0.1;
+DYNX(W_,4384) = 1E-05;
+memcpy(&DYNX(W_,4387), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4392) = 323.15;
+DYNX(W_,4395) = 2;
+DYNX(W_,4397) = 2;
+DYNX(W_,4398) = 2;
+DYNX(W_,4400) = 323.15;
+DYNX(W_,4402) = 1.0;
+DYNX(W_,4403) = false;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(10);
#if defined(DynSimStruct)
-DYNX(W_,4442) = 1.0;
-DYNX(W_,4443) = false;
-DYNX(W_,4444) = false;
-DYNX(W_,4450) = true;
-DYNX(W_,4466) = 995.586;
-DYNX(W_,4461) = 4184;
-DYNX(W_,4460) = 0.0;
-DYNX(W_,4462) = 995.586;
+DYNX(W_,4404) = false;
+DYNX(W_,4410) = true;
+DYNX(W_,4426) = 995.586;
+DYNX(W_,4421) = 4184;
+DYNX(W_,4420) = 0.0;
+DYNX(W_,4422) = 995.586;
+DYNX(W_,4423) = false;
+DYNX(W_,4424) = 300000.0;
+DYNX(W_,4425) = 293.15;
+DYNX(W_,4427) = 209200.0;
+DYNX(W_,4435) = 323.15;
+DYNX(W_,4437) = false;
+DYNX(W_,4438) = false;
+DYNX(W_,4441) = 0.1;
+DYNX(W_,4443) = 1E-05;
+memcpy(&DYNX(W_,4446), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4451) = 323.15;
+DYNX(W_,4454) = 2;
+DYNX(W_,4456) = 2;
+DYNX(W_,4457) = 2;
+DYNX(W_,4459) = 323.15;
+DYNX(W_,4461) = 1.0;
+DYNX(W_,4462) = false;
DYNX(W_,4463) = false;
-DYNX(W_,4464) = 300000.0;
-DYNX(W_,4465) = 293.15;
-DYNX(W_,4467) = 209200.0;
-DYNX(W_,4475) = 323.15;
-DYNX(W_,4477) = false;
-DYNX(W_,4478) = false;
-DYNX(W_,4481) = 0.1;
-DYNX(W_,4483) = 1E-05;
-memcpy(&DYNX(W_,4486), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4491) = 323.15;
-DYNX(W_,4494) = 2;
-DYNX(W_,4496) = 2;
-DYNX(W_,4497) = 2;
-DYNX(W_,4499) = 323.15;
-DYNX(W_,4501) = 1.0;
-DYNX(W_,4502) = false;
-DYNX(W_,4503) = false;
-DYNX(W_,4509) = true;
-DYNX(W_,4525) = 995.586;
-DYNX(W_,4520) = 4184;
-DYNX(W_,4519) = 0.0;
-DYNX(W_,4521) = 995.586;
+DYNX(W_,4469) = true;
+DYNX(W_,4485) = 995.586;
+DYNX(W_,4480) = 4184;
+DYNX(W_,4479) = 0.0;
+DYNX(W_,4481) = 995.586;
+DYNX(W_,4482) = false;
+DYNX(W_,4483) = 300000.0;
+DYNX(W_,4484) = 293.15;
+DYNX(W_,4486) = 209200.0;
+DYNX(W_,4494) = 323.15;
+DYNX(W_,4496) = false;
+DYNX(W_,4497) = false;
+DYNX(W_,4500) = 0.1;
+DYNX(W_,4502) = 1E-05;
+memcpy(&DYNX(W_,4505), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4510) = 323.15;
+DYNX(W_,4513) = 2;
+DYNX(W_,4515) = 2;
+DYNX(W_,4516) = 2;
+DYNX(W_,4518) = 323.15;
+DYNX(W_,4520) = 1.0;
+DYNX(W_,4521) = false;
DYNX(W_,4522) = false;
-DYNX(W_,4523) = 300000.0;
-DYNX(W_,4524) = 293.15;
-DYNX(W_,4526) = 209200.0;
-DYNX(W_,4534) = 323.15;
-DYNX(W_,4536) = false;
-DYNX(W_,4537) = false;
-DYNX(W_,4540) = 0.1;
-DYNX(W_,4542) = 1E-05;
-memcpy(&DYNX(W_,4545), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4550) = 323.15;
-DYNX(W_,4553) = 2;
-DYNX(W_,4555) = 2;
-DYNX(W_,4556) = 2;
-DYNX(W_,4558) = 323.15;
-DYNX(W_,4560) = 1.0;
-DYNX(W_,4561) = false;
-DYNX(W_,4562) = false;
-DYNX(W_,4568) = true;
-DYNX(W_,4584) = 995.586;
-DYNX(W_,4579) = 4184;
-DYNX(W_,4578) = 0.0;
-DYNX(W_,4580) = 995.586;
+DYNX(W_,4528) = true;
+DYNX(W_,4544) = 995.586;
+DYNX(W_,4539) = 4184;
+DYNX(W_,4538) = 0.0;
+DYNX(W_,4540) = 995.586;
+DYNX(W_,4541) = false;
+DYNX(W_,4542) = 300000.0;
+DYNX(W_,4543) = 293.15;
+DYNX(W_,4545) = 209200.0;
+DYNX(W_,4553) = 323.15;
+DYNX(W_,4555) = false;
+DYNX(W_,4556) = false;
+DYNX(W_,4559) = 0.1;
+DYNX(W_,4561) = 1E-05;
+memcpy(&DYNX(W_,4564), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4569) = 323.15;
+DYNX(W_,4572) = 2;
+DYNX(W_,4574) = 2;
+DYNX(W_,4575) = 2;
+DYNX(W_,4577) = 323.15;
+DYNX(W_,4579) = 1.0;
+DYNX(W_,4580) = false;
DYNX(W_,4581) = false;
-DYNX(W_,4582) = 300000.0;
-DYNX(W_,4583) = 293.15;
-DYNX(W_,4585) = 209200.0;
-DYNX(W_,4593) = 323.15;
-DYNX(W_,4595) = false;
-DYNX(W_,4596) = false;
-DYNX(W_,4599) = 0.1;
-DYNX(W_,4601) = 1E-05;
-memcpy(&DYNX(W_,4604), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4609) = 323.15;
-DYNX(W_,4612) = 2;
-DYNX(W_,4614) = 2;
-DYNX(W_,4615) = 2;
-DYNX(W_,4617) = 323.15;
-DYNX(W_,4619) = 1.0;
-DYNX(W_,4620) = false;
-DYNX(W_,4621) = false;
-DYNX(W_,4627) = true;
-DYNX(W_,4643) = 995.586;
-DYNX(W_,4638) = 4184;
-DYNX(W_,4637) = 0.0;
-DYNX(W_,4639) = 995.586;
+DYNX(W_,4587) = true;
+DYNX(W_,4603) = 995.586;
+DYNX(W_,4598) = 4184;
+DYNX(W_,4597) = 0.0;
+DYNX(W_,4599) = 995.586;
+DYNX(W_,4600) = false;
+DYNX(W_,4601) = 300000.0;
+DYNX(W_,4602) = 293.15;
+DYNX(W_,4604) = 209200.0;
+DYNX(W_,4612) = 323.15;
+DYNX(W_,4614) = false;
+DYNX(W_,4615) = false;
+DYNX(W_,4618) = 0.3379347183446045;
+DYNX(W_,4620) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,4623), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4628) = 323.15;
+DYNX(W_,4631) = 2;
+DYNX(W_,4633) = 2;
+DYNX(W_,4634) = 2;
+DYNX(W_,4636) = 323.15;
+DYNX(W_,4638) = 1.0;
+DYNX(W_,4639) = false;
DYNX(W_,4640) = false;
-DYNX(W_,4641) = 300000.0;
-DYNX(W_,4642) = 293.15;
-DYNX(W_,4644) = 209200.0;
-DYNX(W_,4652) = 323.15;
-DYNX(W_,4654) = false;
-DYNX(W_,4655) = false;
-DYNX(W_,4658) = 0.3379347183446045;
-DYNX(W_,4660) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,4663), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4668) = 323.15;
-DYNX(W_,4671) = 2;
-DYNX(W_,4673) = 2;
-DYNX(W_,4674) = 2;
-DYNX(W_,4676) = 323.15;
-DYNX(W_,4678) = 1.0;
-DYNX(W_,4679) = false;
-DYNX(W_,4680) = false;
-DYNX(W_,4686) = true;
-DYNX(W_,4702) = 995.586;
-DYNX(W_,4697) = 4184;
-DYNX(W_,4696) = 0.0;
-DYNX(W_,4698) = 995.586;
+DYNX(W_,4646) = true;
+DYNX(W_,4662) = 995.586;
+DYNX(W_,4657) = 4184;
+DYNX(W_,4656) = 0.0;
+DYNX(W_,4658) = 995.586;
+DYNX(W_,4659) = false;
+DYNX(W_,4660) = 300000.0;
+DYNX(W_,4661) = 293.15;
+DYNX(W_,4663) = 209200.0;
+DYNX(W_,4671) = 323.15;
+DYNX(W_,4673) = false;
+DYNX(W_,4674) = false;
+DYNX(W_,4677) = 0.3379347183446045;
+DYNX(W_,4679) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,4682), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4687) = 323.15;
+DYNX(W_,4690) = 2;
+DYNX(W_,4692) = 2;
+DYNX(W_,4693) = 2;
+DYNX(W_,4695) = 323.15;
+DYNX(W_,4697) = 1.0;
+DYNX(W_,4698) = false;
DYNX(W_,4699) = false;
-DYNX(W_,4700) = 300000.0;
-DYNX(W_,4701) = 293.15;
-DYNX(W_,4703) = 209200.0;
-DYNX(W_,4711) = 323.15;
-DYNX(W_,4713) = false;
-DYNX(W_,4714) = false;
-DYNX(W_,4717) = 0.3379347183446045;
-DYNX(W_,4719) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,4722), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4727) = 323.15;
-DYNX(W_,4730) = 2;
-DYNX(W_,4732) = 2;
-DYNX(W_,4733) = 2;
-DYNX(W_,4735) = 323.15;
-DYNX(W_,4737) = 1.0;
-DYNX(W_,4738) = false;
-DYNX(W_,4739) = false;
-DYNX(W_,4745) = true;
-DYNX(W_,4761) = 995.586;
-DYNX(W_,4756) = 4184;
-DYNX(W_,4755) = 0.0;
-DYNX(W_,4757) = 995.586;
+DYNX(W_,4705) = true;
+DYNX(W_,4721) = 995.586;
+DYNX(W_,4716) = 4184;
+DYNX(W_,4715) = 0.0;
+DYNX(W_,4717) = 995.586;
+DYNX(W_,4718) = false;
+DYNX(W_,4719) = 300000.0;
+DYNX(W_,4720) = 293.15;
+DYNX(W_,4722) = 209200.0;
+DYNX(W_,4730) = 323.15;
+DYNX(W_,4732) = false;
+DYNX(W_,4733) = false;
+DYNX(W_,4736) = 0.3379347183446045;
+DYNX(W_,4738) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,4741), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4746) = 323.15;
+DYNX(W_,4749) = 2;
+DYNX(W_,4751) = 2;
+DYNX(W_,4752) = 2;
+DYNX(W_,4754) = 323.15;
+DYNX(W_,4756) = 1.0;
+DYNX(W_,4757) = false;
DYNX(W_,4758) = false;
-DYNX(W_,4759) = 300000.0;
-DYNX(W_,4760) = 293.15;
-DYNX(W_,4762) = 209200.0;
-DYNX(W_,4770) = 323.15;
-DYNX(W_,4772) = false;
-DYNX(W_,4773) = false;
-DYNX(W_,4776) = 0.3379347183446045;
-DYNX(W_,4778) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,4781), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4786) = 323.15;
-DYNX(W_,4789) = 2;
-DYNX(W_,4791) = 2;
-DYNX(W_,4792) = 2;
-DYNX(W_,4794) = 323.15;
-DYNX(W_,4796) = 1.0;
-DYNX(W_,4797) = false;
-DYNX(W_,4798) = false;
-DYNX(W_,4804) = true;
-DYNX(W_,4820) = 995.586;
-DYNX(W_,4815) = 4184;
-DYNX(W_,4814) = 0.0;
-DYNX(W_,4816) = 995.586;
+DYNX(W_,4764) = true;
+DYNX(W_,4780) = 995.586;
+DYNX(W_,4775) = 4184;
+DYNX(W_,4774) = 0.0;
+DYNX(W_,4776) = 995.586;
+DYNX(W_,4777) = false;
+DYNX(W_,4778) = 300000.0;
+DYNX(W_,4779) = 293.15;
+DYNX(W_,4781) = 209200.0;
+DYNX(W_,4789) = 323.15;
+DYNX(W_,4791) = false;
+DYNX(W_,4792) = false;
+DYNX(W_,4795) = 0.3379347183446045;
+DYNX(W_,4797) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,4800), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4805) = 323.15;
+DYNX(W_,4808) = 2;
+DYNX(W_,4810) = 2;
+DYNX(W_,4811) = 2;
+DYNX(W_,4813) = 323.15;
+DYNX(W_,4815) = 1.0;
+DYNX(W_,4816) = false;
DYNX(W_,4817) = false;
-DYNX(W_,4818) = 300000.0;
-DYNX(W_,4819) = 293.15;
-DYNX(W_,4821) = 209200.0;
-DYNX(W_,4829) = 323.15;
-DYNX(W_,4831) = false;
-DYNX(W_,4832) = false;
-DYNX(W_,4835) = 0.3379347183446045;
-DYNX(W_,4837) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,4840), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4845) = 323.15;
-DYNX(W_,4848) = 2;
-DYNX(W_,4850) = 2;
-DYNX(W_,4851) = 2;
-DYNX(W_,4853) = 323.15;
-DYNX(W_,4855) = 1.0;
-DYNX(W_,4856) = false;
-DYNX(W_,4857) = false;
-DYNX(W_,4863) = true;
-DYNX(W_,4879) = 995.586;
-DYNX(W_,4874) = 4184;
-DYNX(W_,4873) = 0.0;
-DYNX(W_,4875) = 995.586;
-DYNX(W_,4876) = false;
-DYNX(W_,4877) = 300000.0;
-DYNX(W_,4878) = 293.15;
-DYNX(W_,4880) = 209200.0;
-DYNX(W_,4899) = 9.80665;
-DYNX(W_,4907) = 9.80665;
-DYNX(W_,4915) = 9.80665;
-DYNX(W_,5678) = 294.15;
-DYNX(W_,4919) = 294.15;
-DYNX(W_,5661) = 995.586;
-DYNX(W_,5662) = 4184.0;
-DYNX(W_,5677) = 328.15;
-DYNX(W_,5671) = 0.3379347183446045;
-DYNX(W_,5669) = 13288.382850121196;
-DYNX(W_,4933) = 0.317599972517237;
-DYNX(W_,4934) = 0.3379347183446045;
-DYNX(W_,4942) = 3.17599972517237E-05;
-DYNX(W_,4943) = 3.379347183446045E-05;
-DYNX(W_,4957) = false;
-DYNX(W_,4958) = false;
-DYNX(W_,4961) = 0.317599972517237;
-DYNX(W_,4963) = 3.17599972517237E-05;
-memcpy(&DYNX(W_,4966), &DymArrays54, sizeof(double)*4);
-DYNX(W_,4974) = 2;
-DYNX(W_,4976) = 2;
-DYNX(W_,4977) = 2;
-DYNX(W_,4981) = 1.0;
-DYNX(W_,4982) = false;
-DYNX(W_,4983) = false;
-DYNX(W_,4989) = true;
-DYNX(W_,5005) = 995.586;
-DYNX(W_,5000) = 4184;
-DYNX(W_,4999) = 0.0;
-DYNX(W_,5001) = 995.586;
+DYNX(W_,4823) = true;
+DYNX(W_,4839) = 995.586;
+DYNX(W_,4834) = 4184;
+DYNX(W_,4833) = 0.0;
+DYNX(W_,4835) = 995.586;
+DYNX(W_,4836) = false;
+DYNX(W_,4837) = 300000.0;
+DYNX(W_,4838) = 293.15;
+DYNX(W_,4840) = 209200.0;
+DYNX(W_,4859) = 9.80665;
+DYNX(W_,4867) = 9.80665;
+DYNX(W_,4875) = 9.80665;
+DYNX(W_,5638) = 294.15;
+DYNX(W_,4879) = 294.15;
+DYNX(W_,5621) = 995.586;
+DYNX(W_,5622) = 4184.0;
+DYNX(W_,5637) = 328.15;
+DYNX(W_,5631) = 0.3379347183446045;
+DYNX(W_,5629) = 13288.382850121196;
+DYNX(W_,4893) = 0.317599972517237;
+DYNX(W_,4894) = 0.3379347183446045;
+DYNX(W_,4902) = 3.17599972517237E-05;
+DYNX(W_,4903) = 3.379347183446045E-05;
+DYNX(W_,4917) = false;
+DYNX(W_,4918) = false;
+DYNX(W_,4921) = 0.317599972517237;
+DYNX(W_,4923) = 3.17599972517237E-05;
+memcpy(&DYNX(W_,4926), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4934) = 2;
+DYNX(W_,4936) = 2;
+DYNX(W_,4937) = 2;
+DYNX(W_,4941) = 1.0;
+DYNX(W_,4942) = false;
+DYNX(W_,4943) = false;
+DYNX(W_,4949) = true;
+DYNX(W_,4965) = 995.586;
+DYNX(W_,4960) = 4184;
+DYNX(W_,4959) = 0.0;
+DYNX(W_,4961) = 995.586;
+DYNX(W_,4962) = false;
+DYNX(W_,4963) = 300000.0;
+DYNX(W_,4964) = 293.15;
+DYNX(W_,4976) = false;
+DYNX(W_,4977) = false;
+DYNX(W_,4980) = 0.317599972517237;
+DYNX(W_,4982) = 3.17599972517237E-05;
+memcpy(&DYNX(W_,4985), &DymArrays54, sizeof(double)*4);
+DYNX(W_,4993) = 2;
+DYNX(W_,4995) = 2;
+DYNX(W_,4996) = 2;
+DYNX(W_,5000) = 1.0;
+DYNX(W_,5001) = false;
DYNX(W_,5002) = false;
-DYNX(W_,5003) = 300000.0;
-DYNX(W_,5004) = 293.15;
-DYNX(W_,5016) = false;
-DYNX(W_,5017) = false;
-DYNX(W_,5020) = 0.317599972517237;
-DYNX(W_,5022) = 3.17599972517237E-05;
-memcpy(&DYNX(W_,5025), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5033) = 2;
-DYNX(W_,5035) = 2;
-DYNX(W_,5036) = 2;
-DYNX(W_,5040) = 1.0;
-DYNX(W_,5041) = false;
-DYNX(W_,5042) = false;
-DYNX(W_,5048) = true;
-DYNX(W_,5064) = 995.586;
-DYNX(W_,5059) = 4184;
-DYNX(W_,5058) = 0.0;
-DYNX(W_,5060) = 995.586;
+DYNX(W_,5008) = true;
+DYNX(W_,5024) = 995.586;
+DYNX(W_,5019) = 4184;
+DYNX(W_,5018) = 0.0;
+DYNX(W_,5020) = 995.586;
+DYNX(W_,5021) = false;
+DYNX(W_,5022) = 300000.0;
+DYNX(W_,5023) = 293.15;
+DYNX(W_,5035) = false;
+DYNX(W_,5036) = false;
+DYNX(W_,5039) = 0.317599972517237;
+DYNX(W_,5041) = 3.17599972517237E-05;
+memcpy(&DYNX(W_,5044), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5052) = 2;
+DYNX(W_,5054) = 2;
+DYNX(W_,5055) = 2;
+DYNX(W_,5059) = 1.0;
+DYNX(W_,5060) = false;
DYNX(W_,5061) = false;
-DYNX(W_,5062) = 300000.0;
-DYNX(W_,5063) = 293.15;
-DYNX(W_,5075) = false;
-DYNX(W_,5076) = false;
-DYNX(W_,5079) = 0.317599972517237;
-DYNX(W_,5081) = 3.17599972517237E-05;
-memcpy(&DYNX(W_,5084), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5092) = 2;
-DYNX(W_,5094) = 2;
-DYNX(W_,5095) = 2;
-DYNX(W_,5099) = 1.0;
-DYNX(W_,5100) = false;
-DYNX(W_,5101) = false;
-DYNX(W_,5107) = true;
-DYNX(W_,5123) = 995.586;
-DYNX(W_,5118) = 4184;
-DYNX(W_,5117) = 0.0;
-DYNX(W_,5119) = 995.586;
-DYNX(W_,5120) = false;
-DYNX(W_,5121) = 300000.0;
-DYNX(W_,5122) = 293.15;
-DYNX(W_,5134) = false;
-DYNX(W_,5135) = false;
-DYNX(W_,5138) = 0.317599972517237;
-DYNX(W_,5140) = 3.17599972517237E-05;
-memcpy(&DYNX(W_,5143), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5151) = 2;
+DYNX(W_,5067) = true;
+DYNX(W_,5083) = 995.586;
+DYNX(W_,5078) = 4184;
+DYNX(W_,5077) = 0.0;
+DYNX(W_,5079) = 995.586;
+DYNX(W_,5080) = false;
+DYNX(W_,5081) = 300000.0;
+DYNX(W_,5082) = 293.15;
+DYNX(W_,5094) = false;
+DYNX(W_,5095) = false;
+DYNX(W_,5098) = 0.317599972517237;
+DYNX(W_,5100) = 3.17599972517237E-05;
+memcpy(&DYNX(W_,5103), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5111) = 2;
+DYNX(W_,5113) = 2;
+DYNX(W_,5114) = 2;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(11);
#if defined(DynSimStruct)
-DYNX(W_,5153) = 2;
-DYNX(W_,5154) = 2;
-DYNX(W_,5158) = 1.0;
-DYNX(W_,5159) = false;
-DYNX(W_,5160) = false;
-DYNX(W_,5166) = true;
-DYNX(W_,5182) = 995.586;
-DYNX(W_,5177) = 4184;
-DYNX(W_,5176) = 0.0;
-DYNX(W_,5178) = 995.586;
+DYNX(W_,5118) = 1.0;
+DYNX(W_,5119) = false;
+DYNX(W_,5120) = false;
+DYNX(W_,5126) = true;
+DYNX(W_,5142) = 995.586;
+DYNX(W_,5137) = 4184;
+DYNX(W_,5136) = 0.0;
+DYNX(W_,5138) = 995.586;
+DYNX(W_,5139) = false;
+DYNX(W_,5140) = 300000.0;
+DYNX(W_,5141) = 293.15;
+DYNX(W_,5153) = false;
+DYNX(W_,5154) = false;
+DYNX(W_,5157) = 0.3379347183446045;
+DYNX(W_,5159) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,5162), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5170) = 2;
+DYNX(W_,5172) = 2;
+DYNX(W_,5173) = 2;
+DYNX(W_,5177) = 1.0;
+DYNX(W_,5178) = false;
DYNX(W_,5179) = false;
-DYNX(W_,5180) = 300000.0;
-DYNX(W_,5181) = 293.15;
-DYNX(W_,5193) = false;
-DYNX(W_,5194) = false;
-DYNX(W_,5197) = 0.3379347183446045;
-DYNX(W_,5199) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,5202), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5210) = 2;
-DYNX(W_,5212) = 2;
-DYNX(W_,5213) = 2;
-DYNX(W_,5217) = 1.0;
-DYNX(W_,5218) = false;
-DYNX(W_,5219) = false;
-DYNX(W_,5225) = true;
-DYNX(W_,5241) = 995.586;
-DYNX(W_,5236) = 4184;
-DYNX(W_,5235) = 0.0;
-DYNX(W_,5237) = 995.586;
+DYNX(W_,5185) = true;
+DYNX(W_,5201) = 995.586;
+DYNX(W_,5196) = 4184;
+DYNX(W_,5195) = 0.0;
+DYNX(W_,5197) = 995.586;
+DYNX(W_,5198) = false;
+DYNX(W_,5199) = 300000.0;
+DYNX(W_,5200) = 293.15;
+DYNX(W_,5212) = false;
+DYNX(W_,5213) = false;
+DYNX(W_,5216) = 0.3379347183446045;
+DYNX(W_,5218) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,5221), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5229) = 2;
+DYNX(W_,5231) = 2;
+DYNX(W_,5232) = 2;
+DYNX(W_,5236) = 1.0;
+DYNX(W_,5237) = false;
DYNX(W_,5238) = false;
-DYNX(W_,5239) = 300000.0;
-DYNX(W_,5240) = 293.15;
-DYNX(W_,5252) = false;
-DYNX(W_,5253) = false;
-DYNX(W_,5256) = 0.3379347183446045;
-DYNX(W_,5258) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,5261), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5269) = 2;
-DYNX(W_,5271) = 2;
-DYNX(W_,5272) = 2;
-DYNX(W_,5276) = 1.0;
-DYNX(W_,5277) = false;
-DYNX(W_,5278) = false;
-DYNX(W_,5284) = true;
-DYNX(W_,5300) = 995.586;
-DYNX(W_,5295) = 4184;
-DYNX(W_,5294) = 0.0;
-DYNX(W_,5296) = 995.586;
+DYNX(W_,5244) = true;
+DYNX(W_,5260) = 995.586;
+DYNX(W_,5255) = 4184;
+DYNX(W_,5254) = 0.0;
+DYNX(W_,5256) = 995.586;
+DYNX(W_,5257) = false;
+DYNX(W_,5258) = 300000.0;
+DYNX(W_,5259) = 293.15;
+DYNX(W_,5271) = false;
+DYNX(W_,5272) = false;
+DYNX(W_,5275) = 0.3379347183446045;
+DYNX(W_,5277) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,5280), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5288) = 2;
+DYNX(W_,5290) = 2;
+DYNX(W_,5291) = 2;
+DYNX(W_,5295) = 1.0;
+DYNX(W_,5296) = false;
DYNX(W_,5297) = false;
-DYNX(W_,5298) = 300000.0;
-DYNX(W_,5299) = 293.15;
-DYNX(W_,5311) = false;
-DYNX(W_,5312) = false;
-DYNX(W_,5315) = 0.3379347183446045;
-DYNX(W_,5317) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,5320), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5328) = 2;
-DYNX(W_,5330) = 2;
-DYNX(W_,5331) = 2;
-DYNX(W_,5335) = 1.0;
-DYNX(W_,5336) = false;
-DYNX(W_,5337) = false;
-DYNX(W_,5343) = true;
-DYNX(W_,5359) = 995.586;
-DYNX(W_,5354) = 4184;
-DYNX(W_,5353) = 0.0;
-DYNX(W_,5355) = 995.586;
+DYNX(W_,5303) = true;
+DYNX(W_,5319) = 995.586;
+DYNX(W_,5314) = 4184;
+DYNX(W_,5313) = 0.0;
+DYNX(W_,5315) = 995.586;
+DYNX(W_,5316) = false;
+DYNX(W_,5317) = 300000.0;
+DYNX(W_,5318) = 293.15;
+DYNX(W_,5330) = false;
+DYNX(W_,5331) = false;
+DYNX(W_,5334) = 0.3379347183446045;
+DYNX(W_,5336) = 3.379347183446045E-05;
+memcpy(&DYNX(W_,5339), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5347) = 2;
+DYNX(W_,5349) = 2;
+DYNX(W_,5350) = 2;
+DYNX(W_,5354) = 1.0;
+DYNX(W_,5355) = false;
DYNX(W_,5356) = false;
-DYNX(W_,5357) = 300000.0;
-DYNX(W_,5358) = 293.15;
-DYNX(W_,5370) = false;
-DYNX(W_,5371) = false;
-DYNX(W_,5374) = 0.3379347183446045;
-DYNX(W_,5376) = 3.379347183446045E-05;
-memcpy(&DYNX(W_,5379), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5387) = 2;
-DYNX(W_,5389) = 2;
-DYNX(W_,5390) = 2;
-DYNX(W_,5394) = 1.0;
-DYNX(W_,5395) = false;
-DYNX(W_,5396) = false;
-DYNX(W_,5402) = true;
-DYNX(W_,5418) = 995.586;
-DYNX(W_,5413) = 4184;
-DYNX(W_,5412) = 0.0;
-DYNX(W_,5414) = 995.586;
-DYNX(W_,5415) = false;
-DYNX(W_,5416) = 300000.0;
-DYNX(W_,5417) = 293.15;
-DYNX(W_,5438) = 9.80665;
-DYNX(W_,5446) = 9.80665;
-DYNX(W_,5454) = 9.80665;
-memcpy(&DYNX(W_,5459), &DymArrays29, sizeof(double)*3);
-DYNX(W_,5466) = false;
-DYNX(W_,5726) = 0.3379347183446045;
-memcpy(&DYNX(W_,5467), &DymArrays76, sizeof(double)*4);
-DYNX(W_,5730) = 0.0;
-DYNX(W_,5471) = 0.0;
-DYNX(W_,5731) = 0.0;
-DYNX(W_,5472) = 0.0;
-DYNX(W_,5732) = 1;
-DYNX(W_,5478) = 1.0;
-DYNX(W_,5479) = 0.5;
-memcpy(&DYNX(W_,5488), &DymArrays29, sizeof(double)*3);
-DYNX(W_,5493) = 1;
-DYNX(W_,5494) = false;
-DYNX(W_,5578) = 0.3379347183446045;
-DYNX(W_,5496) = 0.3379347183446045;
-DYNX(W_,5497) = true;
-DYNX(W_,5501) = false;
+DYNX(W_,5362) = true;
+DYNX(W_,5378) = 995.586;
+DYNX(W_,5373) = 4184;
+DYNX(W_,5372) = 0.0;
+DYNX(W_,5374) = 995.586;
+DYNX(W_,5375) = false;
+DYNX(W_,5376) = 300000.0;
+DYNX(W_,5377) = 293.15;
+DYNX(W_,5398) = 9.80665;
+DYNX(W_,5406) = 9.80665;
+DYNX(W_,5414) = 9.80665;
+memcpy(&DYNX(W_,5419), &DymArrays29, sizeof(double)*3);
+DYNX(W_,5426) = false;
+DYNX(W_,5686) = 0.3379347183446045;
+memcpy(&DYNX(W_,5427), &DymArrays76, sizeof(double)*4);
+DYNX(W_,5690) = 0.0;
+DYNX(W_,5431) = 0.0;
+DYNX(W_,5691) = 0.0;
+DYNX(W_,5432) = 0.0;
+DYNX(W_,5692) = 1;
+DYNX(W_,5438) = 1.0;
+DYNX(W_,5439) = 0.5;
+memcpy(&DYNX(W_,5448), &DymArrays29, sizeof(double)*3);
+DYNX(W_,5453) = 1;
+DYNX(W_,5454) = false;
+DYNX(W_,5538) = 0.3379347183446045;
+DYNX(W_,5456) = 0.3379347183446045;
+DYNX(W_,5457) = true;
+DYNX(W_,5461) = false;
+DYNX(W_,5462) = 3.379347183446045E-05;
+DYNX(W_,5464) = 0.3379347183446045;
+DYNX(W_,5465) = 3.379347183446045E-05;
+DYNX(W_,5467) = 0;
+DYNX(W_,5468) = 0;
+DYNX(W_,5470) = true;
+DYNX(W_,5539) = 1000.0;
+DYNX(W_,5482) = 1000.0;
+DYNX(W_,5542) = 0.0;
+DYNX(W_,5487) = 0.0;
+DYNX(W_,5471) = 1000.0;
+DYNX(W_,5547) = false;
+DYNX(W_,5472) = false;
+memcpy(&DYNX(W_,5474), &DymArrays77, sizeof(double)*3);
+DYNX(W_,5489) = 0;
+DYNX(W_,5493) = 0.3379347183446045;
+DYNX(W_,5494) = 3.379347183446045E-05;
+DYNX(W_,5497) = 0;
+DYNX(W_,5498) = 0;
+DYNX(W_,5499) = true;
+DYNX(W_,5501) = 0.3379347183446045;
DYNX(W_,5502) = 3.379347183446045E-05;
-DYNX(W_,5504) = 0.3379347183446045;
-DYNX(W_,5505) = 3.379347183446045E-05;
-DYNX(W_,5507) = 0;
-DYNX(W_,5508) = 0;
-DYNX(W_,5510) = true;
-DYNX(W_,5579) = 1000.0;
-DYNX(W_,5522) = 1000.0;
-DYNX(W_,5582) = 0.0;
-DYNX(W_,5527) = 0.0;
-DYNX(W_,5511) = 1000.0;
-DYNX(W_,5587) = false;
-DYNX(W_,5512) = false;
-memcpy(&DYNX(W_,5514), &DymArrays77, sizeof(double)*3);
-DYNX(W_,5529) = 0;
-DYNX(W_,5533) = 0.3379347183446045;
-DYNX(W_,5534) = 3.379347183446045E-05;
-DYNX(W_,5537) = 0;
-DYNX(W_,5538) = 0;
-DYNX(W_,5539) = true;
-DYNX(W_,5541) = 0.3379347183446045;
-DYNX(W_,5542) = 3.379347183446045E-05;
-DYNX(W_,5544) = 0;
-DYNX(W_,5545) = 0;
-DYNX(W_,5547) = true;
-DYNX(W_,5584) = 1.0;
-DYNX(W_,5559) = 1000.0;
-DYNX(W_,5583) = 0.0;
-DYNX(W_,5564) = 0.0;
-DYNX(W_,5548) = 1000.0;
-DYNX(W_,5588) = false;
-DYNX(W_,5549) = false;
-memcpy(&DYNX(W_,5551), &DymArrays77, sizeof(double)*3);
-DYNX(W_,5566) = 0;
-DYNX(W_,5590) = 1;
-DYNX(W_,5596) = 2;
-DYNX(W_,5597) = 2;
-DYNX(W_,5601) = 1;
-DYNX(W_,5602) = false;
-DYNX(W_,5603) = false;
-DYNX(W_,5606) = 0.3379347183446045;
-DYNX(W_,5608) = 3.379347183446045E-05;
-DYNX(W_,5609) = true;
-DYNX(W_,5614) = 995.586;
-memcpy(&DYNX(W_,5611), &DymArrays40, sizeof(double)*3);
-DYNX(W_,5626) = 2;
-DYNX(W_,5628) = 2;
-DYNX(W_,5629) = 2;
-DYNX(W_,5633) = 1.0;
-DYNX(W_,5634) = false;
-DYNX(W_,5635) = false;
-DYNX(W_,5642) = true;
-DYNX(W_,5657) = 995.586;
-DYNX(W_,5652) = 4184;
-DYNX(W_,5651) = 0.0;
-DYNX(W_,5653) = 995.586;
-DYNX(W_,5654) = false;
-DYNX(W_,5655) = 300000.0;
-DYNX(W_,5656) = 293.15;
-DYNX(W_,5668) = true;
-memcpy(&DYNX(W_,5685), &DymArrays78, sizeof(double)*3);
-DYNX(W_,5692) = true;
-DYNX(W_,5710) = 294.15;
-DYNX(W_,5715) = 3;
-DYNX(W_,5721) = 3;
-DYNX(W_,5736) = 0.3379347183446045;
-DYNX(W_,5737) = 3.379347183446045E-05;
-DYNX(W_,5739) = 0;
-DYNX(W_,5740) = 0;
-DYNX(W_,5742) = false;
-DYNX(W_,5744) = false;
-DYNX(W_,5751) = true;
-DYNX(W_,5749) = 0.3;
-DYNX(W_,5747) = 0.3379347183446045;
-DYNX(W_,5745) = 0.10138041550338134;
-DYNX(W_,5746) = 0.001;
-DYNX(W_,5750) = 0.010686434104164361;
-DYNX(W_,5752) = 0;
-DYNX(W_,5754) = 0.3379347183446045;
-DYNX(W_,5755) = 3.379347183446045E-05;
-DYNX(W_,5757) = 0;
-DYNX(W_,5758) = 0;
-DYNX(W_,5760) = false;
-DYNX(W_,5762) = false;
-DYNX(W_,5769) = true;
-DYNX(W_,5767) = 0.3;
-DYNX(W_,5765) = 0.3379347183446045;
-DYNX(W_,5763) = 0.10138041550338134;
-DYNX(W_,5764) = 0.001;
-DYNX(W_,5768) = 0.010686434104164361;
-DYNX(W_,5770) = 0;
-memcpy(&DYNX(W_,5787), &DymArrays29, sizeof(double)*3);
-DYNX(W_,5794) = false;
-DYNX(W_,5798) = 995.586;
-DYNX(W_,5799) = 4184.0;
-DYNX(W_,5814) = 262.65;
-DYNX(W_,5816) = 294.15;
-DYNX(W_,5817) = 294.15;
-DYNX(W_,5838) = false;
+DYNX(W_,5504) = 0;
+DYNX(W_,5505) = 0;
+DYNX(W_,5507) = true;
+DYNX(W_,5544) = 1.0;
+DYNX(W_,5519) = 1000.0;
+DYNX(W_,5543) = 0.0;
+DYNX(W_,5524) = 0.0;
+DYNX(W_,5508) = 1000.0;
+DYNX(W_,5548) = false;
+DYNX(W_,5509) = false;
+memcpy(&DYNX(W_,5511), &DymArrays77, sizeof(double)*3);
+DYNX(W_,5526) = 0;
+DYNX(W_,5550) = 1;
+DYNX(W_,5556) = 2;
+DYNX(W_,5557) = 2;
+DYNX(W_,5561) = 1;
+DYNX(W_,5562) = false;
+DYNX(W_,5563) = false;
+DYNX(W_,5566) = 0.3379347183446045;
+DYNX(W_,5568) = 3.379347183446045E-05;
+DYNX(W_,5569) = true;
+DYNX(W_,5574) = 995.586;
+memcpy(&DYNX(W_,5571), &DymArrays40, sizeof(double)*3);
+DYNX(W_,5586) = 2;
+DYNX(W_,5588) = 2;
+DYNX(W_,5589) = 2;
+DYNX(W_,5593) = 1.0;
+DYNX(W_,5594) = false;
+DYNX(W_,5595) = false;
+DYNX(W_,5602) = true;
+DYNX(W_,5617) = 995.586;
+DYNX(W_,5612) = 4184;
+DYNX(W_,5611) = 0.0;
+DYNX(W_,5613) = 995.586;
+DYNX(W_,5614) = false;
+DYNX(W_,5615) = 300000.0;
+DYNX(W_,5616) = 293.15;
+DYNX(W_,5628) = true;
+memcpy(&DYNX(W_,5645), &DymArrays78, sizeof(double)*3);
+DYNX(W_,5652) = true;
+DYNX(W_,5670) = 294.15;
+DYNX(W_,5675) = 3;
+DYNX(W_,5681) = 3;
+DYNX(W_,5696) = 0.3379347183446045;
+DYNX(W_,5697) = 3.379347183446045E-05;
+DYNX(W_,5699) = 0;
+DYNX(W_,5700) = 0;
+DYNX(W_,5702) = false;
+DYNX(W_,5704) = false;
+DYNX(W_,5711) = true;
+DYNX(W_,5709) = 0.3;
+DYNX(W_,5707) = 0.3379347183446045;
+DYNX(W_,5705) = 0.10138041550338134;
+DYNX(W_,5706) = 0.001;
+DYNX(W_,5710) = 0.010686434104164361;
+DYNX(W_,5712) = 0;
+DYNX(W_,5714) = 0.3379347183446045;
+DYNX(W_,5715) = 3.379347183446045E-05;
+DYNX(W_,5717) = 0;
+DYNX(W_,5718) = 0;
+DYNX(W_,5720) = false;
+DYNX(W_,5722) = false;
+DYNX(W_,5729) = true;
+DYNX(W_,5727) = 0.3;
+DYNX(W_,5725) = 0.3379347183446045;
+DYNX(W_,5723) = 0.10138041550338134;
+DYNX(W_,5724) = 0.001;
+DYNX(W_,5728) = 0.010686434104164361;
+DYNX(W_,5730) = 0;
+memcpy(&DYNX(W_,5747), &DymArrays29, sizeof(double)*3);
+DYNX(W_,5754) = false;
+DYNX(W_,5758) = 995.586;
+DYNX(W_,5759) = 4184.0;
+DYNX(W_,5774) = 262.65;
+DYNX(W_,5776) = 294.15;
+DYNX(W_,5777) = 294.15;
+DYNX(W_,5798) = false;
+DYNX(W_,5778) = 13288.382850121196;
+DYNX(W_,5779) = 0.317599972517237;
+DYNX(W_,5781) = 16854.05160830339;
+memcpy(&DYNX(W_,5790), &DymArrays79, sizeof(double)*3);
+DYNX(W_,5800) = 0.317599972517237;
+DYNX(W_,5801) = 3.17599972517237E-05;
+DYNX(W_,5804) = 0;
+DYNX(W_,5805) = 0;
+memcpy(&DYNX(W_,5807), &DymArrays29, sizeof(double)*3);
+DYNX(W_,5812) = 1;
DYNX(W_,5818) = 13288.382850121196;
-DYNX(W_,5819) = 0.317599972517237;
-DYNX(W_,5821) = 16854.05160830339;
-memcpy(&DYNX(W_,5830), &DymArrays79, sizeof(double)*3);
-DYNX(W_,5840) = 0.317599972517237;
-DYNX(W_,5841) = 3.17599972517237E-05;
-DYNX(W_,5844) = 0;
-DYNX(W_,5845) = 0;
-memcpy(&DYNX(W_,5847), &DymArrays29, sizeof(double)*3);
+DYNX(W_,5825) = 349.48446895818745;
+DYNX(W_,5824) = 0.07707262053070293;
+DYNX(W_,5830) = 4184;
+DYNX(W_,5813) = 1.5442861740360443;
+DYNX(W_,5814) = false;
+memcpy(&DYNX(W_,5819), &DymArrays80, sizeof(double)*4);
+DYNX(W_,5826) = 0.3;
+DYNX(W_,5827) = false;
+DYNX(W_,5829) = false;
DYNX(W_,5852) = 1;
-DYNX(W_,5858) = 13288.382850121196;
-DYNX(W_,5865) = 349.48446895818745;
-DYNX(W_,5864) = 0.07707262053070293;
-DYNX(W_,5870) = 4184;
-DYNX(W_,5853) = 1.5442861740360443;
-DYNX(W_,5854) = false;
-memcpy(&DYNX(W_,5859), &DymArrays80, sizeof(double)*4);
-DYNX(W_,5866) = 0.3;
-DYNX(W_,5867) = false;
-DYNX(W_,5869) = false;
-DYNX(W_,5892) = 1;
-DYNX(W_,5893) = 0;
-memcpy(&DYNX(W_,5895), &DymArrays81, sizeof(double)*5);
-memcpy(&DYNX(W_,5901), &DymArrays82, sizeof(double)*6);
-DYNX(W_,5908) = 0.317599972517237;
-DYNX(W_,5909) = 3.17599972517237E-05;
-DYNX(W_,5912) = 0;
-DYNX(W_,5913) = 0;
-DYNX(W_,5915) = false;
-DYNX(W_,5917) = false;
-DYNX(W_,5924) = false;
-DYNX(W_,5922) = 0.3;
-DYNX(W_,5920) = 0.317599972517237;
-DYNX(W_,5918) = 0;
-DYNX(W_,5919) = 0.001;
-DYNX(W_,5923) = 0;
-DYNX(W_,5925) = 0;
-DYNX(W_,5932) = 1.0;
-DYNX(W_,5933) = 1.5442861740360443;
-DYNX(W_,5934) = false;
-DYNX(W_,5935) = false;
+DYNX(W_,5853) = 0;
+memcpy(&DYNX(W_,5855), &DymArrays81, sizeof(double)*5);
+memcpy(&DYNX(W_,5861), &DymArrays82, sizeof(double)*6);
+DYNX(W_,5868) = 0.317599972517237;
+DYNX(W_,5869) = 3.17599972517237E-05;
+DYNX(W_,5872) = 0;
+DYNX(W_,5873) = 0;
+DYNX(W_,5875) = false;
+DYNX(W_,5877) = false;
+DYNX(W_,5884) = false;
+DYNX(W_,5882) = 0.3;
+DYNX(W_,5880) = 0.317599972517237;
+DYNX(W_,5878) = 0;
+DYNX(W_,5879) = 0.001;
+DYNX(W_,5883) = 0;
+DYNX(W_,5885) = 0;
+DYNX(W_,5892) = 1.0;
+DYNX(W_,5893) = 1.5442861740360443;
+DYNX(W_,5894) = false;
+DYNX(W_,5895) = false;
+DYNX(W_,5898) = 0.317599972517237;
+DYNX(W_,5900) = 3.17599972517237E-05;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(12);
#if defined(DynSimStruct)
-DYNX(W_,5938) = 0.317599972517237;
-DYNX(W_,5940) = 3.17599972517237E-05;
-DYNX(W_,5942) = 0.015414524106140588;
-memcpy(&DYNX(W_,5944), &DymArrays54, sizeof(double)*4);
-DYNX(W_,5952) = 2;
-DYNX(W_,5954) = 2;
-DYNX(W_,5955) = 2;
-DYNX(W_,5958) = 1.0;
-DYNX(W_,5959) = 1.5442861740360443;
-DYNX(W_,5960) = false;
-DYNX(W_,5961) = false;
-DYNX(W_,5968) = true;
-DYNX(W_,5977) = 0.015414524106140588;
-DYNX(W_,5984) = 995.586;
-DYNX(W_,5979) = 4184;
-DYNX(W_,5978) = 34948.44689581876;
-DYNX(W_,5980) = 995.586;
-DYNX(W_,5981) = true;
-DYNX(W_,5982) = 300000.0;
-DYNX(W_,5983) = 293.15;
-DYNX(W_,5994) = 1.0;
-DYNX(W_,5995) = 1.5442861740360443;
-DYNX(W_,5996) = false;
-DYNX(W_,5997) = false;
-DYNX(W_,6000) = 0.317599972517237;
-DYNX(W_,6002) = 3.17599972517237E-05;
-DYNX(W_,6004) = 0.015414524106140588;
-memcpy(&DYNX(W_,6006), &DymArrays54, sizeof(double)*4);
-DYNX(W_,6014) = 2;
-DYNX(W_,6016) = 2;
-DYNX(W_,6017) = 2;
-DYNX(W_,6020) = 1.0;
-DYNX(W_,6021) = 1.5442861740360443;
-DYNX(W_,6022) = false;
-DYNX(W_,6023) = false;
-DYNX(W_,6030) = true;
-DYNX(W_,6039) = 0.015414524106140588;
-DYNX(W_,6046) = 995.586;
-DYNX(W_,6041) = 4184;
-DYNX(W_,6040) = 34948.44689581876;
-DYNX(W_,6042) = 995.586;
-DYNX(W_,6043) = true;
-DYNX(W_,6044) = 300000.0;
-DYNX(W_,6045) = 293.15;
-DYNX(W_,6056) = 1.0;
-DYNX(W_,6057) = 1.5442861740360443;
-DYNX(W_,6058) = false;
-DYNX(W_,6059) = false;
-DYNX(W_,6062) = 0.317599972517237;
-DYNX(W_,6064) = 3.17599972517237E-05;
-DYNX(W_,6066) = 0.015414524106140588;
-memcpy(&DYNX(W_,6068), &DymArrays54, sizeof(double)*4);
-DYNX(W_,6076) = 2;
-DYNX(W_,6078) = 2;
-DYNX(W_,6079) = 2;
-DYNX(W_,6082) = 1.0;
-DYNX(W_,6083) = 1.5442861740360443;
-DYNX(W_,6084) = false;
-DYNX(W_,6085) = false;
-DYNX(W_,6092) = true;
-DYNX(W_,6101) = 0.015414524106140588;
-DYNX(W_,6108) = 995.586;
-DYNX(W_,6103) = 4184;
-DYNX(W_,6102) = 34948.44689581876;
-DYNX(W_,6104) = 995.586;
-DYNX(W_,6105) = true;
-DYNX(W_,6106) = 300000.0;
-DYNX(W_,6107) = 293.15;
-DYNX(W_,6118) = 1.0;
-DYNX(W_,6119) = 1.5442861740360443;
-DYNX(W_,6120) = false;
-DYNX(W_,6121) = false;
-DYNX(W_,6124) = 0.317599972517237;
-DYNX(W_,6126) = 3.17599972517237E-05;
-DYNX(W_,6128) = 0.015414524106140588;
-memcpy(&DYNX(W_,6130), &DymArrays54, sizeof(double)*4);
-DYNX(W_,6138) = 2;
-DYNX(W_,6140) = 2;
-DYNX(W_,6141) = 2;
-DYNX(W_,6144) = 1.0;
-DYNX(W_,6145) = 1.5442861740360443;
-DYNX(W_,6146) = false;
-DYNX(W_,6147) = false;
-DYNX(W_,6154) = true;
-DYNX(W_,6163) = 0.015414524106140588;
-DYNX(W_,6170) = 995.586;
-DYNX(W_,6165) = 4184;
-DYNX(W_,6164) = 34948.44689581876;
-DYNX(W_,6166) = 995.586;
-DYNX(W_,6167) = true;
-DYNX(W_,6168) = 300000.0;
-DYNX(W_,6169) = 293.15;
-DYNX(W_,6180) = 1.0;
-DYNX(W_,6181) = 1.5442861740360443;
-DYNX(W_,6182) = false;
-DYNX(W_,6183) = false;
-DYNX(W_,6186) = 0.317599972517237;
-DYNX(W_,6188) = 3.17599972517237E-05;
-DYNX(W_,6190) = 0.015414524106140588;
-memcpy(&DYNX(W_,6192), &DymArrays54, sizeof(double)*4);
-DYNX(W_,6200) = 2;
-DYNX(W_,6202) = 2;
-DYNX(W_,6203) = 2;
-DYNX(W_,6206) = 1.0;
-DYNX(W_,6207) = 1.5442861740360443;
-DYNX(W_,6208) = false;
-DYNX(W_,6209) = false;
-DYNX(W_,6216) = true;
-DYNX(W_,6225) = 0.015414524106140588;
-DYNX(W_,6232) = 995.586;
-DYNX(W_,6227) = 4184;
-DYNX(W_,6226) = 34948.44689581876;
-DYNX(W_,6228) = 995.586;
-DYNX(W_,6229) = true;
-DYNX(W_,6230) = 300000.0;
-DYNX(W_,6231) = 293.15;
-memcpy(&DYNX(W_,6236), &DymArrays44, sizeof(double)*10);
-DYNX(W_,6247) = 0.317599972517237;
-DYNX(W_,6248) = 3.17599972517237E-05;
-DYNX(W_,6250) = 0;
-DYNX(W_,6251) = 0;
-DYNX(W_,6253) = false;
-DYNX(W_,6255) = false;
-DYNX(W_,6262) = true;
-DYNX(W_,6260) = 0.3;
-DYNX(W_,6258) = 0.317599972517237;
-DYNX(W_,6256) = 0.09527999175517109;
-DYNX(W_,6257) = 0.001;
-DYNX(W_,6261) = 0.002503975005737425;
-DYNX(W_,6263) = 0;
-DYNX(W_,6264) = 0.317599972517237;
-DYNX(W_,6269) = 3;
-memcpy(&DYNX(W_,6273), &DymArrays29, sizeof(double)*3);
-DYNX(W_,6279) = 1;
-DYNX(W_,6280) = false;
-DYNX(W_,6282) = 0.0;
-DYNX(W_,6615) = 0.317599972517237;
-DYNX(W_,6342) = 995.586;
-DYNX(W_,6283) = 0.00031900807415656405;
-DYNX(W_,6284) = 0.0006380161483131281;
-DYNX(W_,6616) = 16854.05160830339;
-memcpy(&DYNX(W_,6285), &DymArrays83, sizeof(double)*3);
-DYNX(W_,6320) = true;
-DYNX(W_,6288) = 0.0008690219951161572;
-DYNX(W_,6289) = 19213.618833465865;
-DYNX(W_,6618) = 0.317599972517237;
-DYNX(W_,6322) = 0.317599972517237;
-DYNX(W_,6619) = 0.317599972517237;
-DYNX(W_,6323) = 0.317599972517237;
-DYNX(W_,6324) = true;
-DYNX(W_,6326) = true;
-DYNX(W_,6329) = 4;
-DYNX(W_,6331) = 3.17599972517237E-05;
-memcpy(&DYNX(W_,6333), &DymArrays84, sizeof(double)*4);
-DYNX(W_,6338) = false;
-DYNX(W_,6435) = 7078.701675487424;
-DYNX(W_,6484) = false;
-DYNX(W_,6340) = false;
-memcpy(&DYNX(W_,6430), &DymArrays85, sizeof(double)*5);
-DYNX(W_,6479) = true;
-DYNX(W_,6436) = 0.0008690219951161572;
-DYNX(W_,6482) = 0.0006380161483131281;
-DYNX(W_,6485) = 0.0008690219951161572;
-DYNX(W_,6341) = 0.0008690219951161572;
-DYNX(W_,6353) = 1;
-DYNX(W_,6354) = false;
-DYNX(W_,6355) = false;
-DYNX(W_,6358) = 0.317599972517237;
-DYNX(W_,6360) = 3.17599972517237E-05;
-DYNX(W_,6361) = true;
-DYNX(W_,6366) = 995.586;
-memcpy(&DYNX(W_,6363), &DymArrays40, sizeof(double)*3);
-DYNX(W_,6378) = 2;
-DYNX(W_,6380) = 2;
-DYNX(W_,6381) = 2;
-DYNX(W_,6385) = 1.0;
-DYNX(W_,6386) = false;
-DYNX(W_,6387) = false;
-DYNX(W_,6394) = true;
-DYNX(W_,6409) = 995.586;
-DYNX(W_,6404) = 4184;
-DYNX(W_,6403) = 0.0;
-DYNX(W_,6405) = 995.586;
-DYNX(W_,6406) = false;
-DYNX(W_,6407) = 300000.0;
-DYNX(W_,6408) = 293.15;
-DYNX(W_,6617) = 0.317599972517237;
-DYNX(W_,6414) = 0.317599972517237;
-DYNX(W_,6415) = 3.17599972517237E-05;
-DYNX(W_,6423) = 0;
-DYNX(W_,6424) = 0;
-DYNX(W_,6437) = 19213.618833465865;
-memcpy(&DYNX(W_,6476), &DymArrays41, sizeof(double)*3);
-DYNX(W_,6481) = true;
-DYNX(W_,6483) = 995.586;
-memcpy(&DYNX(W_,6490), &DymArrays41, sizeof(double)*3);
-DYNX(W_,6502) = 19213.618833465865;
-DYNX(W_,6613) = true;
-DYNX(W_,6505) = 2;
-memcpy(&DYNX(W_,6507), &DymArrays42, sizeof(double)*6);
-memcpy(&DYNX(W_,6514), &DymArrays86, sizeof(double)*5);
-DYNX(W_,6521) = 0.0;
-memcpy(&DYNX(W_,6523), &DymArrays44, sizeof(double)*10);
-DYNX(W_,6614) = 0.0016697057372059882;
-DYNX(W_,6620) = 38427.23766693173;
-DYNX(W_,6625) = 13288.382850121196;
-DYNX(W_,6638) = 0.317599972517237;
-DYNX(W_,6639) = 0.317599972517237;
-DYNX(W_,6641) = 16854.051608303387;
-memcpy(&DYNX(W_,6654), &DymArrays29, sizeof(double)*3);
-DYNX(W_,6658) = false;
-DYNX(W_,6664) = false;
-memcpy(&DYNX(W_,6666), &DymArrays46, sizeof(double)*11);
-memcpy(&DYNX(W_,6679), &DymArrays29, sizeof(double)*3);
-DYNX(W_,6687) = false;
-DYNX(W_,8047) = 294.15;
-DYNX(W_,8041) = 0;
-DYNX(W_,8034) = 294.15;
-DYNX(W_,6705) = 294.15;
-DYNX(W_,6695) = 294.15;
-DYNX(W_,6696) = 294.15;
-DYNX(W_,6699) = 0.1088888888888889;
-DYNX(W_,6700) = 100;
-DYNX(W_,8044) = 13288.382850121196;
-DYNX(W_,8042) = 1;
-memcpy(&DYNX(W_,6702), &DymArrays87, sizeof(double)*3);
-memcpy(&DYNX(W_,6706), &DymArrays88, sizeof(double)*4);
-DYNX(W_,6711) = 100.0;
-DYNX(W_,8040) = 100.0;
-DYNX(W_,6712) = 100.0;
-DYNX(W_,6721) = 1.088888888888889E-05;
-DYNX(W_,6722) = 1.088888888888889E-05;
-DYNX(W_,6725) = true;
-DYNX(W_,6726) = false;
-DYNX(W_,6730) = true;
-DYNX(W_,6731) = false;
-DYNX(W_,6744) = 1.088888888888889E-05;
-DYNX(W_,6746) = 0;
-DYNX(W_,6747) = 0;
-DYNX(W_,6748) = true;
-DYNX(W_,6749) = false;
-DYNX(W_,6751) = false;
-DYNX(W_,6752) = 0.1;
-DYNX(W_,6758) = 0.1088888888888889;
-DYNX(W_,6759) = 1.088888888888889E-05;
-DYNX(W_,6762) = 0;
-DYNX(W_,6763) = 0;
-DYNX(W_,6768) = true;
-DYNX(W_,6769) = 1;
-memcpy(&DYNX(W_,6771), &DymArrays89, sizeof(double)*13);
+DYNX(W_,5902) = 0.015414524106140588;
+memcpy(&DYNX(W_,5904), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5912) = 2;
+DYNX(W_,5914) = 2;
+DYNX(W_,5915) = 2;
+DYNX(W_,5918) = 1.0;
+DYNX(W_,5919) = 1.5442861740360443;
+DYNX(W_,5920) = false;
+DYNX(W_,5921) = false;
+DYNX(W_,5928) = true;
+DYNX(W_,5937) = 0.015414524106140588;
+DYNX(W_,5944) = 995.586;
+DYNX(W_,5939) = 4184;
+DYNX(W_,5938) = 34948.44689581876;
+DYNX(W_,5940) = 995.586;
+DYNX(W_,5941) = true;
+DYNX(W_,5942) = 300000.0;
+DYNX(W_,5943) = 293.15;
+DYNX(W_,5954) = 1.0;
+DYNX(W_,5955) = 1.5442861740360443;
+DYNX(W_,5956) = false;
+DYNX(W_,5957) = false;
+DYNX(W_,5960) = 0.317599972517237;
+DYNX(W_,5962) = 3.17599972517237E-05;
+DYNX(W_,5964) = 0.015414524106140588;
+memcpy(&DYNX(W_,5966), &DymArrays54, sizeof(double)*4);
+DYNX(W_,5974) = 2;
+DYNX(W_,5976) = 2;
+DYNX(W_,5977) = 2;
+DYNX(W_,5980) = 1.0;
+DYNX(W_,5981) = 1.5442861740360443;
+DYNX(W_,5982) = false;
+DYNX(W_,5983) = false;
+DYNX(W_,5990) = true;
+DYNX(W_,5999) = 0.015414524106140588;
+DYNX(W_,6006) = 995.586;
+DYNX(W_,6001) = 4184;
+DYNX(W_,6000) = 34948.44689581876;
+DYNX(W_,6002) = 995.586;
+DYNX(W_,6003) = true;
+DYNX(W_,6004) = 300000.0;
+DYNX(W_,6005) = 293.15;
+DYNX(W_,6016) = 1.0;
+DYNX(W_,6017) = 1.5442861740360443;
+DYNX(W_,6018) = false;
+DYNX(W_,6019) = false;
+DYNX(W_,6022) = 0.317599972517237;
+DYNX(W_,6024) = 3.17599972517237E-05;
+DYNX(W_,6026) = 0.015414524106140588;
+memcpy(&DYNX(W_,6028), &DymArrays54, sizeof(double)*4);
+DYNX(W_,6036) = 2;
+DYNX(W_,6038) = 2;
+DYNX(W_,6039) = 2;
+DYNX(W_,6042) = 1.0;
+DYNX(W_,6043) = 1.5442861740360443;
+DYNX(W_,6044) = false;
+DYNX(W_,6045) = false;
+DYNX(W_,6052) = true;
+DYNX(W_,6061) = 0.015414524106140588;
+DYNX(W_,6068) = 995.586;
+DYNX(W_,6063) = 4184;
+DYNX(W_,6062) = 34948.44689581876;
+DYNX(W_,6064) = 995.586;
+DYNX(W_,6065) = true;
+DYNX(W_,6066) = 300000.0;
+DYNX(W_,6067) = 293.15;
+DYNX(W_,6078) = 1.0;
+DYNX(W_,6079) = 1.5442861740360443;
+DYNX(W_,6080) = false;
+DYNX(W_,6081) = false;
+DYNX(W_,6084) = 0.317599972517237;
+DYNX(W_,6086) = 3.17599972517237E-05;
+DYNX(W_,6088) = 0.015414524106140588;
+memcpy(&DYNX(W_,6090), &DymArrays54, sizeof(double)*4);
+DYNX(W_,6098) = 2;
+DYNX(W_,6100) = 2;
+DYNX(W_,6101) = 2;
+DYNX(W_,6104) = 1.0;
+DYNX(W_,6105) = 1.5442861740360443;
+DYNX(W_,6106) = false;
+DYNX(W_,6107) = false;
+DYNX(W_,6114) = true;
+DYNX(W_,6123) = 0.015414524106140588;
+DYNX(W_,6130) = 995.586;
+DYNX(W_,6125) = 4184;
+DYNX(W_,6124) = 34948.44689581876;
+DYNX(W_,6126) = 995.586;
+DYNX(W_,6127) = true;
+DYNX(W_,6128) = 300000.0;
+DYNX(W_,6129) = 293.15;
+DYNX(W_,6140) = 1.0;
+DYNX(W_,6141) = 1.5442861740360443;
+DYNX(W_,6142) = false;
+DYNX(W_,6143) = false;
+DYNX(W_,6146) = 0.317599972517237;
+DYNX(W_,6148) = 3.17599972517237E-05;
+DYNX(W_,6150) = 0.015414524106140588;
+memcpy(&DYNX(W_,6152), &DymArrays54, sizeof(double)*4);
+DYNX(W_,6160) = 2;
+DYNX(W_,6162) = 2;
+DYNX(W_,6163) = 2;
+DYNX(W_,6166) = 1.0;
+DYNX(W_,6167) = 1.5442861740360443;
+DYNX(W_,6168) = false;
+DYNX(W_,6169) = false;
+DYNX(W_,6176) = true;
+DYNX(W_,6185) = 0.015414524106140588;
+DYNX(W_,6192) = 995.586;
+DYNX(W_,6187) = 4184;
+DYNX(W_,6186) = 34948.44689581876;
+DYNX(W_,6188) = 995.586;
+DYNX(W_,6189) = true;
+DYNX(W_,6190) = 300000.0;
+DYNX(W_,6191) = 293.15;
+memcpy(&DYNX(W_,6196), &DymArrays44, sizeof(double)*10);
+DYNX(W_,6207) = 0.317599972517237;
+DYNX(W_,6208) = 3.17599972517237E-05;
+DYNX(W_,6210) = 0;
+DYNX(W_,6211) = 0;
+DYNX(W_,6213) = false;
+DYNX(W_,6215) = false;
+DYNX(W_,6222) = true;
+DYNX(W_,6220) = 0.3;
+DYNX(W_,6218) = 0.317599972517237;
+DYNX(W_,6216) = 0.09527999175517109;
+DYNX(W_,6217) = 0.001;
+DYNX(W_,6221) = 0.002503975005737425;
+DYNX(W_,6223) = 0;
+DYNX(W_,6224) = 0.317599972517237;
+DYNX(W_,6229) = 3;
+memcpy(&DYNX(W_,6233), &DymArrays29, sizeof(double)*3);
+DYNX(W_,6239) = 1;
+DYNX(W_,6240) = false;
+DYNX(W_,6242) = 0.0;
+DYNX(W_,6575) = 0.317599972517237;
+DYNX(W_,6302) = 995.586;
+DYNX(W_,6243) = 0.00031900807415656405;
+DYNX(W_,6244) = 0.0006380161483131281;
+DYNX(W_,6576) = 16854.05160830339;
+memcpy(&DYNX(W_,6245), &DymArrays83, sizeof(double)*3);
+DYNX(W_,6280) = true;
+DYNX(W_,6248) = 0.0008690219951161572;
+DYNX(W_,6249) = 19213.618833465865;
+DYNX(W_,6578) = 0.317599972517237;
+DYNX(W_,6282) = 0.317599972517237;
+DYNX(W_,6579) = 0.317599972517237;
+DYNX(W_,6283) = 0.317599972517237;
+DYNX(W_,6284) = true;
+DYNX(W_,6286) = true;
+DYNX(W_,6289) = 4;
+DYNX(W_,6291) = 3.17599972517237E-05;
+memcpy(&DYNX(W_,6293), &DymArrays84, sizeof(double)*4);
+DYNX(W_,6298) = false;
+DYNX(W_,6395) = 7078.701675487424;
+DYNX(W_,6444) = false;
+DYNX(W_,6300) = false;
+memcpy(&DYNX(W_,6390), &DymArrays85, sizeof(double)*5);
+DYNX(W_,6439) = true;
+DYNX(W_,6396) = 0.0008690219951161572;
+DYNX(W_,6442) = 0.0006380161483131281;
+DYNX(W_,6445) = 0.0008690219951161572;
+DYNX(W_,6301) = 0.0008690219951161572;
+DYNX(W_,6313) = 1;
+DYNX(W_,6314) = false;
+DYNX(W_,6315) = false;
+DYNX(W_,6318) = 0.317599972517237;
+DYNX(W_,6320) = 3.17599972517237E-05;
+DYNX(W_,6321) = true;
+DYNX(W_,6326) = 995.586;
+memcpy(&DYNX(W_,6323), &DymArrays40, sizeof(double)*3);
+DYNX(W_,6338) = 2;
+DYNX(W_,6340) = 2;
+DYNX(W_,6341) = 2;
+DYNX(W_,6345) = 1.0;
+DYNX(W_,6346) = false;
+DYNX(W_,6347) = false;
+DYNX(W_,6354) = true;
+DYNX(W_,6369) = 995.586;
+DYNX(W_,6364) = 4184;
+DYNX(W_,6363) = 0.0;
+DYNX(W_,6365) = 995.586;
+DYNX(W_,6366) = false;
+DYNX(W_,6367) = 300000.0;
+DYNX(W_,6368) = 293.15;
+DYNX(W_,6577) = 0.317599972517237;
+DYNX(W_,6374) = 0.317599972517237;
+DYNX(W_,6375) = 3.17599972517237E-05;
+DYNX(W_,6383) = 0;
+DYNX(W_,6384) = 0;
+DYNX(W_,6397) = 19213.618833465865;
+memcpy(&DYNX(W_,6436), &DymArrays41, sizeof(double)*3);
+DYNX(W_,6441) = true;
+DYNX(W_,6443) = 995.586;
+memcpy(&DYNX(W_,6450), &DymArrays41, sizeof(double)*3);
+DYNX(W_,6462) = 19213.618833465865;
+DYNX(W_,6573) = true;
+DYNX(W_,6465) = 2;
+memcpy(&DYNX(W_,6467), &DymArrays42, sizeof(double)*6);
+memcpy(&DYNX(W_,6474), &DymArrays86, sizeof(double)*5);
+DYNX(W_,6481) = 0.0;
+memcpy(&DYNX(W_,6483), &DymArrays44, sizeof(double)*10);
+DYNX(W_,6574) = 0.0016697057372059882;
+DYNX(W_,6580) = 38427.23766693173;
+DYNX(W_,6585) = 13288.382850121196;
+DYNX(W_,6598) = 0.317599972517237;
+DYNX(W_,6599) = 0.317599972517237;
+DYNX(W_,6601) = 16854.051608303387;
+memcpy(&DYNX(W_,6614), &DymArrays29, sizeof(double)*3);
+DYNX(W_,6618) = false;
+DYNX(W_,6624) = false;
+memcpy(&DYNX(W_,6626), &DymArrays46, sizeof(double)*11);
+memcpy(&DYNX(W_,6639), &DymArrays29, sizeof(double)*3);
+DYNX(W_,6647) = false;
+DYNX(W_,8007) = 294.15;
+DYNX(W_,8001) = 0;
+DYNX(W_,7994) = 294.15;
+DYNX(W_,6665) = 294.15;
+DYNX(W_,6655) = 294.15;
+DYNX(W_,6656) = 294.15;
+DYNX(W_,6659) = 0.1088888888888889;
+DYNX(W_,6660) = 100;
+DYNX(W_,8004) = 13288.382850121196;
+DYNX(W_,8002) = 1;
+memcpy(&DYNX(W_,6662), &DymArrays87, sizeof(double)*3);
+memcpy(&DYNX(W_,6666), &DymArrays88, sizeof(double)*4);
+DYNX(W_,6671) = 100.0;
+DYNX(W_,8000) = 100.0;
+DYNX(W_,6672) = 100.0;
+DYNX(W_,6681) = 1.088888888888889E-05;
+DYNX(W_,6682) = 1.088888888888889E-05;
+DYNX(W_,6685) = true;
+DYNX(W_,6686) = false;
+DYNX(W_,6690) = true;
+DYNX(W_,6691) = false;
+DYNX(W_,6704) = 1.088888888888889E-05;
+DYNX(W_,6706) = 0;
+DYNX(W_,6707) = 0;
+DYNX(W_,6708) = true;
+DYNX(W_,6709) = false;
+DYNX(W_,6711) = false;
+DYNX(W_,6712) = 0.1;
+DYNX(W_,6718) = 0.1088888888888889;
+DYNX(W_,6719) = 1.088888888888889E-05;
+DYNX(W_,6722) = 0;
+DYNX(W_,6723) = 0;
+DYNX(W_,6728) = true;
+DYNX(W_,6729) = 1;
+memcpy(&DYNX(W_,6731), &DymArrays89, sizeof(double)*13);
+DYNX(W_,6748) = 1.088888888888889E-05;
+DYNX(W_,6750) = 0;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(13);
#if defined(DynSimStruct)
-DYNX(W_,6788) = 1.088888888888889E-05;
-DYNX(W_,6790) = 0;
-DYNX(W_,6791) = 0;
-DYNX(W_,6793) = false;
-DYNX(W_,6795) = false;
-DYNX(W_,6802) = true;
-DYNX(W_,6800) = 0.1;
-DYNX(W_,6796) = 0.01088888888888889;
-DYNX(W_,6801) = 0.010888888888888889;
-DYNX(W_,6803) = 0;
-DYNX(W_,6807) = 1.088888888888889E-05;
-DYNX(W_,6809) = 0;
-DYNX(W_,6810) = 0;
-DYNX(W_,6811) = true;
-DYNX(W_,6812) = false;
-DYNX(W_,6814) = false;
-DYNX(W_,6815) = 0.1;
-DYNX(W_,6821) = 0.1088888888888889;
-DYNX(W_,6822) = 1.088888888888889E-05;
-DYNX(W_,6825) = 0;
+DYNX(W_,6751) = 0;
+DYNX(W_,6753) = false;
+DYNX(W_,6755) = false;
+DYNX(W_,6762) = true;
+DYNX(W_,6760) = 0.1;
+DYNX(W_,6756) = 0.01088888888888889;
+DYNX(W_,6761) = 0.010888888888888889;
+DYNX(W_,6763) = 0;
+DYNX(W_,6767) = 1.088888888888889E-05;
+DYNX(W_,6769) = 0;
+DYNX(W_,6770) = 0;
+DYNX(W_,6771) = true;
+DYNX(W_,6772) = false;
+DYNX(W_,6774) = false;
+DYNX(W_,6775) = 0.1;
+DYNX(W_,6781) = 0.1088888888888889;
+DYNX(W_,6782) = 1.088888888888889E-05;
+DYNX(W_,6785) = 0;
+DYNX(W_,6786) = 0;
+DYNX(W_,6791) = true;
+DYNX(W_,6792) = 1;
+memcpy(&DYNX(W_,6794), &DymArrays89, sizeof(double)*13);
+DYNX(W_,6811) = 1.088888888888889E-05;
+DYNX(W_,6813) = 0;
+DYNX(W_,6814) = 0;
+DYNX(W_,6816) = false;
+DYNX(W_,6818) = false;
+DYNX(W_,6825) = true;
+DYNX(W_,6823) = 0.1;
+DYNX(W_,6819) = 0.01088888888888889;
+DYNX(W_,6824) = 0.010888888888888889;
DYNX(W_,6826) = 0;
-DYNX(W_,6831) = true;
-DYNX(W_,6832) = 1;
-memcpy(&DYNX(W_,6834), &DymArrays89, sizeof(double)*13);
-DYNX(W_,6851) = 1.088888888888889E-05;
-DYNX(W_,6853) = 0;
-DYNX(W_,6854) = 0;
-DYNX(W_,6856) = false;
-DYNX(W_,6858) = false;
-DYNX(W_,6865) = true;
-DYNX(W_,6863) = 0.1;
-DYNX(W_,6859) = 0.01088888888888889;
-DYNX(W_,6864) = 0.010888888888888889;
-DYNX(W_,6866) = 0;
-DYNX(W_,6870) = 0.011047213333333333;
-memcpy(&DYNX(W_,6885), &DymArrays29, sizeof(double)*3);
-DYNX(W_,6890) = 1;
-DYNX(W_,6891) = false;
-DYNX(W_,6893) = 0.0;
-DYNX(W_,7231) = 0.1088888888888889;
-DYNX(W_,6953) = 1.2;
-DYNX(W_,6894) = 0.09074074074074075;
-DYNX(W_,6895) = 0.1814814814814815;
-DYNX(W_,7232) = 200.0;
-memcpy(&DYNX(W_,6896), &DymArrays90, sizeof(double)*3);
-DYNX(W_,6930) = true;
-DYNX(W_,6899) = 0.1814814814814815;
-DYNX(W_,6900) = 224.00000000000003;
-DYNX(W_,6934) = true;
-DYNX(W_,6936) = false;
-DYNX(W_,6940) = 4;
-memcpy(&DYNX(W_,7045), &DymArrays91, sizeof(double)*3);
-DYNX(W_,6944) = 0.2177777777777778;
-DYNX(W_,6942) = 2.177777777777778E-05;
-memcpy(&DYNX(W_,6945), &DymArrays41, sizeof(double)*3);
-DYNX(W_,6949) = true;
-DYNX(W_,7050) = 0.0;
-DYNX(W_,7099) = true;
-DYNX(W_,6951) = true;
-DYNX(W_,7048) = 224.00000000000003;
-DYNX(W_,7049) = 200.0;
-DYNX(W_,7094) = true;
-DYNX(W_,7051) = 0.1814814814814815;
-DYNX(W_,7097) = 0.1814814814814815;
-DYNX(W_,7100) = 0.1814814814814815;
-DYNX(W_,6952) = 0.1814814814814815;
-DYNX(W_,6967) = 1;
-DYNX(W_,6968) = false;
-DYNX(W_,6969) = true;
-DYNX(W_,6972) = 0.2177777777777778;
-DYNX(W_,6974) = 2.177777777777778E-05;
-DYNX(W_,6975) = true;
-DYNX(W_,6978) = 101325.0;
-DYNX(W_,6982) = 1.2;
-memcpy(&DYNX(W_,6979), &DymArrays92, sizeof(double)*3);
-DYNX(W_,6996) = 2;
-DYNX(W_,6998) = 2;
-DYNX(W_,6999) = 2;
-DYNX(W_,7004) = 1.0;
-DYNX(W_,7005) = false;
-DYNX(W_,7006) = true;
-DYNX(W_,7013) = true;
-DYNX(W_,7019) = 101325.0;
-DYNX(W_,7023) = 1.2;
-DYNX(W_,7021) = 0.01;
-DYNX(W_,7016) = 1014.54;
-DYNX(W_,7015) = 0.0;
-DYNX(W_,7018) = false;
-DYNX(W_,7020) = 293.15;
-DYNX(W_,7022) = 0.99;
-DYNX(W_,7024) = 1;
-DYNX(W_,7029) = 2.177777777777778E-05;
-DYNX(W_,7036) = 0;
-DYNX(W_,7037) = 0;
-DYNX(W_,7052) = 224.00000000000003;
-memcpy(&DYNX(W_,7091), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7096) = true;
-DYNX(W_,7098) = 1.2;
-memcpy(&DYNX(W_,7104), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7116) = 224.00000000000003;
-DYNX(W_,7227) = true;
-DYNX(W_,7119) = 1;
-memcpy(&DYNX(W_,7121), &DymArrays93, sizeof(double)*4);
-memcpy(&DYNX(W_,7128), &DymArrays94, sizeof(double)*8);
-memcpy(&DYNX(W_,7137), &DymArrays44, sizeof(double)*10);
-memcpy(&DYNX(W_,7228), &DymArrays95, sizeof(double)*3);
-memcpy(&DYNX(W_,7234), &DymArrays96, sizeof(double)*4);
-DYNX(W_,7238) = true;
-DYNX(W_,7239) = 1.0;
-DYNX(W_,7241) = false;
-memcpy(&DYNX(W_,7263), &DymArrays29, sizeof(double)*3);
-DYNX(W_,7268) = 1;
-DYNX(W_,7269) = false;
-DYNX(W_,7271) = 0.0;
-DYNX(W_,7609) = 0.1088888888888889;
-DYNX(W_,7331) = 1.2;
-DYNX(W_,7272) = 0.09074074074074075;
-DYNX(W_,7273) = 0.1814814814814815;
-memcpy(&DYNX(W_,7997), &DymArrays97, sizeof(double)*3);
-DYNX(W_,7610) = 600.0;
-memcpy(&DYNX(W_,7274), &DymArrays98, sizeof(double)*3);
-DYNX(W_,7308) = true;
-DYNX(W_,7277) = 0.1814814814814815;
-DYNX(W_,7278) = 672.0000000000001;
-DYNX(W_,7312) = true;
-DYNX(W_,7314) = false;
-DYNX(W_,7318) = 4;
-memcpy(&DYNX(W_,7423), &DymArrays91, sizeof(double)*3);
-DYNX(W_,7322) = 0.2177777777777778;
-DYNX(W_,7320) = 2.177777777777778E-05;
-memcpy(&DYNX(W_,7323), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7327) = true;
-DYNX(W_,7428) = 0.0;
-DYNX(W_,7477) = true;
-DYNX(W_,7329) = true;
-DYNX(W_,7426) = 672.0000000000001;
-DYNX(W_,7427) = 600.0;
-DYNX(W_,7472) = true;
-DYNX(W_,7429) = 0.1814814814814815;
-DYNX(W_,7475) = 0.1814814814814815;
-DYNX(W_,7478) = 0.1814814814814815;
-DYNX(W_,7330) = 0.1814814814814815;
-DYNX(W_,7345) = 1;
-DYNX(W_,7346) = false;
-DYNX(W_,7347) = true;
-DYNX(W_,7350) = 0.2177777777777778;
-DYNX(W_,7352) = 2.177777777777778E-05;
-DYNX(W_,7353) = true;
-DYNX(W_,7356) = 101325.0;
-DYNX(W_,7360) = 1.2;
-memcpy(&DYNX(W_,7357), &DymArrays92, sizeof(double)*3);
-DYNX(W_,7374) = 2;
-DYNX(W_,7376) = 2;
-DYNX(W_,7377) = 2;
-DYNX(W_,7382) = 1.0;
-DYNX(W_,7383) = false;
-DYNX(W_,7384) = true;
-DYNX(W_,7391) = true;
-DYNX(W_,7397) = 101325.0;
-DYNX(W_,7401) = 1.2;
-DYNX(W_,7399) = 0.01;
-DYNX(W_,7394) = 1014.54;
-DYNX(W_,7393) = 0.0;
-DYNX(W_,7396) = false;
-DYNX(W_,7398) = 293.15;
-DYNX(W_,7400) = 0.99;
-DYNX(W_,7402) = 1;
-DYNX(W_,7407) = 2.177777777777778E-05;
-DYNX(W_,7414) = 0;
-DYNX(W_,7415) = 0;
-DYNX(W_,7430) = 672.0000000000001;
-memcpy(&DYNX(W_,7469), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7474) = true;
-DYNX(W_,7476) = 1.2;
-memcpy(&DYNX(W_,7482), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7494) = 672.0000000000001;
-DYNX(W_,7605) = true;
-DYNX(W_,7497) = 1;
-memcpy(&DYNX(W_,7499), &DymArrays99, sizeof(double)*4);
-memcpy(&DYNX(W_,7506), &DymArrays94, sizeof(double)*8);
-memcpy(&DYNX(W_,7515), &DymArrays44, sizeof(double)*10);
-memcpy(&DYNX(W_,7606), &DymArrays100, sizeof(double)*3);
-memcpy(&DYNX(W_,7613), &DymArrays96, sizeof(double)*4);
-DYNX(W_,7617) = true;
-DYNX(W_,7618) = 1.0;
-DYNX(W_,7620) = false;
-memcpy(&DYNX(W_,7626), &DymArrays29, sizeof(double)*3);
-DYNX(W_,7631) = 1;
-DYNX(W_,7632) = false;
-DYNX(W_,7635) = 0.1088888888888889;
-DYNX(W_,7636) = true;
-DYNX(W_,7641) = 1.088888888888889E-05;
-DYNX(W_,7645) = 1.088888888888889E-05;
-DYNX(W_,7647) = 0;
+DYNX(W_,6830) = 0.011047213333333333;
+memcpy(&DYNX(W_,6845), &DymArrays29, sizeof(double)*3);
+DYNX(W_,6850) = 1;
+DYNX(W_,6851) = false;
+DYNX(W_,6853) = 0.0;
+DYNX(W_,7191) = 0.1088888888888889;
+DYNX(W_,6913) = 1.2;
+DYNX(W_,6854) = 0.09074074074074075;
+DYNX(W_,6855) = 0.1814814814814815;
+DYNX(W_,7192) = 200.0;
+memcpy(&DYNX(W_,6856), &DymArrays90, sizeof(double)*3);
+DYNX(W_,6890) = true;
+DYNX(W_,6859) = 0.1814814814814815;
+DYNX(W_,6860) = 224.00000000000003;
+DYNX(W_,6894) = true;
+DYNX(W_,6896) = false;
+DYNX(W_,6900) = 4;
+memcpy(&DYNX(W_,7005), &DymArrays91, sizeof(double)*3);
+DYNX(W_,6904) = 0.2177777777777778;
+DYNX(W_,6902) = 2.177777777777778E-05;
+memcpy(&DYNX(W_,6905), &DymArrays41, sizeof(double)*3);
+DYNX(W_,6909) = true;
+DYNX(W_,7010) = 0.0;
+DYNX(W_,7059) = true;
+DYNX(W_,6911) = true;
+DYNX(W_,7008) = 224.00000000000003;
+DYNX(W_,7009) = 200.0;
+DYNX(W_,7054) = true;
+DYNX(W_,7011) = 0.1814814814814815;
+DYNX(W_,7057) = 0.1814814814814815;
+DYNX(W_,7060) = 0.1814814814814815;
+DYNX(W_,6912) = 0.1814814814814815;
+DYNX(W_,6927) = 1;
+DYNX(W_,6928) = false;
+DYNX(W_,6929) = true;
+DYNX(W_,6932) = 0.2177777777777778;
+DYNX(W_,6934) = 2.177777777777778E-05;
+DYNX(W_,6935) = true;
+DYNX(W_,6938) = 101325.0;
+DYNX(W_,6942) = 1.2;
+memcpy(&DYNX(W_,6939), &DymArrays92, sizeof(double)*3);
+DYNX(W_,6956) = 2;
+DYNX(W_,6958) = 2;
+DYNX(W_,6959) = 2;
+DYNX(W_,6964) = 1.0;
+DYNX(W_,6965) = false;
+DYNX(W_,6966) = true;
+DYNX(W_,6973) = true;
+DYNX(W_,6979) = 101325.0;
+DYNX(W_,6983) = 1.2;
+DYNX(W_,6981) = 0.01;
+DYNX(W_,6976) = 1014.54;
+DYNX(W_,6975) = 0.0;
+DYNX(W_,6978) = false;
+DYNX(W_,6980) = 293.15;
+DYNX(W_,6982) = 0.99;
+DYNX(W_,6984) = 1;
+DYNX(W_,6989) = 2.177777777777778E-05;
+DYNX(W_,6996) = 0;
+DYNX(W_,6997) = 0;
+DYNX(W_,7012) = 224.00000000000003;
+memcpy(&DYNX(W_,7051), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7056) = true;
+DYNX(W_,7058) = 1.2;
+memcpy(&DYNX(W_,7064), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7076) = 224.00000000000003;
+DYNX(W_,7187) = true;
+DYNX(W_,7079) = 1;
+memcpy(&DYNX(W_,7081), &DymArrays93, sizeof(double)*4);
+memcpy(&DYNX(W_,7088), &DymArrays94, sizeof(double)*8);
+memcpy(&DYNX(W_,7097), &DymArrays44, sizeof(double)*10);
+memcpy(&DYNX(W_,7188), &DymArrays95, sizeof(double)*3);
+memcpy(&DYNX(W_,7194), &DymArrays96, sizeof(double)*4);
+DYNX(W_,7198) = true;
+DYNX(W_,7199) = 1.0;
+DYNX(W_,7201) = false;
+memcpy(&DYNX(W_,7223), &DymArrays29, sizeof(double)*3);
+DYNX(W_,7228) = 1;
+DYNX(W_,7229) = false;
+DYNX(W_,7231) = 0.0;
+DYNX(W_,7569) = 0.1088888888888889;
+DYNX(W_,7291) = 1.2;
+DYNX(W_,7232) = 0.09074074074074075;
+DYNX(W_,7233) = 0.1814814814814815;
+memcpy(&DYNX(W_,7957), &DymArrays97, sizeof(double)*3);
+DYNX(W_,7570) = 600.0;
+memcpy(&DYNX(W_,7234), &DymArrays98, sizeof(double)*3);
+DYNX(W_,7268) = true;
+DYNX(W_,7237) = 0.1814814814814815;
+DYNX(W_,7238) = 672.0000000000001;
+DYNX(W_,7272) = true;
+DYNX(W_,7274) = false;
+DYNX(W_,7278) = 4;
+memcpy(&DYNX(W_,7383), &DymArrays91, sizeof(double)*3);
+DYNX(W_,7282) = 0.2177777777777778;
+DYNX(W_,7280) = 2.177777777777778E-05;
+memcpy(&DYNX(W_,7283), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7287) = true;
+DYNX(W_,7388) = 0.0;
+DYNX(W_,7437) = true;
+DYNX(W_,7289) = true;
+DYNX(W_,7386) = 672.0000000000001;
+DYNX(W_,7387) = 600.0;
+DYNX(W_,7432) = true;
+DYNX(W_,7389) = 0.1814814814814815;
+DYNX(W_,7435) = 0.1814814814814815;
+DYNX(W_,7438) = 0.1814814814814815;
+DYNX(W_,7290) = 0.1814814814814815;
+DYNX(W_,7305) = 1;
+DYNX(W_,7306) = false;
+DYNX(W_,7307) = true;
+DYNX(W_,7310) = 0.2177777777777778;
+DYNX(W_,7312) = 2.177777777777778E-05;
+DYNX(W_,7313) = true;
+DYNX(W_,7316) = 101325.0;
+DYNX(W_,7320) = 1.2;
+memcpy(&DYNX(W_,7317), &DymArrays92, sizeof(double)*3);
+DYNX(W_,7334) = 2;
+DYNX(W_,7336) = 2;
+DYNX(W_,7337) = 2;
+DYNX(W_,7342) = 1.0;
+DYNX(W_,7343) = false;
+DYNX(W_,7344) = true;
+DYNX(W_,7351) = true;
+DYNX(W_,7357) = 101325.0;
+DYNX(W_,7361) = 1.2;
+DYNX(W_,7359) = 0.01;
+DYNX(W_,7354) = 1014.54;
+DYNX(W_,7353) = 0.0;
+DYNX(W_,7356) = false;
+DYNX(W_,7358) = 293.15;
+DYNX(W_,7360) = 0.99;
+DYNX(W_,7362) = 1;
+DYNX(W_,7367) = 2.177777777777778E-05;
+DYNX(W_,7374) = 0;
+DYNX(W_,7375) = 0;
+DYNX(W_,7390) = 672.0000000000001;
+memcpy(&DYNX(W_,7429), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7434) = true;
+DYNX(W_,7436) = 1.2;
+memcpy(&DYNX(W_,7442), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7454) = 672.0000000000001;
+DYNX(W_,7565) = true;
+DYNX(W_,7457) = 1;
+memcpy(&DYNX(W_,7459), &DymArrays99, sizeof(double)*4);
+memcpy(&DYNX(W_,7466), &DymArrays94, sizeof(double)*8);
+memcpy(&DYNX(W_,7475), &DymArrays44, sizeof(double)*10);
+memcpy(&DYNX(W_,7566), &DymArrays100, sizeof(double)*3);
+memcpy(&DYNX(W_,7573), &DymArrays96, sizeof(double)*4);
+DYNX(W_,7577) = true;
+DYNX(W_,7578) = 1.0;
+DYNX(W_,7580) = false;
+memcpy(&DYNX(W_,7586), &DymArrays29, sizeof(double)*3);
+DYNX(W_,7591) = 1;
+DYNX(W_,7592) = false;
+DYNX(W_,7595) = 0.1088888888888889;
+DYNX(W_,7596) = true;
+DYNX(W_,7601) = 1.088888888888889E-05;
+DYNX(W_,7605) = 1.088888888888889E-05;
+DYNX(W_,7607) = 0;
+DYNX(W_,7608) = 0;
+DYNX(W_,7610) = true;
+DYNX(W_,7686) = 200.0;
+DYNX(W_,7622) = 200.0;
+DYNX(W_,7960) = 100.0;
+DYNX(W_,7689) = 100.0;
+DYNX(W_,7627) = 100.0;
+DYNX(W_,7611) = 300.0;
+DYNX(W_,7612) = false;
+DYNX(W_,7616) = 300.0;
+DYNX(W_,7630) = 0.010888888888888889;
+DYNX(W_,7636) = 0.1088888888888889;
+DYNX(W_,7637) = 1.088888888888889E-05;
+DYNX(W_,7640) = 0;
+DYNX(W_,7641) = 0;
+DYNX(W_,7642) = true;
+DYNX(W_,7646) = 1.088888888888889E-05;
DYNX(W_,7648) = 0;
-DYNX(W_,7650) = true;
-DYNX(W_,7726) = 200.0;
-DYNX(W_,7662) = 200.0;
-DYNX(W_,8000) = 100.0;
-DYNX(W_,7729) = 100.0;
-DYNX(W_,7667) = 100.0;
-DYNX(W_,7651) = 300.0;
-DYNX(W_,7652) = false;
-DYNX(W_,7656) = 300.0;
-DYNX(W_,7670) = 0.010888888888888889;
-DYNX(W_,7676) = 0.1088888888888889;
-DYNX(W_,7677) = 1.088888888888889E-05;
-DYNX(W_,7680) = 0;
-DYNX(W_,7681) = 0;
-DYNX(W_,7682) = true;
-DYNX(W_,7686) = 1.088888888888889E-05;
-DYNX(W_,7688) = 0;
-DYNX(W_,7689) = 0;
-DYNX(W_,7691) = true;
-DYNX(W_,8001) = 0.0;
-DYNX(W_,7730) = 0.0;
-DYNX(W_,7709) = 0.0;
-DYNX(W_,7693) = false;
-DYNX(W_,7712) = 0;
-DYNX(W_,7735) = 1;
-DYNX(W_,7739) = 2;
+DYNX(W_,7649) = 0;
+DYNX(W_,7651) = true;
+DYNX(W_,7961) = 0.0;
+DYNX(W_,7690) = 0.0;
+DYNX(W_,7669) = 0.0;
+DYNX(W_,7653) = false;
+DYNX(W_,7672) = 0;
+DYNX(W_,7695) = 1;
+DYNX(W_,7699) = 2;
+DYNX(W_,7700) = 2;
+DYNX(W_,7705) = 1;
+DYNX(W_,7706) = false;
+DYNX(W_,7707) = true;
+DYNX(W_,7710) = 0.1088888888888889;
+DYNX(W_,7712) = 1.088888888888889E-05;
+DYNX(W_,7713) = true;
+DYNX(W_,7720) = 101325.0;
+DYNX(W_,7724) = 1.2;
+memcpy(&DYNX(W_,7721), &DymArrays92, sizeof(double)*3);
+DYNX(W_,7738) = 2;
DYNX(W_,7740) = 2;
-DYNX(W_,7745) = 1;
-DYNX(W_,7746) = false;
-DYNX(W_,7747) = true;
-DYNX(W_,7750) = 0.1088888888888889;
-DYNX(W_,7752) = 1.088888888888889E-05;
-DYNX(W_,7753) = true;
-DYNX(W_,7760) = 101325.0;
-DYNX(W_,7764) = 1.2;
-memcpy(&DYNX(W_,7761), &DymArrays92, sizeof(double)*3);
-DYNX(W_,7778) = 2;
-DYNX(W_,7780) = 2;
-DYNX(W_,7781) = 2;
-DYNX(W_,7786) = 1.0;
+DYNX(W_,7741) = 2;
+DYNX(W_,7746) = 1.0;
+DYNX(W_,7747) = false;
+DYNX(W_,7748) = true;
+DYNX(W_,7758) = true;
+DYNX(W_,7771) = 101325.0;
+DYNX(W_,7775) = 1.2;
+DYNX(W_,7773) = 0.01;
+DYNX(W_,7768) = 1014.54;
+DYNX(W_,7767) = 0.0;
+DYNX(W_,7770) = false;
+DYNX(W_,7772) = 293.15;
+DYNX(W_,7774) = 0.99;
+DYNX(W_,7776) = 1;
+memcpy(&DYNX(W_,7781), &DymArrays29, sizeof(double)*3);
+DYNX(W_,7786) = 1;
DYNX(W_,7787) = false;
-DYNX(W_,7788) = true;
-DYNX(W_,7798) = true;
-DYNX(W_,7811) = 101325.0;
-DYNX(W_,7815) = 1.2;
-DYNX(W_,7813) = 0.01;
-DYNX(W_,7808) = 1014.54;
-DYNX(W_,7807) = 0.0;
-DYNX(W_,7810) = false;
-DYNX(W_,7812) = 293.15;
-DYNX(W_,7814) = 0.99;
-DYNX(W_,7816) = 1;
-memcpy(&DYNX(W_,7821), &DymArrays29, sizeof(double)*3);
-DYNX(W_,7826) = 1;
-DYNX(W_,7827) = false;
+DYNX(W_,7789) = 0.1088888888888889;
+DYNX(W_,7790) = true;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(14);
#if defined(DynSimStruct)
-DYNX(W_,7829) = 0.1088888888888889;
-DYNX(W_,7830) = true;
-DYNX(W_,7835) = 1.088888888888889E-05;
-DYNX(W_,7838) = 1.088888888888889E-05;
-DYNX(W_,7840) = 0;
-DYNX(W_,7841) = 0;
-DYNX(W_,7843) = true;
-DYNX(W_,7916) = 200.0;
-DYNX(W_,7855) = 200.0;
-DYNX(W_,7919) = 100.0;
-DYNX(W_,7860) = 100.0;
-DYNX(W_,7844) = 300.0;
-DYNX(W_,7845) = false;
-DYNX(W_,7849) = 300.0;
-DYNX(W_,7863) = 0.010888888888888889;
-DYNX(W_,7867) = 0.1088888888888889;
-DYNX(W_,7868) = 1.088888888888889E-05;
-DYNX(W_,7871) = 0;
-DYNX(W_,7872) = 0;
-DYNX(W_,7873) = true;
-DYNX(W_,7876) = 1.088888888888889E-05;
-DYNX(W_,7878) = 0;
-DYNX(W_,7879) = 0;
-DYNX(W_,7881) = true;
-DYNX(W_,7920) = 0.0;
-DYNX(W_,7899) = 0.0;
-DYNX(W_,7883) = false;
-DYNX(W_,7902) = 0;
-DYNX(W_,7925) = 1;
-DYNX(W_,7929) = 2;
-DYNX(W_,7930) = 2;
-DYNX(W_,7935) = 1;
-DYNX(W_,7936) = false;
-DYNX(W_,7937) = true;
-DYNX(W_,7940) = 0.1088888888888889;
-DYNX(W_,7942) = 1.088888888888889E-05;
-DYNX(W_,7943) = true;
-DYNX(W_,7946) = 101325.0;
-DYNX(W_,7950) = 1.2;
-memcpy(&DYNX(W_,7947), &DymArrays92, sizeof(double)*3);
-DYNX(W_,7964) = 2;
-DYNX(W_,7966) = 2;
-DYNX(W_,7967) = 2;
-DYNX(W_,7972) = 1.0;
-DYNX(W_,7973) = false;
-DYNX(W_,7974) = true;
-DYNX(W_,7981) = true;
-DYNX(W_,7987) = 101325.0;
-DYNX(W_,7991) = 1.2;
-DYNX(W_,7989) = 0.01;
-DYNX(W_,7984) = 1014.54;
-DYNX(W_,7983) = 0.0;
+DYNX(W_,7795) = 1.088888888888889E-05;
+DYNX(W_,7798) = 1.088888888888889E-05;
+DYNX(W_,7800) = 0;
+DYNX(W_,7801) = 0;
+DYNX(W_,7803) = true;
+DYNX(W_,7876) = 200.0;
+DYNX(W_,7815) = 200.0;
+DYNX(W_,7879) = 100.0;
+DYNX(W_,7820) = 100.0;
+DYNX(W_,7804) = 300.0;
+DYNX(W_,7805) = false;
+DYNX(W_,7809) = 300.0;
+DYNX(W_,7823) = 0.010888888888888889;
+DYNX(W_,7827) = 0.1088888888888889;
+DYNX(W_,7828) = 1.088888888888889E-05;
+DYNX(W_,7831) = 0;
+DYNX(W_,7832) = 0;
+DYNX(W_,7833) = true;
+DYNX(W_,7836) = 1.088888888888889E-05;
+DYNX(W_,7838) = 0;
+DYNX(W_,7839) = 0;
+DYNX(W_,7841) = true;
+DYNX(W_,7880) = 0.0;
+DYNX(W_,7859) = 0.0;
+DYNX(W_,7843) = false;
+DYNX(W_,7862) = 0;
+DYNX(W_,7885) = 1;
+DYNX(W_,7889) = 2;
+DYNX(W_,7890) = 2;
+DYNX(W_,7895) = 1;
+DYNX(W_,7896) = false;
+DYNX(W_,7897) = true;
+DYNX(W_,7900) = 0.1088888888888889;
+DYNX(W_,7902) = 1.088888888888889E-05;
+DYNX(W_,7903) = true;
+DYNX(W_,7906) = 101325.0;
+DYNX(W_,7910) = 1.2;
+memcpy(&DYNX(W_,7907), &DymArrays92, sizeof(double)*3);
+DYNX(W_,7924) = 2;
+DYNX(W_,7926) = 2;
+DYNX(W_,7927) = 2;
+DYNX(W_,7932) = 1.0;
+DYNX(W_,7933) = false;
+DYNX(W_,7934) = true;
+DYNX(W_,7941) = true;
+DYNX(W_,7947) = 101325.0;
+DYNX(W_,7951) = 1.2;
+DYNX(W_,7949) = 0.01;
+DYNX(W_,7944) = 1014.54;
+DYNX(W_,7943) = 0.0;
+DYNX(W_,7946) = false;
+DYNX(W_,7948) = 293.15;
+DYNX(W_,7950) = 0.99;
+DYNX(W_,7952) = 1;
+DYNX(W_,7956) = 0.1088888888888889;
+DYNX(W_,7973) = 0;
+memcpy(&DYNX(W_,7977), &DymArrays12, sizeof(double)*4);
DYNX(W_,7986) = false;
-DYNX(W_,7988) = 293.15;
-DYNX(W_,7990) = 0.99;
-DYNX(W_,7992) = 1;
-DYNX(W_,7996) = 0.1088888888888889;
-DYNX(W_,8013) = 0;
-memcpy(&DYNX(W_,8017), &DymArrays12, sizeof(double)*4);
-DYNX(W_,8026) = false;
-DYNX(W_,8028) = true;
-DYNX(W_,8029) = false;
-memcpy(&DYNX(W_,8035), &DymArrays101, sizeof(double)*5);
-DYNX(W_,8043) = 0.0;
-DYNX(W_,8045) = 13288.382850121196;
-DYNX(W_,8046) = 262.65;
-memcpy(&DYNX(W_,8048), &DymArrays102, sizeof(double)*6);
-DYNX(W_,8058) = 1.088888888888889E-05;
-DYNX(W_,8060) = 0;
-DYNX(W_,8061) = 0;
-DYNX(W_,8063) = false;
-DYNX(W_,8065) = false;
-DYNX(W_,8072) = true;
-DYNX(W_,8070) = 0.3;
-DYNX(W_,8066) = 0.03266666666666667;
-DYNX(W_,8071) = 0.010888888888888889;
-DYNX(W_,8073) = 0;
-DYNX(W_,8076) = 1.088888888888889E-05;
-DYNX(W_,8078) = 0;
-DYNX(W_,8079) = 0;
-DYNX(W_,8081) = false;
-DYNX(W_,8083) = false;
-DYNX(W_,8090) = true;
-DYNX(W_,8088) = 0.3;
-DYNX(W_,8084) = 0.03266666666666667;
-DYNX(W_,8089) = 0.010888888888888889;
-DYNX(W_,8091) = 0;
-memcpy(&DYNX(W_,8097), &DymArrays103, sizeof(double)*10);
-memcpy(&DYNX(W_,8109), &DymArrays104, sizeof(double)*4);
-DYNX(W_,8114) = 0.1088888888888889;
-DYNX(W_,8115) = 100.0;
-DYNX(W_,8150) = 2;
-DYNX(W_,8158) = true;
+DYNX(W_,7988) = true;
+DYNX(W_,7989) = false;
+memcpy(&DYNX(W_,7995), &DymArrays101, sizeof(double)*5);
+DYNX(W_,8003) = 0.0;
+DYNX(W_,8005) = 13288.382850121196;
+DYNX(W_,8006) = 262.65;
+memcpy(&DYNX(W_,8008), &DymArrays102, sizeof(double)*6);
+DYNX(W_,8018) = 1.088888888888889E-05;
+DYNX(W_,8020) = 0;
+DYNX(W_,8021) = 0;
+DYNX(W_,8023) = false;
+DYNX(W_,8025) = false;
+DYNX(W_,8032) = true;
+DYNX(W_,8030) = 0.3;
+DYNX(W_,8026) = 0.03266666666666667;
+DYNX(W_,8031) = 0.010888888888888889;
+DYNX(W_,8033) = 0;
+DYNX(W_,8036) = 1.088888888888889E-05;
+DYNX(W_,8038) = 0;
+DYNX(W_,8039) = 0;
+DYNX(W_,8041) = false;
+DYNX(W_,8043) = false;
+DYNX(W_,8050) = true;
+DYNX(W_,8048) = 0.3;
+DYNX(W_,8044) = 0.03266666666666667;
+DYNX(W_,8049) = 0.010888888888888889;
+DYNX(W_,8051) = 0;
+memcpy(&DYNX(W_,8057), &DymArrays103, sizeof(double)*10);
+memcpy(&DYNX(W_,8069), &DymArrays104, sizeof(double)*4);
+DYNX(W_,8074) = 0.1088888888888889;
+DYNX(W_,8075) = 100.0;
+DYNX(W_,8110) = 2;
+DYNX(W_,8118) = true;
#endif
DYNSetAuxString(did_, "tab1", 27);
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
28);
#if defined(DynSimStruct)
-memcpy(&DYNX(W_,8159), &DymArrays105, sizeof(double)*27);
-DYNX(W_,8216) = 0.01;
-DYNX(W_,8227) = 2;
-DYNX(W_,8229) = 1800;
-memcpy(&DYNX(W_,8233), &DymArrays49, sizeof(double)*3);
-DYNX(W_,8237) = true;
+memcpy(&DYNX(W_,8119), &DymArrays105, sizeof(double)*27);
+DYNX(W_,8176) = 0.01;
+DYNX(W_,8187) = 2;
+DYNX(W_,8189) = 1800;
+memcpy(&DYNX(W_,8193), &DymArrays49, sizeof(double)*3);
+DYNX(W_,8197) = true;
#endif
DYNSetAuxString(did_, "tab1", 29);
DYNSetAuxString(did_, "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
30);
#if defined(DynSimStruct)
-memcpy(&DYNX(W_,8238), &DymArrays106, sizeof(double)*4);
-DYNX(W_,8264) = 0.9116922633158369;
-DYNX(W_,8266) = 0.22757907099030072;
-DYNX(W_,8268) = 0.0;
-DYNX(W_,8270) = false;
-DYNX(W_,8275) = 0.1;
-DYNX(W_,8276) = 0.1;
-DYNX(W_,8281) = 323.15;
+memcpy(&DYNX(W_,8198), &DymArrays106, sizeof(double)*4);
+DYNX(W_,8224) = 0.9116922633158369;
+DYNX(W_,8226) = 0.22757907099030072;
+DYNX(W_,8228) = 0.0;
+DYNX(W_,8230) = false;
+DYNX(W_,8235) = 0.1;
+DYNX(W_,8236) = 0.1;
+DYNX(W_,8241) = 323.15;
DYNX(W_,75) = false;
DYNX(W_,604) = true;
DYNX(W_,619) = true;
@@ -8899,40 +8898,40 @@ DYNX(W_,1130) = 0.0;
DYNX(W_,1345) = 0.05;
DYNX(W_,1491) = false;
memcpy(&DYNX(W_,1979), &DymArrays107, sizeof(double)*94);
-DYNX(W_,2616) = 1;
-DYNX(W_,2617) = 2;
-DYNX(W_,2672) = false;
-DYNX(W_,2730) = false;
-DYNX(W_,3239) = 2;
-DYNX(W_,3240) = false;
-DYNX(W_,3289) = 2;
-DYNX(W_,3290) = false;
-DYNX(W_,3470) = 4;
-DYNX(W_,3471) = 4;
-DYNX(W_,3472) = true;
-DYNX(W_,3683) = 0.05;
-DYNX(W_,6290) = 4;
-DYNX(W_,6291) = 4;
-DYNX(W_,6292) = true;
-DYNX(W_,6293) = 0.0;
-DYNX(W_,6503) = 0.05;
-DYNX(W_,6901) = 4;
-DYNX(W_,6902) = 4;
-DYNX(W_,6903) = true;
-DYNX(W_,7117) = 0.05;
-DYNX(W_,7279) = 4;
-DYNX(W_,7280) = 4;
-DYNX(W_,7281) = true;
-DYNX(W_,7495) = 0.05;
-DYNX(W_,7640) = false;
-DYNX(W_,7834) = false;
-DYNX(W_,8186) = 2;
-DYNX(W_,8187) = false;
-DYNX(W_,8242) = 2;
-DYNX(W_,8243) = false;
+DYNX(W_,2601) = 1;
+DYNX(W_,2602) = 2;
+DYNX(W_,2657) = false;
+DYNX(W_,2715) = false;
+DYNX(W_,3212) = 2;
+DYNX(W_,3213) = false;
+DYNX(W_,3262) = 2;
+DYNX(W_,3263) = false;
+DYNX(W_,3432) = 4;
+DYNX(W_,3433) = 4;
+DYNX(W_,3434) = true;
+DYNX(W_,3645) = 0.05;
+DYNX(W_,6250) = 4;
+DYNX(W_,6251) = 4;
+DYNX(W_,6252) = true;
+DYNX(W_,6253) = 0.0;
+DYNX(W_,6463) = 0.05;
+DYNX(W_,6861) = 4;
+DYNX(W_,6862) = 4;
+DYNX(W_,6863) = true;
+DYNX(W_,7077) = 0.05;
+DYNX(W_,7239) = 4;
+DYNX(W_,7240) = 4;
+DYNX(W_,7241) = true;
+DYNX(W_,7455) = 0.05;
+DYNX(W_,7600) = false;
+DYNX(W_,7794) = false;
+DYNX(W_,8146) = 2;
+DYNX(W_,8147) = false;
+DYNX(W_,8202) = 2;
+DYNX(W_,8203) = false;
DYNX(W_,759) = 0.6124088231015443;
DYNX(W_,760) = 0.7905412281389133;
-DYNX(W_,8228) = 1800;
+DYNX(W_,8188) = 1800;
DYNX(W_,653) = 0.6124088231015443;
DYNX(W_,654) = 0.7905412281389133;
DYNX(W_,778) = 0.6124088231015443;
@@ -8951,97 +8950,101 @@ DYNX(W_,835) = 0.6124088231015443;
DYNX(W_,836) = 0.7905412281389133;
DYNX(W_,917) = 0.6124088231015443;
DYNX(W_,918) = 0.7905412281389133;
-DYNX(W_,6425) = 0;
-DYNX(W_,6400) = 0.0;
-DYNX(W_,6427) = 0;
-DYNX(W_,5409) = 0.0;
-DYNX(W_,5648) = 0.0;
-DYNX(W_,3929) = 0.0;
-DYNX(W_,2997) = 0.0;
-DYNX(W_,3605) = 0;
-DYNX(W_,3607) = 0;
-DYNX(W_,4870) = 0.0;
-DYNX(W_,4247) = true;
-DYNX(W_,8437) = false;
-DYNX(W_,4220) = 323.15;
-DYNX(W_,5589) = 1;
-DYNX(W_,4811) = 0.0;
-DYNX(W_,4752) = 0.0;
-DYNX(W_,4693) = 0.0;
-DYNX(W_,5232) = 0.0;
-DYNX(W_,5291) = 0.0;
-DYNX(W_,5350) = 0.0;
-DYNX(W_,3581) = 0.0;
-DYNX(W_,5114) = 0.0;
-DYNX(W_,5173) = 0.0;
-DYNX(W_,5055) = 0.0;
-DYNX(W_,4996) = 0.0;
-DYNX(W_,6223) = 0.0;
-DYNX(W_,6222) = 15.346484396736084;
-DYNX(W_,6161) = 0.0;
-DYNX(W_,6160) = 15.346484396736084;
-DYNX(W_,6099) = 0.0;
-DYNX(W_,6098) = 15.346484396736084;
-DYNX(W_,6037) = 0.0;
-DYNX(W_,6036) = 15.346484396736084;
-DYNX(W_,5975) = 0.0;
-DYNX(W_,5974) = 15.346484396736084;
-DYNX(W_,5439) = 4184;
-DYNX(W_,5447) = 4184;
-DYNX(W_,3038) = 0;
-DYNX(W_,3606) = 0;
-DYNX(W_,4192) = 0;
-DYNX(W_,4228) = 0;
-DYNX(W_,4223) = 0.0;
-DYNX(W_,4312) = 0;
-DYNX(W_,2596) = 1;
-DYNX(W_,2601) = 918;
-DYNX(W_,4255) = true;
-DYNX(W_,4143) = 0;
-DYNX(W_,3202) = 0;
-DYNX(W_,3359) = 0;
-DYNX(W_,4908) = 4184;
-DYNX(W_,4900) = 4184;
-DYNX(W_,4575) = 0.0;
-DYNX(W_,4516) = 0.0;
-DYNX(W_,4457) = 0.0;
+DYNX(W_,6385) = 0;
+DYNX(W_,6360) = 0.0;
+DYNX(W_,6387) = 0;
+DYNX(W_,5369) = 0.0;
+DYNX(W_,5608) = 0.0;
+DYNX(W_,3889) = 0.0;
+DYNX(W_,2972) = 0.0;
+DYNX(W_,3567) = 0;
+DYNX(W_,3569) = 0;
+DYNX(W_,4830) = 0.0;
+DYNX(W_,4207) = true;
+DYNX(W_,8400) = false;
+DYNX(W_,4180) = 323.15;
+DYNX(W_,5549) = 1;
+DYNX(W_,4771) = 0.0;
+DYNX(W_,4712) = 0.0;
+DYNX(W_,4653) = 0.0;
+DYNX(W_,5192) = 0.0;
+DYNX(W_,5251) = 0.0;
+DYNX(W_,5310) = 0.0;
+DYNX(W_,3543) = 0.0;
+DYNX(W_,5074) = 0.0;
+DYNX(W_,5133) = 0.0;
+DYNX(W_,5015) = 0.0;
+DYNX(W_,4956) = 0.0;
+DYNX(W_,6183) = 0.0;
+DYNX(W_,6182) = 15.346484396736084;
+DYNX(W_,6121) = 0.0;
+DYNX(W_,6120) = 15.346484396736084;
+DYNX(W_,6059) = 0.0;
+DYNX(W_,6058) = 15.346484396736084;
+DYNX(W_,5997) = 0.0;
+DYNX(W_,5996) = 15.346484396736084;
+DYNX(W_,5935) = 0.0;
+DYNX(W_,5934) = 15.346484396736084;
+DYNX(W_,5399) = 4184;
+DYNX(W_,5407) = 4184;
+DYNX(W_,3568) = 0;
+DYNX(W_,4152) = 0;
+DYNX(W_,4188) = 0;
+DYNX(W_,4183) = 0.0;
+DYNX(W_,4272) = 0;
+DYNX(W_,3013) = 0;
+DYNX(W_,2582) = 1;
+DYNX(W_,2587) = 918;
+DYNX(W_,3092) = 0.0;
+DYNX(W_,3141) = 0;
+DYNX(W_,2836) = 1;
+DYNX(W_,3107) = 0;
+DYNX(W_,4215) = true;
+DYNX(W_,4103) = 0;
+DYNX(W_,3175) = 0;
+DYNX(W_,3329) = 0;
+DYNX(W_,4868) = 4184;
+DYNX(W_,4860) = 4184;
+DYNX(W_,4535) = 0.0;
+DYNX(W_,4476) = 0.0;
+DYNX(W_,4417) = 0.0;
DYNX(W_,1266) = 0;
DYNX(W_,1241) = 0.0;
DYNX(W_,1268) = 0;
DYNX(W_,1267) = 0;
-DYNX(W_,4634) = 0.0;
-DYNX(W_,4916) = 4184;
-DYNX(W_,4206) = 0;
-DYNX(W_,8444) = false;
-DYNX(W_,5536) = 0;
-DYNX(W_,5455) = 4184;
-DYNX(W_,6426) = 0;
+DYNX(W_,4594) = 0.0;
+DYNX(W_,4876) = 4184;
+DYNX(W_,4166) = 0;
+DYNX(W_,8407) = false;
+DYNX(W_,5496) = 0;
+DYNX(W_,5415) = 4184;
+DYNX(W_,6386) = 0;
DYNX(W_,452) = 0;
DYNX(W_,451) = 0;
-DYNX(W_,7041) = 0;
-DYNX(W_,7038) = 0;
-DYNX(W_,7870) = 0;
-DYNX(W_,7419) = 0;
-DYNX(W_,7416) = 0;
-DYNX(W_,7679) = 0;
-DYNX(W_,7734) = 1;
+DYNX(W_,7001) = 0;
+DYNX(W_,6998) = 0;
+DYNX(W_,7830) = 0;
+DYNX(W_,7379) = 0;
+DYNX(W_,7376) = 0;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(15);
#if defined(DynSimStruct)
-DYNX(W_,7924) = 1;
-DYNX(W_,6770) = 0.0;
-DYNX(W_,7027) = 0;
-DYNX(W_,7040) = 0.0;
-DYNX(W_,7804) = 0.0;
-DYNX(W_,6833) = 0.0;
-DYNX(W_,7819) = 0;
-DYNX(W_,7418) = 0.0;
-DYNX(W_,7995) = 0;
-DYNX(W_,7405) = 0;
+DYNX(W_,7639) = 0;
+DYNX(W_,7694) = 1;
+DYNX(W_,7884) = 1;
+DYNX(W_,6730) = 0.0;
+DYNX(W_,6987) = 0;
+DYNX(W_,7000) = 0.0;
+DYNX(W_,7764) = 0.0;
+DYNX(W_,6793) = 0.0;
+DYNX(W_,7779) = 0;
+DYNX(W_,7378) = 0.0;
+DYNX(W_,7955) = 0;
+DYNX(W_,7365) = 0;
DYNX(W_,397) = 0;
-DYNX(W_,7417) = 0;
-DYNX(W_,7039) = 0;
+DYNX(W_,7377) = 0;
+DYNX(W_,6999) = 0;
DYNX(W_,529) = 0;
DYNX(W_,2246) = 0.6124088231015443;
DYNX(W_,2247) = 0.7905412281389133;
@@ -9049,23 +9052,20 @@ DYNX(W_,2374) = 0.6124088231015443;
DYNX(W_,2375) = 0.7905412281389133;
DYNX(W_,2396) = 0;
DYNX(W_,2099) = 0;
-DYNX(W_,5836) = 0;
-DYNX(W_,4379) = 0;
-DYNX(W_,8054) = 0;
+DYNX(W_,5796) = 0;
+DYNX(W_,4339) = 0;
+DYNX(W_,8014) = 0;
DYNX(W_,2440) = 0;
DYNX(W_,2397) = 0;
-DYNX(W_,5837) = 0;
-DYNX(W_,4380) = 0;
+DYNX(W_,5797) = 0;
+DYNX(W_,4340) = 0;
DYNX(W_,2519) = 0;
DYNX(W_,2438) = 0.0;
-DYNX(W_,6716) = 0;
-DYNX(W_,8055) = 0;
+DYNX(W_,6676) = 0;
+DYNX(W_,8015) = 0;
DYNX(W_,2439) = 0.0;
DYNX(W_,2441) = 0;
DYNX(W_,31) = 0;
-DYNX(W_,3117) = 0.0;
-DYNX(W_,3132) = 0;
-DYNX(W_,3166) = 0;
DYNX(W_,952) = 0;
DYNX(W_,967) = 0;
DYNX(W_,982) = 0;
@@ -9081,181 +9081,176 @@ DYNX(W_,1269) = 0;
DYNX(W_,2393) = 0;
DYNX(W_,2409) = 0;
DYNX(W_,2415) = 0;
-DYNX(W_,3139) = 0;
-DYNX(W_,2577) = 0;
-DYNX(W_,2852) = 1;
-DYNX(W_,2575) = 0.0;
-DYNX(W_,2573) = 0.0;
-DYNX(W_,2993) = 1;
-DYNX(W_,2994) = 0;
-DYNX(W_,3009) = 0;
-DYNX(W_,3394) = 0;
-DYNX(W_,3415) = 0.0;
-DYNX(W_,3452) = 0;
-DYNX(W_,3576) = 1;
-DYNX(W_,3577) = 0;
-DYNX(W_,3593) = 0;
-DYNX(W_,3600) = 0;
-DYNX(W_,3608) = 0;
-DYNX(W_,3805) = 0;
-DYNX(W_,3860) = 0;
-DYNX(W_,3925) = 1;
-DYNX(W_,3926) = 0;
-DYNX(W_,3941) = 0;
-DYNX(W_,3993) = 0;
-DYNX(W_,3999) = 0;
-DYNX(W_,4005) = 0;
-DYNX(W_,4090) = 0;
-DYNX(W_,4107) = 0;
-DYNX(W_,4113) = 0;
-DYNX(W_,4148) = 0;
-DYNX(W_,4226) = 1;
-DYNX(W_,4231) = 0;
-DYNX(W_,4274) = true;
-DYNX(W_,4278) = 0;
-DYNX(W_,4305) = 0;
-DYNX(W_,4315) = 0;
-DYNX(W_,4452) = 1;
-DYNX(W_,4453) = 0;
-DYNX(W_,4469) = 0;
-DYNX(W_,4511) = 1;
-DYNX(W_,4512) = 0;
-DYNX(W_,4528) = 0;
-DYNX(W_,4570) = 1;
-DYNX(W_,4571) = 0;
-DYNX(W_,4587) = 0;
-DYNX(W_,4629) = 1;
-DYNX(W_,4630) = 0;
-DYNX(W_,4646) = 0;
-DYNX(W_,4688) = 1;
-DYNX(W_,4689) = 0;
-DYNX(W_,4705) = 0;
-DYNX(W_,4747) = 1;
-DYNX(W_,4748) = 0;
-DYNX(W_,4764) = 0;
-DYNX(W_,4806) = 1;
-DYNX(W_,4807) = 0;
-DYNX(W_,4823) = 0;
-DYNX(W_,4865) = 1;
-DYNX(W_,4866) = 0;
-DYNX(W_,4882) = 0;
-DYNX(W_,4991) = 1;
-DYNX(W_,4992) = 0;
-DYNX(W_,5008) = 0;
-DYNX(W_,5050) = 1;
-DYNX(W_,5051) = 0;
-DYNX(W_,5067) = 0;
-DYNX(W_,5109) = 1;
-DYNX(W_,5110) = 0;
-DYNX(W_,5126) = 0;
-DYNX(W_,5168) = 1;
-DYNX(W_,5169) = 0;
-DYNX(W_,5185) = 0;
-DYNX(W_,5227) = 1;
-DYNX(W_,5228) = 0;
-DYNX(W_,5244) = 0;
-DYNX(W_,5286) = 1;
-DYNX(W_,5287) = 0;
-DYNX(W_,5303) = 0;
-DYNX(W_,5345) = 1;
-DYNX(W_,5346) = 0;
-DYNX(W_,5362) = 0;
-DYNX(W_,5404) = 1;
-DYNX(W_,5405) = 0;
-DYNX(W_,5421) = 0;
-DYNX(W_,5644) = 1;
-DYNX(W_,5645) = 0;
-DYNX(W_,5660) = 0;
-DYNX(W_,5717) = 0;
-DYNX(W_,5723) = 0;
-DYNX(W_,5911) = 0;
-DYNX(W_,5970) = 1;
-DYNX(W_,5971) = 0;
-DYNX(W_,5987) = 0;
-DYNX(W_,6032) = 1;
-DYNX(W_,6033) = 0;
-DYNX(W_,6049) = 0;
-DYNX(W_,6094) = 1;
-DYNX(W_,6095) = 0;
-DYNX(W_,6111) = 0;
-DYNX(W_,6156) = 1;
-DYNX(W_,6157) = 0;
-DYNX(W_,6173) = 0;
-DYNX(W_,6218) = 1;
-DYNX(W_,6219) = 0;
-DYNX(W_,6235) = 0;
-DYNX(W_,6271) = 0;
-DYNX(W_,6396) = 1;
-DYNX(W_,6397) = 0;
-DYNX(W_,6412) = 0;
-DYNX(W_,6420) = 0;
-DYNX(W_,6428) = 0;
-DYNX(W_,6738) = 0;
-DYNX(W_,6739) = 0;
-DYNX(W_,6761) = 0.0;
-DYNX(W_,6824) = 0.0;
-DYNX(W_,7034) = 0;
-DYNX(W_,7042) = 0;
-DYNX(W_,7043) = 0.0;
-DYNX(W_,7412) = 0;
-DYNX(W_,7420) = 0;
-DYNX(W_,7421) = 0.0;
-DYNX(W_,8273) = 0;
-DYNX(W_,8274) = 0;
-DYNX(W_,7804) = 0.0;
-DYNX(W_,5114) = 0.0;
-DYNX(W_,5055) = 0.0;
-DYNX(W_,4996) = 0.0;
-DYNX(W_,5350) = 0.0;
-DYNX(W_,5291) = 0.0;
-DYNX(W_,5232) = 0.0;
-DYNX(W_,2997) = 0.0;
-DYNX(W_,5648) = 0.0;
-DYNX(W_,3929) = 0.0;
-DYNX(W_,3581) = 0.0;
+DYNX(W_,3114) = 0;
+DYNX(W_,2968) = 1;
+DYNX(W_,2969) = 0;
+DYNX(W_,2984) = 0;
+DYNX(W_,3362) = 0;
+DYNX(W_,3414) = 0;
+DYNX(W_,3538) = 1;
+DYNX(W_,3539) = 0;
+DYNX(W_,3555) = 0;
+DYNX(W_,3562) = 0;
+DYNX(W_,3570) = 0;
+DYNX(W_,3767) = 0;
+DYNX(W_,3822) = 0;
+DYNX(W_,3885) = 1;
+DYNX(W_,3886) = 0;
+DYNX(W_,3901) = 0;
+DYNX(W_,3953) = 0;
+DYNX(W_,3959) = 0;
+DYNX(W_,3965) = 0;
+DYNX(W_,4050) = 0;
+DYNX(W_,4067) = 0;
+DYNX(W_,4073) = 0;
+DYNX(W_,4108) = 0;
+DYNX(W_,4186) = 1;
+DYNX(W_,4191) = 0;
+DYNX(W_,4234) = true;
+DYNX(W_,4238) = 0;
+DYNX(W_,4265) = 0;
+DYNX(W_,4275) = 0;
+DYNX(W_,4412) = 1;
+DYNX(W_,4413) = 0;
+DYNX(W_,4429) = 0;
+DYNX(W_,4471) = 1;
+DYNX(W_,4472) = 0;
+DYNX(W_,4488) = 0;
+DYNX(W_,4530) = 1;
+DYNX(W_,4531) = 0;
+DYNX(W_,4547) = 0;
+DYNX(W_,4589) = 1;
+DYNX(W_,4590) = 0;
+DYNX(W_,4606) = 0;
+DYNX(W_,4648) = 1;
+DYNX(W_,4649) = 0;
+DYNX(W_,4665) = 0;
+DYNX(W_,4707) = 1;
+DYNX(W_,4708) = 0;
+DYNX(W_,4724) = 0;
+DYNX(W_,4766) = 1;
+DYNX(W_,4767) = 0;
+DYNX(W_,4783) = 0;
+DYNX(W_,4825) = 1;
+DYNX(W_,4826) = 0;
+DYNX(W_,4842) = 0;
+DYNX(W_,4951) = 1;
+DYNX(W_,4952) = 0;
+DYNX(W_,4968) = 0;
+DYNX(W_,5010) = 1;
+DYNX(W_,5011) = 0;
+DYNX(W_,5027) = 0;
+DYNX(W_,5069) = 1;
+DYNX(W_,5070) = 0;
+DYNX(W_,5086) = 0;
+DYNX(W_,5128) = 1;
+DYNX(W_,5129) = 0;
+DYNX(W_,5145) = 0;
+DYNX(W_,5187) = 1;
+DYNX(W_,5188) = 0;
+DYNX(W_,5204) = 0;
+DYNX(W_,5246) = 1;
+DYNX(W_,5247) = 0;
+DYNX(W_,5263) = 0;
+DYNX(W_,5305) = 1;
+DYNX(W_,5306) = 0;
+DYNX(W_,5322) = 0;
+DYNX(W_,5364) = 1;
+DYNX(W_,5365) = 0;
+DYNX(W_,5381) = 0;
+DYNX(W_,5604) = 1;
+DYNX(W_,5605) = 0;
+DYNX(W_,5620) = 0;
+DYNX(W_,5677) = 0;
+DYNX(W_,5683) = 0;
+DYNX(W_,5871) = 0;
+DYNX(W_,5930) = 1;
+DYNX(W_,5931) = 0;
+DYNX(W_,5947) = 0;
+DYNX(W_,5992) = 1;
+DYNX(W_,5993) = 0;
+DYNX(W_,6009) = 0;
+DYNX(W_,6054) = 1;
+DYNX(W_,6055) = 0;
+DYNX(W_,6071) = 0;
+DYNX(W_,6116) = 1;
+DYNX(W_,6117) = 0;
+DYNX(W_,6133) = 0;
+DYNX(W_,6178) = 1;
+DYNX(W_,6179) = 0;
+DYNX(W_,6195) = 0;
+DYNX(W_,6231) = 0;
+DYNX(W_,6356) = 1;
+DYNX(W_,6357) = 0;
+DYNX(W_,6372) = 0;
+DYNX(W_,6380) = 0;
+DYNX(W_,6388) = 0;
+DYNX(W_,6698) = 0;
+DYNX(W_,6699) = 0;
+DYNX(W_,6721) = 0.0;
+DYNX(W_,6784) = 0.0;
+DYNX(W_,6994) = 0;
+DYNX(W_,7002) = 0;
+DYNX(W_,7003) = 0.0;
+DYNX(W_,7372) = 0;
+DYNX(W_,7380) = 0;
+DYNX(W_,7381) = 0.0;
+DYNX(W_,8233) = 0;
+DYNX(W_,8234) = 0;
+DYNX(W_,3092) = 0.0;
+DYNX(W_,7764) = 0.0;
+DYNX(W_,5074) = 0.0;
+DYNX(W_,5015) = 0.0;
+DYNX(W_,4956) = 0.0;
+DYNX(W_,5310) = 0.0;
+DYNX(W_,5251) = 0.0;
+DYNX(W_,5192) = 0.0;
+DYNX(W_,5608) = 0.0;
+DYNX(W_,3889) = 0.0;
+DYNX(W_,2972) = 0.0;
+DYNX(W_,3543) = 0.0;
DYNX(W_,1241) = 0.0;
-DYNX(W_,4575) = 0.0;
-DYNX(W_,4516) = 0.0;
-DYNX(W_,4457) = 0.0;
-DYNX(W_,4693) = 0.0;
-DYNX(W_,4752) = 0.0;
-DYNX(W_,4811) = 0.0;
-DYNX(W_,4870) = 0.0;
-DYNX(W_,4634) = 0.0;
-DYNX(W_,5409) = 0.0;
-DYNX(W_,5173) = 0.0;
-DYNX(W_,6400) = 0.0;
-DYNX(W_,3117) = 0.0;
-DYNX(W_,2563) = 0.0;
-DYNX(W_,3045) = 0.0;
-DYNX(W_,5843) = 0.0;
-DYNX(W_,7804) = 0.0;
+DYNX(W_,4535) = 0.0;
+DYNX(W_,4476) = 0.0;
+DYNX(W_,4417) = 0.0;
+DYNX(W_,4653) = 0.0;
+DYNX(W_,4712) = 0.0;
+DYNX(W_,4771) = 0.0;
+DYNX(W_,4830) = 0.0;
+DYNX(W_,4594) = 0.0;
+DYNX(W_,5369) = 0.0;
+DYNX(W_,5133) = 0.0;
+DYNX(W_,6360) = 0.0;
+DYNX(W_,2560) = 0.0;
+DYNX(W_,3020) = 0.0;
+DYNX(W_,5803) = 0.0;
+DYNX(W_,3092) = 0.0;
+DYNX(W_,7764) = 0.0;
DYNX(W_,1241) = 0.0;
-DYNX(W_,5114) = 0.0;
-DYNX(W_,5055) = 0.0;
-DYNX(W_,4996) = 0.0;
-DYNX(W_,5350) = 0.0;
-DYNX(W_,5291) = 0.0;
-DYNX(W_,5232) = 0.0;
-DYNX(W_,2997) = 0.0;
-DYNX(W_,4752) = 0.0;
-DYNX(W_,4811) = 0.0;
-DYNX(W_,4870) = 0.0;
-DYNX(W_,5648) = 0.0;
-DYNX(W_,3929) = 0.0;
-DYNX(W_,3581) = 0.0;
-DYNX(W_,4693) = 0.0;
-DYNX(W_,4457) = 0.0;
-DYNX(W_,4516) = 0.0;
-DYNX(W_,4575) = 0.0;
-DYNX(W_,4634) = 0.0;
-DYNX(W_,5409) = 0.0;
-DYNX(W_,5173) = 0.0;
-DYNX(W_,6400) = 0.0;
-DYNX(W_,3117) = 0.0;
-DYNX(W_,3427) = 101325;
-DYNX(W_,6657) = 101325;
-DYNX(W_,7258) = 101325;
+DYNX(W_,5074) = 0.0;
+DYNX(W_,5015) = 0.0;
+DYNX(W_,4956) = 0.0;
+DYNX(W_,5310) = 0.0;
+DYNX(W_,5251) = 0.0;
+DYNX(W_,5192) = 0.0;
+DYNX(W_,4712) = 0.0;
+DYNX(W_,4771) = 0.0;
+DYNX(W_,4830) = 0.0;
+DYNX(W_,5608) = 0.0;
+DYNX(W_,3889) = 0.0;
+DYNX(W_,2972) = 0.0;
+DYNX(W_,3543) = 0.0;
+DYNX(W_,4653) = 0.0;
+DYNX(W_,4417) = 0.0;
+DYNX(W_,4476) = 0.0;
+DYNX(W_,4535) = 0.0;
+DYNX(W_,4594) = 0.0;
+DYNX(W_,5369) = 0.0;
+DYNX(W_,5133) = 0.0;
+DYNX(W_,6360) = 0.0;
+DYNX(W_,3389) = 101325;
+DYNX(W_,6617) = 101325;
+DYNX(W_,7218) = 101325;
DYNX(W_,1103) = 323.15;
DYNX(W_,1101) = 4184.0;
DYNX(W_,1093) = 323.15;
@@ -9279,16 +9274,16 @@ DYNX(W_,922) = 294.15;
DYNX(W_,930) = 0.0;
DYNX(W_,928) = 0.0;
DYNX(W_,931) = 0.0;
-#endif
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(16);
-#if defined(DynSimStruct)
DYNX(W_,932) = 0.0;
DYNX(W_,903) = 0.01;
DYNX(W_,916) = 0.9116922633158369;
DYNX(W_,909) = 0.0;
DYNX(W_,907) = 0.9116922633158369;
DYNX(W_,908) = 0.22757907099030072;
+#endif
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(16);
+#if defined(DynSimStruct)
DYNX(W_,904) = 0.0;
DYNX(W_,893) = 0.0;
DYNX(W_,891) = 0.9116922633158369;
@@ -9395,7 +9390,7 @@ DYNX(W_,986) = 0.0;
DYNX(W_,981) = false;
DYNX(W_,966) = false;
DYNX(W_,951) = false;
-DYNX(W_,8278) = 323.15;
+DYNX(W_,8238) = 323.15;
DYNX(W_,2434) = 0.0;
DYNX(W_,2432) = 0.9116922633158369;
DYNX(W_,2433) = 0.22757907099030072;
@@ -9435,398 +9430,360 @@ DYNX(W_,2435) = 0.9116922633158369;
DYNX(W_,2436) = 0.22757907099030072;
DYNX(W_,2444) = 0.0;
DYNX(W_,2443) = 0.0;
-DYNX(W_,4263) = true;
-DYNX(W_,4265) = 2;
-DYNX(W_,4261) = 2;
-DYNX(W_,4262) = 2;
-DYNX(W_,4212) = 323.15;
-DYNX(W_,4217) = false;
-DYNX(W_,4215) = 323.15;
+DYNX(W_,4223) = true;
+DYNX(W_,4225) = 2;
+DYNX(W_,4221) = 2;
+DYNX(W_,4222) = 2;
+DYNX(W_,4172) = 323.15;
+DYNX(W_,4177) = false;
+DYNX(W_,4175) = 323.15;
+DYNX(W_,4173) = false;
+DYNX(W_,4231) = 323.15;
+DYNX(W_,4230) = 323.15;
+DYNX(W_,4236) = 2;
+DYNX(W_,4232) = 2;
+DYNX(W_,4233) = 2;
+DYNX(W_,4206) = true;
+DYNX(W_,4212) = false;
+DYNX(W_,4198) = 1.0;
+DYNX(W_,4200) = 0.0;
+DYNX(W_,4154) = 0.0;
+DYNX(W_,4168) = 0.0;
+DYNX(W_,4203) = true;
+DYNX(W_,4204) = true;
+DYNX(W_,4209) = true;
+DYNX(W_,4210) = false;
+DYNX(W_,4208) = false;
+DYNX(W_,4216) = true;
+DYNX(W_,4184) = 323.15;
+DYNX(W_,4148) = false;
+DYNX(W_,4146) = false;
+DYNX(W_,4181) = 323.15;
+DYNX(W_,4194) = false;
+DYNX(W_,4192) = false;
+DYNX(W_,4196) = 0.0;
+DYNX(W_,4241) = false;
+DYNX(W_,4239) = false;
+DYNX(W_,4243) = 0.0;
+DYNX(W_,4187) = false;
+DYNX(W_,4189) = 0.0;
DYNX(W_,4213) = false;
-DYNX(W_,4271) = 323.15;
-DYNX(W_,4270) = 323.15;
-DYNX(W_,4276) = 2;
-DYNX(W_,4272) = 2;
-DYNX(W_,4273) = 2;
-DYNX(W_,4246) = true;
-DYNX(W_,4252) = false;
-DYNX(W_,4238) = 1.0;
-DYNX(W_,4240) = 0.0;
-DYNX(W_,4194) = 0.0;
-DYNX(W_,4208) = 0.0;
-DYNX(W_,4243) = true;
-DYNX(W_,4244) = true;
-DYNX(W_,4249) = true;
-DYNX(W_,4250) = false;
-DYNX(W_,4248) = false;
-DYNX(W_,4256) = true;
-DYNX(W_,4224) = 323.15;
-DYNX(W_,4188) = false;
-DYNX(W_,4186) = false;
-DYNX(W_,4221) = 323.15;
-DYNX(W_,4234) = false;
-DYNX(W_,4232) = false;
-DYNX(W_,4236) = 0.0;
-DYNX(W_,4281) = false;
-DYNX(W_,4279) = false;
-DYNX(W_,4283) = 0.0;
-DYNX(W_,4227) = false;
-DYNX(W_,4229) = 0.0;
-DYNX(W_,4253) = false;
-DYNX(W_,4254) = true;
-DYNX(W_,4163) = 0.0;
-DYNX(W_,4158) = 0.0;
-DYNX(W_,4106) = false;
-DYNX(W_,4112) = false;
-DYNX(W_,4061) = 323.15;
-DYNX(W_,4308) = false;
-DYNX(W_,4306) = false;
-DYNX(W_,4310) = 0.0;
-DYNX(W_,4318) = false;
-DYNX(W_,4316) = false;
-DYNX(W_,4320) = 0.0;
-DYNX(W_,4313) = 0.0;
-DYNX(W_,4089) = false;
-DYNX(W_,4011) = 0.0;
-DYNX(W_,4009) = 0.9116922633158369;
-DYNX(W_,4010) = 0.22757907099030072;
-DYNX(W_,5716) = false;
-DYNX(W_,5722) = false;
-DYNX(W_,4920) = 294.15;
-DYNX(W_,5711) = 294.15;
-DYNX(W_,5440) = 0.598;
-DYNX(W_,5441) = 995.586;
-DYNX(W_,5448) = 0.598;
-DYNX(W_,5449) = 995.586;
-DYNX(W_,5456) = 0.598;
-DYNX(W_,5457) = 995.586;
-DYNX(W_,4944) = 294.15;
-DYNX(W_,5426) = 294.15;
-DYNX(W_,5428) = 294.15;
-DYNX(W_,5430) = 294.15;
-DYNX(W_,5432) = 294.15;
-DYNX(W_,4997) = 0.0;
-DYNX(W_,4993) = 0.018015268;
-DYNX(W_,4990) = 995.586;
-DYNX(W_,5056) = 0.0;
-DYNX(W_,5052) = 0.018015268;
-DYNX(W_,5049) = 995.586;
-DYNX(W_,5115) = 0.0;
-DYNX(W_,5111) = 0.018015268;
-DYNX(W_,5108) = 995.586;
-DYNX(W_,5174) = 0.0;
-DYNX(W_,5170) = 0.018015268;
-DYNX(W_,5167) = 995.586;
-DYNX(W_,5233) = 0.0;
-DYNX(W_,5229) = 0.018015268;
-DYNX(W_,5226) = 995.586;
-DYNX(W_,5292) = 0.0;
-DYNX(W_,5288) = 0.018015268;
-DYNX(W_,5285) = 995.586;
-DYNX(W_,5351) = 0.0;
-DYNX(W_,5347) = 0.018015268;
-DYNX(W_,5344) = 995.586;
-DYNX(W_,5410) = 0.0;
-DYNX(W_,5406) = 0.018015268;
-DYNX(W_,5403) = 995.586;
-DYNX(W_,4901) = 0.598;
-DYNX(W_,4902) = 995.586;
-DYNX(W_,4909) = 0.598;
-DYNX(W_,4910) = 995.586;
+DYNX(W_,4214) = true;
+DYNX(W_,4123) = 0.0;
+DYNX(W_,4118) = 0.0;
+DYNX(W_,4066) = false;
+DYNX(W_,4072) = false;
+DYNX(W_,4021) = 323.15;
+DYNX(W_,4268) = false;
+DYNX(W_,4266) = false;
+DYNX(W_,4270) = 0.0;
+DYNX(W_,4278) = false;
+DYNX(W_,4276) = false;
+DYNX(W_,4280) = 0.0;
+DYNX(W_,4273) = 0.0;
+DYNX(W_,4049) = false;
+DYNX(W_,3971) = 0.0;
+DYNX(W_,3969) = 0.9116922633158369;
+DYNX(W_,3970) = 0.22757907099030072;
+DYNX(W_,5676) = false;
+DYNX(W_,5682) = false;
+DYNX(W_,4880) = 294.15;
+DYNX(W_,5671) = 294.15;
+DYNX(W_,5400) = 0.598;
+DYNX(W_,5401) = 995.586;
+DYNX(W_,5408) = 0.598;
+DYNX(W_,5409) = 995.586;
+DYNX(W_,5416) = 0.598;
+DYNX(W_,5417) = 995.586;
+DYNX(W_,4904) = 294.15;
+DYNX(W_,5386) = 294.15;
+DYNX(W_,5388) = 294.15;
+DYNX(W_,5390) = 294.15;
+DYNX(W_,5392) = 294.15;
+DYNX(W_,4957) = 0.0;
+DYNX(W_,4953) = 0.018015268;
+DYNX(W_,4950) = 995.586;
+DYNX(W_,5016) = 0.0;
+DYNX(W_,5012) = 0.018015268;
+DYNX(W_,5009) = 995.586;
+DYNX(W_,5075) = 0.0;
+DYNX(W_,5071) = 0.018015268;
+DYNX(W_,5068) = 995.586;
+DYNX(W_,5134) = 0.0;
+DYNX(W_,5130) = 0.018015268;
+DYNX(W_,5127) = 995.586;
+DYNX(W_,5193) = 0.0;
+DYNX(W_,5189) = 0.018015268;
+DYNX(W_,5186) = 995.586;
+DYNX(W_,5252) = 0.0;
+DYNX(W_,5248) = 0.018015268;
+DYNX(W_,5245) = 995.586;
+DYNX(W_,5311) = 0.0;
+DYNX(W_,5307) = 0.018015268;
+DYNX(W_,5304) = 995.586;
+DYNX(W_,5370) = 0.0;
+DYNX(W_,5366) = 0.018015268;
+DYNX(W_,5363) = 995.586;
+DYNX(W_,4861) = 0.598;
+DYNX(W_,4862) = 995.586;
+DYNX(W_,4869) = 0.598;
+DYNX(W_,4870) = 995.586;
+DYNX(W_,4877) = 0.598;
+DYNX(W_,4878) = 995.586;
+DYNX(W_,4365) = 294.15;
+DYNX(W_,4847) = 294.15;
+DYNX(W_,4849) = 294.15;
+DYNX(W_,4851) = 294.15;
#endif
BreakSectionFunctionEnd()
BreakSectionFunctionStart(17);
#if defined(DynSimStruct)
-DYNX(W_,4917) = 0.598;
-DYNX(W_,4918) = 995.586;
-DYNX(W_,4405) = 294.15;
-DYNX(W_,4887) = 294.15;
-DYNX(W_,4889) = 294.15;
-DYNX(W_,4891) = 294.15;
-DYNX(W_,4893) = 294.15;
-DYNX(W_,4458) = 0.0;
-DYNX(W_,4454) = 0.018015268;
-DYNX(W_,4451) = 995.586;
-DYNX(W_,4517) = 0.0;
-DYNX(W_,4513) = 0.018015268;
-DYNX(W_,4510) = 995.586;
-DYNX(W_,4576) = 0.0;
-DYNX(W_,4572) = 0.018015268;
-DYNX(W_,4569) = 995.586;
-DYNX(W_,4635) = 0.0;
-DYNX(W_,4631) = 0.018015268;
-DYNX(W_,4628) = 995.586;
-DYNX(W_,4694) = 0.0;
-DYNX(W_,4690) = 0.018015268;
-DYNX(W_,4687) = 995.586;
-DYNX(W_,4753) = 0.0;
-DYNX(W_,4749) = 0.018015268;
-DYNX(W_,4746) = 995.586;
-DYNX(W_,4812) = 0.0;
-DYNX(W_,4808) = 0.018015268;
-DYNX(W_,4805) = 995.586;
-DYNX(W_,4871) = 0.0;
-DYNX(W_,4867) = 0.018015268;
-DYNX(W_,4864) = 995.586;
-DYNX(W_,5591) = 1.0;
-DYNX(W_,5640) = 0.0;
-DYNX(W_,5649) = 0.0;
-DYNX(W_,5646) = 0.018015268;
-DYNX(W_,5643) = 995.586;
-memcpy(&DYNX(W_,5619), &DymArrays41, sizeof(double)*3);
-DYNX(W_,5623) = 0.0;
-DYNX(W_,5618) = 0.0;
-DYNX(W_,5725) = 0.0;
-DYNX(W_,5724) = 0.0;
-DYNX(W_,3446) = true;
-DYNX(W_,3982) = 1;
-DYNX(W_,3992) = false;
-DYNX(W_,3987) = false;
-DYNX(W_,3988) = 0;
-DYNX(W_,3983) = 1;
-DYNX(W_,3849) = 1;
-DYNX(W_,3859) = false;
-DYNX(W_,3854) = false;
-DYNX(W_,3855) = 0;
-DYNX(W_,3850) = 1;
-DYNX(W_,4004) = false;
-DYNX(W_,3998) = false;
-DYNX(W_,3804) = false;
-DYNX(W_,3451) = false;
-DYNX(W_,3435) = 101325.0;
-DYNX(W_,3433) = 101325.0;
-DYNX(W_,3420) = 101325.0;
-DYNX(W_,3418) = 101325.0;
-DYNX(W_,2553) = true;
-DYNX(W_,2551) = true;
-DYNX(W_,2549) = true;
-DYNX(W_,2550) = 1.0;
-DYNX(W_,3930) = 0.0;
-DYNX(W_,3927) = 0.018015268;
-DYNX(W_,3924) = 995.586;
-DYNX(W_,3861) = true;
-DYNX(W_,3862) = 1.0;
-DYNX(W_,2998) = 0.0;
-DYNX(W_,2995) = 0.018015268;
-DYNX(W_,2992) = 995.586;
-DYNX(W_,3392) = 0.0;
-DYNX(W_,3391) = true;
-DYNX(W_,3397) = 0.0;
-DYNX(W_,3398) = true;
-DYNX(W_,3399) = 0.0;
-DYNX(W_,3400) = true;
-DYNX(W_,3401) = 0.0;
-DYNX(W_,3396) = 0.0;
-DYNX(W_,3040) = 101325.0;
-DYNX(W_,3041) = 101325.0;
-DYNX(W_,3134) = 101325.0;
-DYNX(W_,3135) = 101325.0;
-DYNX(W_,3118) = 0.0;
-DYNX(W_,3112) = 101325.0;
-DYNX(W_,3114) = 101325.0;
-DYNX(W_,3108) = 101325.0;
+DYNX(W_,4853) = 294.15;
+DYNX(W_,4418) = 0.0;
+DYNX(W_,4414) = 0.018015268;
+DYNX(W_,4411) = 995.586;
+DYNX(W_,4477) = 0.0;
+DYNX(W_,4473) = 0.018015268;
+DYNX(W_,4470) = 995.586;
+DYNX(W_,4536) = 0.0;
+DYNX(W_,4532) = 0.018015268;
+DYNX(W_,4529) = 995.586;
+DYNX(W_,4595) = 0.0;
+DYNX(W_,4591) = 0.018015268;
+DYNX(W_,4588) = 995.586;
+DYNX(W_,4654) = 0.0;
+DYNX(W_,4650) = 0.018015268;
+DYNX(W_,4647) = 995.586;
+DYNX(W_,4713) = 0.0;
+DYNX(W_,4709) = 0.018015268;
+DYNX(W_,4706) = 995.586;
+DYNX(W_,4772) = 0.0;
+DYNX(W_,4768) = 0.018015268;
+DYNX(W_,4765) = 995.586;
+DYNX(W_,4831) = 0.0;
+DYNX(W_,4827) = 0.018015268;
+DYNX(W_,4824) = 995.586;
+DYNX(W_,5551) = 1.0;
+DYNX(W_,5600) = 0.0;
+DYNX(W_,5609) = 0.0;
+DYNX(W_,5606) = 0.018015268;
+DYNX(W_,5603) = 995.586;
+memcpy(&DYNX(W_,5579), &DymArrays41, sizeof(double)*3);
+DYNX(W_,5583) = 0.0;
+DYNX(W_,5578) = 0.0;
+DYNX(W_,5685) = 0.0;
+DYNX(W_,5684) = 0.0;
+DYNX(W_,3408) = true;
+DYNX(W_,3942) = 1;
+DYNX(W_,3952) = false;
+DYNX(W_,3947) = false;
+DYNX(W_,3948) = 0;
+DYNX(W_,3943) = 1;
+DYNX(W_,3811) = 1;
+DYNX(W_,3821) = false;
+DYNX(W_,3816) = false;
+DYNX(W_,3817) = 0;
+DYNX(W_,3812) = 1;
+DYNX(W_,3964) = false;
+DYNX(W_,3958) = false;
+DYNX(W_,3766) = false;
+DYNX(W_,3413) = false;
+DYNX(W_,3397) = 101325.0;
+DYNX(W_,3395) = 101325.0;
+DYNX(W_,3382) = 101325.0;
+DYNX(W_,3380) = 101325.0;
+DYNX(W_,2549) = 1.0;
+DYNX(W_,3890) = 0.0;
+DYNX(W_,3887) = 0.018015268;
+DYNX(W_,3884) = 995.586;
+DYNX(W_,3823) = 1.0;
+DYNX(W_,2973) = 0.0;
+DYNX(W_,2970) = 0.018015268;
+DYNX(W_,2967) = 995.586;
+DYNX(W_,3365) = 0.0;
+DYNX(W_,3366) = 0.0;
+DYNX(W_,3364) = 0.0;
+DYNX(W_,3015) = 101325.0;
+DYNX(W_,3016) = 101325.0;
DYNX(W_,3109) = 101325.0;
-DYNX(W_,3080) = 101325.0;
-DYNX(W_,3078) = 101325.0;
-DYNX(W_,3079) = 101325.0;
-DYNX(W_,3414) = true;
-DYNX(W_,3378) = 101325.0;
-DYNX(W_,3379) = 101325.0;
-DYNX(W_,2556) = 101325.0;
-DYNX(W_,2557) = 101325.0;
-DYNX(W_,2578) = true;
-DYNX(W_,2579) = true;
-DYNX(W_,2855) = 0.0;
-DYNX(W_,2856) = 0.0;
-DYNX(W_,2859) = 0.0;
-DYNX(W_,2871) = 0.0;
-DYNX(W_,2850) = true;
-DYNX(W_,2851) = 1.0;
-memcpy(&DYNX(W_,2865), &DymArrays108, sizeof(double)*3);
-memcpy(&DYNX(W_,2860), &DymArrays41, sizeof(double)*3);
-DYNX(W_,2858) = true;
-DYNX(W_,2857) = 1.0;
-DYNX(W_,2594) = true;
-DYNX(W_,2603) = 918.0;
-DYNX(W_,2600) = 1.0;
-DYNX(W_,2584) = true;
-DYNX(W_,2585) = 1.0;
-DYNX(W_,2591) = true;
-DYNX(W_,2607) = true;
-DYNX(W_,2608) = 1.0;
-DYNX(W_,2570) = true;
-DYNX(W_,2571) = 1.0;
-DYNX(W_,2576) = true;
-DYNX(W_,2574) = true;
-DYNX(W_,2572) = true;
-DYNX(W_,3361) = 0.0;
-DYNX(W_,3365) = false;
-DYNX(W_,3366) = 0;
-DYNX(W_,3362) = 1;
-DYNX(W_,3368) = 1;
-DYNX(W_,3357) = true;
-DYNX(W_,3358) = 1.0;
-DYNX(W_,3350) = 1;
-DYNX(W_,3347) = false;
-DYNX(W_,3348) = 0;
-DYNX(W_,3344) = 1;
-DYNX(W_,3326) = true;
-DYNX(W_,3327) = 1.0;
-DYNX(W_,3204) = 0.0;
-DYNX(W_,3208) = false;
-DYNX(W_,3209) = 0;
-DYNX(W_,3205) = 1;
-DYNX(W_,3211) = 1;
-DYNX(W_,3200) = true;
-DYNX(W_,3201) = 1.0;
-DYNX(W_,3325) = true;
-DYNX(W_,3167) = true;
-DYNX(W_,3168) = 1.0;
-DYNX(W_,3403) = true;
-DYNX(W_,3404) = 1.0;
-DYNX(W_,2564) = 101325.0;
-DYNX(W_,2566) = 101325.0;
-DYNX(W_,3667) = 995.586;
-DYNX(W_,3510) = 0.0;
-DYNX(W_,3601) = 995.586;
-DYNX(W_,3572) = 0.0;
-DYNX(W_,3582) = 0.0;
-DYNX(W_,3578) = 0.018015268;
-DYNX(W_,3575) = 995.586;
-memcpy(&DYNX(W_,3551), &DymArrays41, sizeof(double)*3);
-DYNX(W_,3555) = 0.0;
-DYNX(W_,3550) = 0.0;
-DYNX(W_,3837) = 0.0;
-DYNX(W_,3835) = 0.0;
-DYNX(W_,3838) = 0.0;
-DYNX(W_,3839) = 0.0;
-DYNX(W_,3863) = true;
-DYNX(W_,3864) = 1.0;
-DYNX(W_,3444) = true;
+DYNX(W_,3110) = 101325.0;
+DYNX(W_,3093) = 0.0;
+DYNX(W_,3087) = 101325.0;
+DYNX(W_,3089) = 101325.0;
+DYNX(W_,3083) = 101325.0;
+DYNX(W_,3084) = 101325.0;
+DYNX(W_,3055) = 101325.0;
+DYNX(W_,3053) = 101325.0;
+DYNX(W_,3054) = 101325.0;
+DYNX(W_,3348) = 101325.0;
+DYNX(W_,3349) = 101325.0;
+DYNX(W_,2553) = 101325.0;
+DYNX(W_,2554) = 101325.0;
+DYNX(W_,2835) = 1.0;
+DYNX(W_,2842) = 1.0;
+DYNX(W_,2839) = 1.0;
+DYNX(W_,2589) = 918.0;
+DYNX(W_,2586) = 1.0;
+DYNX(W_,2573) = 1.0;
+DYNX(W_,2593) = 1.0;
+DYNX(W_,2567) = 1.0;
+DYNX(W_,3331) = 0.0;
+DYNX(W_,3335) = false;
+DYNX(W_,3336) = 0;
+DYNX(W_,3332) = 1;
+DYNX(W_,3338) = 1;
+DYNX(W_,3328) = 1.0;
+DYNX(W_,3321) = 1;
+DYNX(W_,3318) = false;
+DYNX(W_,3319) = 0;
+DYNX(W_,3315) = 1;
+DYNX(W_,3298) = 1.0;
+DYNX(W_,3177) = 0.0;
+DYNX(W_,3181) = false;
+DYNX(W_,3182) = 0;
+DYNX(W_,3178) = 1;
+DYNX(W_,3184) = 1;
+DYNX(W_,3174) = 1.0;
+DYNX(W_,3142) = 1.0;
+DYNX(W_,3368) = 1.0;
+DYNX(W_,2561) = 101325.0;
+DYNX(W_,2563) = 101325.0;
+DYNX(W_,3629) = 995.586;
+DYNX(W_,3472) = 0.0;
+DYNX(W_,3563) = 995.586;
+DYNX(W_,3534) = 0.0;
+DYNX(W_,3544) = 0.0;
+DYNX(W_,3540) = 0.018015268;
+DYNX(W_,3537) = 995.586;
+memcpy(&DYNX(W_,3513), &DymArrays41, sizeof(double)*3);
+DYNX(W_,3517) = 0.0;
+DYNX(W_,3512) = 0.0;
+DYNX(W_,3799) = 0.0;
+DYNX(W_,3797) = 0.0;
+DYNX(W_,3800) = 0.0;
+DYNX(W_,3801) = 0.0;
+DYNX(W_,3824) = 1.0;
+DYNX(W_,3406) = true;
DYNX(W_,2518) = 0.0;
DYNX(W_,2516) = 0.9116922633158369;
DYNX(W_,2517) = 0.22757907099030072;
DYNX(W_,2457) = 0.0;
-DYNX(W_,6649) = 0.0;
-DYNX(W_,6648) = 0.0;
-DYNX(W_,6651) = 0.0;
-DYNX(W_,6650) = 0.0;
-DYNX(W_,6652) = 0.0;
-DYNX(W_,6647) = 0.0;
-DYNX(W_,6645) = 323.15;
-DYNX(W_,6270) = false;
-DYNX(W_,6487) = 995.586;
+DYNX(W_,6609) = 0.0;
+DYNX(W_,6608) = 0.0;
+DYNX(W_,6611) = 0.0;
+DYNX(W_,6610) = 0.0;
+DYNX(W_,6612) = 0.0;
+DYNX(W_,6607) = 0.0;
+DYNX(W_,6605) = 323.15;
+DYNX(W_,6230) = false;
+DYNX(W_,6447) = 995.586;
+DYNX(W_,6290) = 0.0;
+DYNX(W_,6381) = 995.586;
+DYNX(W_,6352) = 0.0;
+DYNX(W_,6361) = 0.0;
+DYNX(W_,6358) = 0.018015268;
+DYNX(W_,6355) = 995.586;
+memcpy(&DYNX(W_,6331), &DymArrays41, sizeof(double)*3);
+DYNX(W_,6335) = 0.0;
DYNX(W_,6330) = 0.0;
-DYNX(W_,6421) = 995.586;
-DYNX(W_,6392) = 0.0;
-DYNX(W_,6401) = 0.0;
-DYNX(W_,6398) = 0.018015268;
-DYNX(W_,6395) = 995.586;
-memcpy(&DYNX(W_,6371), &DymArrays41, sizeof(double)*3);
-DYNX(W_,6375) = 0.0;
-DYNX(W_,6370) = 0.0;
-DYNX(W_,5966) = 15.346484396736084;
-DYNX(W_,5976) = 0.0;
-DYNX(W_,5972) = 0.018015268;
-DYNX(W_,5969) = 995.586;
-DYNX(W_,5943) = 15.346484396736084;
-DYNX(W_,6028) = 15.346484396736084;
-DYNX(W_,6038) = 0.0;
-DYNX(W_,6034) = 0.018015268;
-DYNX(W_,6031) = 995.586;
-DYNX(W_,6005) = 15.346484396736084;
-DYNX(W_,6090) = 15.346484396736084;
-DYNX(W_,6100) = 0.0;
-DYNX(W_,6096) = 0.018015268;
-DYNX(W_,6093) = 995.586;
-DYNX(W_,6067) = 15.346484396736084;
-DYNX(W_,6152) = 15.346484396736084;
-DYNX(W_,6162) = 0.0;
-DYNX(W_,6158) = 0.018015268;
-DYNX(W_,6155) = 995.586;
-DYNX(W_,6129) = 15.346484396736084;
-DYNX(W_,6214) = 15.346484396736084;
-DYNX(W_,6224) = 0.0;
-DYNX(W_,6220) = 0.018015268;
-DYNX(W_,6217) = 995.586;
-DYNX(W_,6191) = 15.346484396736084;
-DYNX(W_,6623) = 0.0;
-DYNX(W_,6622) = 0.0;
-DYNX(W_,6644) = 0.0;
-DYNX(W_,6642) = 0.9116922633158369;
-DYNX(W_,6643) = 0.22757907099030072;
-DYNX(W_,8121) = 0.0;
-DYNX(W_,8119) = 0.9116922633158369;
-DYNX(W_,8120) = 0.22757907099030072;
+DYNX(W_,5926) = 15.346484396736084;
+DYNX(W_,5936) = 0.0;
+DYNX(W_,5932) = 0.018015268;
+DYNX(W_,5929) = 995.586;
+DYNX(W_,5903) = 15.346484396736084;
+DYNX(W_,5988) = 15.346484396736084;
+DYNX(W_,5998) = 0.0;
+DYNX(W_,5994) = 0.018015268;
+DYNX(W_,5991) = 995.586;
+DYNX(W_,5965) = 15.346484396736084;
+DYNX(W_,6050) = 15.346484396736084;
+DYNX(W_,6060) = 0.0;
+DYNX(W_,6056) = 0.018015268;
+DYNX(W_,6053) = 995.586;
+DYNX(W_,6027) = 15.346484396736084;
+DYNX(W_,6112) = 15.346484396736084;
+DYNX(W_,6122) = 0.0;
+DYNX(W_,6118) = 0.018015268;
+DYNX(W_,6115) = 995.586;
+DYNX(W_,6089) = 15.346484396736084;
+DYNX(W_,6174) = 15.346484396736084;
+DYNX(W_,6184) = 0.0;
+DYNX(W_,6180) = 0.018015268;
+DYNX(W_,6177) = 995.586;
+DYNX(W_,6151) = 15.346484396736084;
+DYNX(W_,6583) = 0.0;
+DYNX(W_,6582) = 0.0;
+DYNX(W_,6604) = 0.0;
+DYNX(W_,6602) = 0.9116922633158369;
+DYNX(W_,6603) = 0.22757907099030072;
+DYNX(W_,8081) = 0.0;
+DYNX(W_,8079) = 0.9116922633158369;
+DYNX(W_,8080) = 0.22757907099030072;
+DYNX(W_,8053) = 0.0;
+DYNX(W_,8052) = 0.0;
+DYNX(W_,7211) = 101325.0;
+DYNX(W_,7208) = 101325.0;
+DYNX(W_,6901) = 0.0;
+DYNX(W_,6971) = 0.0;
+memcpy(&DYNX(W_,6949), &DymArrays41, sizeof(double)*3);
+DYNX(W_,6953) = 0.0;
+DYNX(W_,6948) = 0.0;
+DYNX(W_,7279) = 0.0;
+DYNX(W_,7349) = 0.0;
+memcpy(&DYNX(W_,7327), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7331) = 0.0;
+DYNX(W_,7326) = 0.0;
+DYNX(W_,6716) = 0.0;
+DYNX(W_,6764) = 0.0;
+DYNX(W_,6745) = 0.0;
+DYNX(W_,6779) = 0.0;
+DYNX(W_,6827) = 0.0;
+DYNX(W_,6808) = 0.0;
+DYNX(W_,7974) = 0.0;
+DYNX(W_,7972) = 0.0;
+DYNX(W_,7975) = 0.0;
+DYNX(W_,7976) = 0.0;
+DYNX(W_,7886) = 1.0;
+DYNX(W_,7939) = 0.0;
+memcpy(&DYNX(W_,7917), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7921) = 0.0;
+DYNX(W_,7916) = 0.0;
+DYNX(W_,7593) = 101325.0;
+DYNX(W_,7603) = 101325.0;
+DYNX(W_,7634) = 101325.0;
+DYNX(W_,7635) = 101325.0;
+DYNX(W_,7644) = 101325.0;
+DYNX(W_,7696) = 1.0;
+DYNX(W_,7753) = 0.0;
+DYNX(W_,7765) = 0.0;
+DYNX(W_,7759) = 101325.0;
+DYNX(W_,7761) = 101325.0;
+memcpy(&DYNX(W_,7754), &DymArrays108, sizeof(double)*3);
+memcpy(&DYNX(W_,7731), &DymArrays41, sizeof(double)*3);
+DYNX(W_,7735) = 0.0;
+DYNX(W_,7718) = 101325.0;
+memcpy(&DYNX(W_,7715), &DymArrays108, sizeof(double)*3);
+DYNX(W_,7730) = 0.0;
+DYNX(W_,6675) = 0.0;
+DYNX(W_,6673) = 0.9116922633158369;
+DYNX(W_,6674) = 0.22757907099030072;
+DYNX(W_,8088) = 0.0;
+DYNX(W_,8091) = 0.0;
DYNX(W_,8093) = 0.0;
DYNX(W_,8092) = 0.0;
-DYNX(W_,7251) = 101325.0;
-DYNX(W_,7248) = 101325.0;
-DYNX(W_,6941) = 0.0;
-DYNX(W_,7011) = 0.0;
-memcpy(&DYNX(W_,6989), &DymArrays41, sizeof(double)*3);
-DYNX(W_,6993) = 0.0;
-DYNX(W_,6988) = 0.0;
-DYNX(W_,7319) = 0.0;
-DYNX(W_,7389) = 0.0;
-memcpy(&DYNX(W_,7367), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7371) = 0.0;
-DYNX(W_,7366) = 0.0;
-DYNX(W_,6756) = 0.0;
-DYNX(W_,6804) = 0.0;
-DYNX(W_,6785) = 0.0;
-DYNX(W_,6819) = 0.0;
-DYNX(W_,6867) = 0.0;
-DYNX(W_,6848) = 0.0;
-DYNX(W_,8014) = 0.0;
-DYNX(W_,8012) = 0.0;
-DYNX(W_,8015) = 0.0;
-DYNX(W_,8016) = 0.0;
-DYNX(W_,7926) = 1.0;
-DYNX(W_,7979) = 0.0;
-memcpy(&DYNX(W_,7957), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7961) = 0.0;
-DYNX(W_,7956) = 0.0;
-#endif
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(18);
-#if defined(DynSimStruct)
-DYNX(W_,7633) = 101325.0;
-DYNX(W_,7643) = 101325.0;
-DYNX(W_,7674) = 101325.0;
-DYNX(W_,7675) = 101325.0;
-DYNX(W_,7684) = 101325.0;
-DYNX(W_,7736) = 1.0;
-DYNX(W_,7793) = 0.0;
-DYNX(W_,7805) = 0.0;
-DYNX(W_,7799) = 101325.0;
-DYNX(W_,7801) = 101325.0;
-memcpy(&DYNX(W_,7794), &DymArrays109, sizeof(double)*3);
-memcpy(&DYNX(W_,7771), &DymArrays41, sizeof(double)*3);
-DYNX(W_,7775) = 0.0;
-DYNX(W_,7758) = 101325.0;
-memcpy(&DYNX(W_,7755), &DymArrays109, sizeof(double)*3);
-DYNX(W_,7770) = 0.0;
-DYNX(W_,6715) = 0.0;
-DYNX(W_,6713) = 0.9116922633158369;
-DYNX(W_,6714) = 0.22757907099030072;
-DYNX(W_,8128) = 0.0;
-DYNX(W_,8131) = 0.0;
-DYNX(W_,8133) = 0.0;
-DYNX(W_,8132) = 0.0;
-DYNX(W_,8130) = 0.0;
-DYNX(W_,8127) = 0.0;
-DYNX(W_,8125) = 0.9116922633158369;
-DYNX(W_,8126) = 0.22757907099030072;
-DYNX(W_,8269) = 0.0;
-DYNX(W_,8230) = 1800.0;
-DYNX(W_,8265) = 0.9116922633158369;
-DYNX(W_,8267) = 0.22757907099030072;
-DYNX(W_,8136) = 0.0;
-DYNX(W_,8134) = 0.9116922633158369;
-DYNX(W_,8135) = 0.22757907099030072;
-DYNX(W_,8259) = 0.9116922633158369;
-DYNX(W_,5773) = 0.0;
+DYNX(W_,8090) = 0.0;
+DYNX(W_,8087) = 0.0;
+DYNX(W_,8085) = 0.9116922633158369;
+DYNX(W_,8086) = 0.22757907099030072;
+DYNX(W_,8229) = 0.0;
+DYNX(W_,8190) = 1800.0;
+DYNX(W_,8225) = 0.9116922633158369;
+DYNX(W_,8227) = 0.22757907099030072;
+DYNX(W_,8096) = 0.0;
+DYNX(W_,8094) = 0.9116922633158369;
+DYNX(W_,8095) = 0.22757907099030072;
+DYNX(W_,8219) = 0.9116922633158369;
+DYNX(W_,5733) = 0.0;
#endif
if (!DymolaUserHomotopy) UpdateInitVars(time, X_, XD_, U_, DP_, IP_, LP_, F_, Y_, W_, QZ_, duser_, iuser_, cuser_, did_, 1);
BoundParameterSection
@@ -9842,6 +9799,8 @@ BoundParameterSection
DYNX(W_,32) = 1.1843079200592153E-05*DYNX(DP_,2);
DYNX(W_,33) = 1006*(1-DYNX(DP_,4))+1860*DYNX(DP_,4);
DYNX(W_,89) = DYNX(DP_,201);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(18);
DYNX(W_,92) = DYNX(DP_,101);
DYNX(W_,95) = DYNX(DP_,102);
DYNX(W_,96) = DYNX(DP_,103);
@@ -10061,8 +10020,6 @@ DYNX(W_,530) = DYNX(W_,179);
DYNX(W_,531) = DYNX(W_,530);
DYNX(W_,536) = DYNX(W_,184);
DYNX(W_,541) = DYNX(DP_,237);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(19);
DYNX(W_,553) = DYNX(W_,183);
DYNX(W_,555) = DYNX(DP_,205);
DYNX(W_,544) = DYNX(W_,553)*DYNX(W_,555);
@@ -10108,6 +10065,8 @@ DYNX(W_,593) = DYNX(W_,169);
DYNX(W_,594) = DYNX(W_,170);
DYNX(W_,595) = DYNX(W_,171);
DYNX(W_,596) = DYNX(W_,172);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(19);
DYNX(W_,597) = DYNX(W_,173);
DYNX(W_,598) = DYNX(W_,174);
DYNX(W_,599) = DYNX(W_,175);
@@ -10394,8 +10353,6 @@ DYNX(W_,1137) = IF DYNX(W_,1130) > 1E-15 THEN (IF DYNX(W_,1129) THEN 1.2*
RealAssign (RealTemporaryDense( &DYNX(W_,1138), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(20);
DYNX(W_,1156) = DYNX(W_,1137) > 1E-15;
DYNX(W_,1164) = DYNX(DP_,354);
DYNX(W_,1166) = DYNX(DP_,353);
@@ -10472,6 +10429,8 @@ PopAllMarks();
DYNX(W_,1317) = DYNX(W_,1298) > 1E-15;
AssertModelica( NOT ( NOT DYNX(W_,1317))," not ( not DHW.pump.eff.per.haveWMot_nominal)",
"In HeatPumpMonoenergeticResidentialBuilding.DHW.pump.eff: etaMotMet is set to\n .Efficiency_MotorPartLoadRatio or .GenericCurve which requires\n the motor's rated power, but per.WMot_nominal is not assigned or\n cannot be estimated because no power curve is provided.");
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(20);
RealAssign (RealTemporaryDense( &DYNX(W_,1335), 1, 9), IF DYNX(W_,1281) == 4 OR
DYNX(W_,1281) == 1 AND DYNX(W_,1317) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(DHW.pump.eff.per.motorEfficiency_yMot_generic.y, DHW.pump.eff.per.motorEfficiency_yMot_generic.eta, true)")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
@@ -10732,8 +10691,6 @@ DYNX(W_,1691) = DYNX(DP_,546);
DYNX(W_,1692) = DYNX(DP_,547);
DYNX(W_,1693) = DYNX(DP_,548);
DYNX(W_,1695) = DYNX(DP_,549);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(21);
DYNX(W_,1696) = DYNX(DP_,550);
DYNX(W_,1697) = DYNX(DP_,551);
DYNX(W_,1698) = DYNX(DP_,552);
@@ -10774,6 +10731,8 @@ DYNX(W_,1741) = DYNX(DP_,586);
DYNX(W_,1742) = DYNX(DP_,587);
DYNX(W_,1743) = DYNX(DP_,588);
DYNX(W_,1745) = DYNX(DP_,589);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(21);
DYNX(W_,1746) = DYNX(DP_,590);
DYNX(W_,1747) = DYNX(DP_,591);
DYNX(W_,1748) = DYNX(DP_,592);
@@ -11007,8 +10966,6 @@ DYNX(W_,2118) = DYNX(DP_,765);
DYNX(W_,2119) = DYNX(DP_,765);
DYNX(W_,2120) = DYNX(DP_,766);
DYNX(W_,2121) = 3.141592653589793+DYNX(DP_,766);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(22);
DYNX(W_,2122) = DYNX(W_,2116)*DYNX(DP_,776);
DYNX(W_,2123) = DYNX(W_,2117)*DYNX(DP_,788);
DYNX(W_,2124) = DYNX(DP_,767);
@@ -11049,6 +11006,8 @@ DYNX(W_,2164) = DYNX(W_,2138);
DYNX(W_,2165) = DYNX(W_,2139);
DYNX(W_,2166) = DYNX(W_,2140);
DYNX(W_,2167) = DYNX(W_,2141);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(22);
DYNX(W_,2168) = DYNX(W_,2150);
DYNX(W_,2169) = DYNX(W_,2151);
DYNX(W_,2170) = DYNX(W_,2154);
@@ -11208,13 +11167,13 @@ DYNX(W_,2482) = DYNX(DP_,842);
DYNX(W_,2483) = DYNX(DP_,843);
DYNX(W_,2484) = DYNX(DP_,844);
DYNX(W_,2485) = DYNX(DP_,845);
-DYNX(W_,4339) = DYNX(DP_,1233);
-DYNX(W_,4337) = DYNX(W_,4348)+DYNX(DP_,1198)+DYNX(W_,4339);
-DYNX(W_,2507) = DYNX(W_,4337);
+DYNX(W_,4299) = DYNX(DP_,1239);
+DYNX(W_,4297) = DYNX(W_,4308)+DYNX(DP_,1204)+DYNX(W_,4299);
+DYNX(W_,2507) = DYNX(W_,4297);
DYNX(W_,2494) = DYNX(W_,2507)+DYNX(W_,2501);
-DYNX(W_,4340) = DYNX(W_,4339);
-DYNX(W_,4338) = DYNX(W_,4349)+DYNX(DP_,1198)+DYNX(W_,4340);
-DYNX(W_,2508) = DYNX(W_,4338);
+DYNX(W_,4300) = DYNX(W_,4299);
+DYNX(W_,4298) = DYNX(W_,4309)+DYNX(DP_,1204)+DYNX(W_,4300);
+DYNX(W_,2508) = DYNX(W_,4298);
DYNX(W_,2495) = DYNX(W_,2508)+DYNX(W_,2501);
DYNX(W_,2497) = IF DYNX(W_,2508) > 328.15 THEN 10 ELSE IF DYNX(W_,2508) >
318.04999999999995 THEN 8 ELSE 5;
@@ -11225,155 +11184,158 @@ DYNX(W_,2542) = (PushModelContext(1,"BESMod.Systems.Hydraulical.Control.Componen
(271.15, 293.15, 293.15, DYNX(W_,2494), DYNX(W_,2494)-10, 262.65, 1.24));
PopModelContext();
DYNX(W_,2546) = RealBmax(0, DYNX(W_,2510)-DYNX(DP_,881));
-DYNX(W_,2621) = DYNX(DP_,909);
-DYNX(W_,2622) = DYNX(DP_,910);
-DYNX(W_,2623) = DYNX(DP_,911);
-DYNX(W_,2624) = DYNX(DP_,912);
-DYNX(W_,2625) = DYNX(DP_,913);
-DYNX(W_,2626) = DYNX(DP_,914);
-DYNX(W_,2627) = DYNX(DP_,915);
-DYNX(W_,2628) = DYNX(DP_,916);
-DYNX(W_,2629) = DYNX(DP_,917);
-DYNX(W_,2630) = DYNX(DP_,918);
-DYNX(W_,2631) = DYNX(DP_,919);
-DYNX(W_,2632) = DYNX(DP_,920);
-DYNX(W_,2633) = DYNX(DP_,921);
-DYNX(W_,2634) = DYNX(DP_,922);
-DYNX(W_,2635) = DYNX(DP_,923);
-DYNX(W_,2636) = DYNX(DP_,924);
-DYNX(W_,2637) = DYNX(DP_,925);
-DYNX(W_,2638) = DYNX(DP_,926);
-DYNX(W_,2639) = DYNX(DP_,927);
-DYNX(W_,2640) = DYNX(DP_,928);
-DYNX(W_,2641) = DYNX(DP_,929);
-DYNX(W_,2642) = DYNX(DP_,930);
-DYNX(W_,2643) = DYNX(DP_,931);
-DYNX(W_,2644) = DYNX(DP_,932);
-DYNX(W_,2645) = DYNX(DP_,933);
-DYNX(W_,2646) = DYNX(DP_,934);
-DYNX(W_,2647) = DYNX(DP_,935);
-DYNX(W_,2648) = DYNX(DP_,936);
-DYNX(W_,2649) = DYNX(DP_,937);
-DYNX(W_,2650) = DYNX(DP_,938);
-DYNX(W_,2651) = DYNX(DP_,939);
-DYNX(W_,2652) = DYNX(DP_,940);
-DYNX(W_,2653) = DYNX(DP_,941);
-DYNX(W_,2654) = DYNX(DP_,942);
-DYNX(W_,2655) = DYNX(DP_,943);
-DYNX(W_,2656) = DYNX(DP_,944);
-DYNX(W_,2657) = DYNX(DP_,945);
-DYNX(W_,2658) = DYNX(DP_,946);
-DYNX(W_,2659) = DYNX(DP_,947);
-DYNX(W_,2660) = DYNX(DP_,948);
-DYNX(W_,2661) = DYNX(DP_,949);
-DYNX(W_,2662) = DYNX(DP_,950);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(23);
-DYNX(W_,2663) = DYNX(DP_,951);
-DYNX(W_,2664) = DYNX(DP_,952);
-DYNX(W_,2665) = DYNX(DP_,953);
-DYNX(W_,2666) = DYNX(DP_,954);
-DYNX(W_,2667) = DYNX(DP_,955);
-DYNX(W_,2668) = DYNX(DP_,956);
+DYNX(W_,2550) = DYNX(DP_,883);
+AssertModelica(DYNX(DP_,884) > DYNX(W_,2550),"hydraulic.generation.defCtrl.hys.uHigh > hydraulic.generation.defCtrl.hys.uLow",
+ "Hysteresis limits wrong (uHigh <= uLow)");
+DYNX(W_,2606) = DYNX(DP_,913);
+DYNX(W_,2607) = DYNX(DP_,914);
+DYNX(W_,2608) = DYNX(DP_,915);
+DYNX(W_,2609) = DYNX(DP_,916);
+DYNX(W_,2610) = DYNX(DP_,917);
+DYNX(W_,2611) = DYNX(DP_,918);
+DYNX(W_,2612) = DYNX(DP_,919);
+DYNX(W_,2613) = DYNX(DP_,920);
+DYNX(W_,2614) = DYNX(DP_,921);
+DYNX(W_,2615) = DYNX(DP_,922);
+DYNX(W_,2616) = DYNX(DP_,923);
+DYNX(W_,2617) = DYNX(DP_,924);
+DYNX(W_,2618) = DYNX(DP_,925);
+DYNX(W_,2619) = DYNX(DP_,926);
+DYNX(W_,2620) = DYNX(DP_,927);
+DYNX(W_,2621) = DYNX(DP_,928);
+DYNX(W_,2622) = DYNX(DP_,929);
+DYNX(W_,2623) = DYNX(DP_,930);
+DYNX(W_,2624) = DYNX(DP_,931);
+DYNX(W_,2625) = DYNX(DP_,932);
+DYNX(W_,2626) = DYNX(DP_,933);
+DYNX(W_,2627) = DYNX(DP_,934);
+DYNX(W_,2628) = DYNX(DP_,935);
+DYNX(W_,2629) = DYNX(DP_,936);
+DYNX(W_,2630) = DYNX(DP_,937);
+DYNX(W_,2631) = DYNX(DP_,938);
+DYNX(W_,2632) = DYNX(DP_,939);
+DYNX(W_,2633) = DYNX(DP_,940);
+DYNX(W_,2634) = DYNX(DP_,941);
+DYNX(W_,2635) = DYNX(DP_,942);
+DYNX(W_,2636) = DYNX(DP_,943);
+DYNX(W_,2637) = DYNX(DP_,944);
+DYNX(W_,2638) = DYNX(DP_,945);
+DYNX(W_,2639) = DYNX(DP_,946);
+DYNX(W_,2640) = DYNX(DP_,947);
+DYNX(W_,2641) = DYNX(DP_,948);
+DYNX(W_,2642) = DYNX(DP_,949);
+DYNX(W_,2643) = DYNX(DP_,950);
+DYNX(W_,2644) = DYNX(DP_,951);
+DYNX(W_,2645) = DYNX(DP_,952);
+DYNX(W_,2646) = DYNX(DP_,953);
+DYNX(W_,2647) = DYNX(DP_,954);
+DYNX(W_,2648) = DYNX(DP_,955);
+DYNX(W_,2649) = DYNX(DP_,956);
+DYNX(W_,2650) = DYNX(DP_,957);
+DYNX(W_,2651) = DYNX(DP_,958);
+DYNX(W_,2652) = DYNX(DP_,959);
+DYNX(W_,2653) = DYNX(DP_,960);
InitialBoundSection
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable2D(\"NoName\", \"NoName\", hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.smoothness, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.extrapolation, false, 2, 1)")
Modelica_Blocks_Types_ExternalCombiTable2D_M("NoName", "NoName",
- RealTemporaryDense( &DYNX(W_,2621), 2, 4, 12), (Integer)(DYNX(W_,2616)),
- (Integer)(DYNX(W_,2617)), false, 2, 1));
- DYNX(W_,2840) = dummy_DymStruc0.id_0member;
+ RealTemporaryDense( &DYNX(W_,2606), 2, 4, 12), (Integer)(DYNX(W_,2601)),
+ (Integer)(DYNX(W_,2602)), false, 2, 1));
+ DYNX(W_,2825) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-DYNX(W_,3410) = DYNX(W_,2542);
-DYNX(W_,2582) = DYNX(W_,3410);
-DYNX(W_,2679) = DYNX(DP_,961);
-DYNX(W_,2680) = DYNX(DP_,962);
-DYNX(W_,2681) = DYNX(DP_,963);
-DYNX(W_,2682) = DYNX(DP_,964);
-DYNX(W_,2683) = DYNX(DP_,965);
-DYNX(W_,2684) = DYNX(DP_,966);
-DYNX(W_,2685) = DYNX(DP_,967);
-DYNX(W_,2686) = DYNX(DP_,968);
-DYNX(W_,2687) = DYNX(DP_,969);
-DYNX(W_,2688) = DYNX(DP_,970);
-DYNX(W_,2689) = DYNX(DP_,971);
-DYNX(W_,2690) = DYNX(DP_,972);
-DYNX(W_,2691) = DYNX(DP_,973);
-DYNX(W_,2692) = DYNX(DP_,974);
-DYNX(W_,2693) = DYNX(DP_,975);
-DYNX(W_,2694) = DYNX(DP_,976);
-DYNX(W_,2695) = DYNX(DP_,977);
-DYNX(W_,2696) = DYNX(DP_,978);
-DYNX(W_,2697) = DYNX(DP_,979);
-DYNX(W_,2698) = DYNX(DP_,980);
-DYNX(W_,2699) = DYNX(DP_,981);
-DYNX(W_,2700) = DYNX(DP_,982);
-DYNX(W_,2701) = DYNX(DP_,983);
-DYNX(W_,2702) = DYNX(DP_,984);
-DYNX(W_,2703) = DYNX(DP_,985);
-DYNX(W_,2704) = DYNX(DP_,986);
-DYNX(W_,2705) = DYNX(DP_,987);
-DYNX(W_,2706) = DYNX(DP_,988);
-DYNX(W_,2707) = DYNX(DP_,989);
-DYNX(W_,2708) = DYNX(DP_,990);
-DYNX(W_,2709) = DYNX(DP_,991);
-DYNX(W_,2710) = DYNX(DP_,992);
-DYNX(W_,2711) = DYNX(DP_,993);
-DYNX(W_,2712) = DYNX(DP_,994);
-DYNX(W_,2713) = DYNX(DP_,995);
-DYNX(W_,2714) = DYNX(DP_,996);
-DYNX(W_,2715) = DYNX(DP_,997);
-DYNX(W_,2716) = DYNX(DP_,998);
-DYNX(W_,2717) = DYNX(DP_,999);
-DYNX(W_,2718) = DYNX(DP_,1000);
-DYNX(W_,2719) = DYNX(DP_,1001);
-DYNX(W_,2720) = DYNX(DP_,1002);
-DYNX(W_,2721) = DYNX(DP_,1003);
-DYNX(W_,2722) = DYNX(DP_,1004);
-DYNX(W_,2723) = DYNX(DP_,1005);
-DYNX(W_,2724) = DYNX(DP_,1006);
-DYNX(W_,2725) = DYNX(DP_,1007);
-DYNX(W_,2726) = DYNX(DP_,1008);
+DYNX(W_,3374) = DYNX(W_,2542);
+DYNX(W_,2571) = DYNX(W_,3374);
+DYNX(W_,2664) = DYNX(DP_,965);
+DYNX(W_,2665) = DYNX(DP_,966);
+DYNX(W_,2666) = DYNX(DP_,967);
+DYNX(W_,2667) = DYNX(DP_,968);
+DYNX(W_,2668) = DYNX(DP_,969);
+DYNX(W_,2669) = DYNX(DP_,970);
+DYNX(W_,2670) = DYNX(DP_,971);
+DYNX(W_,2671) = DYNX(DP_,972);
+DYNX(W_,2672) = DYNX(DP_,973);
+DYNX(W_,2673) = DYNX(DP_,974);
+DYNX(W_,2674) = DYNX(DP_,975);
+DYNX(W_,2675) = DYNX(DP_,976);
+DYNX(W_,2676) = DYNX(DP_,977);
+DYNX(W_,2677) = DYNX(DP_,978);
+DYNX(W_,2678) = DYNX(DP_,979);
+DYNX(W_,2679) = DYNX(DP_,980);
+DYNX(W_,2680) = DYNX(DP_,981);
+DYNX(W_,2681) = DYNX(DP_,982);
+DYNX(W_,2682) = DYNX(DP_,983);
+DYNX(W_,2683) = DYNX(DP_,984);
+DYNX(W_,2684) = DYNX(DP_,985);
+DYNX(W_,2685) = DYNX(DP_,986);
+DYNX(W_,2686) = DYNX(DP_,987);
+DYNX(W_,2687) = DYNX(DP_,988);
+DYNX(W_,2688) = DYNX(DP_,989);
+DYNX(W_,2689) = DYNX(DP_,990);
+DYNX(W_,2690) = DYNX(DP_,991);
+DYNX(W_,2691) = DYNX(DP_,992);
+DYNX(W_,2692) = DYNX(DP_,993);
+DYNX(W_,2693) = DYNX(DP_,994);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(23);
+DYNX(W_,2694) = DYNX(DP_,995);
+DYNX(W_,2695) = DYNX(DP_,996);
+DYNX(W_,2696) = DYNX(DP_,997);
+DYNX(W_,2697) = DYNX(DP_,998);
+DYNX(W_,2698) = DYNX(DP_,999);
+DYNX(W_,2699) = DYNX(DP_,1000);
+DYNX(W_,2700) = DYNX(DP_,1001);
+DYNX(W_,2701) = DYNX(DP_,1002);
+DYNX(W_,2702) = DYNX(DP_,1003);
+DYNX(W_,2703) = DYNX(DP_,1004);
+DYNX(W_,2704) = DYNX(DP_,1005);
+DYNX(W_,2705) = DYNX(DP_,1006);
+DYNX(W_,2706) = DYNX(DP_,1007);
+DYNX(W_,2707) = DYNX(DP_,1008);
+DYNX(W_,2708) = DYNX(DP_,1009);
+DYNX(W_,2709) = DYNX(DP_,1010);
+DYNX(W_,2710) = DYNX(DP_,1011);
+DYNX(W_,2711) = DYNX(DP_,1012);
InitialBoundSection
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable2D(\"NoName\", \"NoName\", hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.smoothness, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.extrapolation, false, 3, 1)")
Modelica_Blocks_Types_ExternalCombiTable2D_M("NoName", "NoName",
- RealTemporaryDense( &DYNX(W_,2679), 2, 4, 12), (Integer)(DYNX(W_,2616)),
- (Integer)(DYNX(W_,2617)), false, 3, 1));
- DYNX(W_,2839) = dummy_DymStruc0.id_0member;
+ RealTemporaryDense( &DYNX(W_,2664), 2, 4, 12), (Integer)(DYNX(W_,2601)),
+ (Integer)(DYNX(W_,2602)), false, 3, 1));
+ DYNX(W_,2824) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-DYNX(W_,2845) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabIdeQUse_flow, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal)")
+DYNX(W_,2830) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabIdeQUse_flow, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal)")
Modelica_Blocks_Tables_Internal_getTable2DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2839))), DYNX(W_,2582), DYNX(W_,2583)));
+ (Integer)(DYNX(W_,2824))), DYNX(W_,2571), DYNX(W_,2572)));
PopModelContext();
-DYNX(DYNhelp,59) = divinvGuarded(DYNX(W_,2845),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QHeaNoSca_flow_nominal");
-DYNX(W_,2613) = DYNX(DYNhelp,59)*DYNX(W_,2611);
+DYNX(DYNhelp,59) = divinvGuarded(DYNX(W_,2830),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QHeaNoSca_flow_nominal");
+DYNX(W_,2598) = DYNX(DYNhelp,59)*DYNX(W_,2596);
DYNX(DYNhelp,60) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabIdePEle, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal)")
Modelica_Blocks_Tables_Internal_getTable2DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2840))), DYNX(W_,2582), DYNX(W_,2583)));
+ (Integer)(DYNX(W_,2825))), DYNX(W_,2571), DYNX(W_,2572)));
PopModelContext();
-DYNX(W_,2581) = DYNX(DYNhelp,60)*DYNX(W_,2613);
-DYNX(W_,2872) = DYNX(W_,2581);
-DYNX(W_,2886) = DYNX(DP_,854);
-DYNX(W_,2895) = 1006*(1-DYNX(DP_,1062))+1860*DYNX(DP_,1062);
-DYNX(W_,2887) = divGuarded(DYNX(W_,3408)-DYNX(W_,2872),"hydraulic.generation.heatPump.QHea_flow_nominal-hydraulic.generation.heatPump.PEle_nominal",
- DYNX(W_,2886)*DYNX(W_,2895),"hydraulic.generation.heatPump.dTEva_nominal*hydraulic.generation.heatPump.cpEva");
-DYNX(W_,2559) = DYNX(W_,2887);
-DYNX(DYNhelp,61) = fabs(DYNX(W_,2887));
-DYNX(W_,2561) = 0.0001*DYNX(DYNhelp,61);
-DYNX(W_,2580) = DYNX(DP_,1018);
-DYNX(DYNhelp,62) = divinvGuarded(DYNX(DP_,887),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.hWatFus");
-DYNX(W_,2593) = -DYNX(DYNhelp,62);
-DYNX(W_,2606) = DYNX(W_,2895);
-DYNX(W_,2614) = DYNX(DP_,957)*DYNX(W_,2613);
-DYNX(W_,2615) = DYNX(DP_,958)*DYNX(W_,2613);
-DYNX(W_,2670) = DYNX(W_,2616);
-DYNX(W_,2671) = DYNX(W_,2617);
+DYNX(W_,2570) = DYNX(DYNhelp,60)*DYNX(W_,2598);
+DYNX(W_,2847) = DYNX(W_,2570);
+DYNX(W_,2861) = DYNX(DP_,854);
+DYNX(W_,2870) = 1006*(1-DYNX(DP_,1068))+1860*DYNX(DP_,1068);
+DYNX(W_,2862) = divGuarded(DYNX(W_,3372)-DYNX(W_,2847),"hydraulic.generation.heatPump.QHea_flow_nominal-hydraulic.generation.heatPump.PEle_nominal",
+ DYNX(W_,2861)*DYNX(W_,2870),"hydraulic.generation.heatPump.dTEva_nominal*hydraulic.generation.heatPump.cpEva");
+DYNX(W_,2556) = DYNX(W_,2862);
+DYNX(DYNhelp,61) = fabs(DYNX(W_,2862));
+DYNX(W_,2558) = 0.0001*DYNX(DYNhelp,61);
+DYNX(W_,2569) = DYNX(DP_,1024);
+DYNX(DYNhelp,62) = divinvGuarded(DYNX(DP_,891),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.hWatFus");
+DYNX(W_,2580) = -DYNX(DYNhelp,62);
+DYNX(W_,2592) = DYNX(W_,2870);
+DYNX(W_,2599) = DYNX(DP_,961)*DYNX(W_,2598);
+DYNX(W_,2600) = DYNX(DP_,962)*DYNX(W_,2598);
+DYNX(W_,2655) = DYNX(W_,2601);
+DYNX(W_,2656) = DYNX(W_,2602);
InitialBoundSection
DYNX(DYNhelp,63) = (PushModelContext(1,"Modelica.Utilities.Strings.isEmpty(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.fileName)")
Modelica_Utilities_Strings_isEmpty("NoName"));
@@ -11381,27 +11343,27 @@ PopModelContext();
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable2D((if hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableOnFile then hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableName else \"NoName\"), (if hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableOnFile and hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.fileName <> \"NoName\" and not Modelica.Util...")
- Modelica_Blocks_Types_ExternalCombiTable2D_M(IF DYNX(W_,2620) THEN "NoName"
- ELSE "NoName", IF DYNX(W_,2620) AND (strcmp("NoName", "NoName")!=0) AND
+ Modelica_Blocks_Types_ExternalCombiTable2D_M(IF DYNX(W_,2605) THEN "NoName"
+ ELSE "NoName", IF DYNX(W_,2605) AND (strcmp("NoName", "NoName")!=0) AND
NOT DYNX(DYNhelp,63) THEN "NoName" ELSE "NoName", RealTemporaryDense(
- &DYNX(W_,2621), 2, 4, 12), (Integer)(DYNX(W_,2670)), (Integer)(DYNX(W_,2671)),
- (Integer)(IF DYNX(W_,2620) THEN DYNX(W_,2669) ELSE false), 4, 1));
- DYNX(W_,2677) = dummy_DymStruc0.id_0member;
+ &DYNX(W_,2606), 2, 4, 12), (Integer)(DYNX(W_,2655)), (Integer)(DYNX(W_,2656)),
+ (Integer)(IF DYNX(W_,2605) THEN DYNX(W_,2654) ELSE false), 4, 1));
+ DYNX(W_,2662) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-RealAssign (RealTemporaryDense( &DYNX(W_,2673), 1, 2), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,2658), 1, 2), (PushModelContext(1,
"Modelica.Blocks.Tables.Internal.getTable2DAbscissaUmin(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID)")
Modelica_Blocks_Tables_Internal_getTable2DAbscissaUmin_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2677))))));
+ (Integer)(DYNX(W_,2662))))));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,2675), 1, 2), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,2660), 1, 2), (PushModelContext(1,
"Modelica.Blocks.Tables.Internal.getTable2DAbscissaUmax(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID)")
Modelica_Blocks_Tables_Internal_getTable2DAbscissaUmax_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2677))))));
+ (Integer)(DYNX(W_,2662))))));
PopAllMarks();
-DYNX(W_,2728) = DYNX(W_,2616);
-DYNX(W_,2729) = DYNX(W_,2617);
+DYNX(W_,2713) = DYNX(W_,2601);
+DYNX(W_,2714) = DYNX(W_,2602);
InitialBoundSection
DYNX(DYNhelp,64) = (PushModelContext(1,"Modelica.Utilities.Strings.isEmpty(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.fileName)")
Modelica_Utilities_Strings_isEmpty("NoName"));
@@ -11409,92 +11371,107 @@ PopModelContext();
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable2D((if hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableOnFile then hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableName else \"NoName\"), (if hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableOnFile and hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.fileName <> \"NoName\" an...")
- Modelica_Blocks_Types_ExternalCombiTable2D_M(IF DYNX(W_,2678) THEN "NoName"
- ELSE "NoName", IF DYNX(W_,2678) AND (strcmp("NoName", "NoName")!=0) AND
+ Modelica_Blocks_Types_ExternalCombiTable2D_M(IF DYNX(W_,2663) THEN "NoName"
+ ELSE "NoName", IF DYNX(W_,2663) AND (strcmp("NoName", "NoName")!=0) AND
NOT DYNX(DYNhelp,64) THEN "NoName" ELSE "NoName", RealTemporaryDense(
- &DYNX(W_,2679), 2, 4, 12), (Integer)(DYNX(W_,2728)), (Integer)(DYNX(W_,2729)),
- (Integer)(IF DYNX(W_,2678) THEN DYNX(W_,2727) ELSE false), 5, 1));
- DYNX(W_,2735) = dummy_DymStruc0.id_0member;
+ &DYNX(W_,2664), 2, 4, 12), (Integer)(DYNX(W_,2713)), (Integer)(DYNX(W_,2714)),
+ (Integer)(IF DYNX(W_,2663) THEN DYNX(W_,2712) ELSE false), 5, 1));
+ DYNX(W_,2720) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-RealAssign (RealTemporaryDense( &DYNX(W_,2731), 1, 2), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,2716), 1, 2), (PushModelContext(1,
"Modelica.Blocks.Tables.Internal.getTable2DAbscissaUmin(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableID)")
Modelica_Blocks_Tables_Internal_getTable2DAbscissaUmin_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2735))))));
+ (Integer)(DYNX(W_,2720))))));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,2733), 1, 2), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,2718), 1, 2), (PushModelContext(1,
"Modelica.Blocks.Tables.Internal.getTable2DAbscissaUmax(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableID)")
Modelica_Blocks_Tables_Internal_getTable2DAbscissaUmax_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2735))))));
+ (Integer)(DYNX(W_,2720))))));
PopAllMarks();
-DYNX(W_,2736) = DYNX(W_,2613);
-DYNX(W_,2740) = DYNX(W_,2634);
-DYNX(W_,2741) = DYNX(W_,2635);
-DYNX(W_,2742) = DYNX(W_,2636);
-DYNX(W_,2743) = DYNX(W_,2637);
-DYNX(W_,2744) = DYNX(W_,2638);
-DYNX(W_,2745) = DYNX(W_,2639);
-DYNX(W_,2746) = DYNX(W_,2640);
-DYNX(W_,2747) = DYNX(W_,2641);
-DYNX(W_,2748) = DYNX(W_,2642);
-DYNX(W_,2749) = DYNX(W_,2643);
-DYNX(W_,2750) = DYNX(W_,2644);
-DYNX(W_,2751) = DYNX(W_,2646);
-DYNX(W_,2752) = DYNX(W_,2647);
-DYNX(W_,2753) = DYNX(W_,2648);
-DYNX(W_,2754) = DYNX(W_,2649);
-DYNX(W_,2755) = DYNX(W_,2650);
-DYNX(W_,2756) = DYNX(W_,2651);
-DYNX(W_,2757) = DYNX(W_,2652);
-DYNX(W_,2758) = DYNX(W_,2653);
-DYNX(W_,2759) = DYNX(W_,2654);
-DYNX(W_,2760) = DYNX(W_,2655);
-DYNX(W_,2761) = DYNX(W_,2656);
-DYNX(W_,2762) = DYNX(W_,2658);
-DYNX(W_,2763) = DYNX(W_,2659);
-DYNX(W_,2764) = DYNX(W_,2660);
-DYNX(W_,2765) = DYNX(W_,2661);
-DYNX(W_,2766) = DYNX(W_,2662);
-DYNX(W_,2767) = DYNX(W_,2663);
-DYNX(W_,2768) = DYNX(W_,2664);
-DYNX(W_,2769) = DYNX(W_,2665);
-DYNX(W_,2770) = DYNX(W_,2666);
-DYNX(W_,2771) = DYNX(W_,2667);
-DYNX(W_,2772) = DYNX(W_,2668);
-DYNX(W_,2773) = DYNX(W_,2692);
-DYNX(W_,2774) = DYNX(W_,2693);
-DYNX(W_,2775) = DYNX(W_,2694);
-DYNX(W_,2776) = DYNX(W_,2695);
-DYNX(W_,2777) = DYNX(W_,2696);
-DYNX(W_,2778) = DYNX(W_,2697);
-DYNX(W_,2779) = DYNX(W_,2698);
-DYNX(W_,2780) = DYNX(W_,2699);
-DYNX(W_,2781) = DYNX(W_,2700);
-DYNX(W_,2782) = DYNX(W_,2701);
-DYNX(W_,2783) = DYNX(W_,2702);
-DYNX(W_,2784) = DYNX(W_,2704);
-DYNX(W_,2785) = DYNX(W_,2705);
-DYNX(W_,2786) = DYNX(W_,2706);
-DYNX(W_,2787) = DYNX(W_,2707);
-DYNX(W_,2788) = DYNX(W_,2708);
-DYNX(W_,2789) = DYNX(W_,2709);
-DYNX(W_,2790) = DYNX(W_,2710);
-DYNX(W_,2791) = DYNX(W_,2711);
-DYNX(W_,2792) = DYNX(W_,2712);
-DYNX(W_,2793) = DYNX(W_,2713);
-DYNX(W_,2794) = DYNX(W_,2714);
-DYNX(W_,2795) = DYNX(W_,2716);
-DYNX(W_,2796) = DYNX(W_,2717);
-DYNX(W_,2797) = DYNX(W_,2718);
-DYNX(W_,2798) = DYNX(W_,2719);
-DYNX(W_,2799) = DYNX(W_,2720);
-DYNX(W_,2800) = DYNX(W_,2721);
-DYNX(W_,2801) = DYNX(W_,2722);
-DYNX(W_,2802) = DYNX(W_,2723);
-DYNX(W_,2803) = DYNX(W_,2724);
-DYNX(W_,2804) = DYNX(W_,2725);
-DYNX(W_,2805) = DYNX(W_,2726);
+DYNX(W_,2721) = DYNX(W_,2598);
+DYNX(W_,2725) = DYNX(W_,2619);
+DYNX(W_,2726) = DYNX(W_,2620);
+DYNX(W_,2727) = DYNX(W_,2621);
+DYNX(W_,2728) = DYNX(W_,2622);
+DYNX(W_,2729) = DYNX(W_,2623);
+DYNX(W_,2730) = DYNX(W_,2624);
+DYNX(W_,2731) = DYNX(W_,2625);
+DYNX(W_,2732) = DYNX(W_,2626);
+DYNX(W_,2733) = DYNX(W_,2627);
+DYNX(W_,2734) = DYNX(W_,2628);
+DYNX(W_,2735) = DYNX(W_,2629);
+DYNX(W_,2736) = DYNX(W_,2631);
+DYNX(W_,2737) = DYNX(W_,2632);
+DYNX(W_,2738) = DYNX(W_,2633);
+DYNX(W_,2739) = DYNX(W_,2634);
+DYNX(W_,2740) = DYNX(W_,2635);
+DYNX(W_,2741) = DYNX(W_,2636);
+DYNX(W_,2742) = DYNX(W_,2637);
+DYNX(W_,2743) = DYNX(W_,2638);
+DYNX(W_,2744) = DYNX(W_,2639);
+DYNX(W_,2745) = DYNX(W_,2640);
+DYNX(W_,2746) = DYNX(W_,2641);
+DYNX(W_,2747) = DYNX(W_,2643);
+DYNX(W_,2748) = DYNX(W_,2644);
+DYNX(W_,2749) = DYNX(W_,2645);
+DYNX(W_,2750) = DYNX(W_,2646);
+DYNX(W_,2751) = DYNX(W_,2647);
+DYNX(W_,2752) = DYNX(W_,2648);
+DYNX(W_,2753) = DYNX(W_,2649);
+DYNX(W_,2754) = DYNX(W_,2650);
+DYNX(W_,2755) = DYNX(W_,2651);
+DYNX(W_,2756) = DYNX(W_,2652);
+DYNX(W_,2757) = DYNX(W_,2653);
+DYNX(W_,2758) = DYNX(W_,2677);
+DYNX(W_,2759) = DYNX(W_,2678);
+DYNX(W_,2760) = DYNX(W_,2679);
+DYNX(W_,2761) = DYNX(W_,2680);
+DYNX(W_,2762) = DYNX(W_,2681);
+DYNX(W_,2763) = DYNX(W_,2682);
+DYNX(W_,2764) = DYNX(W_,2683);
+DYNX(W_,2765) = DYNX(W_,2684);
+DYNX(W_,2766) = DYNX(W_,2685);
+DYNX(W_,2767) = DYNX(W_,2686);
+DYNX(W_,2768) = DYNX(W_,2687);
+DYNX(W_,2769) = DYNX(W_,2689);
+DYNX(W_,2770) = DYNX(W_,2690);
+DYNX(W_,2771) = DYNX(W_,2691);
+DYNX(W_,2772) = DYNX(W_,2692);
+DYNX(W_,2773) = DYNX(W_,2693);
+DYNX(W_,2774) = DYNX(W_,2694);
+DYNX(W_,2775) = DYNX(W_,2695);
+DYNX(W_,2776) = DYNX(W_,2696);
+DYNX(W_,2777) = DYNX(W_,2697);
+DYNX(W_,2778) = DYNX(W_,2698);
+DYNX(W_,2779) = DYNX(W_,2699);
+DYNX(W_,2780) = DYNX(W_,2701);
+DYNX(W_,2781) = DYNX(W_,2702);
+DYNX(W_,2782) = DYNX(W_,2703);
+DYNX(W_,2783) = DYNX(W_,2704);
+DYNX(W_,2784) = DYNX(W_,2705);
+DYNX(W_,2785) = DYNX(W_,2706);
+DYNX(W_,2786) = DYNX(W_,2707);
+DYNX(W_,2787) = DYNX(W_,2708);
+DYNX(W_,2788) = DYNX(W_,2709);
+DYNX(W_,2789) = DYNX(W_,2710);
+DYNX(W_,2790) = DYNX(W_,2711);
+DYNX(W_,2791) = DYNX(W_,2758)-DYNX(W_,2725);
+DYNX(W_,2792) = DYNX(W_,2759)-DYNX(W_,2726);
+DYNX(W_,2793) = DYNX(W_,2760)-DYNX(W_,2727);
+DYNX(W_,2794) = DYNX(W_,2761)-DYNX(W_,2728);
+DYNX(W_,2795) = DYNX(W_,2762)-DYNX(W_,2729);
+DYNX(W_,2796) = DYNX(W_,2763)-DYNX(W_,2730);
+DYNX(W_,2797) = DYNX(W_,2764)-DYNX(W_,2731);
+DYNX(W_,2798) = DYNX(W_,2765)-DYNX(W_,2732);
+DYNX(W_,2799) = DYNX(W_,2766)-DYNX(W_,2733);
+DYNX(W_,2800) = DYNX(W_,2767)-DYNX(W_,2734);
+DYNX(W_,2801) = DYNX(W_,2768)-DYNX(W_,2735);
+DYNX(W_,2802) = DYNX(W_,2769)-DYNX(W_,2736);
+DYNX(W_,2803) = DYNX(W_,2770)-DYNX(W_,2737);
+DYNX(W_,2804) = DYNX(W_,2771)-DYNX(W_,2738);
+DYNX(W_,2805) = DYNX(W_,2772)-DYNX(W_,2739);
DYNX(W_,2806) = DYNX(W_,2773)-DYNX(W_,2740);
DYNX(W_,2807) = DYNX(W_,2774)-DYNX(W_,2741);
DYNX(W_,2808) = DYNX(W_,2775)-DYNX(W_,2742);
@@ -11513,302 +11490,289 @@ DYNX(W_,2820) = DYNX(W_,2787)-DYNX(W_,2754);
DYNX(W_,2821) = DYNX(W_,2788)-DYNX(W_,2755);
DYNX(W_,2822) = DYNX(W_,2789)-DYNX(W_,2756);
DYNX(W_,2823) = DYNX(W_,2790)-DYNX(W_,2757);
-DYNX(W_,2824) = DYNX(W_,2791)-DYNX(W_,2758);
-DYNX(W_,2825) = DYNX(W_,2792)-DYNX(W_,2759);
-DYNX(W_,2826) = DYNX(W_,2793)-DYNX(W_,2760);
-DYNX(W_,2827) = DYNX(W_,2794)-DYNX(W_,2761);
-DYNX(W_,2828) = DYNX(W_,2795)-DYNX(W_,2762);
-DYNX(W_,2829) = DYNX(W_,2796)-DYNX(W_,2763);
-DYNX(W_,2830) = DYNX(W_,2797)-DYNX(W_,2764);
-DYNX(W_,2831) = DYNX(W_,2798)-DYNX(W_,2765);
-DYNX(W_,2832) = DYNX(W_,2799)-DYNX(W_,2766);
-DYNX(W_,2833) = DYNX(W_,2800)-DYNX(W_,2767);
-DYNX(W_,2834) = DYNX(W_,2801)-DYNX(W_,2768);
-DYNX(W_,2835) = DYNX(W_,2802)-DYNX(W_,2769);
-DYNX(W_,2836) = DYNX(W_,2803)-DYNX(W_,2770);
-DYNX(W_,2837) = DYNX(W_,2804)-DYNX(W_,2771);
-DYNX(W_,2838) = DYNX(W_,2805)-DYNX(W_,2772);
/* Introducing 34 common subexpressions used in 0 expressions */
/* Of the common subexpressions 34 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,65) = RealBmin(DYNX(W_,2806), DYNX(W_,2807));
-DYNX(DYNhelp,66) = RealBmin(DYNX(DYNhelp,65), DYNX(W_,2808));
-DYNX(DYNhelp,67) = RealBmin(DYNX(DYNhelp,66), DYNX(W_,2809));
-DYNX(DYNhelp,68) = RealBmin(DYNX(DYNhelp,67), DYNX(W_,2810));
-DYNX(DYNhelp,69) = RealBmin(DYNX(DYNhelp,68), DYNX(W_,2811));
-DYNX(DYNhelp,70) = RealBmin(DYNX(DYNhelp,69), DYNX(W_,2812));
-DYNX(DYNhelp,71) = RealBmin(DYNX(DYNhelp,70), DYNX(W_,2813));
-DYNX(DYNhelp,72) = RealBmin(DYNX(DYNhelp,71), DYNX(W_,2814));
-DYNX(DYNhelp,73) = RealBmin(DYNX(DYNhelp,72), DYNX(W_,2815));
-DYNX(DYNhelp,74) = RealBmin(DYNX(DYNhelp,73), DYNX(W_,2816));
-DYNX(DYNhelp,75) = RealBmin(DYNX(W_,2817), DYNX(W_,2818));
-DYNX(DYNhelp,76) = RealBmin(DYNX(DYNhelp,75), DYNX(W_,2819));
-DYNX(DYNhelp,77) = RealBmin(DYNX(DYNhelp,76), DYNX(W_,2820));
-DYNX(DYNhelp,78) = RealBmin(DYNX(DYNhelp,77), DYNX(W_,2821));
-DYNX(DYNhelp,79) = RealBmin(DYNX(DYNhelp,78), DYNX(W_,2822));
-DYNX(DYNhelp,80) = RealBmin(DYNX(DYNhelp,79), DYNX(W_,2823));
-DYNX(DYNhelp,81) = RealBmin(DYNX(DYNhelp,80), DYNX(W_,2824));
-DYNX(DYNhelp,82) = RealBmin(DYNX(DYNhelp,81), DYNX(W_,2825));
-DYNX(DYNhelp,83) = RealBmin(DYNX(DYNhelp,82), DYNX(W_,2826));
-DYNX(DYNhelp,84) = RealBmin(DYNX(DYNhelp,83), DYNX(W_,2827));
+DYNX(DYNhelp,65) = RealBmin(DYNX(W_,2791), DYNX(W_,2792));
+DYNX(DYNhelp,66) = RealBmin(DYNX(DYNhelp,65), DYNX(W_,2793));
+DYNX(DYNhelp,67) = RealBmin(DYNX(DYNhelp,66), DYNX(W_,2794));
+DYNX(DYNhelp,68) = RealBmin(DYNX(DYNhelp,67), DYNX(W_,2795));
+DYNX(DYNhelp,69) = RealBmin(DYNX(DYNhelp,68), DYNX(W_,2796));
+DYNX(DYNhelp,70) = RealBmin(DYNX(DYNhelp,69), DYNX(W_,2797));
+DYNX(DYNhelp,71) = RealBmin(DYNX(DYNhelp,70), DYNX(W_,2798));
+DYNX(DYNhelp,72) = RealBmin(DYNX(DYNhelp,71), DYNX(W_,2799));
+DYNX(DYNhelp,73) = RealBmin(DYNX(DYNhelp,72), DYNX(W_,2800));
+DYNX(DYNhelp,74) = RealBmin(DYNX(DYNhelp,73), DYNX(W_,2801));
+DYNX(DYNhelp,75) = RealBmin(DYNX(W_,2802), DYNX(W_,2803));
+DYNX(DYNhelp,76) = RealBmin(DYNX(DYNhelp,75), DYNX(W_,2804));
+DYNX(DYNhelp,77) = RealBmin(DYNX(DYNhelp,76), DYNX(W_,2805));
+DYNX(DYNhelp,78) = RealBmin(DYNX(DYNhelp,77), DYNX(W_,2806));
+DYNX(DYNhelp,79) = RealBmin(DYNX(DYNhelp,78), DYNX(W_,2807));
+DYNX(DYNhelp,80) = RealBmin(DYNX(DYNhelp,79), DYNX(W_,2808));
+DYNX(DYNhelp,81) = RealBmin(DYNX(DYNhelp,80), DYNX(W_,2809));
+DYNX(DYNhelp,82) = RealBmin(DYNX(DYNhelp,81), DYNX(W_,2810));
+DYNX(DYNhelp,83) = RealBmin(DYNX(DYNhelp,82), DYNX(W_,2811));
+DYNX(DYNhelp,84) = RealBmin(DYNX(DYNhelp,83), DYNX(W_,2812));
DYNX(DYNhelp,85) = RealBmin(DYNX(DYNhelp,74), DYNX(DYNhelp,84));
-DYNX(DYNhelp,86) = RealBmin(DYNX(W_,2828), DYNX(W_,2829));
-DYNX(DYNhelp,87) = RealBmin(DYNX(DYNhelp,86), DYNX(W_,2830));
-DYNX(DYNhelp,88) = RealBmin(DYNX(DYNhelp,87), DYNX(W_,2831));
-DYNX(DYNhelp,89) = RealBmin(DYNX(DYNhelp,88), DYNX(W_,2832));
-DYNX(DYNhelp,90) = RealBmin(DYNX(DYNhelp,89), DYNX(W_,2833));
-DYNX(DYNhelp,91) = RealBmin(DYNX(DYNhelp,90), DYNX(W_,2834));
-DYNX(DYNhelp,92) = RealBmin(DYNX(DYNhelp,91), DYNX(W_,2835));
-DYNX(DYNhelp,93) = RealBmin(DYNX(DYNhelp,92), DYNX(W_,2836));
-DYNX(DYNhelp,94) = RealBmin(DYNX(DYNhelp,93), DYNX(W_,2837));
-DYNX(DYNhelp,95) = RealBmin(DYNX(DYNhelp,94), DYNX(W_,2838));
+DYNX(DYNhelp,86) = RealBmin(DYNX(W_,2813), DYNX(W_,2814));
+DYNX(DYNhelp,87) = RealBmin(DYNX(DYNhelp,86), DYNX(W_,2815));
+DYNX(DYNhelp,88) = RealBmin(DYNX(DYNhelp,87), DYNX(W_,2816));
+DYNX(DYNhelp,89) = RealBmin(DYNX(DYNhelp,88), DYNX(W_,2817));
+DYNX(DYNhelp,90) = RealBmin(DYNX(DYNhelp,89), DYNX(W_,2818));
+DYNX(DYNhelp,91) = RealBmin(DYNX(DYNhelp,90), DYNX(W_,2819));
+DYNX(DYNhelp,92) = RealBmin(DYNX(DYNhelp,91), DYNX(W_,2820));
+DYNX(DYNhelp,93) = RealBmin(DYNX(DYNhelp,92), DYNX(W_,2821));
+DYNX(DYNhelp,94) = RealBmin(DYNX(DYNhelp,93), DYNX(W_,2822));
+DYNX(DYNhelp,95) = RealBmin(DYNX(DYNhelp,94), DYNX(W_,2823));
DYNX(DYNhelp,96) = RealBmin(DYNX(DYNhelp,85), DYNX(DYNhelp,95));
-DYNX(DYNhelp,97) = divinvGuarded(DYNX(W_,2606),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva");
-DYNX(DYNhelp,98) = divinvGuarded(DYNX(DP_,908),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.dTMax");
-DYNX(W_,2841) = DYNX(DYNhelp,98)*DYNX(DYNhelp,97)*DYNX(DYNhelp,96)*DYNX(W_,2613);
+DYNX(DYNhelp,97) = divinvGuarded(DYNX(W_,2592),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva");
+DYNX(DYNhelp,98) = divinvGuarded(DYNX(DP_,912),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.dTMax");
+DYNX(W_,2826) = DYNX(DYNhelp,98)*DYNX(DYNhelp,97)*DYNX(DYNhelp,96)*DYNX(W_,2598);
/* Introducing 34 common subexpressions used in 0 expressions */
/* Of the common subexpressions 34 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,99) = RealBmax(DYNX(W_,2806), DYNX(W_,2807));
-DYNX(DYNhelp,100) = RealBmax(DYNX(DYNhelp,99), DYNX(W_,2808));
-DYNX(DYNhelp,101) = RealBmax(DYNX(DYNhelp,100), DYNX(W_,2809));
-DYNX(DYNhelp,102) = RealBmax(DYNX(DYNhelp,101), DYNX(W_,2810));
-DYNX(DYNhelp,103) = RealBmax(DYNX(DYNhelp,102), DYNX(W_,2811));
-DYNX(DYNhelp,104) = RealBmax(DYNX(DYNhelp,103), DYNX(W_,2812));
-DYNX(DYNhelp,105) = RealBmax(DYNX(DYNhelp,104), DYNX(W_,2813));
-DYNX(DYNhelp,106) = RealBmax(DYNX(DYNhelp,105), DYNX(W_,2814));
-DYNX(DYNhelp,107) = RealBmax(DYNX(DYNhelp,106), DYNX(W_,2815));
-DYNX(DYNhelp,108) = RealBmax(DYNX(DYNhelp,107), DYNX(W_,2816));
-DYNX(DYNhelp,109) = RealBmax(DYNX(W_,2817), DYNX(W_,2818));
-DYNX(DYNhelp,110) = RealBmax(DYNX(DYNhelp,109), DYNX(W_,2819));
-DYNX(DYNhelp,111) = RealBmax(DYNX(DYNhelp,110), DYNX(W_,2820));
-DYNX(DYNhelp,112) = RealBmax(DYNX(DYNhelp,111), DYNX(W_,2821));
-DYNX(DYNhelp,113) = RealBmax(DYNX(DYNhelp,112), DYNX(W_,2822));
-DYNX(DYNhelp,114) = RealBmax(DYNX(DYNhelp,113), DYNX(W_,2823));
-DYNX(DYNhelp,115) = RealBmax(DYNX(DYNhelp,114), DYNX(W_,2824));
-DYNX(DYNhelp,116) = RealBmax(DYNX(DYNhelp,115), DYNX(W_,2825));
-DYNX(DYNhelp,117) = RealBmax(DYNX(DYNhelp,116), DYNX(W_,2826));
-DYNX(DYNhelp,118) = RealBmax(DYNX(DYNhelp,117), DYNX(W_,2827));
+DYNX(DYNhelp,99) = RealBmax(DYNX(W_,2791), DYNX(W_,2792));
+DYNX(DYNhelp,100) = RealBmax(DYNX(DYNhelp,99), DYNX(W_,2793));
+DYNX(DYNhelp,101) = RealBmax(DYNX(DYNhelp,100), DYNX(W_,2794));
+DYNX(DYNhelp,102) = RealBmax(DYNX(DYNhelp,101), DYNX(W_,2795));
+DYNX(DYNhelp,103) = RealBmax(DYNX(DYNhelp,102), DYNX(W_,2796));
+DYNX(DYNhelp,104) = RealBmax(DYNX(DYNhelp,103), DYNX(W_,2797));
+DYNX(DYNhelp,105) = RealBmax(DYNX(DYNhelp,104), DYNX(W_,2798));
+DYNX(DYNhelp,106) = RealBmax(DYNX(DYNhelp,105), DYNX(W_,2799));
+DYNX(DYNhelp,107) = RealBmax(DYNX(DYNhelp,106), DYNX(W_,2800));
+DYNX(DYNhelp,108) = RealBmax(DYNX(DYNhelp,107), DYNX(W_,2801));
+DYNX(DYNhelp,109) = RealBmax(DYNX(W_,2802), DYNX(W_,2803));
+DYNX(DYNhelp,110) = RealBmax(DYNX(DYNhelp,109), DYNX(W_,2804));
+DYNX(DYNhelp,111) = RealBmax(DYNX(DYNhelp,110), DYNX(W_,2805));
+DYNX(DYNhelp,112) = RealBmax(DYNX(DYNhelp,111), DYNX(W_,2806));
+DYNX(DYNhelp,113) = RealBmax(DYNX(DYNhelp,112), DYNX(W_,2807));
+DYNX(DYNhelp,114) = RealBmax(DYNX(DYNhelp,113), DYNX(W_,2808));
+DYNX(DYNhelp,115) = RealBmax(DYNX(DYNhelp,114), DYNX(W_,2809));
+DYNX(DYNhelp,116) = RealBmax(DYNX(DYNhelp,115), DYNX(W_,2810));
+DYNX(DYNhelp,117) = RealBmax(DYNX(DYNhelp,116), DYNX(W_,2811));
+DYNX(DYNhelp,118) = RealBmax(DYNX(DYNhelp,117), DYNX(W_,2812));
DYNX(DYNhelp,119) = RealBmax(DYNX(DYNhelp,108), DYNX(DYNhelp,118));
-DYNX(DYNhelp,120) = RealBmax(DYNX(W_,2828), DYNX(W_,2829));
-DYNX(DYNhelp,121) = RealBmax(DYNX(DYNhelp,120), DYNX(W_,2830));
-DYNX(DYNhelp,122) = RealBmax(DYNX(DYNhelp,121), DYNX(W_,2831));
-DYNX(DYNhelp,123) = RealBmax(DYNX(DYNhelp,122), DYNX(W_,2832));
-DYNX(DYNhelp,124) = RealBmax(DYNX(DYNhelp,123), DYNX(W_,2833));
-DYNX(DYNhelp,125) = RealBmax(DYNX(DYNhelp,124), DYNX(W_,2834));
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(24);
-DYNX(DYNhelp,126) = RealBmax(DYNX(DYNhelp,125), DYNX(W_,2835));
-DYNX(DYNhelp,127) = RealBmax(DYNX(DYNhelp,126), DYNX(W_,2836));
-DYNX(DYNhelp,128) = RealBmax(DYNX(DYNhelp,127), DYNX(W_,2837));
-DYNX(DYNhelp,129) = RealBmax(DYNX(DYNhelp,128), DYNX(W_,2838));
+DYNX(DYNhelp,120) = RealBmax(DYNX(W_,2813), DYNX(W_,2814));
+DYNX(DYNhelp,121) = RealBmax(DYNX(DYNhelp,120), DYNX(W_,2815));
+DYNX(DYNhelp,122) = RealBmax(DYNX(DYNhelp,121), DYNX(W_,2816));
+DYNX(DYNhelp,123) = RealBmax(DYNX(DYNhelp,122), DYNX(W_,2817));
+DYNX(DYNhelp,124) = RealBmax(DYNX(DYNhelp,123), DYNX(W_,2818));
+DYNX(DYNhelp,125) = RealBmax(DYNX(DYNhelp,124), DYNX(W_,2819));
+DYNX(DYNhelp,126) = RealBmax(DYNX(DYNhelp,125), DYNX(W_,2820));
+DYNX(DYNhelp,127) = RealBmax(DYNX(DYNhelp,126), DYNX(W_,2821));
+DYNX(DYNhelp,128) = RealBmax(DYNX(DYNhelp,127), DYNX(W_,2822));
+DYNX(DYNhelp,129) = RealBmax(DYNX(DYNhelp,128), DYNX(W_,2823));
DYNX(DYNhelp,130) = RealBmax(DYNX(DYNhelp,119), DYNX(DYNhelp,129));
-DYNX(DYNhelp,131) = divinvGuarded(DYNX(DP_,907),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.dTMin");
-DYNX(W_,2842) = DYNX(DYNhelp,131)*DYNX(DYNhelp,97)*DYNX(DYNhelp,130)*
- DYNX(W_,2613);
+DYNX(DYNhelp,131) = divinvGuarded(DYNX(DP_,911),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.dTMin");
+DYNX(W_,2827) = DYNX(DYNhelp,131)*DYNX(DYNhelp,97)*DYNX(DYNhelp,130)*
+ DYNX(W_,2598);
/* Introducing 34 common subexpressions used in 0 expressions */
/* Of the common subexpressions 34 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,132) = RealBmin(DYNX(W_,2773), DYNX(W_,2774));
-DYNX(DYNhelp,133) = RealBmin(DYNX(DYNhelp,132), DYNX(W_,2775));
-DYNX(DYNhelp,134) = RealBmin(DYNX(DYNhelp,133), DYNX(W_,2776));
-DYNX(DYNhelp,135) = RealBmin(DYNX(DYNhelp,134), DYNX(W_,2777));
-DYNX(DYNhelp,136) = RealBmin(DYNX(DYNhelp,135), DYNX(W_,2778));
-DYNX(DYNhelp,137) = RealBmin(DYNX(DYNhelp,136), DYNX(W_,2779));
-DYNX(DYNhelp,138) = RealBmin(DYNX(DYNhelp,137), DYNX(W_,2780));
-DYNX(DYNhelp,139) = RealBmin(DYNX(DYNhelp,138), DYNX(W_,2781));
-DYNX(DYNhelp,140) = RealBmin(DYNX(DYNhelp,139), DYNX(W_,2782));
-DYNX(DYNhelp,141) = RealBmin(DYNX(DYNhelp,140), DYNX(W_,2783));
-DYNX(DYNhelp,142) = RealBmin(DYNX(W_,2784), DYNX(W_,2785));
-DYNX(DYNhelp,143) = RealBmin(DYNX(DYNhelp,142), DYNX(W_,2786));
-DYNX(DYNhelp,144) = RealBmin(DYNX(DYNhelp,143), DYNX(W_,2787));
-DYNX(DYNhelp,145) = RealBmin(DYNX(DYNhelp,144), DYNX(W_,2788));
-DYNX(DYNhelp,146) = RealBmin(DYNX(DYNhelp,145), DYNX(W_,2789));
-DYNX(DYNhelp,147) = RealBmin(DYNX(DYNhelp,146), DYNX(W_,2790));
-DYNX(DYNhelp,148) = RealBmin(DYNX(DYNhelp,147), DYNX(W_,2791));
-DYNX(DYNhelp,149) = RealBmin(DYNX(DYNhelp,148), DYNX(W_,2792));
-DYNX(DYNhelp,150) = RealBmin(DYNX(DYNhelp,149), DYNX(W_,2793));
-DYNX(DYNhelp,151) = RealBmin(DYNX(DYNhelp,150), DYNX(W_,2794));
+DYNX(DYNhelp,132) = RealBmin(DYNX(W_,2758), DYNX(W_,2759));
+DYNX(DYNhelp,133) = RealBmin(DYNX(DYNhelp,132), DYNX(W_,2760));
+DYNX(DYNhelp,134) = RealBmin(DYNX(DYNhelp,133), DYNX(W_,2761));
+DYNX(DYNhelp,135) = RealBmin(DYNX(DYNhelp,134), DYNX(W_,2762));
+DYNX(DYNhelp,136) = RealBmin(DYNX(DYNhelp,135), DYNX(W_,2763));
+DYNX(DYNhelp,137) = RealBmin(DYNX(DYNhelp,136), DYNX(W_,2764));
+DYNX(DYNhelp,138) = RealBmin(DYNX(DYNhelp,137), DYNX(W_,2765));
+DYNX(DYNhelp,139) = RealBmin(DYNX(DYNhelp,138), DYNX(W_,2766));
+DYNX(DYNhelp,140) = RealBmin(DYNX(DYNhelp,139), DYNX(W_,2767));
+DYNX(DYNhelp,141) = RealBmin(DYNX(DYNhelp,140), DYNX(W_,2768));
+DYNX(DYNhelp,142) = RealBmin(DYNX(W_,2769), DYNX(W_,2770));
+DYNX(DYNhelp,143) = RealBmin(DYNX(DYNhelp,142), DYNX(W_,2771));
+DYNX(DYNhelp,144) = RealBmin(DYNX(DYNhelp,143), DYNX(W_,2772));
+DYNX(DYNhelp,145) = RealBmin(DYNX(DYNhelp,144), DYNX(W_,2773));
+DYNX(DYNhelp,146) = RealBmin(DYNX(DYNhelp,145), DYNX(W_,2774));
+DYNX(DYNhelp,147) = RealBmin(DYNX(DYNhelp,146), DYNX(W_,2775));
+DYNX(DYNhelp,148) = RealBmin(DYNX(DYNhelp,147), DYNX(W_,2776));
+DYNX(DYNhelp,149) = RealBmin(DYNX(DYNhelp,148), DYNX(W_,2777));
+DYNX(DYNhelp,150) = RealBmin(DYNX(DYNhelp,149), DYNX(W_,2778));
+DYNX(DYNhelp,151) = RealBmin(DYNX(DYNhelp,150), DYNX(W_,2779));
DYNX(DYNhelp,152) = RealBmin(DYNX(DYNhelp,141), DYNX(DYNhelp,151));
-DYNX(DYNhelp,153) = RealBmin(DYNX(W_,2795), DYNX(W_,2796));
-DYNX(DYNhelp,154) = RealBmin(DYNX(DYNhelp,153), DYNX(W_,2797));
-DYNX(DYNhelp,155) = RealBmin(DYNX(DYNhelp,154), DYNX(W_,2798));
-DYNX(DYNhelp,156) = RealBmin(DYNX(DYNhelp,155), DYNX(W_,2799));
-DYNX(DYNhelp,157) = RealBmin(DYNX(DYNhelp,156), DYNX(W_,2800));
-DYNX(DYNhelp,158) = RealBmin(DYNX(DYNhelp,157), DYNX(W_,2801));
-DYNX(DYNhelp,159) = RealBmin(DYNX(DYNhelp,158), DYNX(W_,2802));
-DYNX(DYNhelp,160) = RealBmin(DYNX(DYNhelp,159), DYNX(W_,2803));
-DYNX(DYNhelp,161) = RealBmin(DYNX(DYNhelp,160), DYNX(W_,2804));
-DYNX(DYNhelp,162) = RealBmin(DYNX(DYNhelp,161), DYNX(W_,2805));
+DYNX(DYNhelp,153) = RealBmin(DYNX(W_,2780), DYNX(W_,2781));
+DYNX(DYNhelp,154) = RealBmin(DYNX(DYNhelp,153), DYNX(W_,2782));
+DYNX(DYNhelp,155) = RealBmin(DYNX(DYNhelp,154), DYNX(W_,2783));
+DYNX(DYNhelp,156) = RealBmin(DYNX(DYNhelp,155), DYNX(W_,2784));
+DYNX(DYNhelp,157) = RealBmin(DYNX(DYNhelp,156), DYNX(W_,2785));
+DYNX(DYNhelp,158) = RealBmin(DYNX(DYNhelp,157), DYNX(W_,2786));
+DYNX(DYNhelp,159) = RealBmin(DYNX(DYNhelp,158), DYNX(W_,2787));
+DYNX(DYNhelp,160) = RealBmin(DYNX(DYNhelp,159), DYNX(W_,2788));
+DYNX(DYNhelp,161) = RealBmin(DYNX(DYNhelp,160), DYNX(W_,2789));
+DYNX(DYNhelp,162) = RealBmin(DYNX(DYNhelp,161), DYNX(W_,2790));
DYNX(DYNhelp,163) = RealBmin(DYNX(DYNhelp,152), DYNX(DYNhelp,162));
-DYNX(DYNhelp,164) = divinvGuarded(DYNX(W_,2605),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon");
-DYNX(W_,2843) = DYNX(DYNhelp,98)*DYNX(DYNhelp,164)*DYNX(DYNhelp,163)*
- DYNX(W_,2613);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(24);
+DYNX(DYNhelp,164) = divinvGuarded(DYNX(W_,2591),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon");
+DYNX(W_,2828) = DYNX(DYNhelp,98)*DYNX(DYNhelp,164)*DYNX(DYNhelp,163)*
+ DYNX(W_,2598);
/* Introducing 34 common subexpressions used in 0 expressions */
/* Of the common subexpressions 34 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,165) = RealBmax(DYNX(W_,2773), DYNX(W_,2774));
-DYNX(DYNhelp,166) = RealBmax(DYNX(DYNhelp,165), DYNX(W_,2775));
-DYNX(DYNhelp,167) = RealBmax(DYNX(DYNhelp,166), DYNX(W_,2776));
-DYNX(DYNhelp,168) = RealBmax(DYNX(DYNhelp,167), DYNX(W_,2777));
-DYNX(DYNhelp,169) = RealBmax(DYNX(DYNhelp,168), DYNX(W_,2778));
-DYNX(DYNhelp,170) = RealBmax(DYNX(DYNhelp,169), DYNX(W_,2779));
-DYNX(DYNhelp,171) = RealBmax(DYNX(DYNhelp,170), DYNX(W_,2780));
-DYNX(DYNhelp,172) = RealBmax(DYNX(DYNhelp,171), DYNX(W_,2781));
-DYNX(DYNhelp,173) = RealBmax(DYNX(DYNhelp,172), DYNX(W_,2782));
-DYNX(DYNhelp,174) = RealBmax(DYNX(DYNhelp,173), DYNX(W_,2783));
-DYNX(DYNhelp,175) = RealBmax(DYNX(W_,2784), DYNX(W_,2785));
-DYNX(DYNhelp,176) = RealBmax(DYNX(DYNhelp,175), DYNX(W_,2786));
-DYNX(DYNhelp,177) = RealBmax(DYNX(DYNhelp,176), DYNX(W_,2787));
-DYNX(DYNhelp,178) = RealBmax(DYNX(DYNhelp,177), DYNX(W_,2788));
-DYNX(DYNhelp,179) = RealBmax(DYNX(DYNhelp,178), DYNX(W_,2789));
-DYNX(DYNhelp,180) = RealBmax(DYNX(DYNhelp,179), DYNX(W_,2790));
-DYNX(DYNhelp,181) = RealBmax(DYNX(DYNhelp,180), DYNX(W_,2791));
-DYNX(DYNhelp,182) = RealBmax(DYNX(DYNhelp,181), DYNX(W_,2792));
-DYNX(DYNhelp,183) = RealBmax(DYNX(DYNhelp,182), DYNX(W_,2793));
-DYNX(DYNhelp,184) = RealBmax(DYNX(DYNhelp,183), DYNX(W_,2794));
+DYNX(DYNhelp,165) = RealBmax(DYNX(W_,2758), DYNX(W_,2759));
+DYNX(DYNhelp,166) = RealBmax(DYNX(DYNhelp,165), DYNX(W_,2760));
+DYNX(DYNhelp,167) = RealBmax(DYNX(DYNhelp,166), DYNX(W_,2761));
+DYNX(DYNhelp,168) = RealBmax(DYNX(DYNhelp,167), DYNX(W_,2762));
+DYNX(DYNhelp,169) = RealBmax(DYNX(DYNhelp,168), DYNX(W_,2763));
+DYNX(DYNhelp,170) = RealBmax(DYNX(DYNhelp,169), DYNX(W_,2764));
+DYNX(DYNhelp,171) = RealBmax(DYNX(DYNhelp,170), DYNX(W_,2765));
+DYNX(DYNhelp,172) = RealBmax(DYNX(DYNhelp,171), DYNX(W_,2766));
+DYNX(DYNhelp,173) = RealBmax(DYNX(DYNhelp,172), DYNX(W_,2767));
+DYNX(DYNhelp,174) = RealBmax(DYNX(DYNhelp,173), DYNX(W_,2768));
+DYNX(DYNhelp,175) = RealBmax(DYNX(W_,2769), DYNX(W_,2770));
+DYNX(DYNhelp,176) = RealBmax(DYNX(DYNhelp,175), DYNX(W_,2771));
+DYNX(DYNhelp,177) = RealBmax(DYNX(DYNhelp,176), DYNX(W_,2772));
+DYNX(DYNhelp,178) = RealBmax(DYNX(DYNhelp,177), DYNX(W_,2773));
+DYNX(DYNhelp,179) = RealBmax(DYNX(DYNhelp,178), DYNX(W_,2774));
+DYNX(DYNhelp,180) = RealBmax(DYNX(DYNhelp,179), DYNX(W_,2775));
+DYNX(DYNhelp,181) = RealBmax(DYNX(DYNhelp,180), DYNX(W_,2776));
+DYNX(DYNhelp,182) = RealBmax(DYNX(DYNhelp,181), DYNX(W_,2777));
+DYNX(DYNhelp,183) = RealBmax(DYNX(DYNhelp,182), DYNX(W_,2778));
+DYNX(DYNhelp,184) = RealBmax(DYNX(DYNhelp,183), DYNX(W_,2779));
DYNX(DYNhelp,185) = RealBmax(DYNX(DYNhelp,174), DYNX(DYNhelp,184));
-DYNX(DYNhelp,186) = RealBmax(DYNX(W_,2795), DYNX(W_,2796));
-DYNX(DYNhelp,187) = RealBmax(DYNX(DYNhelp,186), DYNX(W_,2797));
-DYNX(DYNhelp,188) = RealBmax(DYNX(DYNhelp,187), DYNX(W_,2798));
-DYNX(DYNhelp,189) = RealBmax(DYNX(DYNhelp,188), DYNX(W_,2799));
-DYNX(DYNhelp,190) = RealBmax(DYNX(DYNhelp,189), DYNX(W_,2800));
-DYNX(DYNhelp,191) = RealBmax(DYNX(DYNhelp,190), DYNX(W_,2801));
-DYNX(DYNhelp,192) = RealBmax(DYNX(DYNhelp,191), DYNX(W_,2802));
-DYNX(DYNhelp,193) = RealBmax(DYNX(DYNhelp,192), DYNX(W_,2803));
-DYNX(DYNhelp,194) = RealBmax(DYNX(DYNhelp,193), DYNX(W_,2804));
-DYNX(DYNhelp,195) = RealBmax(DYNX(DYNhelp,194), DYNX(W_,2805));
+DYNX(DYNhelp,186) = RealBmax(DYNX(W_,2780), DYNX(W_,2781));
+DYNX(DYNhelp,187) = RealBmax(DYNX(DYNhelp,186), DYNX(W_,2782));
+DYNX(DYNhelp,188) = RealBmax(DYNX(DYNhelp,187), DYNX(W_,2783));
+DYNX(DYNhelp,189) = RealBmax(DYNX(DYNhelp,188), DYNX(W_,2784));
+DYNX(DYNhelp,190) = RealBmax(DYNX(DYNhelp,189), DYNX(W_,2785));
+DYNX(DYNhelp,191) = RealBmax(DYNX(DYNhelp,190), DYNX(W_,2786));
+DYNX(DYNhelp,192) = RealBmax(DYNX(DYNhelp,191), DYNX(W_,2787));
+DYNX(DYNhelp,193) = RealBmax(DYNX(DYNhelp,192), DYNX(W_,2788));
+DYNX(DYNhelp,194) = RealBmax(DYNX(DYNhelp,193), DYNX(W_,2789));
+DYNX(DYNhelp,195) = RealBmax(DYNX(DYNhelp,194), DYNX(W_,2790));
DYNX(DYNhelp,196) = RealBmax(DYNX(DYNhelp,185), DYNX(DYNhelp,195));
-DYNX(W_,2844) = DYNX(DYNhelp,131)*DYNX(DYNhelp,164)*DYNX(DYNhelp,196)*
- DYNX(W_,2613);
-DYNX(W_,3413) = DYNX(DP_,884);
-DYNX(W_,2848) = DYNX(W_,3413);
-DYNX(W_,3412) = DYNX(DP_,883);
-DYNX(W_,2849) = DYNX(W_,3412);
-DYNX(W_,2854) = DYNX(W_,2895);
-DYNX(W_,3409) = DYNX(DP_,885);
-DYNX(W_,2868) = DYNX(W_,3409);
-DYNX(W_,2874) = DYNX(DP_,850);
-DYNX(W_,2880) = DYNX(DP_,851);
-DYNX(W_,2881) = DYNX(DP_,852);
-DYNX(W_,2882) = DYNX(DP_,853);
-DYNX(W_,2885) = DYNX(DP_,855);
-DYNX(W_,2891) = DYNX(DP_,856);
-DYNX(W_,2892) = DYNX(DP_,857);
-DYNX(W_,2893) = DYNX(DP_,858);
-DYNX(W_,2894) = 1.1843079200592153E-05*DYNX(DP_,1060);
-DYNX(W_,2898) = DYNX(DP_,859);
-DYNX(W_,2899) = DYNX(DP_,860);
-DYNX(W_,2901) = DYNX(DP_,861);
-DYNX(W_,2903) = DYNX(DP_,862);
-DYNX(W_,2904) = DYNX(DP_,863);
-RealAssign (RealTemporaryDense( &DYNX(W_,2906), 2, 2, 2), RealTemporaryDense(
+DYNX(W_,2829) = DYNX(DYNhelp,131)*DYNX(DYNhelp,164)*DYNX(DYNhelp,196)*
+ DYNX(W_,2598);
+DYNX(W_,3377) = DYNX(DP_,888);
+DYNX(W_,2833) = DYNX(W_,3377);
+DYNX(W_,3376) = DYNX(DP_,887);
+DYNX(W_,2834) = DYNX(W_,3376);
+DYNX(W_,2838) = DYNX(W_,2870);
+DYNX(W_,3373) = DYNX(DP_,889);
+DYNX(W_,2843) = DYNX(W_,3373);
+DYNX(W_,2845) = DYNX(DP_,1021)*DYNX(DP_,1023);
+DYNX(W_,2846) = -DYNX(DP_,1021)*DYNX(DP_,1022)*DYNX(DP_,1023);
+DYNX(W_,2849) = DYNX(DP_,850);
+DYNX(W_,2855) = DYNX(DP_,851);
+DYNX(W_,2856) = DYNX(DP_,852);
+DYNX(W_,2857) = DYNX(DP_,853);
+DYNX(W_,2860) = DYNX(DP_,855);
+DYNX(W_,2866) = DYNX(DP_,856);
+DYNX(W_,2867) = DYNX(DP_,857);
+DYNX(W_,2868) = DYNX(DP_,858);
+DYNX(W_,2869) = 1.1843079200592153E-05*DYNX(DP_,1066);
+DYNX(W_,2873) = DYNX(DP_,859);
+DYNX(W_,2874) = DYNX(DP_,860);
+DYNX(W_,2876) = DYNX(DP_,861);
+DYNX(W_,2878) = DYNX(DP_,862);
+DYNX(W_,2879) = DYNX(DP_,863);
+RealAssign (RealTemporaryDense( &DYNX(W_,2881), 2, 2, 2), RealTemporaryDense(
&DYNX(DP_,864), 2, 2, 2));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,2910), 2, 2, 2), RealTemporaryDense(
+RealAssign (RealTemporaryDense( &DYNX(W_,2885), 2, 2, 2), RealTemporaryDense(
&DYNX(DP_,868), 2, 2, 2));
PopAllMarks();
-DYNX(W_,2914) = DYNX(DP_,872);
-DYNX(W_,2920) = DYNX(DP_,873);
-DYNX(W_,2921) = DYNX(DP_,874);
-DYNX(W_,2923) = DYNX(DP_,875);
-DYNX(W_,2924) = DYNX(DP_,876);
-DYNX(W_,2927) = DYNX(W_,2482);
-DYNX(W_,2928) = DYNX(W_,2483);
-DYNX(W_,2946) = DYNX(W_,2874);
-DYNX(W_,2948) = DYNX(W_,2927);
-DYNX(W_,2949) = DYNX(W_,2928);
-DYNX(W_,2950) = DYNX(DP_,1021);
-DYNX(W_,2955) = DYNX(W_,2948);
-DYNX(W_,2956) = DYNX(W_,2949);
-DYNX(W_,2957) = DYNX(W_,2950);
-DYNX(DYNhelp,197) = divinvGuarded(DYNX(W_,3028),"hydraulic.generation.heatPump.con.rho_default");
-DYNX(W_,2967) = DYNX(DYNhelp,197)*DYNX(W_,2935)*DYNX(W_,2946);
-DYNX(W_,2972) = DYNX(W_,2955);
-DYNX(W_,2973) = DYNX(W_,2956);
-DYNX(W_,2980) = DYNX(W_,2955);
-DYNX(W_,2981) = DYNX(W_,2956);
-DYNX(W_,2982) = DYNX(W_,2957);
-DYNX(W_,2999) = DYNX(W_,2967);
-DYNX(W_,3007) = 4184*(DYNX(W_,2981)-273.15);
-DYNX(W_,3029) = DYNX(W_,2948);
-DYNX(W_,3030) = DYNX(W_,2949);
-DYNX(W_,3031) = 4184*(DYNX(W_,3030)-273.15);
-DYNX(W_,3034) = DYNX(W_,2880);
-DYNX(W_,3035) = DYNX(DP_,1020);
-DYNX(W_,3042) = DYNX(W_,2887);
-DYNX(W_,3043) = 0.0001*DYNX(DYNhelp,61);
-DYNX(W_,3054) = DYNX(W_,2885);
-DYNX(W_,3058) = DYNX(DP_,1023);
-DYNX(W_,3059) = DYNX(DP_,1024);
-DYNX(W_,3066) = DYNX(W_,3058);
-DYNX(W_,3067) = DYNX(W_,3059);
-DYNX(W_,3073) = DYNX(W_,3042);
-DYNX(DYNhelp,198) = fabs(DYNX(W_,3073));
-DYNX(W_,3075) = 0.0001*DYNX(DYNhelp,198);
-DYNX(W_,3154) = 1.1843079200592153E-05*DYNX(DP_,1036);
-DYNX(DYNhelp,199) = divinvGuarded(DYNX(W_,3154),"hydraulic.generation.heatPump.eva.rho_default");
-DYNX(W_,3077) = DYNX(DYNhelp,199)*DYNX(W_,3042)*DYNX(W_,3054);
-DYNX(W_,3089) = DYNX(W_,3066);
-DYNX(W_,3090) = 1-DYNX(W_,3066);
-DYNX(W_,3099) = DYNX(W_,3066);
-DYNX(W_,3100) = DYNX(W_,3067);
-DYNX(W_,3119) = DYNX(W_,3077);
-DYNX(W_,3130) = 1006.0*(DYNX(W_,3098)-273.15)*(1-DYNX(W_,3099))+(2501014.5+1860*
- (DYNX(W_,3098)-273.15))*DYNX(W_,3099);
-DYNX(W_,3136) = DYNX(W_,3042);
-DYNX(DYNhelp,200) = fabs(DYNX(W_,3136));
-DYNX(W_,3137) = 0.0001*DYNX(DYNhelp,200);
-DYNX(W_,3148) = DYNX(DYNhelp,200);
-AssertModelica(DYNX(W_,3148) > 0,"hydraulic.generation.heatPump.eva.preDro.m_flow_nominal_pos > 0",
+DYNX(W_,2889) = DYNX(DP_,872);
+DYNX(W_,2895) = DYNX(DP_,873);
+DYNX(W_,2896) = DYNX(DP_,874);
+DYNX(W_,2898) = DYNX(DP_,875);
+DYNX(W_,2899) = DYNX(DP_,876);
+DYNX(W_,2902) = DYNX(W_,2482);
+DYNX(W_,2903) = DYNX(W_,2483);
+DYNX(W_,2921) = DYNX(W_,2849);
+DYNX(W_,2923) = DYNX(W_,2902);
+DYNX(W_,2924) = DYNX(W_,2903);
+DYNX(W_,2925) = DYNX(DP_,1027);
+DYNX(W_,2930) = DYNX(W_,2923);
+DYNX(W_,2931) = DYNX(W_,2924);
+DYNX(W_,2932) = DYNX(W_,2925);
+DYNX(DYNhelp,197) = divinvGuarded(DYNX(W_,3003),"hydraulic.generation.heatPump.con.rho_default");
+DYNX(W_,2942) = DYNX(DYNhelp,197)*DYNX(W_,2910)*DYNX(W_,2921);
+DYNX(W_,2947) = DYNX(W_,2930);
+DYNX(W_,2948) = DYNX(W_,2931);
+DYNX(W_,2955) = DYNX(W_,2930);
+DYNX(W_,2956) = DYNX(W_,2931);
+DYNX(W_,2957) = DYNX(W_,2932);
+DYNX(W_,2974) = DYNX(W_,2942);
+DYNX(W_,2982) = 4184*(DYNX(W_,2956)-273.15);
+DYNX(W_,3004) = DYNX(W_,2923);
+DYNX(W_,3005) = DYNX(W_,2924);
+DYNX(W_,3006) = 4184*(DYNX(W_,3005)-273.15);
+DYNX(W_,3009) = DYNX(W_,2855);
+DYNX(W_,3010) = DYNX(DP_,1026);
+DYNX(W_,3017) = DYNX(W_,2862);
+DYNX(W_,3018) = 0.0001*DYNX(DYNhelp,61);
+DYNX(W_,3029) = DYNX(W_,2860);
+DYNX(W_,3033) = DYNX(DP_,1029);
+DYNX(W_,3034) = DYNX(DP_,1030);
+DYNX(W_,3041) = DYNX(W_,3033);
+DYNX(W_,3042) = DYNX(W_,3034);
+DYNX(W_,3048) = DYNX(W_,3017);
+DYNX(DYNhelp,198) = fabs(DYNX(W_,3048));
+DYNX(W_,3050) = 0.0001*DYNX(DYNhelp,198);
+DYNX(W_,3129) = 1.1843079200592153E-05*DYNX(DP_,1042);
+DYNX(DYNhelp,199) = divinvGuarded(DYNX(W_,3129),"hydraulic.generation.heatPump.eva.rho_default");
+DYNX(W_,3052) = DYNX(DYNhelp,199)*DYNX(W_,3017)*DYNX(W_,3029);
+DYNX(W_,3064) = DYNX(W_,3041);
+DYNX(W_,3065) = 1-DYNX(W_,3041);
+DYNX(W_,3074) = DYNX(W_,3041);
+DYNX(W_,3075) = DYNX(W_,3042);
+DYNX(W_,3094) = DYNX(W_,3052);
+DYNX(W_,3105) = 1006.0*(DYNX(W_,3073)-273.15)*(1-DYNX(W_,3074))+(2501014.5+1860*
+ (DYNX(W_,3073)-273.15))*DYNX(W_,3074);
+DYNX(W_,3111) = DYNX(W_,3017);
+DYNX(DYNhelp,200) = fabs(DYNX(W_,3111));
+DYNX(W_,3112) = 0.0001*DYNX(DYNhelp,200);
+DYNX(W_,3123) = DYNX(DYNhelp,200);
+AssertModelica(DYNX(W_,3123) > 0,"hydraulic.generation.heatPump.eva.preDro.m_flow_nominal_pos > 0",
"m_flow_nominal_pos must be non-zero. Check parameters.");
-DYNX(W_,3147) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1033);
-DYNX(W_,3157) = DYNX(W_,3058);
-DYNX(W_,3158) = DYNX(W_,3059);
-DYNX(W_,3159) = 1006.0*(DYNX(W_,3156)-273.15)*(1-DYNX(W_,3157))+(2501014.5+1860*
- (DYNX(W_,3156)-273.15))*DYNX(W_,3157);
-DYNX(W_,3162) = DYNX(W_,2891);
-DYNX(W_,3163) = DYNX(DP_,1022);
-DYNX(W_,3169) = DYNX(W_,2887);
-DYNX(W_,3171) = DYNX(DP_,1026);
-DYNX(W_,3173) = DYNX(W_,2898);
-DYNX(W_,3174) = DYNX(W_,2899);
-DYNX(W_,3176) = DYNX(W_,2901);
-DYNX(W_,3178) = DYNX(W_,2903);
-DYNX(W_,3179) = DYNX(W_,2904);
-RealAssign (RealTemporaryDense( &DYNX(W_,3181), 2, 2, 2), RealTemporaryDense(
- &DYNX(W_,2906), 2, 2, 2));
+DYNX(W_,3122) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1039);
+DYNX(W_,3132) = DYNX(W_,3033);
+DYNX(W_,3133) = DYNX(W_,3034);
+DYNX(W_,3134) = 1006.0*(DYNX(W_,3131)-273.15)*(1-DYNX(W_,3132))+(2501014.5+1860*
+ (DYNX(W_,3131)-273.15))*DYNX(W_,3132);
+DYNX(W_,3137) = DYNX(W_,2866);
+DYNX(W_,3138) = DYNX(DP_,1028);
+DYNX(W_,3143) = DYNX(W_,2862);
+DYNX(W_,3145) = DYNX(DP_,1032);
+DYNX(W_,3147) = DYNX(W_,2873);
+DYNX(W_,3148) = DYNX(W_,2874);
+DYNX(W_,3150) = DYNX(W_,2876);
+DYNX(W_,3152) = DYNX(W_,2878);
+DYNX(W_,3153) = DYNX(W_,2879);
+RealAssign (RealTemporaryDense( &DYNX(W_,3155), 2, 2, 2), RealTemporaryDense(
+ &DYNX(W_,2881), 2, 2, 2));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,3185), 2, 2, 2), RealTemporaryDense(
- &DYNX(W_,2910), 2, 2, 2));
+RealAssign (RealTemporaryDense( &DYNX(W_,3159), 2, 2, 2), RealTemporaryDense(
+ &DYNX(W_,2885), 2, 2, 2));
PopAllMarks();
-DYNX(W_,3189) = DYNX(W_,2914);
-DYNX(W_,3195) = DYNX(W_,2920);
-DYNX(W_,3196) = DYNX(W_,2921);
-DYNX(W_,3198) = DYNX(W_,2923);
-DYNX(W_,3199) = DYNX(W_,2924);
-DYNX(W_,3212) = DYNX(W_,3181);
-DYNX(W_,3213) = DYNX(W_,3182);
-DYNX(W_,3214) = DYNX(W_,3183);
-DYNX(W_,3215) = DYNX(W_,3184);
-DYNX(W_,3216) = DYNX(W_,3185);
-DYNX(W_,3217) = DYNX(W_,3186);
-DYNX(W_,3218) = DYNX(W_,3187);
-DYNX(W_,3219) = DYNX(W_,3188);
-DYNX(W_,3224) = DYNX(W_,3189);
-DYNX(W_,3225) = DYNX(W_,3212);
-DYNX(W_,3226) = DYNX(W_,3213);
-DYNX(W_,3227) = DYNX(W_,3214);
-DYNX(W_,3228) = DYNX(W_,3215);
-DYNX(W_,3229) = DYNX(W_,3224);
-DYNX(W_,3233) = DYNX(W_,3225);
-DYNX(W_,3234) = DYNX(W_,3226);
-DYNX(W_,3235) = DYNX(W_,3227);
-DYNX(W_,3236) = DYNX(W_,3228);
+DYNX(W_,3163) = DYNX(W_,2889);
+DYNX(W_,3169) = DYNX(W_,2895);
+DYNX(W_,3170) = DYNX(W_,2896);
+DYNX(W_,3172) = DYNX(W_,2898);
+DYNX(W_,3173) = DYNX(W_,2899);
+DYNX(W_,3185) = DYNX(W_,3155);
+DYNX(W_,3186) = DYNX(W_,3156);
+DYNX(W_,3187) = DYNX(W_,3157);
+DYNX(W_,3188) = DYNX(W_,3158);
+DYNX(W_,3189) = DYNX(W_,3159);
+DYNX(W_,3190) = DYNX(W_,3160);
+DYNX(W_,3191) = DYNX(W_,3161);
+DYNX(W_,3192) = DYNX(W_,3162);
+DYNX(W_,3197) = DYNX(W_,3163);
+DYNX(W_,3198) = DYNX(W_,3185);
+DYNX(W_,3199) = DYNX(W_,3186);
+DYNX(W_,3200) = DYNX(W_,3187);
+DYNX(W_,3201) = DYNX(W_,3188);
+DYNX(W_,3202) = DYNX(W_,3197);
+DYNX(W_,3206) = DYNX(W_,3198);
+DYNX(W_,3207) = DYNX(W_,3199);
+DYNX(W_,3208) = DYNX(W_,3200);
+DYNX(W_,3209) = DYNX(W_,3201);
InitialBoundSection
DYNX(DYNhelp,201) = (PushModelContext(1,"Modelica.Utilities.Strings.isEmpty(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.fileName)")
Modelica_Utilities_Strings_isEmpty("NoName"));
@@ -11816,65 +11780,65 @@ PopModelContext();
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable1D((if hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile then hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableName else \"NoName\"), (if hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile and hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.fileName <> \"NoName\" and not Modelica.Util...")
- Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,3232) THEN "NoName"
- ELSE "NoName", IF DYNX(W_,3232) AND (strcmp("NoName", "NoName")!=0) AND
+ Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,3205) THEN "NoName"
+ ELSE "NoName", IF DYNX(W_,3205) AND (strcmp("NoName", "NoName")!=0) AND
NOT DYNX(DYNhelp,201) THEN "NoName" ELSE "NoName", RealTemporaryDense(
- &DYNX(W_,3233), 2, 2, 2), IntegerTemporaryDense( &DYNX(W_,3237), 1, 1),
- (Integer)(DYNX(W_,3238)), (Integer)(DYNX(W_,3239)), (Integer)(IF
- DYNX(W_,3232) THEN DYNX(DP_,1041) ELSE false), 6, 1));
- DYNX(W_,3243) = dummy_DymStruc0.id_0member;
+ &DYNX(W_,3206), 2, 2, 2), IntegerTemporaryDense( &DYNX(W_,3210), 1, 1),
+ (Integer)(DYNX(W_,3211)), (Integer)(DYNX(W_,3212)), (Integer)(IF
+ DYNX(W_,3205) THEN DYNX(DP_,1047) ELSE false), 6, 1));
+ DYNX(W_,3216) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-DYNX(W_,3241) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID)")
+DYNX(W_,3214) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmin_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3243)))));
+ (Integer)(DYNX(W_,3216)))));
PopModelContext();
-DYNX(W_,3242) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID)")
+DYNX(W_,3215) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmax_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3243)))));
+ (Integer)(DYNX(W_,3216)))));
PopModelContext();
-DYNX(W_,3260) = DYNX(W_,3225);
-DYNX(W_,3249) = DYNX(W_,3260);
-DYNX(W_,3259) = DYNX(W_,3227);
-DYNX(W_,3250) = DYNX(W_,3259);
-DYNX(W_,3257) = -DYNX(W_,3229);
-AssertModelica(0.0 > DYNX(W_,3257),"0.0 > hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",
+DYNX(W_,3233) = DYNX(W_,3198);
+DYNX(W_,3222) = DYNX(W_,3233);
+DYNX(W_,3232) = DYNX(W_,3200);
+DYNX(W_,3223) = DYNX(W_,3232);
+DYNX(W_,3230) = -DYNX(W_,3202);
+AssertModelica(0.0 > DYNX(W_,3230),"0.0 > hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3261) = RealBmax(DYNX(W_,3226), DYNX(W_,3228));
-DYNX(W_,3267) = DYNX(W_,3225);
-DYNX(W_,3271) = divGuarded((DYNX(DP_,1046)-DYNX(DP_,1045))*(DYNX(W_,3267)-
- DYNX(W_,3260)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin)",
- DYNX(W_,3259)-DYNX(W_,3260),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin")
- +DYNX(DP_,1045);
-DYNX(W_,3263) = DYNX(W_,3271);
-DYNX(W_,3269) = DYNX(W_,3226);
-DYNX(W_,3273) = divGuarded((DYNX(DP_,1046)-DYNX(DP_,1045))*(DYNX(W_,3269)-
- DYNX(W_,3262)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin)",
- DYNX(W_,3261)-DYNX(W_,3262),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin")
- +DYNX(DP_,1045);
-DYNX(W_,3264) = DYNX(W_,3273);
-DYNX(W_,3268) = DYNX(W_,3227);
-DYNX(W_,3272) = divGuarded((DYNX(DP_,1046)-DYNX(DP_,1045))*(DYNX(W_,3268)-
- DYNX(W_,3260)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin)",
- DYNX(W_,3259)-DYNX(W_,3260),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin")
- +DYNX(DP_,1045);
-DYNX(W_,3265) = DYNX(W_,3272);
-DYNX(W_,3270) = DYNX(W_,3228);
-DYNX(W_,3274) = divGuarded((DYNX(DP_,1046)-DYNX(DP_,1045))*(DYNX(W_,3270)-
- DYNX(W_,3262)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin)",
- DYNX(W_,3261)-DYNX(W_,3262),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin")
- +DYNX(DP_,1045);
-DYNX(W_,3266) = DYNX(W_,3274);
-DYNX(W_,3275) = DYNX(W_,3216);
-DYNX(W_,3276) = DYNX(W_,3217);
-DYNX(W_,3277) = DYNX(W_,3218);
-DYNX(W_,3278) = DYNX(W_,3219);
-DYNX(W_,3279) = DYNX(W_,3224);
-DYNX(W_,3283) = DYNX(W_,3275);
-DYNX(W_,3284) = DYNX(W_,3276);
-DYNX(W_,3285) = DYNX(W_,3277);
-DYNX(W_,3286) = DYNX(W_,3278);
+DYNX(W_,3234) = RealBmax(DYNX(W_,3199), DYNX(W_,3201));
+DYNX(W_,3240) = DYNX(W_,3198);
+DYNX(W_,3244) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3240)-
+ DYNX(W_,3233)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin)",
+ DYNX(W_,3232)-DYNX(W_,3233),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin")
+ +DYNX(DP_,1051);
+DYNX(W_,3236) = DYNX(W_,3244);
+DYNX(W_,3242) = DYNX(W_,3199);
+DYNX(W_,3246) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3242)-
+ DYNX(W_,3235)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin)",
+ DYNX(W_,3234)-DYNX(W_,3235),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin")
+ +DYNX(DP_,1051);
+DYNX(W_,3237) = DYNX(W_,3246);
+DYNX(W_,3241) = DYNX(W_,3200);
+DYNX(W_,3245) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3241)-
+ DYNX(W_,3233)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin)",
+ DYNX(W_,3232)-DYNX(W_,3233),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin")
+ +DYNX(DP_,1051);
+DYNX(W_,3238) = DYNX(W_,3245);
+DYNX(W_,3243) = DYNX(W_,3201);
+DYNX(W_,3247) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3243)-
+ DYNX(W_,3235)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin)",
+ DYNX(W_,3234)-DYNX(W_,3235),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin")
+ +DYNX(DP_,1051);
+DYNX(W_,3239) = DYNX(W_,3247);
+DYNX(W_,3248) = DYNX(W_,3189);
+DYNX(W_,3249) = DYNX(W_,3190);
+DYNX(W_,3250) = DYNX(W_,3191);
+DYNX(W_,3251) = DYNX(W_,3192);
+DYNX(W_,3252) = DYNX(W_,3197);
+DYNX(W_,3256) = DYNX(W_,3248);
+DYNX(W_,3257) = DYNX(W_,3249);
+DYNX(W_,3258) = DYNX(W_,3250);
+DYNX(W_,3259) = DYNX(W_,3251);
InitialBoundSection
DYNX(DYNhelp,202) = (PushModelContext(1,"Modelica.Utilities.Strings.isEmpty(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.fileName)")
Modelica_Utilities_Strings_isEmpty("NoName"));
@@ -11882,194 +11846,194 @@ PopModelContext();
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable1D((if hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableOnFile then hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableName else \"NoName\"), (if hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableOnFile and hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.fileName <> \"NoName\" and not Modelica.Util...")
- Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,3282) THEN "NoName"
- ELSE "NoName", IF DYNX(W_,3282) AND (strcmp("NoName", "NoName")!=0) AND
+ Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,3255) THEN "NoName"
+ ELSE "NoName", IF DYNX(W_,3255) AND (strcmp("NoName", "NoName")!=0) AND
NOT DYNX(DYNhelp,202) THEN "NoName" ELSE "NoName", RealTemporaryDense(
- &DYNX(W_,3283), 2, 2, 2), IntegerTemporaryDense( &DYNX(W_,3287), 1, 1),
- (Integer)(DYNX(W_,3288)), (Integer)(DYNX(W_,3289)), (Integer)(IF
- DYNX(W_,3282) THEN DYNX(DP_,1047) ELSE false), 7, 1));
- DYNX(W_,3293) = dummy_DymStruc0.id_0member;
+ &DYNX(W_,3256), 2, 2, 2), IntegerTemporaryDense( &DYNX(W_,3260), 1, 1),
+ (Integer)(DYNX(W_,3261)), (Integer)(DYNX(W_,3262)), (Integer)(IF
+ DYNX(W_,3255) THEN DYNX(DP_,1053) ELSE false), 7, 1));
+ DYNX(W_,3266) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-DYNX(W_,3291) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID)")
+DYNX(W_,3264) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmin_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3293)))));
+ (Integer)(DYNX(W_,3266)))));
PopModelContext();
-DYNX(W_,3292) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID)")
+DYNX(W_,3265) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmax_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3293)))));
+ (Integer)(DYNX(W_,3266)))));
PopModelContext();
-DYNX(W_,3310) = DYNX(W_,3275);
-DYNX(W_,3299) = DYNX(W_,3310);
-DYNX(W_,3309) = DYNX(W_,3277);
-DYNX(W_,3300) = DYNX(W_,3309);
-DYNX(W_,3307) = -DYNX(W_,3279);
-AssertModelica(0.0 > DYNX(W_,3307),"0.0 > hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow",
+DYNX(W_,3283) = DYNX(W_,3248);
+DYNX(W_,3272) = DYNX(W_,3283);
+DYNX(W_,3282) = DYNX(W_,3250);
+DYNX(W_,3273) = DYNX(W_,3282);
+DYNX(W_,3280) = -DYNX(W_,3252);
+AssertModelica(0.0 > DYNX(W_,3280),"0.0 > hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3311) = RealBmax(DYNX(W_,3276), DYNX(W_,3278));
-DYNX(W_,3317) = DYNX(W_,3275);
-DYNX(W_,3321) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3317)-
- DYNX(W_,3310)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin)",
- DYNX(W_,3309)-DYNX(W_,3310),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin")
- +DYNX(DP_,1051);
-DYNX(W_,3313) = DYNX(W_,3321);
-DYNX(W_,3319) = DYNX(W_,3276);
-DYNX(W_,3323) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3319)-
- DYNX(W_,3312)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin)",
- DYNX(W_,3311)-DYNX(W_,3312),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin")
- +DYNX(DP_,1051);
-DYNX(W_,3314) = DYNX(W_,3323);
-DYNX(W_,3318) = DYNX(W_,3277);
-DYNX(W_,3322) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3318)-
- DYNX(W_,3310)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin)",
- DYNX(W_,3309)-DYNX(W_,3310),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin")
- +DYNX(DP_,1051);
-DYNX(W_,3315) = DYNX(W_,3322);
-DYNX(W_,3320) = DYNX(W_,3278);
-DYNX(W_,3324) = divGuarded((DYNX(DP_,1052)-DYNX(DP_,1051))*(DYNX(W_,3320)-
- DYNX(W_,3312)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin)",
- DYNX(W_,3311)-DYNX(W_,3312),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin")
- +DYNX(DP_,1051);
-DYNX(W_,3316) = DYNX(W_,3324);
-DYNX(W_,3329) = DYNX(W_,3173);
-DYNX(W_,3331) = DYNX(W_,3176);
-DYNX(W_,3333) = DYNX(W_,3178);
-DYNX(W_,3334) = DYNX(W_,3179);
-DYNX(W_,3335) = DYNX(W_,3171);
-DYNX(W_,3336) = DYNX(W_,3174);
-DYNX(W_,3337) = DYNX(W_,3335)/(double)(2);
-DYNX(W_,3338) = DYNX(W_,3335);
-AssertModelica(DYNX(W_,3338) > DYNX(W_,3337),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uHigh > hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uLow",
+DYNX(W_,3284) = RealBmax(DYNX(W_,3249), DYNX(W_,3251));
+DYNX(W_,3290) = DYNX(W_,3248);
+DYNX(W_,3294) = divGuarded((DYNX(DP_,1058)-DYNX(DP_,1057))*(DYNX(W_,3290)-
+ DYNX(W_,3283)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin)",
+ DYNX(W_,3282)-DYNX(W_,3283),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin")
+ +DYNX(DP_,1057);
+DYNX(W_,3286) = DYNX(W_,3294);
+DYNX(W_,3292) = DYNX(W_,3249);
+DYNX(W_,3296) = divGuarded((DYNX(DP_,1058)-DYNX(DP_,1057))*(DYNX(W_,3292)-
+ DYNX(W_,3285)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid[1]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin)",
+ DYNX(W_,3284)-DYNX(W_,3285),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin")
+ +DYNX(DP_,1057);
+DYNX(W_,3287) = DYNX(W_,3296);
+DYNX(W_,3291) = DYNX(W_,3250);
+DYNX(W_,3295) = divGuarded((DYNX(DP_,1058)-DYNX(DP_,1057))*(DYNX(W_,3291)-
+ DYNX(W_,3283)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin)",
+ DYNX(W_,3282)-DYNX(W_,3283),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin")
+ +DYNX(DP_,1057);
+DYNX(W_,3288) = DYNX(W_,3295);
+DYNX(W_,3293) = DYNX(W_,3251);
+DYNX(W_,3297) = divGuarded((DYNX(DP_,1058)-DYNX(DP_,1057))*(DYNX(W_,3293)-
+ DYNX(W_,3285)),"(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin)*(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid[2]-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin)",
+ DYNX(W_,3284)-DYNX(W_,3285),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax-hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin")
+ +DYNX(DP_,1057);
+DYNX(W_,3289) = DYNX(W_,3297);
+DYNX(W_,3300) = DYNX(W_,3147);
+DYNX(W_,3302) = DYNX(W_,3150);
+DYNX(W_,3304) = DYNX(W_,3152);
+DYNX(W_,3305) = DYNX(W_,3153);
+DYNX(W_,3306) = DYNX(W_,3145);
+DYNX(W_,3307) = DYNX(W_,3148);
+DYNX(W_,3308) = DYNX(W_,3306)/(double)(2);
+DYNX(W_,3309) = DYNX(W_,3306);
+AssertModelica(DYNX(W_,3309) > DYNX(W_,3308),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uHigh > hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3339) = DYNX(W_,3334);
-DYNX(W_,3340) = DYNX(W_,3334);
-DYNX(W_,3341) = DYNX(W_,3333);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(25);
-DYNX(W_,3343) = DYNX(W_,3341);
-DYNX(W_,3352) = DYNX(W_,3331);
-DYNX(W_,3353) = DYNX(W_,3352);
-DYNX(W_,3354) = DYNX(W_,3329);
-DYNX(W_,3355) = DYNX(W_,3354);
-DYNX(W_,3356) = DYNX(W_,3336);
-DYNX(W_,3369) = DYNX(W_,3198)*DYNX(W_,3169);
-DYNX(W_,3370) = DYNX(W_,3199)*DYNX(W_,3170);
-DYNX(W_,3371) = DYNX(W_,3370);
-DYNX(W_,3372) = RealBmax(DYNX(W_,3370)*1.1, 1E-15);
-AssertModelica(DYNX(W_,3372) > DYNX(W_,3371),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh > hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uLow",
+DYNX(W_,3310) = DYNX(W_,3305);
+DYNX(W_,3311) = DYNX(W_,3305);
+DYNX(W_,3312) = DYNX(W_,3304);
+DYNX(W_,3314) = DYNX(W_,3312);
+DYNX(W_,3323) = DYNX(W_,3302);
+DYNX(W_,3324) = DYNX(W_,3323);
+DYNX(W_,3325) = DYNX(W_,3300);
+DYNX(W_,3326) = DYNX(W_,3325);
+DYNX(W_,3327) = DYNX(W_,3307);
+DYNX(W_,3339) = DYNX(W_,3172)*DYNX(W_,3143);
+DYNX(W_,3340) = DYNX(W_,3173)*DYNX(W_,3144);
+DYNX(W_,3341) = DYNX(W_,3340);
+DYNX(W_,3342) = RealBmax(DYNX(W_,3340)*1.1, 1E-15);
+AssertModelica(DYNX(W_,3342) > DYNX(W_,3341),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh > hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3374) = DYNX(W_,3369);
-DYNX(W_,3375) = RealBmax(DYNX(W_,3369)*1.1, 1E-15);
-AssertModelica(DYNX(W_,3375) > DYNX(W_,3374),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.uHigh > hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.uLow",
+DYNX(W_,3344) = DYNX(W_,3339);
+DYNX(W_,3345) = RealBmax(DYNX(W_,3339)*1.1, 1E-15);
+AssertModelica(DYNX(W_,3345) > DYNX(W_,3344),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.uHigh > hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3386) = DYNX(DP_,1026);
-AssertModelica(DYNX(W_,3386) > 0.001,"hydraulic.generation.heatPump.hys.uHigh > 0.001",
+DYNX(W_,3356) = DYNX(DP_,1032);
+AssertModelica(DYNX(W_,3356) > 0.001,"hydraulic.generation.heatPump.hys.uHigh > 0.001",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3388) = DYNX(W_,2872)*0.1;
-AssertModelica(DYNX(W_,3388) > 0,"hydraulic.generation.heatPump.eff.PEleMin > 0",
+DYNX(W_,3358) = DYNX(W_,2847)*0.1;
+AssertModelica(DYNX(W_,3358) > 0,"hydraulic.generation.heatPump.eff.PEleMin > 0",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.eff: PEleMin must be greater than zero. Disable efficiency calculation using\n calEff=false to debug why PEle_nominal is lower than zero.");
-DYNX(W_,3389) = DYNX(W_,3388);
-DYNX(W_,3390) = DYNX(W_,3388)*1.1;
-AssertModelica(DYNX(W_,3390) > DYNX(W_,3389),"hydraulic.generation.heatPump.eff.hys.uHigh > hydraulic.generation.heatPump.eff.hys.uLow",
+DYNX(W_,3359) = DYNX(W_,3358);
+DYNX(W_,3360) = DYNX(W_,3358)*1.1;
+AssertModelica(DYNX(W_,3360) > DYNX(W_,3359),"hydraulic.generation.heatPump.eff.hys.uHigh > hydraulic.generation.heatPump.eff.hys.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,3393) = DYNX(W_,3388);
-DYNX(W_,3442) = DYNX(W_,2887);
-DYNX(W_,3457) = DYNX(W_,2482);
-DYNX(W_,3458) = DYNX(W_,2483);
+DYNX(W_,3361) = DYNX(W_,3358);
+DYNX(W_,3404) = DYNX(W_,2862);
+DYNX(W_,3419) = DYNX(W_,2482);
+DYNX(W_,3420) = DYNX(W_,2483);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,3470) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,3432) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nhydraulic.generation.pump.per.pressure, \nhydraulic.generation.pump.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,3462), 1, 3), RealTemporaryDense(
- &DYNX(W_,3465), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(DP_,1080), 1, 1), RealTemporaryDense( &DYNX(DP_,1079), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,3424), 1, 3), RealTemporaryDense(
+ &DYNX(W_,3427), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(DP_,1086), 1, 1), RealTemporaryDense( &DYNX(DP_,1085), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(hydraulic.generation.pump.per.V_flow_max/2, hydraulic.generation.pump.per.dpMax/2, max(hydraulic.generation.pump.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,3468)/(double)(2),
- DYNX(W_,3469)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1074), 1, 1))));
- DYNX(W_,3476) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,3477) = dummy_DymStruc1.dp_0member;
- DYNX(W_,3478) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,3430)/(double)(2),
+ DYNX(W_,3431)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1080), 1, 1))));
+ DYNX(W_,3438) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,3439) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,3440) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,3473) = DYNX(W_,3476);
-DYNX(W_,3474) = DYNX(W_,3477);
-DYNX(W_,3475) = DYNX(W_,3478);
-DYNX(W_,3479) = IF DYNX(DP_,1080) > 1E-15 THEN (IF DYNX(W_,3472) THEN 1.2*
- DYNX(DP_,1080) ELSE DYNX(DP_,1080)) ELSE IF DYNX(W_,3499) THEN (IF
- DYNX(W_,3472) THEN divGuarded(0.3*DYNX(W_,3468)*DYNX(W_,3469),"0.3*(hydraulic.generation.pump.per.V_flow_max*hydraulic.generation.pump.per.dpMax)",
- DYNX(W_,3475),"hydraulic.generation.pump.per.peak.eta") ELSE 0.42857142857142855
- *DYNX(W_,3468)*DYNX(W_,3469)) ELSE 0;
+DYNX(W_,3435) = DYNX(W_,3438);
+DYNX(W_,3436) = DYNX(W_,3439);
+DYNX(W_,3437) = DYNX(W_,3440);
+DYNX(W_,3441) = IF DYNX(DP_,1086) > 1E-15 THEN (IF DYNX(W_,3434) THEN 1.2*
+ DYNX(DP_,1086) ELSE DYNX(DP_,1086)) ELSE IF DYNX(W_,3461) THEN (IF
+ DYNX(W_,3434) THEN divGuarded(0.3*DYNX(W_,3430)*DYNX(W_,3431),"0.3*(hydraulic.generation.pump.per.V_flow_max*hydraulic.generation.pump.per.dpMax)",
+ DYNX(W_,3437),"hydraulic.generation.pump.per.peak.eta") ELSE 0.42857142857142855
+ *DYNX(W_,3430)*DYNX(W_,3431)) ELSE 0;
{
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(hydraulic.generation.pump.per.WMot_nominal, hydraulic.generation.pump.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,3479), DYNX(DP_,1082)));
- RealAssign (RealTemporaryDense( &DYNX(W_,3489), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,3480), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,3441), DYNX(DP_,1088)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,3451), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,3442), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,3498) = DYNX(W_,3479) > 1E-15;
-DYNX(W_,3501) = DYNX(DP_,1084);
-DYNX(W_,3502) = DYNX(DP_,1085);
-DYNX(W_,3506) = DYNX(DP_,878);
-DYNX(W_,3508) = DYNX(DP_,877);
-DYNX(W_,3523) = DYNX(W_,3457);
-DYNX(W_,3524) = DYNX(W_,3458);
-DYNX(W_,3525) = 4184*(DYNX(W_,3524)-273.15);
-DYNX(W_,3530) = DYNX(W_,3457);
-DYNX(W_,3531) = DYNX(W_,3458);
-DYNX(W_,3532) = DYNX(DP_,1072);
-DYNX(W_,3556) = DYNX(W_,3506);
-DYNX(DYNhelp,203) = divinvGuarded(DYNX(W_,3546),"hydraulic.generation.pump.vol.rho_default");
-DYNX(W_,3557) = DYNX(DYNhelp,203)*DYNX(W_,3538)*DYNX(W_,3556);
-DYNX(W_,3542) = DYNX(W_,3557);
-DYNX(W_,3547) = DYNX(W_,3530);
-DYNX(W_,3548) = DYNX(W_,3531);
-DYNX(W_,3562) = DYNX(W_,3530);
-DYNX(W_,3563) = DYNX(W_,3531);
-DYNX(W_,3564) = DYNX(W_,3532);
-DYNX(W_,3583) = DYNX(W_,3542);
-DYNX(W_,3591) = 4184*(DYNX(W_,3563)-273.15);
-DYNX(W_,3618) = DYNX(W_,3470);
-DYNX(W_,3619) = DYNX(W_,3471);
-DYNX(W_,3620) = DYNX(W_,3472);
-DYNX(W_,3621) = DYNX(DP_,1073);
-DYNX(W_,3622) = DYNX(DP_,1074);
-DYNX(W_,3623) = DYNX(DP_,1075);
-DYNX(W_,3624) = DYNX(DP_,1076);
-DYNX(W_,3625) = DYNX(DP_,1077);
-DYNX(W_,3626) = DYNX(DP_,1078);
-DYNX(W_,3627) = DYNX(DP_,1079);
-DYNX(W_,3628) = DYNX(DP_,1080);
-DYNX(W_,3629) = DYNX(W_,3473);
-DYNX(W_,3630) = DYNX(W_,3474);
-DYNX(W_,3631) = DYNX(W_,3475);
+DYNX(W_,3460) = DYNX(W_,3441) > 1E-15;
+DYNX(W_,3463) = DYNX(DP_,1090);
+DYNX(W_,3464) = DYNX(DP_,1091);
+DYNX(W_,3468) = DYNX(DP_,878);
+DYNX(W_,3470) = DYNX(DP_,877);
+DYNX(W_,3485) = DYNX(W_,3419);
+DYNX(W_,3486) = DYNX(W_,3420);
+DYNX(W_,3487) = 4184*(DYNX(W_,3486)-273.15);
+DYNX(W_,3492) = DYNX(W_,3419);
+DYNX(W_,3493) = DYNX(W_,3420);
+DYNX(W_,3494) = DYNX(DP_,1078);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(25);
+DYNX(W_,3518) = DYNX(W_,3468);
+DYNX(DYNhelp,203) = divinvGuarded(DYNX(W_,3508),"hydraulic.generation.pump.vol.rho_default");
+DYNX(W_,3519) = DYNX(DYNhelp,203)*DYNX(W_,3500)*DYNX(W_,3518);
+DYNX(W_,3504) = DYNX(W_,3519);
+DYNX(W_,3509) = DYNX(W_,3492);
+DYNX(W_,3510) = DYNX(W_,3493);
+DYNX(W_,3524) = DYNX(W_,3492);
+DYNX(W_,3525) = DYNX(W_,3493);
+DYNX(W_,3526) = DYNX(W_,3494);
+DYNX(W_,3545) = DYNX(W_,3504);
+DYNX(W_,3553) = 4184*(DYNX(W_,3525)-273.15);
+DYNX(W_,3580) = DYNX(W_,3432);
+DYNX(W_,3581) = DYNX(W_,3433);
+DYNX(W_,3582) = DYNX(W_,3434);
+DYNX(W_,3583) = DYNX(DP_,1079);
+DYNX(W_,3584) = DYNX(DP_,1080);
+DYNX(W_,3585) = DYNX(DP_,1081);
+DYNX(W_,3586) = DYNX(DP_,1082);
+DYNX(W_,3587) = DYNX(DP_,1083);
+DYNX(W_,3588) = DYNX(DP_,1084);
+DYNX(W_,3589) = DYNX(DP_,1085);
+DYNX(W_,3590) = DYNX(DP_,1086);
+DYNX(W_,3591) = DYNX(W_,3435);
+DYNX(W_,3592) = DYNX(W_,3436);
+DYNX(W_,3593) = DYNX(W_,3437);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,3618) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,3580) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nhydraulic.generation.pump.eff.per.pressure, \nhydraulic.generation.pump.eff.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,3610), 1, 3), RealTemporaryDense(
- &DYNX(W_,3613), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(W_,3628), 1, 1), RealTemporaryDense( &DYNX(W_,3627), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,3572), 1, 3), RealTemporaryDense(
+ &DYNX(W_,3575), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(W_,3590), 1, 1), RealTemporaryDense( &DYNX(W_,3589), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(hydraulic.generation.pump.eff.per.V_flow_max/2, hydraulic.generation.pump.eff.per.dpMax/2, max(hydraulic.generation.pump.eff.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,3616)/(double)(2),
- DYNX(W_,3617)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,3622), 1, 1))));
- DYNX(W_,3632) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,3633) = dummy_DymStruc1.dp_0member;
- DYNX(W_,3634) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,3578)/(double)(2),
+ DYNX(W_,3579)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,3584), 1, 1))));
+ DYNX(W_,3594) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,3595) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,3596) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,3635) = DYNX(DP_,1081);
-DYNX(W_,3636) = IF DYNX(W_,3628) > 1E-15 THEN (IF DYNX(W_,3620) THEN 1.2*
- DYNX(W_,3628) ELSE DYNX(W_,3628)) ELSE IF DYNX(W_,3659) THEN (IF DYNX(W_,3620)
- THEN divGuarded(0.3*DYNX(W_,3616)*DYNX(W_,3617),"0.3*(hydraulic.generation.pump.eff.per.V_flow_max*hydraulic.generation.pump.eff.per.dpMax)",
- DYNX(W_,3631),"hydraulic.generation.pump.eff.per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,3616)*DYNX(W_,3617)) ELSE 0;
-AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,3628), 1, 1)) < 1E-06 OR
- DYNX(W_,3636) > Realmax( RealTemporaryDense( &DYNX(W_,3628), 1, 1))*0.99,
+DYNX(W_,3597) = DYNX(DP_,1087);
+DYNX(W_,3598) = IF DYNX(W_,3590) > 1E-15 THEN (IF DYNX(W_,3582) THEN 1.2*
+ DYNX(W_,3590) ELSE DYNX(W_,3590)) ELSE IF DYNX(W_,3621) THEN (IF DYNX(W_,3582)
+ THEN divGuarded(0.3*DYNX(W_,3578)*DYNX(W_,3579),"0.3*(hydraulic.generation.pump.eff.per.V_flow_max*hydraulic.generation.pump.eff.per.dpMax)",
+ DYNX(W_,3593),"hydraulic.generation.pump.eff.per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,3578)*DYNX(W_,3579)) ELSE 0;
+AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,3590), 1, 1)) < 1E-06 OR
+ DYNX(W_,3598) > Realmax( RealTemporaryDense( &DYNX(W_,3590), 1, 1))*0.99,
"max(hydraulic.generation.pump.eff.per.power.P) < 1E-06 or hydraulic.generation.pump.eff.per.WMot_nominal > max(hydraulic.generation.pump.eff.per.power.P)*0.99",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump.eff: The rated motor power provided in\n per.WMot_nominal is smaller than the maximum power provided in per.power.\n Use a larger value for per.WMot_nominal or leave it blank to allow the\n model to assume a default value.");
PopAllMarks();
@@ -12077,804 +12041,804 @@ PopAllMarks();
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(hydraulic.generation.pump.eff.per.WMot_nominal, hydraulic.generation.pump.eff.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,3636), DYNX(DP_,1088)));
- RealAssign (RealTemporaryDense( &DYNX(W_,3646), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,3637), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,3598), DYNX(DP_,1094)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,3608), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,3599), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,3655) = DYNX(W_,3636) > 1E-15;
-AssertModelica( NOT ( NOT DYNX(W_,3655))," not ( not hydraulic.generation.pump.eff.per.haveWMot_nominal)",
+DYNX(W_,3617) = DYNX(W_,3598) > 1E-15;
+AssertModelica( NOT ( NOT DYNX(W_,3617))," not ( not hydraulic.generation.pump.eff.per.haveWMot_nominal)",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump.eff: etaMotMet is set to\n .Efficiency_MotorPartLoadRatio or .GenericCurve which requires\n the motor's rated power, but per.WMot_nominal is not assigned or\n cannot be estimated because no power curve is provided.");
-RealAssign (RealTemporaryDense( &DYNX(W_,3673), 1, 9), IF DYNX(W_,3619) == 4 OR
- DYNX(W_,3619) == 1 AND DYNX(W_,3655) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y, hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta, true)")
+RealAssign (RealTemporaryDense( &DYNX(W_,3635), 1, 9), IF DYNX(W_,3581) == 4 OR
+ DYNX(W_,3581) == 1 AND DYNX(W_,3617) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y, hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta, true)")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,3637), 1, 9), RealTemporaryDense( &DYNX(W_,3646), 1, 9), true)) ELSE
+ &DYNX(W_,3599), 1, 9), RealTemporaryDense( &DYNX(W_,3608), 1, 9), true)) ELSE
RealConvertInteger (IntegerFill( 0, 1, (SizeType)(9))));
PopAllMarks();
-DYNX(DYNhelp,204) = divinvGuarded(DYNX(W_,3665),"hydraulic.generation.pump.eff.V_flow_max");
-DYNX(W_,3684) = DYNX(DYNhelp,204)*0.1*DYNX(W_,3682)*sqr(DYNX(W_,3683));
-DYNX(W_,3699) = IF DYNX(W_,3664) AND DYNX(W_,3793) THEN 0.0 ELSE IF
- DYNX(W_,3664) THEN DYNX(W_,3613)+DYNX(W_,3610)*DYNX(W_,3684) ELSE IF
- DYNX(W_,3793) THEN DYNX(W_,3614)+DYNX(W_,3611)*DYNX(W_,3684) ELSE 0.0;
-DYNX(W_,3700) = IF DYNX(W_,3664) AND DYNX(W_,3793) THEN 0.0 ELSE IF
- DYNX(W_,3664) THEN DYNX(W_,3614)+DYNX(W_,3611)*DYNX(W_,3684) ELSE IF
- DYNX(W_,3793) THEN DYNX(W_,3615)+DYNX(W_,3612)*DYNX(W_,3684) ELSE 0.0;
-RealAssign (RealTemporaryDense( &DYNX(W_,3725), 1, 1), IF DYNX(W_,3618) == 3
+DYNX(DYNhelp,204) = divinvGuarded(DYNX(W_,3627),"hydraulic.generation.pump.eff.V_flow_max");
+DYNX(W_,3646) = DYNX(DYNhelp,204)*0.1*DYNX(W_,3644)*sqr(DYNX(W_,3645));
+DYNX(W_,3661) = IF DYNX(W_,3626) AND DYNX(W_,3755) THEN 0.0 ELSE IF
+ DYNX(W_,3626) THEN DYNX(W_,3575)+DYNX(W_,3572)*DYNX(W_,3646) ELSE IF
+ DYNX(W_,3755) THEN DYNX(W_,3576)+DYNX(W_,3573)*DYNX(W_,3646) ELSE 0.0;
+DYNX(W_,3662) = IF DYNX(W_,3626) AND DYNX(W_,3755) THEN 0.0 ELSE IF
+ DYNX(W_,3626) THEN DYNX(W_,3576)+DYNX(W_,3573)*DYNX(W_,3646) ELSE IF
+ DYNX(W_,3755) THEN DYNX(W_,3577)+DYNX(W_,3574)*DYNX(W_,3646) ELSE 0.0;
+RealAssign (RealTemporaryDense( &DYNX(W_,3687), 1, 1), IF DYNX(W_,3580) == 3
THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.generation.pump.eff.per.power.V_flow, hydraulic.generation.pump.eff.per.power.P, IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.generation.pump.eff.per.power.P, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,3627), 1, 1), RealTemporaryDense( &DYNX(W_,3628), 1, 1), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,3628),
+ &DYNX(W_,3589), 1, 1), RealTemporaryDense( &DYNX(W_,3590), 1, 1), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,3590),
1, 1), false)))) ELSE RealConvertInteger (IntegerFill( 0, 1, (SizeType)(1))));
PopAllMarks();
{
struct DymStruc5 dummy_DymStruc5;
- dummy_DymStruc5 = IF DYNX(W_,3685) == 1 THEN (PushModelContext(1,
+ dummy_DymStruc5 = IF DYNX(W_,3647) == 1 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.generation.pump.eff.per.peak, \nhydraulic.generation.pump.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,3629),
- DYNX(W_,3630), DYNX(W_,3631)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3687), 1, 3), RealTemporaryDense( &DYNX(W_,3690), 1, 3), (Integer)(
- DYNX(W_,3686))))) ELSE IF DYNX(W_,3685) == 2 THEN (PushModelContext(1,
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,3591),
+ DYNX(W_,3592), DYNX(W_,3593)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,3649), 1, 3), RealTemporaryDense( &DYNX(W_,3652), 1, 3), (Integer)(
+ DYNX(W_,3648))))) ELSE IF DYNX(W_,3647) == 2 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.generation.pump.eff.per.peak, \nhydraulic.generation.pump.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,3629),
- DYNX(W_,3630), DYNX(W_,3631)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(
- DYNX(W_,3693))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.generation.pump.eff.per.peak, \nhydraulic.generation.pump.eff.pCur3)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,3629),
- DYNX(W_,3630), DYNX(W_,3631)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3703), 1, 5), RealTemporaryDense( &DYNX(W_,3708), 1, 5), (Integer)(
- DYNX(W_,3702)))));
- RealAssign (RealTemporaryDense( &DYNX(W_,3737), 1, 11), dummy_DymStruc5.P_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,3726), 1, 11), dummy_DymStruc5.V_flow_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,3748), 1, 11), dummy_DymStruc5.d_0member);
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,3591),
+ DYNX(W_,3592), DYNX(W_,3593)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(
+ DYNX(W_,3655))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.generation.pump.eff.per.peak, \nhydraulic.generation.pump.eff.pCur3)")
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,3591),
+ DYNX(W_,3592), DYNX(W_,3593)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,3665), 1, 5), RealTemporaryDense( &DYNX(W_,3670), 1, 5), (Integer)(
+ DYNX(W_,3664)))));
+ RealAssign (RealTemporaryDense( &DYNX(W_,3699), 1, 11), dummy_DymStruc5.P_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,3688), 1, 11), dummy_DymStruc5.V_flow_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,3710), 1, 11), dummy_DymStruc5.d_0member);
PopAllMarks();
}
-DYNX(W_,3759) = DYNX(W_,3726);
-DYNX(W_,3760) = DYNX(W_,3727);
-DYNX(W_,3761) = DYNX(W_,3728);
-DYNX(W_,3762) = DYNX(W_,3729);
-DYNX(W_,3763) = DYNX(W_,3730);
-DYNX(W_,3764) = DYNX(W_,3731);
-DYNX(W_,3765) = DYNX(W_,3732);
-DYNX(W_,3766) = DYNX(W_,3733);
-DYNX(W_,3767) = DYNX(W_,3734);
-DYNX(W_,3768) = DYNX(W_,3735);
-DYNX(W_,3769) = DYNX(W_,3736);
-DYNX(W_,3770) = DYNX(W_,3737);
-DYNX(W_,3771) = DYNX(W_,3738);
-DYNX(W_,3772) = DYNX(W_,3739);
-DYNX(W_,3773) = DYNX(W_,3740);
-DYNX(W_,3774) = DYNX(W_,3741);
-DYNX(W_,3775) = DYNX(W_,3742);
-DYNX(W_,3776) = DYNX(W_,3743);
-DYNX(W_,3777) = DYNX(W_,3744);
-DYNX(W_,3778) = DYNX(W_,3745);
-DYNX(W_,3779) = DYNX(W_,3746);
-DYNX(W_,3780) = DYNX(W_,3747);
-DYNX(W_,3781) = DYNX(W_,3748);
-DYNX(W_,3782) = DYNX(W_,3749);
-DYNX(W_,3783) = DYNX(W_,3750);
-DYNX(W_,3784) = DYNX(W_,3751);
-DYNX(W_,3785) = DYNX(W_,3752);
-DYNX(W_,3786) = DYNX(W_,3753);
-DYNX(W_,3787) = DYNX(W_,3754);
-DYNX(W_,3788) = DYNX(W_,3755);
-DYNX(W_,3789) = DYNX(W_,3756);
-DYNX(W_,3790) = DYNX(W_,3757);
-DYNX(W_,3791) = DYNX(W_,3758);
-DYNX(DYNhelp,205) = DYNX(W_,3611)-DYNX(W_,3610);
-DYNX(DYNhelp,206) = -DYNX(W_,3684);
-DYNX(DYNhelp,207) = DYNX(W_,3612)-DYNX(W_,3611);
-DYNX(W_,3792) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(hydraulic.generation.pump.eff.per.pressure.dp[2]-hydraulic.generation.pump.eff.per.pressure.dp[1])/(hydraulic.generation.pump.eff.per.pressure.V_flow[2]-hydraulic.generation.pump.eff.per.pressure.V_flow[1]) < -hydraulic.generation.pump.eff.kRes, (hydraulic.generation.pump.eff.per.pressure.dp[3]-hydraulic.generation.pump.eff.per.pressure.dp[2])/(hydraulic....")
+DYNX(W_,3721) = DYNX(W_,3688);
+DYNX(W_,3722) = DYNX(W_,3689);
+DYNX(W_,3723) = DYNX(W_,3690);
+DYNX(W_,3724) = DYNX(W_,3691);
+DYNX(W_,3725) = DYNX(W_,3692);
+DYNX(W_,3726) = DYNX(W_,3693);
+DYNX(W_,3727) = DYNX(W_,3694);
+DYNX(W_,3728) = DYNX(W_,3695);
+DYNX(W_,3729) = DYNX(W_,3696);
+DYNX(W_,3730) = DYNX(W_,3697);
+DYNX(W_,3731) = DYNX(W_,3698);
+DYNX(W_,3732) = DYNX(W_,3699);
+DYNX(W_,3733) = DYNX(W_,3700);
+DYNX(W_,3734) = DYNX(W_,3701);
+DYNX(W_,3735) = DYNX(W_,3702);
+DYNX(W_,3736) = DYNX(W_,3703);
+DYNX(W_,3737) = DYNX(W_,3704);
+DYNX(W_,3738) = DYNX(W_,3705);
+DYNX(W_,3739) = DYNX(W_,3706);
+DYNX(W_,3740) = DYNX(W_,3707);
+DYNX(W_,3741) = DYNX(W_,3708);
+DYNX(W_,3742) = DYNX(W_,3709);
+DYNX(W_,3743) = DYNX(W_,3710);
+DYNX(W_,3744) = DYNX(W_,3711);
+DYNX(W_,3745) = DYNX(W_,3712);
+DYNX(W_,3746) = DYNX(W_,3713);
+DYNX(W_,3747) = DYNX(W_,3714);
+DYNX(W_,3748) = DYNX(W_,3715);
+DYNX(W_,3749) = DYNX(W_,3716);
+DYNX(W_,3750) = DYNX(W_,3717);
+DYNX(W_,3751) = DYNX(W_,3718);
+DYNX(W_,3752) = DYNX(W_,3719);
+DYNX(W_,3753) = DYNX(W_,3720);
+DYNX(DYNhelp,205) = DYNX(W_,3573)-DYNX(W_,3572);
+DYNX(DYNhelp,206) = -DYNX(W_,3646);
+DYNX(DYNhelp,207) = DYNX(W_,3574)-DYNX(W_,3573);
+DYNX(W_,3754) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(hydraulic.generation.pump.eff.per.pressure.dp[2]-hydraulic.generation.pump.eff.per.pressure.dp[1])/(hydraulic.generation.pump.eff.per.pressure.V_flow[2]-hydraulic.generation.pump.eff.per.pressure.V_flow[1]) < -hydraulic.generation.pump.eff.kRes, (hydraulic.generation.pump.eff.per.pressure.dp[3]-hydraulic.generation.pump.eff.per.pressure.dp[2])/(hydraulic....")
Modelica_Math_BooleanVectors_allTrue(IntegerScalarArray ( 2, (int )(divGuarded
- (DYNX(W_,3614)-DYNX(W_,3613),"hydraulic.generation.pump.eff.per.pressure.dp[2]-hydraulic.generation.pump.eff.per.pressure.dp[1]",
+ (DYNX(W_,3576)-DYNX(W_,3575),"hydraulic.generation.pump.eff.per.pressure.dp[2]-hydraulic.generation.pump.eff.per.pressure.dp[1]",
DYNX(DYNhelp,205),"hydraulic.generation.pump.eff.per.pressure.V_flow[2]-hydraulic.generation.pump.eff.per.pressure.V_flow[1]")
- < DYNX(DYNhelp,206)), (int )(divGuarded(DYNX(W_,3615)-DYNX(W_,3614),
+ < DYNX(DYNhelp,206)), (int )(divGuarded(DYNX(W_,3577)-DYNX(W_,3576),
"hydraulic.generation.pump.eff.per.pressure.dp[3]-hydraulic.generation.pump.eff.per.pressure.dp[2]",
DYNX(DYNhelp,207),"hydraulic.generation.pump.eff.per.pressure.V_flow[3]-hydraulic.generation.pump.eff.per.pressure.V_flow[2]")
< DYNX(DYNhelp,206)))));
PopAllMarks();
-DYNX(W_,3799) = DYNX(DP_,882);
-DYNX(W_,3815) = DYNX(W_,2482);
-AssertModelica(DYNX(W_,3815) > 10000.0,"hydraulic.generation.bouPum.p_in_internal > 10000.0",
+DYNX(W_,3761) = DYNX(DP_,882);
+DYNX(W_,3777) = DYNX(W_,2482);
+AssertModelica(DYNX(W_,3777) > 10000.0,"hydraulic.generation.bouPum.p_in_internal > 10000.0",
StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.bouPum: The parameter value p=",
- Real2String2(DYNX(W_,3815), true, 0))," is low for water. This is likely an error."));
-DYNX(W_,3817) = DYNX(W_,2483);
-DYNX(W_,3827) = DYNX(W_,2483);
-DYNX(W_,3829) = DYNX(DP_,880);
-DYNX(W_,3830) = DYNX(DP_,879);
-AssertModelica(DYNX(W_,3830) >= 1.0,"hydraulic.generation.senTGenOut.tauHeaTra >= 1.0",
+ Real2String2(DYNX(W_,3777), true, 0))," is low for water. This is likely an error."));
+DYNX(W_,3779) = DYNX(W_,2483);
+DYNX(W_,3789) = DYNX(W_,2483);
+DYNX(W_,3791) = DYNX(DP_,880);
+DYNX(W_,3792) = DYNX(DP_,879);
+AssertModelica(DYNX(W_,3792) >= 1.0,"hydraulic.generation.senTGenOut.tauHeaTra >= 1.0",
StringAdd("Value for variable, with exploited min/max bound, is: ",
- Real2String(DYNX(W_,3830), 1, 10)));
-DYNX(W_,3831) = IF DYNX(W_,3830) < 1E-10 THEN 0 ELSE divinvGuarded(DYNX(W_,3830),
+ Real2String(DYNX(W_,3792), 1, 10)));
+DYNX(W_,3793) = IF DYNX(W_,3792) < 1E-10 THEN 0 ELSE divinvGuarded(DYNX(W_,3792),
"hydraulic.generation.senTGenOut.tauHeaTra");
-DYNX(W_,3832) = IF DYNX(W_,3825) THEN divGuarded(DYNX(W_,3830),"hydraulic.generation.senTGenOut.tauHeaTra",
- DYNX(W_,3823),"hydraulic.generation.senTGenOut.tau") ELSE 1;
-DYNX(W_,3881) = DYNX(W_,2482);
-DYNX(W_,3882) = DYNX(W_,2483);
-DYNX(W_,3887) = DYNX(W_,3881);
-DYNX(W_,3888) = DYNX(W_,3882);
-DYNX(W_,3889) = DYNX(DP_,1107);
-DYNX(W_,3965) = DYNX(DP_,1105);
-DYNX(W_,3899) = DYNX(W_,3965);
-DYNX(W_,3904) = DYNX(W_,3887);
-DYNX(W_,3905) = DYNX(W_,3888);
-DYNX(W_,3912) = DYNX(W_,3887);
-DYNX(W_,3913) = DYNX(W_,3888);
-DYNX(W_,3914) = DYNX(W_,3889);
-DYNX(W_,3931) = DYNX(W_,3899);
-DYNX(W_,3939) = 4184*(DYNX(W_,3913)-273.15);
-DYNX(W_,3961) = DYNX(W_,3881);
-DYNX(W_,3962) = DYNX(W_,3882);
-DYNX(W_,3963) = 4184*(DYNX(W_,3962)-273.15);
-DYNX(W_,3964) = DYNX(W_,2546);
-DYNX(W_,3966) = DYNX(DP_,1104);
-DYNX(DYNhelp,208) = divinvGuarded(DYNX(W_,3966),"hydraulic.generation.eleHea.eta");
-DYNX(W_,3968) = DYNX(DYNhelp,208);
-DYNX(W_,3970) = DYNX(W_,3964);
-DYNX(W_,3975) = DYNX(DP_,1114);
-DYNX(W_,3976) = DYNX(DP_,1113);
-AssertModelica(DYNX(W_,3976) > DYNX(W_,3975),"hydraulic.generation.KPIEleHea.isOn.uHigh > hydraulic.generation.KPIEleHea.isOn.uLow",
+DYNX(W_,3794) = IF DYNX(W_,3787) THEN divGuarded(DYNX(W_,3792),"hydraulic.generation.senTGenOut.tauHeaTra",
+ DYNX(W_,3785),"hydraulic.generation.senTGenOut.tau") ELSE 1;
+DYNX(W_,3841) = DYNX(W_,2482);
+DYNX(W_,3842) = DYNX(W_,2483);
+DYNX(W_,3847) = DYNX(W_,3841);
+DYNX(W_,3848) = DYNX(W_,3842);
+DYNX(W_,3849) = DYNX(DP_,1113);
+DYNX(W_,3925) = DYNX(DP_,1111);
+DYNX(W_,3859) = DYNX(W_,3925);
+DYNX(W_,3864) = DYNX(W_,3847);
+DYNX(W_,3865) = DYNX(W_,3848);
+DYNX(W_,3872) = DYNX(W_,3847);
+DYNX(W_,3873) = DYNX(W_,3848);
+DYNX(W_,3874) = DYNX(W_,3849);
+DYNX(W_,3891) = DYNX(W_,3859);
+DYNX(W_,3899) = 4184*(DYNX(W_,3873)-273.15);
+DYNX(W_,3921) = DYNX(W_,3841);
+DYNX(W_,3922) = DYNX(W_,3842);
+DYNX(W_,3923) = 4184*(DYNX(W_,3922)-273.15);
+DYNX(W_,3924) = DYNX(W_,2546);
+DYNX(W_,3926) = DYNX(DP_,1110);
+DYNX(DYNhelp,208) = divinvGuarded(DYNX(W_,3926),"hydraulic.generation.eleHea.eta");
+DYNX(W_,3928) = DYNX(DYNhelp,208);
+DYNX(W_,3930) = DYNX(W_,3924);
+DYNX(W_,3935) = DYNX(DP_,1120);
+DYNX(W_,3936) = DYNX(DP_,1119);
+AssertModelica(DYNX(W_,3936) > DYNX(W_,3935),"hydraulic.generation.KPIEleHea.isOn.uHigh > hydraulic.generation.KPIEleHea.isOn.uLow",
"Hysteresis limits wrong (uHigh <= uLow)");
-DYNX(W_,4016) = DYNX(W_,2507);
-DYNX(W_,4017) = DYNX(W_,2494);
-DYNX(W_,4029) = DYNX(W_,4337);
-DYNX(W_,4030) = DYNX(W_,4339);
-DYNX(W_,4033) = DYNX(DP_,1198);
-DYNX(W_,4034) = DYNX(DP_,1199);
-DYNX(W_,4344) = DYNX(DP_,1199)*DYNX(W_,4345)-DYNX(W_,4345);
-DYNX(W_,4035) = DYNX(W_,4344);
-DYNX(W_,4362) = DYNX(W_,2473);
-DYNX(W_,4038) = DYNX(W_,4362);
-DYNX(W_,4357) = DYNX(W_,2475);
-DYNX(W_,4040) = DYNX(W_,4357);
-DYNX(W_,4360) = DYNX(DP_,1250);
-DYNX(W_,4043) = DYNX(W_,4360);
-DYNX(W_,5835) = DYNX(DP_,1301);
-DYNX(W_,4060) = DYNX(W_,5835);
-DYNX(W_,4066) = DYNX(DP_,1126);
-DYNX(W_,4067) = DYNX(DP_,1127);
-DYNX(W_,4069) = DYNX(DP_,1125);
-DYNX(W_,4075) = DYNX(DP_,1129);
-DYNX(W_,4076) = DYNX(W_,4066);
-DYNX(W_,4078) = DYNX(W_,4069);
-AssertModelica(1.0 >= DYNX(W_,4078),"1.0 >= hydraulic.control.valCtrl.PI[1].limiter.uMin",
+DYNX(W_,3976) = DYNX(W_,2507);
+DYNX(W_,3977) = DYNX(W_,2494);
+DYNX(W_,3989) = DYNX(W_,4297);
+DYNX(W_,3990) = DYNX(W_,4299);
+DYNX(W_,3993) = DYNX(DP_,1204);
+DYNX(W_,3994) = DYNX(DP_,1205);
+DYNX(W_,4304) = DYNX(DP_,1205)*DYNX(W_,4305)-DYNX(W_,4305);
+DYNX(W_,3995) = DYNX(W_,4304);
+DYNX(W_,4322) = DYNX(W_,2473);
+DYNX(W_,3998) = DYNX(W_,4322);
+DYNX(W_,4317) = DYNX(W_,2475);
+DYNX(W_,4000) = DYNX(W_,4317);
+DYNX(W_,4320) = DYNX(DP_,1256);
+DYNX(W_,4003) = DYNX(W_,4320);
+DYNX(W_,5795) = DYNX(DP_,1307);
+DYNX(W_,4020) = DYNX(W_,5795);
+DYNX(W_,4026) = DYNX(DP_,1132);
+DYNX(W_,4027) = DYNX(DP_,1133);
+DYNX(W_,4029) = DYNX(DP_,1131);
+DYNX(W_,4035) = DYNX(DP_,1135);
+DYNX(W_,4036) = DYNX(W_,4026);
+DYNX(W_,4038) = DYNX(W_,4029);
+AssertModelica(1.0 >= DYNX(W_,4038),"1.0 >= hydraulic.control.valCtrl.PI[1].limiter.uMin",
StringAdd(StringAdd("Limiter: Limits must be consistent. However, uMax (=1) < uMin (=",
- Real2String2(DYNX(W_,4078), true, 0)),")"));
-DYNX(W_,4083) = DYNX(DP_,1133);
-DYNX(DYNhelp,209) = divinvGuarded(DYNX(W_,4067),"hydraulic.control.valCtrl.PI[1].Ti");
-DYNX(W_,4084) = DYNX(DYNhelp,209);
-DYNX(W_,4088) = DYNX(DP_,1134);
-DYNX(W_,4091) = divinvGuarded(DYNX(W_,4066)*DYNX(DP_,1131),"hydraulic.control.valCtrl.PI[1].k*hydraulic.control.valCtrl.PI[1].Ni");
-DYNX(W_,4102) = DYNX(DP_,1156);
-DYNX(W_,4114) = DYNX(DP_,1157);
-DYNX(W_,4115) = DYNX(DP_,1158);
-DYNX(W_,4116) = DYNX(DP_,1159);
-DYNX(W_,4118) = DYNX(DP_,1160);
-DYNX(W_,4119) = DYNX(DP_,1161);
-DYNX(W_,4121) = DYNX(DP_,1162);
-DYNX(W_,4124) = 0.3*DYNX(W_,4118);
-DYNX(W_,4126) = DYNX(W_,4102);
-DYNX(W_,4127) = DYNX(W_,4116);
-DYNX(W_,4130) = DYNX(W_,4119);
-DYNX(W_,4131) = DYNX(W_,4121);
-DYNX(W_,4136) = DYNX(W_,4115);
-DYNX(W_,4144) = DYNX(W_,4126);
-DYNX(W_,4145) = DYNX(W_,4127);
-AssertModelica(DYNX(W_,4144) >= DYNX(W_,4145),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMax >= hydraulic.control.priGenPIDCtrl.PID.limiter.uMin",
+ Real2String2(DYNX(W_,4038), true, 0)),")"));
+DYNX(W_,4043) = DYNX(DP_,1139);
+DYNX(DYNhelp,209) = divinvGuarded(DYNX(W_,4027),"hydraulic.control.valCtrl.PI[1].Ti");
+DYNX(W_,4044) = DYNX(DYNhelp,209);
+DYNX(W_,4048) = DYNX(DP_,1140);
+DYNX(W_,4051) = divinvGuarded(DYNX(W_,4026)*DYNX(DP_,1137),"hydraulic.control.valCtrl.PI[1].k*hydraulic.control.valCtrl.PI[1].Ni");
+DYNX(W_,4062) = DYNX(DP_,1162);
+DYNX(W_,4074) = DYNX(DP_,1163);
+DYNX(W_,4075) = DYNX(DP_,1164);
+DYNX(W_,4076) = DYNX(DP_,1165);
+DYNX(W_,4078) = DYNX(DP_,1166);
+DYNX(W_,4079) = DYNX(DP_,1167);
+DYNX(W_,4081) = DYNX(DP_,1168);
+DYNX(W_,4084) = 0.3*DYNX(W_,4078);
+DYNX(W_,4086) = DYNX(W_,4062);
+DYNX(W_,4087) = DYNX(W_,4076);
+DYNX(W_,4090) = DYNX(W_,4079);
+DYNX(W_,4091) = DYNX(W_,4081);
+DYNX(W_,4096) = DYNX(W_,4075);
+DYNX(W_,4104) = DYNX(W_,4086);
+DYNX(W_,4105) = DYNX(W_,4087);
+AssertModelica(DYNX(W_,4104) >= DYNX(W_,4105),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMax >= hydraulic.control.priGenPIDCtrl.PID.limiter.uMin",
StringAdd(StringAdd(StringAdd(StringAdd("Limiter: Limits must be consistent. However, uMax (=",
- Real2String2(DYNX(W_,4144), true, 0)),") < uMin (="),Real2String2(
- DYNX(W_,4145), true, 0)),")"));
-DYNX(W_,4151) = DYNX(DP_,1167);
-DYNX(DYNhelp,210) = divinvGuarded(DYNX(W_,4124),"hydraulic.control.priGenPIDCtrl.PID.Ti");
-DYNX(W_,4153) = DYNX(DYNhelp,210);
-DYNX(W_,4165) = divinvGuarded(DYNX(W_,4123)*DYNX(W_,4130),"hydraulic.control.priGenPIDCtrl.PID.k*hydraulic.control.priGenPIDCtrl.PID.Ni");
-DYNX(W_,4166) = DYNX(W_,4114);
-DYNX(W_,4176) = DYNX(W_,4060);
-DYNX(W_,4182) = DYNX(DP_,1152);
-DYNX(W_,4183) = DYNX(DP_,1153);
-DYNX(W_,4184) = DYNX(DP_,1154);
-DYNX(W_,4185) = DYNX(DP_,1155);
-DYNX(W_,4189) = DYNX(DP_,1150);
-DYNX(W_,4190) = DYNX(W_,4189);
-DYNX(W_,4195) = DYNX(W_,4189)/(double)(2);
-DYNX(W_,4196) = DYNX(W_,4189)/(double)(4);
-DYNX(W_,4201) = DYNX(W_,4176);
-DYNX(W_,4203) = DYNX(DP_,1151);
-DYNX(W_,4204) = DYNX(W_,4203);
-DYNX(W_,4209) = DYNX(W_,4203)/(double)(2);
-DYNX(W_,4210) = DYNX(W_,4203)/(double)(4);
-DYNX(W_,4258) = DYNX(W_,4182);
-DYNX(W_,4259) = DYNX(W_,4183);
-DYNX(W_,4267) = DYNX(W_,4184);
-DYNX(W_,4268) = DYNX(W_,4185);
-DYNX(W_,4287) = DYNX(W_,4030)+DYNX(W_,4021);
-DYNX(W_,4288) = DYNX(W_,4043);
-DYNX(W_,4289) = DYNX(DP_,1151);
-DYNX(W_,4293) = DYNX(W_,4286)+DYNX(W_,4287);
-DYNX(W_,4290) = DYNX(W_,4293);
-DYNX(W_,4292) = DYNX(W_,4288);
-DYNX(W_,4291) = DYNX(W_,4292)+DYNX(W_,4289)/(double)(2);
-DYNX(W_,4297) = DYNX(W_,4030)+DYNX(W_,4021);
-DYNX(W_,4298) = DYNX(W_,4043);
-DYNX(W_,4299) = DYNX(DP_,1151);
-DYNX(W_,4303) = DYNX(W_,4296)+DYNX(W_,4297);
-DYNX(W_,4300) = DYNX(W_,4303);
-DYNX(W_,4302) = DYNX(W_,4298);
-DYNX(W_,4301) = DYNX(W_,4302)+DYNX(W_,4299)/(double)(2);
-DYNX(W_,4325) = DYNX(DP_,842);
-DYNX(W_,4326) = DYNX(DP_,843);
-DYNX(W_,4327) = DYNX(DP_,844);
-DYNX(W_,4328) = DYNX(DP_,845);
-DYNX(W_,4353) = DYNX(W_,4339);
-DYNX(W_,4370) = DYNX(W_,2499);
-DYNX(W_,5690) = powGuarded(divGuarded(0.493668,"0.493668",DYNX(DP_,1248)*
+ Real2String2(DYNX(W_,4104), true, 0)),") < uMin (="),Real2String2(
+ DYNX(W_,4105), true, 0)),")"));
+DYNX(W_,4111) = DYNX(DP_,1173);
+DYNX(DYNhelp,210) = divinvGuarded(DYNX(W_,4084),"hydraulic.control.priGenPIDCtrl.PID.Ti");
+DYNX(W_,4113) = DYNX(DYNhelp,210);
+DYNX(W_,4125) = divinvGuarded(DYNX(W_,4083)*DYNX(W_,4090),"hydraulic.control.priGenPIDCtrl.PID.k*hydraulic.control.priGenPIDCtrl.PID.Ni");
+DYNX(W_,4126) = DYNX(W_,4074);
+DYNX(W_,4136) = DYNX(W_,4020);
+DYNX(W_,4142) = DYNX(DP_,1158);
+DYNX(W_,4143) = DYNX(DP_,1159);
+DYNX(W_,4144) = DYNX(DP_,1160);
+DYNX(W_,4145) = DYNX(DP_,1161);
+DYNX(W_,4149) = DYNX(DP_,1156);
+DYNX(W_,4150) = DYNX(W_,4149);
+DYNX(W_,4155) = DYNX(W_,4149)/(double)(2);
+DYNX(W_,4156) = DYNX(W_,4149)/(double)(4);
+DYNX(W_,4161) = DYNX(W_,4136);
+DYNX(W_,4163) = DYNX(DP_,1157);
+DYNX(W_,4164) = DYNX(W_,4163);
+DYNX(W_,4169) = DYNX(W_,4163)/(double)(2);
+DYNX(W_,4170) = DYNX(W_,4163)/(double)(4);
+DYNX(W_,4218) = DYNX(W_,4142);
+DYNX(W_,4219) = DYNX(W_,4143);
+DYNX(W_,4227) = DYNX(W_,4144);
+DYNX(W_,4228) = DYNX(W_,4145);
+DYNX(W_,4247) = DYNX(W_,3990)+DYNX(W_,3981);
+DYNX(W_,4248) = DYNX(W_,4003);
+DYNX(W_,4249) = DYNX(DP_,1157);
+DYNX(W_,4253) = DYNX(W_,4246)+DYNX(W_,4247);
+DYNX(W_,4250) = DYNX(W_,4253);
+DYNX(W_,4252) = DYNX(W_,4248);
+DYNX(W_,4251) = DYNX(W_,4252)+DYNX(W_,4249)/(double)(2);
+DYNX(W_,4257) = DYNX(W_,3990)+DYNX(W_,3981);
+DYNX(W_,4258) = DYNX(W_,4003);
+DYNX(W_,4259) = DYNX(DP_,1157);
+DYNX(W_,4263) = DYNX(W_,4256)+DYNX(W_,4257);
+DYNX(W_,4260) = DYNX(W_,4263);
+DYNX(W_,4262) = DYNX(W_,4258);
+DYNX(W_,4261) = DYNX(W_,4262)+DYNX(W_,4259)/(double)(2);
+DYNX(W_,4285) = DYNX(DP_,842);
+DYNX(W_,4286) = DYNX(DP_,843);
+DYNX(W_,4287) = DYNX(DP_,844);
+DYNX(W_,4288) = DYNX(DP_,845);
+DYNX(W_,4313) = DYNX(W_,4299);
+DYNX(W_,4330) = DYNX(W_,2499);
+DYNX(W_,5650) = powGuarded(divGuarded(0.493668,"0.493668",DYNX(DP_,1254)*
3.141592653589793,"hydraulic.distribution.parStoDHW.storage_H_dia_ratio*3.141592653589793"),
"0.493668/(hydraulic.distribution.parStoDHW.storage_H_dia_ratio*3.141592653589793)",
0.3333333333333333,"0.3333333333333333");
-DYNX(W_,4383) = DYNX(W_,5690);
-DYNX(W_,5691) = DYNX(W_,5690)*DYNX(DP_,1248);
-DYNX(W_,4384) = DYNX(W_,5691);
-DYNX(W_,4385) = DYNX(DP_,1259);
-DYNX(W_,5706) = (PushModelContext(1,"Modelica.Math.Nonlinear.solveOneNonlinearEquation(\nfunction(BESMod.Systems.Hydraulical.Distribution.RecordsCollection.GetStorageInsulation(, hydraulic.distribution.parStoDHW.QLoss_flow, hydraulic.distribution.parStoDHW.T_m-hydraulic.distribution.parStoDHW.TAmb, hydraulic.distribution.parStoDHW.hConOut, hydraulic.distribution.parStoDHW.hConIn, hydraulic.distribution.parStoDHW.lambda_ins, hydraul...")
+DYNX(W_,4343) = DYNX(W_,5650);
+DYNX(W_,5651) = DYNX(W_,5650)*DYNX(DP_,1254);
+DYNX(W_,4344) = DYNX(W_,5651);
+DYNX(W_,4345) = DYNX(DP_,1265);
+DYNX(W_,5666) = (PushModelContext(1,"Modelica.Math.Nonlinear.solveOneNonlinearEquation(\nfunction(BESMod.Systems.Hydraulical.Distribution.RecordsCollection.GetStorageInsulation(, hydraulic.distribution.parStoDHW.QLoss_flow, hydraulic.distribution.parStoDHW.T_m-hydraulic.distribution.parStoDHW.TAmb, hydraulic.distribution.parStoDHW.hConOut, hydraulic.distribution.parStoDHW.hConIn, hydraulic.distribution.parStoDHW.lambda_ins, hydraul...")
Modelica_Math_Nonlinear_solveOneNonlinearEquation(BESMod_Systems_Hydraulical_Distribution_RecordsCollection_GetStorageInsulation_cw_QLoss_flow_d_dT_loss_h_hConIn_hConOut_lambda_ins,
- (temp_0_2_0_0.QLoss_flow_0member=DYNX(W_,5705),temp_0_2_0_0.dT_loss_0member=
- DYNX(W_,5702)-DYNX(W_,5703),temp_0_2_0_0.hConOut_0member=DYNX(DP_,1258),
- temp_0_2_0_0.hConIn_0member=DYNX(DP_,1257),temp_0_2_0_0.lambda_ins_0member=
- DYNX(DP_,1259),temp_0_2_0_0.d_0member=DYNX(W_,5690),temp_0_2_0_0.h_0member=
- DYNX(W_,5691),& temp_0_2_0_0), 1E-05, 10, 1E-13));
+ (temp_0_2_0_0.QLoss_flow_0member=DYNX(W_,5665),temp_0_2_0_0.dT_loss_0member=
+ DYNX(W_,5662)-DYNX(W_,5663),temp_0_2_0_0.hConOut_0member=DYNX(DP_,1264),
+ temp_0_2_0_0.hConIn_0member=DYNX(DP_,1263),temp_0_2_0_0.lambda_ins_0member=
+ DYNX(DP_,1265),temp_0_2_0_0.d_0member=DYNX(W_,5650),temp_0_2_0_0.h_0member=
+ DYNX(W_,5651),& temp_0_2_0_0), 1E-05, 10, 1E-13));
PopModelContext();
-DYNX(W_,4386) = DYNX(W_,5706);
-DYNX(W_,4387) = DYNX(DP_,1257);
-DYNX(W_,4388) = DYNX(DP_,1258);
-DYNX(DYNhelp,211) = 3.141592653589793*DYNX(DP_,1247)*DYNX(W_,5684);
-DYNX(DYNhelp,212) = sqrtGuarded(divGuarded(DYNX(W_,5695),"hydraulic.distribution.parStoDHW.mHC1_flow_nominal",
+DYNX(W_,4346) = DYNX(W_,5666);
+DYNX(W_,4347) = DYNX(DP_,1263);
+DYNX(W_,4348) = DYNX(DP_,1264);
+DYNX(DYNhelp,211) = 3.141592653589793*DYNX(DP_,1253)*DYNX(W_,5644);
+DYNX(DYNhelp,212) = sqrtGuarded(divGuarded(DYNX(W_,5655),"hydraulic.distribution.parStoDHW.mHC1_flow_nominal",
DYNX(DYNhelp,211),"3.141592653589793*(hydraulic.distribution.parStoDHW.v_nominal*hydraulic.distribution.parStoDHW.rho)"),
"hydraulic.distribution.parStoDHW.mHC1_flow_nominal/(3.141592653589793*(hydraulic.distribution.parStoDHW.v_nominal*hydraulic.distribution.parStoDHW.rho))");
-DYNX(W_,5697) = 2*DYNX(DYNhelp,212);
-DYNX(W_,5698) = DYNX(W_,5697)+0.002;
-DYNX(DYNhelp,213) = divinvGuarded(DYNX(W_,5698),"hydraulic.distribution.parStoDHW.pipeHC1.d_o");
-DYNX(DYNhelp,214) = floor(DYNX(DYNhelp,213)*DYNX(W_,5691)*DYNX(DP_,1251));
-DYNX(DYNhelp,215) = DYNX(W_,5690)*DYNX(DP_,1252);
-DYNX(DYNhelp,216) = atan(divGuarded(DYNX(W_,5698),"hydraulic.distribution.parStoDHW.pipeHC1.d_o",
+DYNX(W_,5657) = 2*DYNX(DYNhelp,212);
+DYNX(W_,5658) = DYNX(W_,5657)+0.002;
+DYNX(DYNhelp,213) = divinvGuarded(DYNX(W_,5658),"hydraulic.distribution.parStoDHW.pipeHC1.d_o");
+DYNX(DYNhelp,214) = floor(DYNX(DYNhelp,213)*DYNX(W_,5651)*DYNX(DP_,1257));
+DYNX(DYNhelp,215) = DYNX(W_,5650)*DYNX(DP_,1258);
+DYNX(DYNhelp,216) = atan(divGuarded(DYNX(W_,5658),"hydraulic.distribution.parStoDHW.pipeHC1.d_o",
DYNX(DYNhelp,215),"hydraulic.distribution.parStoDHW.d*hydraulic.distribution.parStoDHW.fDiaHC1"));
DYNX(DYNhelp,217) = sin(DYNX(DYNhelp,216));
DYNX(DYNhelp,218) = divinvGuarded(DYNX(DYNhelp,217),"sin(atan(hydraulic.distribution.parStoDHW.pipeHC1.d_o/(hydraulic.distribution.parStoDHW.d*hydraulic.distribution.parStoDHW.fDiaHC1)))");
-DYNX(W_,5694) = DYNX(DYNhelp,218)*DYNX(DYNhelp,214)*DYNX(W_,5698);
-DYNX(W_,5707) = 3.141592653589793*DYNX(W_,5694)*sqr(DYNX(W_,5697)/(double)(2));
-DYNX(W_,4389) = DYNX(W_,5707);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(26);
-DYNX(W_,5693) = DYNX(W_,4357);
-DYNX(W_,5709) = 1.5707963267948966*DYNX(W_,5694)*(DYNX(W_,5697)+DYNX(W_,5698));
-DYNX(DYNhelp,219) = RealBmax(DYNX(DP_,1250), DYNX(DP_,1249));
-DYNX(DYNhelp,220) = DYNX(W_,5709)*DYNX(DYNhelp,219);
-DYNX(W_,5708) = divGuarded(DYNX(W_,5693),"hydraulic.distribution.parStoDHW.QHC1_flow_nominal",
+DYNX(W_,5654) = DYNX(DYNhelp,218)*DYNX(DYNhelp,214)*DYNX(W_,5658);
+DYNX(W_,5667) = 3.141592653589793*DYNX(W_,5654)*sqr(DYNX(W_,5657)/(double)(2));
+DYNX(W_,4349) = DYNX(W_,5667);
+DYNX(W_,5653) = DYNX(W_,4317);
+DYNX(W_,5669) = 1.5707963267948966*DYNX(W_,5654)*(DYNX(W_,5657)+DYNX(W_,5658));
+DYNX(DYNhelp,219) = RealBmax(DYNX(DP_,1256), DYNX(DP_,1255));
+DYNX(DYNhelp,220) = DYNX(W_,5669)*DYNX(DYNhelp,219);
+DYNX(W_,5668) = divGuarded(DYNX(W_,5653),"hydraulic.distribution.parStoDHW.QHC1_flow_nominal",
DYNX(DYNhelp,220),"hydraulic.distribution.parStoDHW.A_HE*max(hydraulic.distribution.parStoDHW.dTLoadingHC1, hydraulic.distribution.parStoDHW.dTLoaMin)");
-DYNX(W_,4390) = DYNX(W_,5708);
-DYNX(W_,4391) = DYNX(W_,5709);
-DYNX(W_,4392) = DYNX(DP_,1260);
-DYNX(W_,4393) = DYNX(DP_,1261);
-DYNX(W_,4402) = DYNX(W_,4325);
-DYNX(W_,4407) = 0.7853981633974483*sqr(DYNX(W_,4383));
-DYNX(W_,4406) = DYNX(W_,4407)*DYNX(W_,4384);
-DYNX(DYNhelp,221) = divinvGuarded(DYNX(W_,4407),"hydraulic.distribution.stoDHW.A");
-DYNX(W_,4408) = DYNX(DYNhelp,221)*0.25*DYNX(W_,4406);
+DYNX(W_,4350) = DYNX(W_,5668);
+DYNX(W_,4351) = DYNX(W_,5669);
+DYNX(W_,4352) = DYNX(DP_,1266);
+DYNX(W_,4353) = DYNX(DP_,1267);
+DYNX(W_,4362) = DYNX(W_,4285);
+DYNX(W_,4367) = 0.7853981633974483*sqr(DYNX(W_,4343));
+DYNX(W_,4366) = DYNX(W_,4367)*DYNX(W_,4344);
+DYNX(DYNhelp,221) = divinvGuarded(DYNX(W_,4367),"hydraulic.distribution.stoDHW.A");
+DYNX(W_,4368) = DYNX(DYNhelp,221)*0.25*DYNX(W_,4366);
/* Introducing 12 common subexpressions used in 6 expressions */
/* Of the common subexpressions 12 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,222) = DYNX(W_,4387)*DYNX(W_,4383);
+DYNX(DYNhelp,222) = DYNX(W_,4347)*DYNX(W_,4343);
DYNX(DYNhelp,223) = 0.5*DYNX(DYNhelp,222);
DYNX(DYNhelp,224) = divinvGuarded(DYNX(DYNhelp,223),"0.5*(hydraulic.distribution.stoDHW.hConIn*hydraulic.distribution.stoDHW.d)");
-DYNX(DYNhelp,225) = DYNX(W_,4383)/(double)(2)+DYNX(W_,4386);
+DYNX(DYNhelp,225) = DYNX(W_,4343)/(double)(2)+DYNX(W_,4346);
DYNX(DYNhelp,226) = 2*DYNX(DYNhelp,225);
-DYNX(DYNhelp,227) = divinvGuarded(DYNX(W_,4383),"hydraulic.distribution.stoDHW.d");
+DYNX(DYNhelp,227) = divinvGuarded(DYNX(W_,4343),"hydraulic.distribution.stoDHW.d");
DYNX(DYNhelp,228) = DYNX(DYNhelp,227)*DYNX(DYNhelp,226);
DYNX(DYNhelp,229) = logGuarded(DYNX(DYNhelp,228),"2*(hydraulic.distribution.stoDHW.d/2+hydraulic.distribution.stoDHW.s_ins)/hydraulic.distribution.stoDHW.d");
-DYNX(DYNhelp,230) = divinvGuarded(DYNX(W_,4385),"hydraulic.distribution.stoDHW.lambda_ins");
-DYNX(DYNhelp,231) = DYNX(W_,4388)*DYNX(DYNhelp,225);
+DYNX(DYNhelp,230) = divinvGuarded(DYNX(W_,4345),"hydraulic.distribution.stoDHW.lambda_ins");
+DYNX(DYNhelp,231) = DYNX(W_,4348)*DYNX(DYNhelp,225);
DYNX(DYNhelp,232) = divinvGuarded(DYNX(DYNhelp,231),"hydraulic.distribution.stoDHW.hConOut*(hydraulic.distribution.stoDHW.d/2+hydraulic.distribution.stoDHW.s_ins)");
DYNX(DYNhelp,233) = DYNX(DYNhelp,224)+DYNX(DYNhelp,230)*DYNX(DYNhelp,229)+
DYNX(DYNhelp,232);
-DYNX(W_,4409) = divGuarded(1.5707963267948966*DYNX(W_,4384),"1.5707963267948966*hydraulic.distribution.stoDHW.h",
+DYNX(W_,4369) = divGuarded(1.5707963267948966*DYNX(W_,4344),"1.5707963267948966*hydraulic.distribution.stoDHW.h",
DYNX(DYNhelp,233),"1/(0.5*(hydraulic.distribution.stoDHW.hConIn*hydraulic.distribution.stoDHW.d))+log(2*(hydraulic.distribution.stoDHW.d/2+hydraulic.distribution.stoDHW.s_ins)/hydraulic.distribution.stoDHW.d)/hydraulic.distribution.stoDHW.lambda_ins+1/(hydraulic.distribution.stoDHW.hConOut*(hydraulic.distribution.stoDHW.d/2+hydraulic.distribution.stoDHW.s_ins))");
-DYNX(DYNhelp,234) = divinvGuarded(DYNX(W_,4386),"hydraulic.distribution.stoDHW.s_ins");
-DYNX(W_,4410) = DYNX(W_,4409)+DYNX(DYNhelp,234)*DYNX(W_,4385)*DYNX(W_,4407);
-DYNX(W_,4415) = DYNX(W_,4402);
-DYNX(W_,4426) = 0.25*DYNX(W_,4406);
-DYNX(W_,4431) = DYNX(W_,4415);
-DYNX(W_,4439) = DYNX(W_,4415);
-DYNX(W_,4441) = DYNX(DP_,1201);
-DYNX(W_,4459) = DYNX(W_,4426);
-DYNX(W_,4474) = DYNX(W_,4402);
-DYNX(W_,4485) = 0.25*DYNX(W_,4406);
-DYNX(W_,4490) = DYNX(W_,4474);
-DYNX(W_,4498) = DYNX(W_,4474);
-DYNX(W_,4500) = DYNX(DP_,1202);
-DYNX(W_,4518) = DYNX(W_,4485);
-DYNX(W_,4533) = DYNX(W_,4402);
-DYNX(W_,4544) = 0.25*DYNX(W_,4406);
-DYNX(W_,4549) = DYNX(W_,4533);
-DYNX(W_,4557) = DYNX(W_,4533);
-DYNX(W_,4559) = DYNX(DP_,1203);
-DYNX(W_,4577) = DYNX(W_,4544);
-DYNX(W_,4592) = DYNX(W_,4402);
-DYNX(W_,4603) = 0.25*DYNX(W_,4406);
-DYNX(W_,4608) = DYNX(W_,4592);
-DYNX(W_,4616) = DYNX(W_,4592);
-DYNX(W_,4618) = DYNX(DP_,1204);
-DYNX(W_,4636) = DYNX(W_,4603);
-DYNX(W_,4651) = DYNX(W_,4402);
-DYNX(W_,4662) = 0.25*DYNX(W_,4389);
-DYNX(W_,4667) = DYNX(W_,4651);
-DYNX(W_,4675) = DYNX(W_,4651);
-DYNX(W_,4677) = DYNX(DP_,1205);
-DYNX(W_,4695) = DYNX(W_,4662);
-DYNX(W_,4710) = DYNX(W_,4402);
-DYNX(W_,4721) = 0.25*DYNX(W_,4389);
-DYNX(W_,4726) = DYNX(W_,4710);
-DYNX(W_,4734) = DYNX(W_,4710);
-DYNX(W_,4736) = DYNX(DP_,1206);
-DYNX(W_,4754) = DYNX(W_,4721);
-DYNX(W_,4769) = DYNX(W_,4402);
-DYNX(W_,4780) = 0.25*DYNX(W_,4389);
-DYNX(W_,4785) = DYNX(W_,4769);
-DYNX(W_,4793) = DYNX(W_,4769);
-DYNX(W_,4795) = DYNX(DP_,1207);
-DYNX(W_,4813) = DYNX(W_,4780);
-DYNX(W_,4828) = DYNX(W_,4402);
-DYNX(W_,4839) = 0.25*DYNX(W_,4389);
-DYNX(W_,4844) = DYNX(W_,4828);
-DYNX(W_,4852) = DYNX(W_,4828);
-DYNX(W_,4854) = DYNX(DP_,1208);
-DYNX(W_,4872) = DYNX(W_,4839);
-DYNX(W_,4883) = 0.25*DYNX(W_,4390)*DYNX(W_,4391);
-DYNX(W_,4884) = 0.25*DYNX(W_,4390)*DYNX(W_,4391);
-DYNX(W_,4885) = 0.25*DYNX(W_,4390)*DYNX(W_,4391);
-DYNX(W_,4886) = 0.25*DYNX(W_,4390)*DYNX(W_,4391);
-DYNX(W_,4888) = DYNX(W_,4410);
-DYNX(W_,4890) = DYNX(W_,4409);
-DYNX(W_,4892) = DYNX(W_,4409);
-DYNX(W_,4894) = DYNX(W_,4410);
-DYNX(W_,4895) = DYNX(W_,4407);
-DYNX(W_,4896) = DYNX(W_,4392);
-DYNX(W_,4897) = DYNX(W_,4408);
-DYNX(W_,4898) = DYNX(W_,4393);
-DYNX(W_,4903) = DYNX(W_,4407);
-DYNX(W_,4904) = DYNX(W_,4392);
-DYNX(W_,4905) = DYNX(W_,4408);
-DYNX(W_,4906) = DYNX(W_,4393);
-DYNX(W_,4911) = DYNX(W_,4407);
-DYNX(W_,4912) = DYNX(W_,4392);
-DYNX(W_,4913) = DYNX(W_,4408);
-DYNX(W_,4914) = DYNX(W_,4393);
-DYNX(W_,5663) = DYNX(W_,4351)*DYNX(DP_,1199);
-DYNX(W_,5665) = 1E-06*DYNX(DP_,1230)*DYNX(W_,5663);
-DYNX(W_,5666) = powGuarded(divGuarded(DYNX(W_,5665)*4,"hydraulic.distribution.parStoBuf.V*4",
- DYNX(DP_,1231)*3.141592653589793,"hydraulic.distribution.parStoBuf.storage_H_dia_ratio*3.141592653589793"),
+DYNX(DYNhelp,234) = divinvGuarded(DYNX(W_,4346),"hydraulic.distribution.stoDHW.s_ins");
+DYNX(W_,4370) = DYNX(W_,4369)+DYNX(DYNhelp,234)*DYNX(W_,4345)*DYNX(W_,4367);
+DYNX(W_,4375) = DYNX(W_,4362);
+DYNX(W_,4386) = 0.25*DYNX(W_,4366);
+DYNX(W_,4391) = DYNX(W_,4375);
+DYNX(W_,4399) = DYNX(W_,4375);
+DYNX(W_,4401) = DYNX(DP_,1207);
+DYNX(W_,4419) = DYNX(W_,4386);
+DYNX(W_,4434) = DYNX(W_,4362);
+DYNX(W_,4445) = 0.25*DYNX(W_,4366);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(26);
+DYNX(W_,4450) = DYNX(W_,4434);
+DYNX(W_,4458) = DYNX(W_,4434);
+DYNX(W_,4460) = DYNX(DP_,1208);
+DYNX(W_,4478) = DYNX(W_,4445);
+DYNX(W_,4493) = DYNX(W_,4362);
+DYNX(W_,4504) = 0.25*DYNX(W_,4366);
+DYNX(W_,4509) = DYNX(W_,4493);
+DYNX(W_,4517) = DYNX(W_,4493);
+DYNX(W_,4519) = DYNX(DP_,1209);
+DYNX(W_,4537) = DYNX(W_,4504);
+DYNX(W_,4552) = DYNX(W_,4362);
+DYNX(W_,4563) = 0.25*DYNX(W_,4366);
+DYNX(W_,4568) = DYNX(W_,4552);
+DYNX(W_,4576) = DYNX(W_,4552);
+DYNX(W_,4578) = DYNX(DP_,1210);
+DYNX(W_,4596) = DYNX(W_,4563);
+DYNX(W_,4611) = DYNX(W_,4362);
+DYNX(W_,4622) = 0.25*DYNX(W_,4349);
+DYNX(W_,4627) = DYNX(W_,4611);
+DYNX(W_,4635) = DYNX(W_,4611);
+DYNX(W_,4637) = DYNX(DP_,1211);
+DYNX(W_,4655) = DYNX(W_,4622);
+DYNX(W_,4670) = DYNX(W_,4362);
+DYNX(W_,4681) = 0.25*DYNX(W_,4349);
+DYNX(W_,4686) = DYNX(W_,4670);
+DYNX(W_,4694) = DYNX(W_,4670);
+DYNX(W_,4696) = DYNX(DP_,1212);
+DYNX(W_,4714) = DYNX(W_,4681);
+DYNX(W_,4729) = DYNX(W_,4362);
+DYNX(W_,4740) = 0.25*DYNX(W_,4349);
+DYNX(W_,4745) = DYNX(W_,4729);
+DYNX(W_,4753) = DYNX(W_,4729);
+DYNX(W_,4755) = DYNX(DP_,1213);
+DYNX(W_,4773) = DYNX(W_,4740);
+DYNX(W_,4788) = DYNX(W_,4362);
+DYNX(W_,4799) = 0.25*DYNX(W_,4349);
+DYNX(W_,4804) = DYNX(W_,4788);
+DYNX(W_,4812) = DYNX(W_,4788);
+DYNX(W_,4814) = DYNX(DP_,1214);
+DYNX(W_,4832) = DYNX(W_,4799);
+DYNX(W_,4843) = 0.25*DYNX(W_,4350)*DYNX(W_,4351);
+DYNX(W_,4844) = 0.25*DYNX(W_,4350)*DYNX(W_,4351);
+DYNX(W_,4845) = 0.25*DYNX(W_,4350)*DYNX(W_,4351);
+DYNX(W_,4846) = 0.25*DYNX(W_,4350)*DYNX(W_,4351);
+DYNX(W_,4848) = DYNX(W_,4370);
+DYNX(W_,4850) = DYNX(W_,4369);
+DYNX(W_,4852) = DYNX(W_,4369);
+DYNX(W_,4854) = DYNX(W_,4370);
+DYNX(W_,4855) = DYNX(W_,4367);
+DYNX(W_,4856) = DYNX(W_,4352);
+DYNX(W_,4857) = DYNX(W_,4368);
+DYNX(W_,4858) = DYNX(W_,4353);
+DYNX(W_,4863) = DYNX(W_,4367);
+DYNX(W_,4864) = DYNX(W_,4352);
+DYNX(W_,4865) = DYNX(W_,4368);
+DYNX(W_,4866) = DYNX(W_,4353);
+DYNX(W_,4871) = DYNX(W_,4367);
+DYNX(W_,4872) = DYNX(W_,4352);
+DYNX(W_,4873) = DYNX(W_,4368);
+DYNX(W_,4874) = DYNX(W_,4353);
+DYNX(W_,5623) = DYNX(W_,4311)*DYNX(DP_,1205);
+DYNX(W_,5625) = 1E-06*DYNX(DP_,1236)*DYNX(W_,5623);
+DYNX(W_,5626) = powGuarded(divGuarded(DYNX(W_,5625)*4,"hydraulic.distribution.parStoBuf.V*4",
+ DYNX(DP_,1237)*3.141592653589793,"hydraulic.distribution.parStoBuf.storage_H_dia_ratio*3.141592653589793"),
"hydraulic.distribution.parStoBuf.V*4/(hydraulic.distribution.parStoBuf.storage_H_dia_ratio*3.141592653589793)",
0.3333333333333333,"0.3333333333333333");
-DYNX(W_,4922) = DYNX(W_,5666);
-DYNX(W_,5667) = DYNX(W_,5666)*DYNX(DP_,1231);
-DYNX(W_,4923) = DYNX(W_,5667);
-DYNX(W_,4924) = DYNX(DP_,1244);
-DYNX(W_,5676) = IF DYNX(DP_,1239) == 1 THEN 0.132+0.07584*powGuarded(
- DYNX(W_,5665)*1000,"hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE
- IF DYNX(DP_,1239) == 2 THEN 0.168+0.08892*powGuarded(DYNX(W_,5665)*1000,
- "hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE IF DYNX(DP_,1239)
- == 3 THEN 0.246+0.12216*powGuarded(DYNX(W_,5665)*1000,"hydraulic.distribution.parStoBuf.V*1000",
- 0.4,"0.4") ELSE IF DYNX(DP_,1239) == 4 THEN 0.34392+0.17112*powGuarded(
- DYNX(W_,5665)*1000,"hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE
- IF DYNX(DP_,1239) == 5 THEN 0.45192+0.22392*powGuarded(DYNX(W_,5665)*1000,
- "hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE IF DYNX(DP_,1239)
- == 6 THEN 0.5640000000000001+0.28787999999999997*powGuarded(DYNX(W_,5665)*1000,
- "hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE IF DYNX(DP_,1239)
- == 7 THEN 0.684+0.36384*powGuarded(DYNX(W_,5665)*1000,"hydraulic.distribution.parStoBuf.V*1000",
- 0.4,"0.4") ELSE IF DYNX(DP_,1239) == 8 THEN 0.744+0.39984000000000003*
- powGuarded(DYNX(W_,5665)*1000,"hydraulic.distribution.parStoBuf.V*1000",0.4,
+DYNX(W_,4882) = DYNX(W_,5626);
+DYNX(W_,5627) = DYNX(W_,5626)*DYNX(DP_,1237);
+DYNX(W_,4883) = DYNX(W_,5627);
+DYNX(W_,4884) = DYNX(DP_,1250);
+DYNX(W_,5636) = IF DYNX(DP_,1245) == 1 THEN 0.132+0.07584*powGuarded(
+ DYNX(W_,5625)*1000,"hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE
+ IF DYNX(DP_,1245) == 2 THEN 0.168+0.08892*powGuarded(DYNX(W_,5625)*1000,
+ "hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE IF DYNX(DP_,1245)
+ == 3 THEN 0.246+0.12216*powGuarded(DYNX(W_,5625)*1000,"hydraulic.distribution.parStoBuf.V*1000",
+ 0.4,"0.4") ELSE IF DYNX(DP_,1245) == 4 THEN 0.34392+0.17112*powGuarded(
+ DYNX(W_,5625)*1000,"hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE
+ IF DYNX(DP_,1245) == 5 THEN 0.45192+0.22392*powGuarded(DYNX(W_,5625)*1000,
+ "hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE IF DYNX(DP_,1245)
+ == 6 THEN 0.5640000000000001+0.28787999999999997*powGuarded(DYNX(W_,5625)*1000,
+ "hydraulic.distribution.parStoBuf.V*1000",0.4,"0.4") ELSE IF DYNX(DP_,1245)
+ == 7 THEN 0.684+0.36384*powGuarded(DYNX(W_,5625)*1000,"hydraulic.distribution.parStoBuf.V*1000",
+ 0.4,"0.4") ELSE IF DYNX(DP_,1245) == 8 THEN 0.744+0.39984000000000003*
+ powGuarded(DYNX(W_,5625)*1000,"hydraulic.distribution.parStoBuf.V*1000",0.4,
"0.4") ELSE 0;
-DYNX(W_,5679) = IF DYNX(DP_,1240) THEN 41.666666666666664*DYNX(W_,5676) ELSE
- 1.1574074074074073E-05*DYNX(W_,5661)*DYNX(W_,5662)*DYNX(W_,5665)*
- DYNX(DP_,1241);
-DYNX(W_,5680) = (PushModelContext(1,"Modelica.Math.Nonlinear.solveOneNonlinearEquation(\nfunction(BESMod.Systems.Hydraulical.Distribution.RecordsCollection.GetStorageInsulation(, hydraulic.distribution.parStoBuf.QLoss_flow, hydraulic.distribution.parStoBuf.T_m-hydraulic.distribution.parStoBuf.TAmb, hydraulic.distribution.parStoBuf.hConOut, hydraulic.distribution.parStoBuf.hConIn, hydraulic.distribution.parStoBuf.lambda_ins, hydraul...")
+DYNX(W_,5639) = IF DYNX(DP_,1246) THEN 41.666666666666664*DYNX(W_,5636) ELSE
+ 1.1574074074074073E-05*DYNX(W_,5621)*DYNX(W_,5622)*DYNX(W_,5625)*
+ DYNX(DP_,1247);
+DYNX(W_,5640) = (PushModelContext(1,"Modelica.Math.Nonlinear.solveOneNonlinearEquation(\nfunction(BESMod.Systems.Hydraulical.Distribution.RecordsCollection.GetStorageInsulation(, hydraulic.distribution.parStoBuf.QLoss_flow, hydraulic.distribution.parStoBuf.T_m-hydraulic.distribution.parStoBuf.TAmb, hydraulic.distribution.parStoBuf.hConOut, hydraulic.distribution.parStoBuf.hConIn, hydraulic.distribution.parStoBuf.lambda_ins, hydraul...")
Modelica_Math_Nonlinear_solveOneNonlinearEquation(BESMod_Systems_Hydraulical_Distribution_RecordsCollection_GetStorageInsulation_cw_QLoss_flow_d_dT_loss_h_hConIn_hConOut_lambda_ins,
- (temp_0_2_1_1.QLoss_flow_0member=DYNX(W_,5679),temp_0_2_1_1.dT_loss_0member=
- DYNX(W_,5677)-DYNX(W_,5678),temp_0_2_1_1.hConOut_0member=DYNX(DP_,1243),
- temp_0_2_1_1.hConIn_0member=DYNX(DP_,1242),temp_0_2_1_1.lambda_ins_0member=
- DYNX(DP_,1244),temp_0_2_1_1.d_0member=DYNX(W_,5666),temp_0_2_1_1.h_0member=
- DYNX(W_,5667),& temp_0_2_1_1), 1E-05, 10, 1E-13));
+ (temp_0_2_1_1.QLoss_flow_0member=DYNX(W_,5639),temp_0_2_1_1.dT_loss_0member=
+ DYNX(W_,5637)-DYNX(W_,5638),temp_0_2_1_1.hConOut_0member=DYNX(DP_,1249),
+ temp_0_2_1_1.hConIn_0member=DYNX(DP_,1248),temp_0_2_1_1.lambda_ins_0member=
+ DYNX(DP_,1250),temp_0_2_1_1.d_0member=DYNX(W_,5626),temp_0_2_1_1.h_0member=
+ DYNX(W_,5627),& temp_0_2_1_1), 1E-05, 10, 1E-13));
PopModelContext();
-DYNX(W_,4925) = DYNX(W_,5680);
-DYNX(W_,4926) = DYNX(DP_,1242);
-DYNX(W_,4927) = DYNX(DP_,1243);
-DYNX(DYNhelp,235) = 3.141592653589793*DYNX(DP_,1229)*DYNX(W_,5661);
-DYNX(DYNhelp,236) = sqrtGuarded(divGuarded(DYNX(W_,5671),"hydraulic.distribution.parStoBuf.mHC1_flow_nominal",
+DYNX(W_,4885) = DYNX(W_,5640);
+DYNX(W_,4886) = DYNX(DP_,1248);
+DYNX(W_,4887) = DYNX(DP_,1249);
+DYNX(DYNhelp,235) = 3.141592653589793*DYNX(DP_,1235)*DYNX(W_,5621);
+DYNX(DYNhelp,236) = sqrtGuarded(divGuarded(DYNX(W_,5631),"hydraulic.distribution.parStoBuf.mHC1_flow_nominal",
DYNX(DYNhelp,235),"3.141592653589793*(hydraulic.distribution.parStoBuf.v_nominal*hydraulic.distribution.parStoBuf.rho)"),
"hydraulic.distribution.parStoBuf.mHC1_flow_nominal/(3.141592653589793*(hydraulic.distribution.parStoBuf.v_nominal*hydraulic.distribution.parStoBuf.rho))");
-DYNX(W_,5673) = 2*DYNX(DYNhelp,236);
-DYNX(W_,5674) = DYNX(W_,5673)+0.002;
-DYNX(DYNhelp,237) = divinvGuarded(DYNX(W_,5674),"hydraulic.distribution.parStoBuf.pipeHC1.d_o");
-DYNX(DYNhelp,238) = floor(DYNX(DYNhelp,237)*DYNX(W_,5667)*DYNX(DP_,1234));
-DYNX(DYNhelp,239) = DYNX(W_,5666)*DYNX(DP_,1235);
-DYNX(DYNhelp,240) = atan(divGuarded(DYNX(W_,5674),"hydraulic.distribution.parStoBuf.pipeHC1.d_o",
+DYNX(W_,5633) = 2*DYNX(DYNhelp,236);
+DYNX(W_,5634) = DYNX(W_,5633)+0.002;
+DYNX(DYNhelp,237) = divinvGuarded(DYNX(W_,5634),"hydraulic.distribution.parStoBuf.pipeHC1.d_o");
+DYNX(DYNhelp,238) = floor(DYNX(DYNhelp,237)*DYNX(W_,5627)*DYNX(DP_,1240));
+DYNX(DYNhelp,239) = DYNX(W_,5626)*DYNX(DP_,1241);
+DYNX(DYNhelp,240) = atan(divGuarded(DYNX(W_,5634),"hydraulic.distribution.parStoBuf.pipeHC1.d_o",
DYNX(DYNhelp,239),"hydraulic.distribution.parStoBuf.d*hydraulic.distribution.parStoBuf.fDiaHC1"));
DYNX(DYNhelp,241) = sin(DYNX(DYNhelp,240));
DYNX(DYNhelp,242) = divinvGuarded(DYNX(DYNhelp,241),"sin(atan(hydraulic.distribution.parStoBuf.pipeHC1.d_o/(hydraulic.distribution.parStoBuf.d*hydraulic.distribution.parStoBuf.fDiaHC1)))");
-DYNX(W_,5670) = DYNX(DYNhelp,242)*DYNX(DYNhelp,238)*DYNX(W_,5674);
-DYNX(W_,5681) = 3.141592653589793*DYNX(W_,5670)*sqr(DYNX(W_,5673)/(double)(2));
-DYNX(W_,4928) = DYNX(W_,5681);
-DYNX(W_,5683) = 1.5707963267948966*DYNX(W_,5670)*(DYNX(W_,5673)+DYNX(W_,5674));
-DYNX(DYNhelp,243) = RealBmax(DYNX(DP_,1233), DYNX(DP_,1232));
-DYNX(DYNhelp,244) = DYNX(W_,5683)*DYNX(DYNhelp,243);
-DYNX(W_,5682) = divGuarded(DYNX(W_,5669),"hydraulic.distribution.parStoBuf.QHC1_flow_nominal",
+DYNX(W_,5630) = DYNX(DYNhelp,242)*DYNX(DYNhelp,238)*DYNX(W_,5634);
+DYNX(W_,5641) = 3.141592653589793*DYNX(W_,5630)*sqr(DYNX(W_,5633)/(double)(2));
+DYNX(W_,4888) = DYNX(W_,5641);
+DYNX(W_,5643) = 1.5707963267948966*DYNX(W_,5630)*(DYNX(W_,5633)+DYNX(W_,5634));
+DYNX(DYNhelp,243) = RealBmax(DYNX(DP_,1239), DYNX(DP_,1238));
+DYNX(DYNhelp,244) = DYNX(W_,5643)*DYNX(DYNhelp,243);
+DYNX(W_,5642) = divGuarded(DYNX(W_,5629),"hydraulic.distribution.parStoBuf.QHC1_flow_nominal",
DYNX(DYNhelp,244),"hydraulic.distribution.parStoBuf.A_HE*max(hydraulic.distribution.parStoBuf.dTLoadingHC1, hydraulic.distribution.parStoBuf.dTLoaMin)");
-DYNX(W_,4929) = DYNX(W_,5682);
-DYNX(W_,4930) = DYNX(W_,5683);
-DYNX(W_,4931) = DYNX(DP_,1245);
-DYNX(W_,4932) = DYNX(DP_,1246);
-DYNX(W_,4937) = DYNX(W_,4326);
-DYNX(W_,4938) = DYNX(W_,4326);
-DYNX(W_,4939) = DYNX(W_,4326);
-DYNX(W_,4940) = DYNX(W_,4326);
-DYNX(W_,4941) = DYNX(W_,4325);
-DYNX(W_,4946) = 0.7853981633974483*sqr(DYNX(W_,4922));
-DYNX(W_,4945) = DYNX(W_,4946)*DYNX(W_,4923);
-DYNX(DYNhelp,245) = divinvGuarded(DYNX(W_,4946),"hydraulic.distribution.stoBuf.A");
-DYNX(W_,4947) = DYNX(DYNhelp,245)*0.25*DYNX(W_,4945);
+DYNX(W_,4889) = DYNX(W_,5642);
+DYNX(W_,4890) = DYNX(W_,5643);
+DYNX(W_,4891) = DYNX(DP_,1251);
+DYNX(W_,4892) = DYNX(DP_,1252);
+DYNX(W_,4897) = DYNX(W_,4286);
+DYNX(W_,4898) = DYNX(W_,4286);
+DYNX(W_,4899) = DYNX(W_,4286);
+DYNX(W_,4900) = DYNX(W_,4286);
+DYNX(W_,4901) = DYNX(W_,4285);
+DYNX(W_,4906) = 0.7853981633974483*sqr(DYNX(W_,4882));
+DYNX(W_,4905) = DYNX(W_,4906)*DYNX(W_,4883);
+DYNX(DYNhelp,245) = divinvGuarded(DYNX(W_,4906),"hydraulic.distribution.stoBuf.A");
+DYNX(W_,4907) = DYNX(DYNhelp,245)*0.25*DYNX(W_,4905);
/* Introducing 12 common subexpressions used in 6 expressions */
/* Of the common subexpressions 12 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,246) = DYNX(W_,4926)*DYNX(W_,4922);
+DYNX(DYNhelp,246) = DYNX(W_,4886)*DYNX(W_,4882);
DYNX(DYNhelp,247) = 0.5*DYNX(DYNhelp,246);
DYNX(DYNhelp,248) = divinvGuarded(DYNX(DYNhelp,247),"0.5*(hydraulic.distribution.stoBuf.hConIn*hydraulic.distribution.stoBuf.d)");
-DYNX(DYNhelp,249) = DYNX(W_,4922)/(double)(2)+DYNX(W_,4925);
+DYNX(DYNhelp,249) = DYNX(W_,4882)/(double)(2)+DYNX(W_,4885);
DYNX(DYNhelp,250) = 2*DYNX(DYNhelp,249);
-DYNX(DYNhelp,251) = divinvGuarded(DYNX(W_,4922),"hydraulic.distribution.stoBuf.d");
+DYNX(DYNhelp,251) = divinvGuarded(DYNX(W_,4882),"hydraulic.distribution.stoBuf.d");
DYNX(DYNhelp,252) = DYNX(DYNhelp,251)*DYNX(DYNhelp,250);
DYNX(DYNhelp,253) = logGuarded(DYNX(DYNhelp,252),"2*(hydraulic.distribution.stoBuf.d/2+hydraulic.distribution.stoBuf.s_ins)/hydraulic.distribution.stoBuf.d");
-DYNX(DYNhelp,254) = divinvGuarded(DYNX(W_,4924),"hydraulic.distribution.stoBuf.lambda_ins");
-DYNX(DYNhelp,255) = DYNX(W_,4927)*DYNX(DYNhelp,249);
+DYNX(DYNhelp,254) = divinvGuarded(DYNX(W_,4884),"hydraulic.distribution.stoBuf.lambda_ins");
+DYNX(DYNhelp,255) = DYNX(W_,4887)*DYNX(DYNhelp,249);
DYNX(DYNhelp,256) = divinvGuarded(DYNX(DYNhelp,255),"hydraulic.distribution.stoBuf.hConOut*(hydraulic.distribution.stoBuf.d/2+hydraulic.distribution.stoBuf.s_ins)");
DYNX(DYNhelp,257) = DYNX(DYNhelp,248)+DYNX(DYNhelp,254)*DYNX(DYNhelp,253)+
DYNX(DYNhelp,256);
-DYNX(W_,4948) = divGuarded(1.5707963267948966*DYNX(W_,4923),"1.5707963267948966*hydraulic.distribution.stoBuf.h",
+DYNX(W_,4908) = divGuarded(1.5707963267948966*DYNX(W_,4883),"1.5707963267948966*hydraulic.distribution.stoBuf.h",
DYNX(DYNhelp,257),"1/(0.5*(hydraulic.distribution.stoBuf.hConIn*hydraulic.distribution.stoBuf.d))+log(2*(hydraulic.distribution.stoBuf.d/2+hydraulic.distribution.stoBuf.s_ins)/hydraulic.distribution.stoBuf.d)/hydraulic.distribution.stoBuf.lambda_ins+1/(hydraulic.distribution.stoBuf.hConOut*(hydraulic.distribution.stoBuf.d/2+hydraulic.distribution.stoBuf.s_ins))");
-DYNX(DYNhelp,258) = divinvGuarded(DYNX(W_,4925),"hydraulic.distribution.stoBuf.s_ins");
-DYNX(W_,4949) = DYNX(W_,4948)+DYNX(DYNhelp,258)*DYNX(W_,4924)*DYNX(W_,4946);
-DYNX(W_,4954) = DYNX(W_,4941);
-DYNX(W_,4955) = DYNX(W_,4937);
-DYNX(W_,4965) = 0.25*DYNX(W_,4945);
-DYNX(W_,4970) = DYNX(W_,4954);
-DYNX(W_,4971) = DYNX(W_,4955);
-DYNX(W_,4978) = DYNX(W_,4954);
-DYNX(W_,4979) = DYNX(W_,4955);
-DYNX(W_,4980) = DYNX(DP_,1209);
-DYNX(W_,4998) = DYNX(W_,4965);
-DYNX(W_,5006) = 4184*(DYNX(W_,4979)-273.15);
-DYNX(W_,5013) = DYNX(W_,4941);
-DYNX(W_,5014) = DYNX(W_,4938);
-DYNX(W_,5024) = 0.25*DYNX(W_,4945);
-DYNX(W_,5029) = DYNX(W_,5013);
-DYNX(W_,5030) = DYNX(W_,5014);
-DYNX(W_,5037) = DYNX(W_,5013);
-DYNX(W_,5038) = DYNX(W_,5014);
-DYNX(W_,5039) = DYNX(DP_,1210);
-DYNX(W_,5057) = DYNX(W_,5024);
-DYNX(W_,5065) = 4184*(DYNX(W_,5038)-273.15);
-DYNX(W_,5072) = DYNX(W_,4941);
-DYNX(W_,5073) = DYNX(W_,4939);
-DYNX(W_,5083) = 0.25*DYNX(W_,4945);
-DYNX(W_,5088) = DYNX(W_,5072);
-DYNX(W_,5089) = DYNX(W_,5073);
-DYNX(W_,5096) = DYNX(W_,5072);
-DYNX(W_,5097) = DYNX(W_,5073);
-DYNX(W_,5098) = DYNX(DP_,1211);
-DYNX(W_,5116) = DYNX(W_,5083);
-DYNX(W_,5124) = 4184*(DYNX(W_,5097)-273.15);
-DYNX(W_,5131) = DYNX(W_,4941);
-DYNX(W_,5132) = DYNX(W_,4940);
-DYNX(W_,5142) = 0.25*DYNX(W_,4945);
-DYNX(W_,5147) = DYNX(W_,5131);
-DYNX(W_,5148) = DYNX(W_,5132);
-DYNX(W_,5155) = DYNX(W_,5131);
-DYNX(W_,5156) = DYNX(W_,5132);
-DYNX(W_,5157) = DYNX(DP_,1212);
-DYNX(W_,5175) = DYNX(W_,5142);
-DYNX(W_,5183) = 4184*(DYNX(W_,5156)-273.15);
-DYNX(W_,5190) = DYNX(W_,4941);
-DYNX(W_,5191) = DYNX(W_,4937);
-DYNX(W_,5201) = 0.25*DYNX(W_,4928);
-DYNX(W_,5206) = DYNX(W_,5190);
-DYNX(W_,5207) = DYNX(W_,5191);
-DYNX(W_,5214) = DYNX(W_,5190);
-DYNX(W_,5215) = DYNX(W_,5191);
-DYNX(W_,5216) = DYNX(DP_,1213);
-DYNX(W_,5234) = DYNX(W_,5201);
-DYNX(W_,5242) = 4184*(DYNX(W_,5215)-273.15);
-DYNX(W_,5249) = DYNX(W_,4941);
-DYNX(W_,5250) = DYNX(W_,4938);
-DYNX(W_,5260) = 0.25*DYNX(W_,4928);
-DYNX(W_,5265) = DYNX(W_,5249);
-DYNX(W_,5266) = DYNX(W_,5250);
-DYNX(W_,5273) = DYNX(W_,5249);
-DYNX(W_,5274) = DYNX(W_,5250);
-DYNX(W_,5275) = DYNX(DP_,1214);
-DYNX(W_,5293) = DYNX(W_,5260);
-DYNX(W_,5301) = 4184*(DYNX(W_,5274)-273.15);
-DYNX(W_,5308) = DYNX(W_,4941);
-DYNX(W_,5309) = DYNX(W_,4939);
-DYNX(W_,5319) = 0.25*DYNX(W_,4928);
-DYNX(W_,5324) = DYNX(W_,5308);
-DYNX(W_,5325) = DYNX(W_,5309);
-DYNX(W_,5332) = DYNX(W_,5308);
-DYNX(W_,5333) = DYNX(W_,5309);
-DYNX(W_,5334) = DYNX(DP_,1215);
-DYNX(W_,5352) = DYNX(W_,5319);
-DYNX(W_,5360) = 4184*(DYNX(W_,5333)-273.15);
-DYNX(W_,5367) = DYNX(W_,4941);
-DYNX(W_,5368) = DYNX(W_,4940);
-DYNX(W_,5378) = 0.25*DYNX(W_,4928);
-DYNX(W_,5383) = DYNX(W_,5367);
-DYNX(W_,5384) = DYNX(W_,5368);
-DYNX(W_,5391) = DYNX(W_,5367);
-DYNX(W_,5392) = DYNX(W_,5368);
-DYNX(W_,5393) = DYNX(DP_,1216);
-DYNX(W_,5411) = DYNX(W_,5378);
-DYNX(W_,5419) = 4184*(DYNX(W_,5392)-273.15);
-DYNX(W_,5422) = 0.25*DYNX(W_,4929)*DYNX(W_,4930);
-DYNX(W_,5423) = 0.25*DYNX(W_,4929)*DYNX(W_,4930);
-DYNX(W_,5424) = 0.25*DYNX(W_,4929)*DYNX(W_,4930);
-DYNX(W_,5425) = 0.25*DYNX(W_,4929)*DYNX(W_,4930);
-DYNX(W_,5427) = DYNX(W_,4949);
-DYNX(W_,5429) = DYNX(W_,4948);
-DYNX(W_,5431) = DYNX(W_,4948);
-DYNX(W_,5433) = DYNX(W_,4949);
-DYNX(W_,5434) = DYNX(W_,4946);
-DYNX(W_,5435) = DYNX(W_,4931);
-DYNX(W_,5436) = DYNX(W_,4947);
-DYNX(W_,5437) = DYNX(W_,4932);
-DYNX(W_,5442) = DYNX(W_,4946);
-DYNX(W_,5443) = DYNX(W_,4931);
-DYNX(W_,5444) = DYNX(W_,4947);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(27);
-DYNX(W_,5445) = DYNX(W_,4932);
-DYNX(W_,5450) = DYNX(W_,4946);
-DYNX(W_,5451) = DYNX(W_,4931);
-DYNX(W_,5452) = DYNX(W_,4947);
-DYNX(W_,5453) = DYNX(W_,4932);
-DYNX(W_,5462) = DYNX(W_,4325);
-DYNX(W_,5463) = DYNX(W_,4326);
-DYNX(W_,5464) = DYNX(W_,4327);
-DYNX(W_,5465) = DYNX(W_,4328);
-DYNX(W_,5473) = DYNX(DP_,1266);
-DYNX(W_,5474) = DYNX(DP_,1267);
-DYNX(W_,5475) = DYNX(DP_,1268);
-DYNX(W_,5476) = DYNX(DP_,1269);
-DYNX(W_,5477) = DYNX(DP_,1270);
-DYNX(W_,5480) = DYNX(DP_,1271);
-DYNX(W_,5482) = DYNX(DP_,1272);
-DYNX(W_,5483) = DYNX(DP_,1273);
-DYNX(W_,5484) = DYNX(DP_,1274);
-DYNX(W_,5485) = DYNX(DP_,1275);
-DYNX(W_,5486) = DYNX(DP_,1276);
-DYNX(W_,5491) = DYNX(W_,5462);
-DYNX(W_,5492) = DYNX(W_,5463);
-DYNX(W_,5495) = DYNX(W_,5480);
-DYNX(W_,5577) = DYNX(W_,5473);
-DYNX(W_,5521) = DYNX(W_,5577);
-DYNX(DYNhelp,259) = fabs(DYNX(W_,5504));
-DYNX(W_,5513) = DYNX(W_,5521)*DYNX(DYNhelp,259);
-DYNX(W_,5569) = DYNX(W_,5482);
-DYNX(W_,5525) = DYNX(W_,5569);
-DYNX(W_,5585) = DYNX(W_,5476);
-DYNX(W_,5528) = DYNX(W_,5585);
-AssertModelica(DYNX(W_,5528) > 0,"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.l > 0",
+DYNX(DYNhelp,258) = divinvGuarded(DYNX(W_,4885),"hydraulic.distribution.stoBuf.s_ins");
+DYNX(W_,4909) = DYNX(W_,4908)+DYNX(DYNhelp,258)*DYNX(W_,4884)*DYNX(W_,4906);
+DYNX(W_,4914) = DYNX(W_,4901);
+DYNX(W_,4915) = DYNX(W_,4897);
+DYNX(W_,4925) = 0.25*DYNX(W_,4905);
+DYNX(W_,4930) = DYNX(W_,4914);
+DYNX(W_,4931) = DYNX(W_,4915);
+DYNX(W_,4938) = DYNX(W_,4914);
+DYNX(W_,4939) = DYNX(W_,4915);
+DYNX(W_,4940) = DYNX(DP_,1215);
+DYNX(W_,4958) = DYNX(W_,4925);
+DYNX(W_,4966) = 4184*(DYNX(W_,4939)-273.15);
+DYNX(W_,4973) = DYNX(W_,4901);
+DYNX(W_,4974) = DYNX(W_,4898);
+DYNX(W_,4984) = 0.25*DYNX(W_,4905);
+DYNX(W_,4989) = DYNX(W_,4973);
+DYNX(W_,4990) = DYNX(W_,4974);
+DYNX(W_,4997) = DYNX(W_,4973);
+DYNX(W_,4998) = DYNX(W_,4974);
+DYNX(W_,4999) = DYNX(DP_,1216);
+DYNX(W_,5017) = DYNX(W_,4984);
+DYNX(W_,5025) = 4184*(DYNX(W_,4998)-273.15);
+DYNX(W_,5032) = DYNX(W_,4901);
+DYNX(W_,5033) = DYNX(W_,4899);
+DYNX(W_,5043) = 0.25*DYNX(W_,4905);
+DYNX(W_,5048) = DYNX(W_,5032);
+DYNX(W_,5049) = DYNX(W_,5033);
+DYNX(W_,5056) = DYNX(W_,5032);
+DYNX(W_,5057) = DYNX(W_,5033);
+DYNX(W_,5058) = DYNX(DP_,1217);
+DYNX(W_,5076) = DYNX(W_,5043);
+DYNX(W_,5084) = 4184*(DYNX(W_,5057)-273.15);
+DYNX(W_,5091) = DYNX(W_,4901);
+DYNX(W_,5092) = DYNX(W_,4900);
+DYNX(W_,5102) = 0.25*DYNX(W_,4905);
+DYNX(W_,5107) = DYNX(W_,5091);
+DYNX(W_,5108) = DYNX(W_,5092);
+DYNX(W_,5115) = DYNX(W_,5091);
+DYNX(W_,5116) = DYNX(W_,5092);
+DYNX(W_,5117) = DYNX(DP_,1218);
+DYNX(W_,5135) = DYNX(W_,5102);
+DYNX(W_,5143) = 4184*(DYNX(W_,5116)-273.15);
+DYNX(W_,5150) = DYNX(W_,4901);
+DYNX(W_,5151) = DYNX(W_,4897);
+DYNX(W_,5161) = 0.25*DYNX(W_,4888);
+DYNX(W_,5166) = DYNX(W_,5150);
+DYNX(W_,5167) = DYNX(W_,5151);
+DYNX(W_,5174) = DYNX(W_,5150);
+DYNX(W_,5175) = DYNX(W_,5151);
+DYNX(W_,5176) = DYNX(DP_,1219);
+DYNX(W_,5194) = DYNX(W_,5161);
+DYNX(W_,5202) = 4184*(DYNX(W_,5175)-273.15);
+DYNX(W_,5209) = DYNX(W_,4901);
+DYNX(W_,5210) = DYNX(W_,4898);
+DYNX(W_,5220) = 0.25*DYNX(W_,4888);
+DYNX(W_,5225) = DYNX(W_,5209);
+DYNX(W_,5226) = DYNX(W_,5210);
+DYNX(W_,5233) = DYNX(W_,5209);
+DYNX(W_,5234) = DYNX(W_,5210);
+DYNX(W_,5235) = DYNX(DP_,1220);
+DYNX(W_,5253) = DYNX(W_,5220);
+DYNX(W_,5261) = 4184*(DYNX(W_,5234)-273.15);
+DYNX(W_,5268) = DYNX(W_,4901);
+DYNX(W_,5269) = DYNX(W_,4899);
+DYNX(W_,5279) = 0.25*DYNX(W_,4888);
+DYNX(W_,5284) = DYNX(W_,5268);
+DYNX(W_,5285) = DYNX(W_,5269);
+DYNX(W_,5292) = DYNX(W_,5268);
+DYNX(W_,5293) = DYNX(W_,5269);
+DYNX(W_,5294) = DYNX(DP_,1221);
+DYNX(W_,5312) = DYNX(W_,5279);
+DYNX(W_,5320) = 4184*(DYNX(W_,5293)-273.15);
+DYNX(W_,5327) = DYNX(W_,4901);
+DYNX(W_,5328) = DYNX(W_,4900);
+DYNX(W_,5338) = 0.25*DYNX(W_,4888);
+DYNX(W_,5343) = DYNX(W_,5327);
+DYNX(W_,5344) = DYNX(W_,5328);
+DYNX(W_,5351) = DYNX(W_,5327);
+DYNX(W_,5352) = DYNX(W_,5328);
+DYNX(W_,5353) = DYNX(DP_,1222);
+DYNX(W_,5371) = DYNX(W_,5338);
+DYNX(W_,5379) = 4184*(DYNX(W_,5352)-273.15);
+DYNX(W_,5382) = 0.25*DYNX(W_,4889)*DYNX(W_,4890);
+DYNX(W_,5383) = 0.25*DYNX(W_,4889)*DYNX(W_,4890);
+DYNX(W_,5384) = 0.25*DYNX(W_,4889)*DYNX(W_,4890);
+DYNX(W_,5385) = 0.25*DYNX(W_,4889)*DYNX(W_,4890);
+DYNX(W_,5387) = DYNX(W_,4909);
+DYNX(W_,5389) = DYNX(W_,4908);
+DYNX(W_,5391) = DYNX(W_,4908);
+DYNX(W_,5393) = DYNX(W_,4909);
+DYNX(W_,5394) = DYNX(W_,4906);
+DYNX(W_,5395) = DYNX(W_,4891);
+DYNX(W_,5396) = DYNX(W_,4907);
+DYNX(W_,5397) = DYNX(W_,4892);
+DYNX(W_,5402) = DYNX(W_,4906);
+DYNX(W_,5403) = DYNX(W_,4891);
+DYNX(W_,5404) = DYNX(W_,4907);
+DYNX(W_,5405) = DYNX(W_,4892);
+DYNX(W_,5410) = DYNX(W_,4906);
+DYNX(W_,5411) = DYNX(W_,4891);
+DYNX(W_,5412) = DYNX(W_,4907);
+DYNX(W_,5413) = DYNX(W_,4892);
+DYNX(W_,5422) = DYNX(W_,4285);
+DYNX(W_,5423) = DYNX(W_,4286);
+DYNX(W_,5424) = DYNX(W_,4287);
+DYNX(W_,5425) = DYNX(W_,4288);
+DYNX(W_,5433) = DYNX(DP_,1272);
+DYNX(W_,5434) = DYNX(DP_,1273);
+DYNX(W_,5435) = DYNX(DP_,1274);
+DYNX(W_,5436) = DYNX(DP_,1275);
+DYNX(W_,5437) = DYNX(DP_,1276);
+DYNX(W_,5440) = DYNX(DP_,1277);
+DYNX(W_,5442) = DYNX(DP_,1278);
+DYNX(W_,5443) = DYNX(DP_,1279);
+DYNX(W_,5444) = DYNX(DP_,1280);
+DYNX(W_,5445) = DYNX(DP_,1281);
+DYNX(W_,5446) = DYNX(DP_,1282);
+DYNX(W_,5451) = DYNX(W_,5422);
+DYNX(W_,5452) = DYNX(W_,5423);
+DYNX(W_,5455) = DYNX(W_,5440);
+DYNX(W_,5537) = DYNX(W_,5433);
+DYNX(W_,5481) = DYNX(W_,5537);
+DYNX(DYNhelp,259) = fabs(DYNX(W_,5464));
+DYNX(W_,5473) = DYNX(W_,5481)*DYNX(DYNhelp,259);
+DYNX(W_,5529) = DYNX(W_,5442);
+DYNX(W_,5485) = DYNX(W_,5529);
+DYNX(W_,5545) = DYNX(W_,5436);
+DYNX(W_,5488) = DYNX(W_,5545);
+AssertModelica(DYNX(W_,5488) > 0,"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.l > 0",
"Valve leakage parameter l must be bigger than zero.");
-DYNX(W_,5592) = DYNX(W_,5475);
-DYNX(W_,5530) = DYNX(W_,5592);
-AssertModelica(DYNX(W_,5528) < divinvGuarded(DYNX(W_,5530),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R"),
+DYNX(W_,5552) = DYNX(W_,5435);
+DYNX(W_,5490) = DYNX(W_,5552);
+AssertModelica(DYNX(W_,5488) < divinvGuarded(DYNX(W_,5490),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R"),
"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.l < 1/hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(
"Wrong parameters in valve model.\n Rangeability R = ",Real2String2(
- DYNX(W_,5530), true, 0)),"\n")," Leakage flow l = "),Real2String2(
- DYNX(W_,5528), true, 0)),"\n")," Must have l < 1/R = "),Real2String2(
- divinvGuarded(DYNX(W_,5530),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R"),
+ DYNX(W_,5490), true, 0)),"\n")," Leakage flow l = "),Real2String2(
+ DYNX(W_,5488), true, 0)),"\n")," Must have l < 1/R = "),Real2String2(
+ divinvGuarded(DYNX(W_,5490),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R"),
true, 0)));
-DYNX(W_,5593) = DYNX(W_,5474);
-DYNX(W_,5531) = DYNX(W_,5593);
-DYNX(W_,5558) = DYNX(W_,5577);
-DYNX(DYNhelp,260) = fabs(DYNX(W_,5541));
-DYNX(W_,5550) = DYNX(W_,5558)*DYNX(DYNhelp,260);
-DYNX(W_,5562) = DYNX(W_,5569);
-DYNX(W_,5586) = DYNX(W_,5477);
-DYNX(W_,5565) = DYNX(W_,5586);
-AssertModelica(DYNX(W_,5565) > 0,"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.l > 0",
+DYNX(W_,5553) = DYNX(W_,5434);
+DYNX(W_,5491) = DYNX(W_,5553);
+DYNX(W_,5518) = DYNX(W_,5537);
+DYNX(DYNhelp,260) = fabs(DYNX(W_,5501));
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(27);
+DYNX(W_,5510) = DYNX(W_,5518)*DYNX(DYNhelp,260);
+DYNX(W_,5522) = DYNX(W_,5529);
+DYNX(W_,5546) = DYNX(W_,5437);
+DYNX(W_,5525) = DYNX(W_,5546);
+AssertModelica(DYNX(W_,5525) > 0,"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.l > 0",
"Valve leakage parameter l must be bigger than zero.");
-DYNX(W_,5570) = DYNX(W_,5484);
-DYNX(W_,5571) = DYNX(W_,5485);
-DYNX(W_,5598) = DYNX(W_,5491);
-DYNX(W_,5599) = DYNX(W_,5492);
-DYNX(W_,5600) = DYNX(DP_,1217);
-DYNX(W_,5624) = DYNX(W_,5495);
-DYNX(DYNhelp,261) = divinvGuarded(DYNX(W_,5614),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.rho_default");
-DYNX(W_,5625) = DYNX(DYNhelp,261)*DYNX(W_,5606)*DYNX(W_,5624);
-DYNX(W_,5610) = DYNX(W_,5625);
-DYNX(W_,5615) = DYNX(W_,5598);
-DYNX(W_,5616) = DYNX(W_,5599);
-DYNX(W_,5630) = DYNX(W_,5598);
-DYNX(W_,5631) = DYNX(W_,5599);
-DYNX(W_,5632) = DYNX(W_,5600);
-DYNX(W_,5650) = DYNX(W_,5610);
-DYNX(W_,5658) = 4184*(DYNX(W_,5631)-273.15);
-DYNX(W_,5672) = divGuarded(DYNX(W_,5671),"hydraulic.distribution.parStoBuf.mHC1_flow_nominal",
- DYNX(W_,5661)*3.141592653589793*sqr(DYNX(W_,5673)/(double)(2)),
+DYNX(W_,5530) = DYNX(W_,5444);
+DYNX(W_,5531) = DYNX(W_,5445);
+DYNX(W_,5558) = DYNX(W_,5451);
+DYNX(W_,5559) = DYNX(W_,5452);
+DYNX(W_,5560) = DYNX(DP_,1223);
+DYNX(W_,5584) = DYNX(W_,5455);
+DYNX(DYNhelp,261) = divinvGuarded(DYNX(W_,5574),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.rho_default");
+DYNX(W_,5585) = DYNX(DYNhelp,261)*DYNX(W_,5566)*DYNX(W_,5584);
+DYNX(W_,5570) = DYNX(W_,5585);
+DYNX(W_,5575) = DYNX(W_,5558);
+DYNX(W_,5576) = DYNX(W_,5559);
+DYNX(W_,5590) = DYNX(W_,5558);
+DYNX(W_,5591) = DYNX(W_,5559);
+DYNX(W_,5592) = DYNX(W_,5560);
+DYNX(W_,5610) = DYNX(W_,5570);
+DYNX(W_,5618) = 4184*(DYNX(W_,5591)-273.15);
+DYNX(W_,5632) = divGuarded(DYNX(W_,5631),"hydraulic.distribution.parStoBuf.mHC1_flow_nominal",
+ DYNX(W_,5621)*3.141592653589793*sqr(DYNX(W_,5633)/(double)(2)),
"hydraulic.distribution.parStoBuf.rho*3.141592653589793*(hydraulic.distribution.parStoBuf.pipeHC1.d_i/2)^2");
DYNX(DYNhelp,262) = DYNX(DYNhelp,243)*2;
-DYNX(DYNhelp,263) = divinvGuarded(DYNX(W_,5669),"hydraulic.distribution.parStoBuf.QHC1_flow_nominal");
-DYNX(DYNhelp,264) = divinvGuarded(DYNX(W_,5673),"hydraulic.distribution.parStoBuf.pipeHC1.d_i");
-DYNX(DYNhelp,265) = logGuarded(DYNX(DYNhelp,264)*DYNX(W_,5674),"hydraulic.distribution.parStoBuf.pipeHC1.d_o/hydraulic.distribution.parStoBuf.pipeHC1.d_i");
-DYNX(DYNhelp,266) = divinvGuarded(DYNX(DP_,1237),"hydraulic.distribution.parStoBuf.pipeHC1.lambda");
+DYNX(DYNhelp,263) = divinvGuarded(DYNX(W_,5629),"hydraulic.distribution.parStoBuf.QHC1_flow_nominal");
+DYNX(DYNhelp,264) = divinvGuarded(DYNX(W_,5633),"hydraulic.distribution.parStoBuf.pipeHC1.d_i");
+DYNX(DYNhelp,265) = logGuarded(DYNX(DYNhelp,264)*DYNX(W_,5634),"hydraulic.distribution.parStoBuf.pipeHC1.d_o/hydraulic.distribution.parStoBuf.pipeHC1.d_i");
+DYNX(DYNhelp,266) = divinvGuarded(DYNX(DP_,1243),"hydraulic.distribution.parStoBuf.pipeHC1.lambda");
DYNX(DYNhelp,267) = DYNX(DYNhelp,263)*3.141592653589793*DYNX(DYNhelp,262)*
- DYNX(W_,5670)-DYNX(DYNhelp,266)*DYNX(DYNhelp,265);
-DYNX(W_,5675) = divGuarded(DYNX(DYNhelp,237)*2,"2/hydraulic.distribution.parStoBuf.pipeHC1.d_o",
+ DYNX(W_,5630)-DYNX(DYNhelp,266)*DYNX(DYNhelp,265);
+DYNX(W_,5635) = divGuarded(DYNX(DYNhelp,237)*2,"2/hydraulic.distribution.parStoBuf.pipeHC1.d_o",
DYNX(DYNhelp,267),"3.141592653589793*(max(hydraulic.distribution.parStoBuf.dTLoadingHC1, hydraulic.distribution.parStoBuf.dTLoaMin)*2*hydraulic.distribution.parStoBuf.lengthHC1)/hydraulic.distribution.parStoBuf.QHC1_flow_nominal-log(hydraulic.distribution.parStoBuf.pipeHC1.d_o/hydraulic.distribution.parStoBuf.pipeHC1.d_i)/hydraulic.distribution.parStoBuf.pipeHC1.lambda");
-DYNX(W_,5696) = divGuarded(DYNX(W_,5695),"hydraulic.distribution.parStoDHW.mHC1_flow_nominal",
- DYNX(W_,5684)*3.141592653589793*sqr(DYNX(W_,5697)/(double)(2)),
+DYNX(W_,5656) = divGuarded(DYNX(W_,5655),"hydraulic.distribution.parStoDHW.mHC1_flow_nominal",
+ DYNX(W_,5644)*3.141592653589793*sqr(DYNX(W_,5657)/(double)(2)),
"hydraulic.distribution.parStoDHW.rho*3.141592653589793*(hydraulic.distribution.parStoDHW.pipeHC1.d_i/2)^2");
DYNX(DYNhelp,268) = DYNX(DYNhelp,219)*2;
-DYNX(DYNhelp,269) = divinvGuarded(DYNX(W_,5693),"hydraulic.distribution.parStoDHW.QHC1_flow_nominal");
-DYNX(DYNhelp,270) = divinvGuarded(DYNX(W_,5697),"hydraulic.distribution.parStoDHW.pipeHC1.d_i");
-DYNX(DYNhelp,271) = logGuarded(DYNX(DYNhelp,270)*DYNX(W_,5698),"hydraulic.distribution.parStoDHW.pipeHC1.d_o/hydraulic.distribution.parStoDHW.pipeHC1.d_i");
-DYNX(DYNhelp,272) = divinvGuarded(DYNX(DP_,1254),"hydraulic.distribution.parStoDHW.pipeHC1.lambda");
+DYNX(DYNhelp,269) = divinvGuarded(DYNX(W_,5653),"hydraulic.distribution.parStoDHW.QHC1_flow_nominal");
+DYNX(DYNhelp,270) = divinvGuarded(DYNX(W_,5657),"hydraulic.distribution.parStoDHW.pipeHC1.d_i");
+DYNX(DYNhelp,271) = logGuarded(DYNX(DYNhelp,270)*DYNX(W_,5658),"hydraulic.distribution.parStoDHW.pipeHC1.d_o/hydraulic.distribution.parStoDHW.pipeHC1.d_i");
+DYNX(DYNhelp,272) = divinvGuarded(DYNX(DP_,1260),"hydraulic.distribution.parStoDHW.pipeHC1.lambda");
DYNX(DYNhelp,273) = DYNX(DYNhelp,269)*3.141592653589793*DYNX(DYNhelp,268)*
- DYNX(W_,5694)-DYNX(DYNhelp,272)*DYNX(DYNhelp,271);
-DYNX(W_,5699) = divGuarded(DYNX(DYNhelp,213)*2,"2/hydraulic.distribution.parStoDHW.pipeHC1.d_o",
+ DYNX(W_,5654)-DYNX(DYNhelp,272)*DYNX(DYNhelp,271);
+DYNX(W_,5659) = divGuarded(DYNX(DYNhelp,213)*2,"2/hydraulic.distribution.parStoDHW.pipeHC1.d_o",
DYNX(DYNhelp,273),"3.141592653589793*(max(hydraulic.distribution.parStoDHW.dTLoadingHC1, hydraulic.distribution.parStoDHW.dTLoaMin)*2*hydraulic.distribution.parStoDHW.lengthHC1)/hydraulic.distribution.parStoDHW.QHC1_flow_nominal-log(hydraulic.distribution.parStoDHW.pipeHC1.d_o/hydraulic.distribution.parStoDHW.pipeHC1.d_i)/hydraulic.distribution.parStoDHW.pipeHC1.lambda");
-DYNX(W_,5781) = DYNX(W_,4325);
-AssertModelica(DYNX(W_,5781) > 10000.0,"hydraulic.distribution.bouPumBuf.p_in_internal > 10000.0",
+DYNX(W_,5741) = DYNX(W_,4285);
+AssertModelica(DYNX(W_,5741) > 10000.0,"hydraulic.distribution.bouPumBuf.p_in_internal > 10000.0",
StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.bouPumBuf: The parameter value p=",
- Real2String2(DYNX(W_,5781), true, 0))," is low for water. This is likely an error."));
-DYNX(W_,5783) = DYNX(W_,4326);
-DYNX(W_,5790) = DYNX(DP_,842);
-DYNX(W_,5791) = DYNX(DP_,843);
-DYNX(W_,5792) = DYNX(DP_,844);
-DYNX(W_,5793) = DYNX(DP_,845);
-DYNX(W_,5850) = DYNX(W_,5790);
-DYNX(W_,5851) = DYNX(W_,5791);
-DYNX(W_,5857) = DYNX(DP_,1300);
-DYNX(W_,5863) = DYNX(DP_,1301);
-DYNX(W_,5930) = DYNX(W_,5850);
-DYNX(W_,5931) = DYNX(W_,5851);
-DYNX(W_,5948) = DYNX(W_,5930);
-DYNX(W_,5949) = DYNX(W_,5931);
-DYNX(W_,5956) = DYNX(W_,5930);
-DYNX(W_,5957) = DYNX(W_,5931);
-DYNX(W_,5985) = 4184*(DYNX(W_,5957)-273.15);
-DYNX(W_,5992) = DYNX(W_,5850);
-DYNX(W_,5993) = DYNX(W_,5851);
-DYNX(W_,6010) = DYNX(W_,5992);
-DYNX(W_,6011) = DYNX(W_,5993);
-DYNX(W_,6018) = DYNX(W_,5992);
-DYNX(W_,6019) = DYNX(W_,5993);
-DYNX(W_,6047) = 4184*(DYNX(W_,6019)-273.15);
-DYNX(W_,6054) = DYNX(W_,5850);
-DYNX(W_,6055) = DYNX(W_,5851);
-DYNX(W_,6072) = DYNX(W_,6054);
-DYNX(W_,6073) = DYNX(W_,6055);
-DYNX(W_,6080) = DYNX(W_,6054);
-DYNX(W_,6081) = DYNX(W_,6055);
-DYNX(W_,6109) = 4184*(DYNX(W_,6081)-273.15);
-DYNX(W_,6116) = DYNX(W_,5850);
-DYNX(W_,6117) = DYNX(W_,5851);
-DYNX(W_,6134) = DYNX(W_,6116);
-DYNX(W_,6135) = DYNX(W_,6117);
-DYNX(W_,6142) = DYNX(W_,6116);
-DYNX(W_,6143) = DYNX(W_,6117);
-DYNX(W_,6171) = 4184*(DYNX(W_,6143)-273.15);
-DYNX(W_,6178) = DYNX(W_,5850);
-DYNX(W_,6179) = DYNX(W_,5851);
-DYNX(W_,6196) = DYNX(W_,6178);
-DYNX(W_,6197) = DYNX(W_,6179);
-DYNX(W_,6204) = DYNX(W_,6178);
-DYNX(W_,6205) = DYNX(W_,6179);
-DYNX(W_,6233) = 4184*(DYNX(W_,6205)-273.15);
-DYNX(W_,6276) = DYNX(W_,5790);
-DYNX(W_,6277) = DYNX(W_,5791);
-DYNX(W_,6278) = DYNX(W_,5792);
+ Real2String2(DYNX(W_,5741), true, 0))," is low for water. This is likely an error."));
+DYNX(W_,5743) = DYNX(W_,4286);
+DYNX(W_,5750) = DYNX(DP_,842);
+DYNX(W_,5751) = DYNX(DP_,843);
+DYNX(W_,5752) = DYNX(DP_,844);
+DYNX(W_,5753) = DYNX(DP_,845);
+DYNX(W_,5810) = DYNX(W_,5750);
+DYNX(W_,5811) = DYNX(W_,5751);
+DYNX(W_,5817) = DYNX(DP_,1306);
+DYNX(W_,5823) = DYNX(DP_,1307);
+DYNX(W_,5890) = DYNX(W_,5810);
+DYNX(W_,5891) = DYNX(W_,5811);
+DYNX(W_,5908) = DYNX(W_,5890);
+DYNX(W_,5909) = DYNX(W_,5891);
+DYNX(W_,5916) = DYNX(W_,5890);
+DYNX(W_,5917) = DYNX(W_,5891);
+DYNX(W_,5945) = 4184*(DYNX(W_,5917)-273.15);
+DYNX(W_,5952) = DYNX(W_,5810);
+DYNX(W_,5953) = DYNX(W_,5811);
+DYNX(W_,5970) = DYNX(W_,5952);
+DYNX(W_,5971) = DYNX(W_,5953);
+DYNX(W_,5978) = DYNX(W_,5952);
+DYNX(W_,5979) = DYNX(W_,5953);
+DYNX(W_,6007) = 4184*(DYNX(W_,5979)-273.15);
+DYNX(W_,6014) = DYNX(W_,5810);
+DYNX(W_,6015) = DYNX(W_,5811);
+DYNX(W_,6032) = DYNX(W_,6014);
+DYNX(W_,6033) = DYNX(W_,6015);
+DYNX(W_,6040) = DYNX(W_,6014);
+DYNX(W_,6041) = DYNX(W_,6015);
+DYNX(W_,6069) = 4184*(DYNX(W_,6041)-273.15);
+DYNX(W_,6076) = DYNX(W_,5810);
+DYNX(W_,6077) = DYNX(W_,5811);
+DYNX(W_,6094) = DYNX(W_,6076);
+DYNX(W_,6095) = DYNX(W_,6077);
+DYNX(W_,6102) = DYNX(W_,6076);
+DYNX(W_,6103) = DYNX(W_,6077);
+DYNX(W_,6131) = 4184*(DYNX(W_,6103)-273.15);
+DYNX(W_,6138) = DYNX(W_,5810);
+DYNX(W_,6139) = DYNX(W_,5811);
+DYNX(W_,6156) = DYNX(W_,6138);
+DYNX(W_,6157) = DYNX(W_,6139);
+DYNX(W_,6164) = DYNX(W_,6138);
+DYNX(W_,6165) = DYNX(W_,6139);
+DYNX(W_,6193) = 4184*(DYNX(W_,6165)-273.15);
+DYNX(W_,6236) = DYNX(W_,5750);
+DYNX(W_,6237) = DYNX(W_,5751);
+DYNX(W_,6238) = DYNX(W_,5752);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,6290) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,6250) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nhydraulic.transfer.pumFixMFlo[1].per.pressure, \nhydraulic.transfer.pumFixMFlo[1].per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,6282), 1, 3), RealTemporaryDense(
- &DYNX(W_,6285), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(W_,6293), 1, 1), RealTemporaryDense( &DYNX(DP_,1310), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,6242), 1, 3), RealTemporaryDense(
+ &DYNX(W_,6245), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(W_,6253), 1, 1), RealTemporaryDense( &DYNX(DP_,1316), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(hydraulic.transfer.pumFixMFlo[1].per.V_flow_max/2, hydraulic.transfer.pumFixMFlo[1].per.dpMax/2, max(hydraulic.transfer.pumFixMFlo[1].per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,6288)/(double)(2),
- DYNX(W_,6289)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1305), 1, 1))));
- DYNX(W_,6297) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,6298) = dummy_DymStruc1.dp_0member;
- DYNX(W_,6299) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,6248)/(double)(2),
+ DYNX(W_,6249)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1311), 1, 1))));
+ DYNX(W_,6257) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,6258) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,6259) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,6294) = DYNX(W_,6297);
-DYNX(W_,6295) = DYNX(W_,6298);
-DYNX(W_,6296) = DYNX(W_,6299);
-DYNX(W_,6300) = IF DYNX(W_,6293) > 1E-15 THEN (IF DYNX(W_,6292) THEN 1.2*
- DYNX(W_,6293) ELSE DYNX(W_,6293)) ELSE IF DYNX(W_,6320) THEN (IF DYNX(W_,6292)
- THEN divGuarded(0.3*DYNX(W_,6288)*DYNX(W_,6289),"0.3*(hydraulic.transfer.pumFixMFlo[1].per.V_flow_max*hydraulic.transfer.pumFixMFlo[1].per.dpMax)",
- DYNX(W_,6296),"hydraulic.transfer.pumFixMFlo[1].per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,6288)*DYNX(W_,6289)) ELSE 0;
+DYNX(W_,6254) = DYNX(W_,6257);
+DYNX(W_,6255) = DYNX(W_,6258);
+DYNX(W_,6256) = DYNX(W_,6259);
+DYNX(W_,6260) = IF DYNX(W_,6253) > 1E-15 THEN (IF DYNX(W_,6252) THEN 1.2*
+ DYNX(W_,6253) ELSE DYNX(W_,6253)) ELSE IF DYNX(W_,6280) THEN (IF DYNX(W_,6252)
+ THEN divGuarded(0.3*DYNX(W_,6248)*DYNX(W_,6249),"0.3*(hydraulic.transfer.pumFixMFlo[1].per.V_flow_max*hydraulic.transfer.pumFixMFlo[1].per.dpMax)",
+ DYNX(W_,6256),"hydraulic.transfer.pumFixMFlo[1].per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,6248)*DYNX(W_,6249)) ELSE 0;
{
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(hydraulic.transfer.pumFixMFlo[1].per.WMot_nominal, hydraulic.transfer.pumFixMFlo[1].per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,6300), DYNX(DP_,1312)));
- RealAssign (RealTemporaryDense( &DYNX(W_,6310), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,6301), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,6260), DYNX(DP_,1318)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,6270), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,6261), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,6319) = DYNX(W_,6300) > 1E-15;
-DYNX(W_,6327) = DYNX(DP_,1321);
-DYNX(W_,6343) = DYNX(W_,6276);
-DYNX(W_,6344) = DYNX(W_,6277);
-DYNX(W_,6345) = 4184*(DYNX(W_,6344)-273.15);
-DYNX(W_,6350) = DYNX(W_,6276);
-DYNX(W_,6351) = DYNX(W_,6277);
-DYNX(W_,6352) = DYNX(W_,6278);
-DYNX(W_,6376) = DYNX(W_,6327);
-DYNX(DYNhelp,274) = divinvGuarded(DYNX(W_,6366),"hydraulic.transfer.pumFixMFlo[1].vol.rho_default");
-DYNX(W_,6377) = DYNX(DYNhelp,274)*DYNX(W_,6358)*DYNX(W_,6376);
-DYNX(W_,6362) = DYNX(W_,6377);
-DYNX(W_,6367) = DYNX(W_,6350);
-DYNX(W_,6368) = DYNX(W_,6351);
-DYNX(W_,6382) = DYNX(W_,6350);
-DYNX(W_,6383) = DYNX(W_,6351);
-DYNX(W_,6384) = DYNX(W_,6352);
-DYNX(W_,6402) = DYNX(W_,6362);
-DYNX(W_,6410) = 4184*(DYNX(W_,6383)-273.15);
-DYNX(W_,6438) = IF (DYNX(W_,6290) == 3 OR DYNX(W_,6290) == 4) AND NOT
- DYNX(W_,6320) THEN 1 ELSE DYNX(W_,6290);
-DYNX(W_,6439) = IF (DYNX(W_,6291) == 3 OR DYNX(W_,6291) == 4) AND ( NOT
- DYNX(W_,6319) AND NOT DYNX(W_,6320)) THEN 1 ELSE DYNX(W_,6291);
-DYNX(W_,6440) = DYNX(W_,6292);
-DYNX(W_,6441) = DYNX(DP_,1304);
-DYNX(W_,6442) = DYNX(DP_,1305);
-DYNX(W_,6443) = DYNX(DP_,1306);
-DYNX(W_,6444) = DYNX(DP_,1307);
-DYNX(W_,6445) = DYNX(DP_,1308);
-DYNX(W_,6446) = DYNX(DP_,1309);
-DYNX(W_,6447) = DYNX(DP_,1310);
-DYNX(W_,6448) = DYNX(W_,6293);
-DYNX(W_,6449) = DYNX(W_,6294);
-DYNX(W_,6450) = DYNX(W_,6295);
-DYNX(W_,6451) = DYNX(W_,6296);
+DYNX(W_,6279) = DYNX(W_,6260) > 1E-15;
+DYNX(W_,6287) = DYNX(DP_,1327);
+DYNX(W_,6303) = DYNX(W_,6236);
+DYNX(W_,6304) = DYNX(W_,6237);
+DYNX(W_,6305) = 4184*(DYNX(W_,6304)-273.15);
+DYNX(W_,6310) = DYNX(W_,6236);
+DYNX(W_,6311) = DYNX(W_,6237);
+DYNX(W_,6312) = DYNX(W_,6238);
+DYNX(W_,6336) = DYNX(W_,6287);
+DYNX(DYNhelp,274) = divinvGuarded(DYNX(W_,6326),"hydraulic.transfer.pumFixMFlo[1].vol.rho_default");
+DYNX(W_,6337) = DYNX(DYNhelp,274)*DYNX(W_,6318)*DYNX(W_,6336);
+DYNX(W_,6322) = DYNX(W_,6337);
+DYNX(W_,6327) = DYNX(W_,6310);
+DYNX(W_,6328) = DYNX(W_,6311);
+DYNX(W_,6342) = DYNX(W_,6310);
+DYNX(W_,6343) = DYNX(W_,6311);
+DYNX(W_,6344) = DYNX(W_,6312);
+DYNX(W_,6362) = DYNX(W_,6322);
+DYNX(W_,6370) = 4184*(DYNX(W_,6343)-273.15);
+DYNX(W_,6398) = IF (DYNX(W_,6250) == 3 OR DYNX(W_,6250) == 4) AND NOT
+ DYNX(W_,6280) THEN 1 ELSE DYNX(W_,6250);
+DYNX(W_,6399) = IF (DYNX(W_,6251) == 3 OR DYNX(W_,6251) == 4) AND ( NOT
+ DYNX(W_,6279) AND NOT DYNX(W_,6280)) THEN 1 ELSE DYNX(W_,6251);
+DYNX(W_,6400) = DYNX(W_,6252);
+DYNX(W_,6401) = DYNX(DP_,1310);
+DYNX(W_,6402) = DYNX(DP_,1311);
+DYNX(W_,6403) = DYNX(DP_,1312);
+DYNX(W_,6404) = DYNX(DP_,1313);
+DYNX(W_,6405) = DYNX(DP_,1314);
+DYNX(W_,6406) = DYNX(DP_,1315);
+DYNX(W_,6407) = DYNX(DP_,1316);
+DYNX(W_,6408) = DYNX(W_,6253);
+DYNX(W_,6409) = DYNX(W_,6254);
+DYNX(W_,6410) = DYNX(W_,6255);
+DYNX(W_,6411) = DYNX(W_,6256);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,6438) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,6398) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nhydraulic.transfer.pumFixMFlo[1].eff.per.pressure, \nhydraulic.transfer.pumFixMFlo[1].eff.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,6430), 1, 3), RealTemporaryDense(
- &DYNX(W_,6433), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(W_,6448), 1, 1), RealTemporaryDense( &DYNX(W_,6447), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,6390), 1, 3), RealTemporaryDense(
+ &DYNX(W_,6393), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(W_,6408), 1, 1), RealTemporaryDense( &DYNX(W_,6407), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(hydraulic.transfer.pumFixMFlo[1].eff.per.V_flow_max/2, hydraulic.transfer.pumFixMFlo[1].eff.per.dpMax/2, max(hydraulic.transfer.pumFixMFlo[1].eff.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,6436)/(double)(2),
- DYNX(W_,6437)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,6442), 1, 1))));
- DYNX(W_,6452) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,6453) = dummy_DymStruc1.dp_0member;
- DYNX(W_,6454) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,6396)/(double)(2),
+ DYNX(W_,6397)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,6402), 1, 1))));
+ DYNX(W_,6412) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,6413) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,6414) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,6455) = DYNX(DP_,1311);
-DYNX(W_,6456) = IF DYNX(W_,6448) > 1E-15 THEN (IF DYNX(W_,6440) THEN 1.2*
- DYNX(W_,6448) ELSE DYNX(W_,6448)) ELSE IF DYNX(W_,6479) THEN (IF DYNX(W_,6440)
- THEN divGuarded(0.3*DYNX(W_,6436)*DYNX(W_,6437),"0.3*(hydraulic.transfer.pumFixMFlo[1].eff.per.V_flow_max*hydraulic.transfer.pumFixMFlo[1].eff.per.dpMax)",
- DYNX(W_,6451),"hydraulic.transfer.pumFixMFlo[1].eff.per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,6436)*DYNX(W_,6437)) ELSE 0;
-AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,6448), 1, 1)) < 1E-06 OR
- DYNX(W_,6456) > Realmax( RealTemporaryDense( &DYNX(W_,6448), 1, 1))*0.99,
+DYNX(W_,6415) = DYNX(DP_,1317);
+DYNX(W_,6416) = IF DYNX(W_,6408) > 1E-15 THEN (IF DYNX(W_,6400) THEN 1.2*
+ DYNX(W_,6408) ELSE DYNX(W_,6408)) ELSE IF DYNX(W_,6439) THEN (IF DYNX(W_,6400)
+ THEN divGuarded(0.3*DYNX(W_,6396)*DYNX(W_,6397),"0.3*(hydraulic.transfer.pumFixMFlo[1].eff.per.V_flow_max*hydraulic.transfer.pumFixMFlo[1].eff.per.dpMax)",
+ DYNX(W_,6411),"hydraulic.transfer.pumFixMFlo[1].eff.per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,6396)*DYNX(W_,6397)) ELSE 0;
+AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,6408), 1, 1)) < 1E-06 OR
+ DYNX(W_,6416) > Realmax( RealTemporaryDense( &DYNX(W_,6408), 1, 1))*0.99,
"max(hydraulic.transfer.pumFixMFlo[1].eff.per.power.P) < 1E-06 or hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal > max(hydraulic.transfer.pumFixMFlo[1].eff.per.power.P)*0.99",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1].eff: The rated motor power provided in\n per.WMot_nominal is smaller than the maximum power provided in per.power.\n Use a larger value for per.WMot_nominal or leave it blank to allow the\n model to assume a default value.");
PopAllMarks();
@@ -12882,229 +12846,227 @@ PopAllMarks();
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal, hydraulic.transfer.pumFixMFlo[1].eff.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,6456), DYNX(DP_,1318)));
- RealAssign (RealTemporaryDense( &DYNX(W_,6466), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,6457), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,6416), DYNX(DP_,1324)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,6426), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,6417), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,6475) = DYNX(W_,6456) > 1E-15;
-AssertModelica( NOT ( NOT DYNX(W_,6475))," not ( not hydraulic.transfer.pumFixMFlo[1].eff.per.haveWMot_nominal)",
+DYNX(W_,6435) = DYNX(W_,6416) > 1E-15;
+AssertModelica( NOT ( NOT DYNX(W_,6435))," not ( not hydraulic.transfer.pumFixMFlo[1].eff.per.haveWMot_nominal)",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1].eff: etaMotMet is set to\n .Efficiency_MotorPartLoadRatio or .GenericCurve which requires\n the motor's rated power, but per.WMot_nominal is not assigned or\n cannot be estimated because no power curve is provided.");
-RealAssign (RealTemporaryDense( &DYNX(W_,6493), 1, 9), IF DYNX(W_,6439) == 4 OR
- DYNX(W_,6439) == 1 AND DYNX(W_,6475) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y, hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta, true)")
+RealAssign (RealTemporaryDense( &DYNX(W_,6453), 1, 9), IF DYNX(W_,6399) == 4 OR
+ DYNX(W_,6399) == 1 AND DYNX(W_,6435) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y, hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta, true)")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,6457), 1, 9), RealTemporaryDense( &DYNX(W_,6466), 1, 9), true)) ELSE
+ &DYNX(W_,6417), 1, 9), RealTemporaryDense( &DYNX(W_,6426), 1, 9), true)) ELSE
RealConvertInteger (IntegerFill( 0, 1, (SizeType)(9))));
PopAllMarks();
-DYNX(DYNhelp,275) = divinvGuarded(DYNX(W_,6485),"hydraulic.transfer.pumFixMFlo[1].eff.V_flow_max");
-DYNX(W_,6504) = DYNX(DYNhelp,275)*0.1*DYNX(W_,6502)*sqr(DYNX(W_,6503));
-DYNX(W_,6519) = IF DYNX(W_,6484) AND DYNX(W_,6613) THEN 0.0 ELSE IF
- DYNX(W_,6484) THEN DYNX(W_,6433)+DYNX(W_,6430)*DYNX(W_,6504) ELSE IF
- DYNX(W_,6613) THEN DYNX(W_,6434)+DYNX(W_,6431)*DYNX(W_,6504) ELSE 0.0;
-DYNX(W_,6520) = IF DYNX(W_,6484) AND DYNX(W_,6613) THEN 0.0 ELSE IF
- DYNX(W_,6484) THEN DYNX(W_,6434)+DYNX(W_,6431)*DYNX(W_,6504) ELSE IF
- DYNX(W_,6613) THEN DYNX(W_,6435)+DYNX(W_,6432)*DYNX(W_,6504) ELSE 0.0;
-RealAssign (RealTemporaryDense( &DYNX(W_,6545), 1, 1), IF DYNX(W_,6438) == 3
+DYNX(DYNhelp,275) = divinvGuarded(DYNX(W_,6445),"hydraulic.transfer.pumFixMFlo[1].eff.V_flow_max");
+DYNX(W_,6464) = DYNX(DYNhelp,275)*0.1*DYNX(W_,6462)*sqr(DYNX(W_,6463));
+DYNX(W_,6479) = IF DYNX(W_,6444) AND DYNX(W_,6573) THEN 0.0 ELSE IF
+ DYNX(W_,6444) THEN DYNX(W_,6393)+DYNX(W_,6390)*DYNX(W_,6464) ELSE IF
+ DYNX(W_,6573) THEN DYNX(W_,6394)+DYNX(W_,6391)*DYNX(W_,6464) ELSE 0.0;
+DYNX(W_,6480) = IF DYNX(W_,6444) AND DYNX(W_,6573) THEN 0.0 ELSE IF
+ DYNX(W_,6444) THEN DYNX(W_,6394)+DYNX(W_,6391)*DYNX(W_,6464) ELSE IF
+ DYNX(W_,6573) THEN DYNX(W_,6395)+DYNX(W_,6392)*DYNX(W_,6464) ELSE 0.0;
+RealAssign (RealTemporaryDense( &DYNX(W_,6505), 1, 1), IF DYNX(W_,6398) == 3
THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.transfer.pumFixMFlo[1].eff.per.power.V_flow, hydraulic.transfer.pumFixMFlo[1].eff.per.power.P, IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.transfer.pumFixMFlo[1].eff.per.power.P, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,6447), 1, 1), RealTemporaryDense( &DYNX(W_,6448), 1, 1), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,6448),
+ &DYNX(W_,6407), 1, 1), RealTemporaryDense( &DYNX(W_,6408), 1, 1), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,6408),
1, 1), false)))) ELSE RealConvertInteger (IntegerFill( 0, 1, (SizeType)(1))));
PopAllMarks();
{
struct DymStruc5 dummy_DymStruc5;
- dummy_DymStruc5 = IF DYNX(W_,6505) == 1 THEN (PushModelContext(1,
+ dummy_DymStruc5 = IF DYNX(W_,6465) == 1 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.transfer.pumFixMFlo[1].eff.per.peak, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,6449),
- DYNX(W_,6450), DYNX(W_,6451)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6507), 1, 3), RealTemporaryDense( &DYNX(W_,6510), 1, 3), (Integer)(
- DYNX(W_,6506))))) ELSE IF DYNX(W_,6505) == 2 THEN (PushModelContext(1,
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,6409),
+ DYNX(W_,6410), DYNX(W_,6411)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,6467), 1, 3), RealTemporaryDense( &DYNX(W_,6470), 1, 3), (Integer)(
+ DYNX(W_,6466))))) ELSE IF DYNX(W_,6465) == 2 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.transfer.pumFixMFlo[1].eff.per.peak, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,6449),
- DYNX(W_,6450), DYNX(W_,6451)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- DYNX(W_,6513))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.transfer.pumFixMFlo[1].eff.per.peak, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur3)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,6449),
- DYNX(W_,6450), DYNX(W_,6451)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6523), 1, 5), RealTemporaryDense( &DYNX(W_,6528), 1, 5), (Integer)(
- DYNX(W_,6522)))));
- RealAssign (RealTemporaryDense( &DYNX(W_,6557), 1, 11), dummy_DymStruc5.P_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,6546), 1, 11), dummy_DymStruc5.V_flow_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,6568), 1, 11), dummy_DymStruc5.d_0member);
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,6409),
+ DYNX(W_,6410), DYNX(W_,6411)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ DYNX(W_,6473))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nhydraulic.transfer.pumFixMFlo[1].eff.per.peak, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur3)")
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,6409),
+ DYNX(W_,6410), DYNX(W_,6411)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,6483), 1, 5), RealTemporaryDense( &DYNX(W_,6488), 1, 5), (Integer)(
+ DYNX(W_,6482)))));
+ RealAssign (RealTemporaryDense( &DYNX(W_,6517), 1, 11), dummy_DymStruc5.P_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,6506), 1, 11), dummy_DymStruc5.V_flow_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,6528), 1, 11), dummy_DymStruc5.d_0member);
PopAllMarks();
}
-DYNX(W_,6579) = DYNX(W_,6546);
-DYNX(W_,6580) = DYNX(W_,6547);
-DYNX(W_,6581) = DYNX(W_,6548);
-DYNX(W_,6582) = DYNX(W_,6549);
-DYNX(W_,6583) = DYNX(W_,6550);
-DYNX(W_,6584) = DYNX(W_,6551);
-DYNX(W_,6585) = DYNX(W_,6552);
-DYNX(W_,6586) = DYNX(W_,6553);
-DYNX(W_,6587) = DYNX(W_,6554);
-DYNX(W_,6588) = DYNX(W_,6555);
-DYNX(W_,6589) = DYNX(W_,6556);
-DYNX(W_,6590) = DYNX(W_,6557);
-DYNX(W_,6591) = DYNX(W_,6558);
-DYNX(W_,6592) = DYNX(W_,6559);
-DYNX(W_,6593) = DYNX(W_,6560);
-DYNX(W_,6594) = DYNX(W_,6561);
-DYNX(W_,6595) = DYNX(W_,6562);
-DYNX(W_,6596) = DYNX(W_,6563);
-DYNX(W_,6597) = DYNX(W_,6564);
-DYNX(W_,6598) = DYNX(W_,6565);
-DYNX(W_,6599) = DYNX(W_,6566);
-DYNX(W_,6600) = DYNX(W_,6567);
-DYNX(W_,6601) = DYNX(W_,6568);
-DYNX(W_,6602) = DYNX(W_,6569);
-DYNX(W_,6603) = DYNX(W_,6570);
-DYNX(W_,6604) = DYNX(W_,6571);
-DYNX(W_,6605) = DYNX(W_,6572);
-DYNX(W_,6606) = DYNX(W_,6573);
-DYNX(W_,6607) = DYNX(W_,6574);
-DYNX(W_,6608) = DYNX(W_,6575);
-DYNX(W_,6609) = DYNX(W_,6576);
-DYNX(W_,6610) = DYNX(W_,6577);
-DYNX(W_,6611) = DYNX(W_,6578);
-DYNX(DYNhelp,276) = DYNX(W_,6431)-DYNX(W_,6430);
-DYNX(DYNhelp,277) = -DYNX(W_,6504);
-DYNX(DYNhelp,278) = DYNX(W_,6432)-DYNX(W_,6431);
-DYNX(W_,6612) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[1])/(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[1]) < -hydraulic.transfer.pumFixMFlo[1].eff.kRes, (hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[3]-hydraulic.transfer....")
+DYNX(W_,6539) = DYNX(W_,6506);
+DYNX(W_,6540) = DYNX(W_,6507);
+DYNX(W_,6541) = DYNX(W_,6508);
+DYNX(W_,6542) = DYNX(W_,6509);
+DYNX(W_,6543) = DYNX(W_,6510);
+DYNX(W_,6544) = DYNX(W_,6511);
+DYNX(W_,6545) = DYNX(W_,6512);
+DYNX(W_,6546) = DYNX(W_,6513);
+DYNX(W_,6547) = DYNX(W_,6514);
+DYNX(W_,6548) = DYNX(W_,6515);
+DYNX(W_,6549) = DYNX(W_,6516);
+DYNX(W_,6550) = DYNX(W_,6517);
+DYNX(W_,6551) = DYNX(W_,6518);
+DYNX(W_,6552) = DYNX(W_,6519);
+DYNX(W_,6553) = DYNX(W_,6520);
+DYNX(W_,6554) = DYNX(W_,6521);
+DYNX(W_,6555) = DYNX(W_,6522);
+DYNX(W_,6556) = DYNX(W_,6523);
+DYNX(W_,6557) = DYNX(W_,6524);
+DYNX(W_,6558) = DYNX(W_,6525);
+DYNX(W_,6559) = DYNX(W_,6526);
+DYNX(W_,6560) = DYNX(W_,6527);
+DYNX(W_,6561) = DYNX(W_,6528);
+DYNX(W_,6562) = DYNX(W_,6529);
+DYNX(W_,6563) = DYNX(W_,6530);
+DYNX(W_,6564) = DYNX(W_,6531);
+DYNX(W_,6565) = DYNX(W_,6532);
+DYNX(W_,6566) = DYNX(W_,6533);
+DYNX(W_,6567) = DYNX(W_,6534);
+DYNX(W_,6568) = DYNX(W_,6535);
+DYNX(W_,6569) = DYNX(W_,6536);
+DYNX(W_,6570) = DYNX(W_,6537);
+DYNX(W_,6571) = DYNX(W_,6538);
+DYNX(DYNhelp,276) = DYNX(W_,6391)-DYNX(W_,6390);
+DYNX(DYNhelp,277) = -DYNX(W_,6464);
+DYNX(DYNhelp,278) = DYNX(W_,6392)-DYNX(W_,6391);
+DYNX(W_,6572) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[1])/(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[1]) < -hydraulic.transfer.pumFixMFlo[1].eff.kRes, (hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[3]-hydraulic.transfer....")
Modelica_Math_BooleanVectors_allTrue(IntegerScalarArray ( 2, (int )(divGuarded
- (DYNX(W_,6434)-DYNX(W_,6433),"hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[1]",
+ (DYNX(W_,6394)-DYNX(W_,6393),"hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[1]",
DYNX(DYNhelp,276),"hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[2]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[1]")
- < DYNX(DYNhelp,277)), (int )(divGuarded(DYNX(W_,6435)-DYNX(W_,6434),
+ < DYNX(DYNhelp,277)), (int )(divGuarded(DYNX(W_,6395)-DYNX(W_,6394),
"hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[3]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[2]",
DYNX(DYNhelp,278),"hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[3]-hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[2]")
< DYNX(DYNhelp,277)))));
PopAllMarks();
-DYNX(W_,6628) = (PushModelContext(1,"BESMod.Systems.Hydraulical.Transfer.Functions.GetAverageVolumeOfWater(hydraulic.transfer.parTra.Q_flow_nominal[1], hydraulic.transfer.parTra.traType)")
+DYNX(W_,6588) = (PushModelContext(1,"BESMod.Systems.Hydraulical.Transfer.Functions.GetAverageVolumeOfWater(hydraulic.transfer.parTra.Q_flow_nominal[1], hydraulic.transfer.parTra.traType)")
BESMod_Systems_Hydraulical_Transfer_Functions_GetAverageVolumeOfWater(
- DYNX(W_,6625), (Integer)(DYNX(DP_,1322))));
+ DYNX(W_,6585), (Integer)(DYNX(DP_,1328))));
PopModelContext();
-DYNX(W_,6662) = 1.1843079200592153E-05*DYNX(DP_,1329);
-DYNX(W_,6663) = 1006*(1-DYNX(DP_,1331))+1860*DYNX(DP_,1331);
-DYNX(W_,6677) = DYNX(DP_,1);
-DYNX(W_,6682) = DYNX(W_,6657);
-DYNX(W_,6683) = DYNX(DP_,1325);
-DYNX(W_,6684) = DYNX(DP_,1326);
-DYNX(W_,6685) = DYNX(DP_,1327);
-DYNX(W_,6686) = DYNX(DP_,1328);
-DYNX(W_,6691) = DYNX(W_,6662);
-DYNX(W_,6692) = DYNX(W_,6663);
-DYNX(W_,6697) = DYNX(DP_,1337);
-DYNX(W_,6701) = DYNX(DP_,1339)*DYNX(W_,6702)-DYNX(W_,6702);
-DYNX(W_,6710) = DYNX(DP_,1337);
-DYNX(W_,6797) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1341);
-DYNX(W_,6860) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1345);
-DYNX(W_,6871) = DYNX(DP_,1393);
-DYNX(W_,6888) = DYNX(W_,6682);
-DYNX(W_,6889) = DYNX(W_,6683);
+DYNX(W_,6622) = 1.1843079200592153E-05*DYNX(DP_,1335);
+DYNX(W_,6623) = 1006*(1-DYNX(DP_,1337))+1860*DYNX(DP_,1337);
+DYNX(W_,6637) = DYNX(DP_,1);
+DYNX(W_,6642) = DYNX(W_,6617);
+DYNX(W_,6643) = DYNX(DP_,1331);
+DYNX(W_,6644) = DYNX(DP_,1332);
+DYNX(W_,6645) = DYNX(DP_,1333);
+DYNX(W_,6646) = DYNX(DP_,1334);
+DYNX(W_,6651) = DYNX(W_,6622);
+DYNX(W_,6652) = DYNX(W_,6623);
+DYNX(W_,6657) = DYNX(DP_,1343);
+DYNX(W_,6661) = DYNX(DP_,1345)*DYNX(W_,6662)-DYNX(W_,6662);
+DYNX(W_,6670) = DYNX(DP_,1343);
+DYNX(W_,6757) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1347);
+DYNX(W_,6820) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1351);
+DYNX(W_,6831) = DYNX(DP_,1399);
+DYNX(W_,6848) = DYNX(W_,6642);
+DYNX(W_,6849) = DYNX(W_,6643);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,6901) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,6861) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nventilation.generation.fanFlow.per.pressure, \nventilation.generation.fanFlow.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,6893), 1, 3), RealTemporaryDense(
- &DYNX(W_,6896), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(DP_,1362), 1, 1), RealTemporaryDense( &DYNX(DP_,1361), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,6853), 1, 3), RealTemporaryDense(
+ &DYNX(W_,6856), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(DP_,1368), 1, 1), RealTemporaryDense( &DYNX(DP_,1367), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(ventilation.generation.fanFlow.per.V_flow_max/2, ventilation.generation.fanFlow.per.dpMax/2, max(ventilation.generation.fanFlow.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,6899)/(double)(2),
- DYNX(W_,6900)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1356), 1, 1))));
- DYNX(W_,6907) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,6908) = dummy_DymStruc1.dp_0member;
- DYNX(W_,6909) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,6859)/(double)(2),
+ DYNX(W_,6860)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1362), 1, 1))));
+ DYNX(W_,6867) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,6868) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,6869) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,6904) = DYNX(W_,6907);
-DYNX(W_,6905) = DYNX(W_,6908);
-DYNX(W_,6906) = DYNX(W_,6909);
-DYNX(W_,6910) = IF DYNX(DP_,1362) > 1E-15 THEN (IF DYNX(W_,6903) THEN 1.2*
- DYNX(DP_,1362) ELSE DYNX(DP_,1362)) ELSE IF DYNX(W_,6930) THEN (IF
- DYNX(W_,6903) THEN divGuarded(0.3*DYNX(W_,6899)*DYNX(W_,6900),"0.3*(ventilation.generation.fanFlow.per.V_flow_max*ventilation.generation.fanFlow.per.dpMax)",
- DYNX(W_,6906),"ventilation.generation.fanFlow.per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,6899)*DYNX(W_,6900)) ELSE 0;
+DYNX(W_,6864) = DYNX(W_,6867);
+DYNX(W_,6865) = DYNX(W_,6868);
+DYNX(W_,6866) = DYNX(W_,6869);
+DYNX(W_,6870) = IF DYNX(DP_,1368) > 1E-15 THEN (IF DYNX(W_,6863) THEN 1.2*
+ DYNX(DP_,1368) ELSE DYNX(DP_,1368)) ELSE IF DYNX(W_,6890) THEN (IF
+ DYNX(W_,6863) THEN divGuarded(0.3*DYNX(W_,6859)*DYNX(W_,6860),"0.3*(ventilation.generation.fanFlow.per.V_flow_max*ventilation.generation.fanFlow.per.dpMax)",
+ DYNX(W_,6866),"ventilation.generation.fanFlow.per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,6859)*DYNX(W_,6860)) ELSE 0;
{
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(ventilation.generation.fanFlow.per.WMot_nominal, ventilation.generation.fanFlow.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,6910), DYNX(DP_,1364)));
- RealAssign (RealTemporaryDense( &DYNX(W_,6920), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,6911), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,6870), DYNX(DP_,1370)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,6880), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,6871), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,6929) = DYNX(W_,6910) > 1E-15;
-DYNX(W_,6932) = DYNX(DP_,1366);
-DYNX(W_,6933) = DYNX(DP_,1367);
-DYNX(W_,6937) = DYNX(DP_,1444);
-DYNX(W_,6939) = DYNX(DP_,1443);
-DYNX(W_,6954) = DYNX(W_,6888);
-DYNX(W_,6955) = DYNX(W_,6889);
-DYNX(W_,6956) = DYNX(DP_,1353);
-DYNX(W_,6957) = DYNX(DP_,1354);
-DYNX(W_,6958) = 1006.0*(DYNX(W_,6955)-273.15)*(1-DYNX(W_,6956))+(2501014.5+1860*
- (DYNX(W_,6955)-273.15))*DYNX(W_,6956);
-DYNX(W_,6963) = DYNX(W_,6888);
-DYNX(W_,6964) = DYNX(W_,6889);
-DYNX(W_,6965) = DYNX(DP_,1353);
-DYNX(W_,6966) = DYNX(DP_,1354);
-DYNX(W_,6994) = DYNX(W_,6937);
-DYNX(DYNhelp,279) = divinvGuarded(DYNX(W_,6982),"ventilation.generation.fanFlow.vol.rho_default");
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(28);
-DYNX(W_,6995) = DYNX(DYNhelp,279)*DYNX(W_,6972)*DYNX(W_,6994);
-DYNX(W_,6976) = DYNX(W_,6995);
-DYNX(W_,6983) = DYNX(W_,6963);
-DYNX(W_,6977) = 1.1843079200592153E-05*DYNX(W_,6983);
-DYNX(W_,6984) = DYNX(W_,6964);
-DYNX(W_,6985) = DYNX(W_,6965);
-DYNX(W_,6986) = 1-DYNX(W_,6965);
-DYNX(W_,7000) = DYNX(W_,6963);
-DYNX(W_,7001) = DYNX(W_,6964);
-DYNX(W_,7002) = DYNX(W_,6965);
-DYNX(W_,7003) = DYNX(W_,6966);
-DYNX(W_,7014) = DYNX(W_,6976);
-DYNX(W_,7017) = 1.1843079200592153E-05*DYNX(W_,7000);
-DYNX(W_,7025) = 1006.0*(DYNX(W_,7001)-273.15)*(1-DYNX(W_,7002))+(2501014.5+1860*
- (DYNX(W_,7001)-273.15))*DYNX(W_,7002);
-DYNX(W_,7053) = DYNX(W_,6901);
-DYNX(W_,7054) = DYNX(W_,6902);
-DYNX(W_,7055) = DYNX(W_,6903);
-DYNX(W_,7056) = DYNX(DP_,1355);
-DYNX(W_,7057) = DYNX(DP_,1356);
-DYNX(W_,7058) = DYNX(DP_,1357);
-DYNX(W_,7059) = DYNX(DP_,1358);
-DYNX(W_,7060) = DYNX(DP_,1359);
-DYNX(W_,7061) = DYNX(DP_,1360);
-DYNX(W_,7062) = DYNX(DP_,1361);
-DYNX(W_,7063) = DYNX(DP_,1362);
-DYNX(W_,7064) = DYNX(W_,6904);
-DYNX(W_,7065) = DYNX(W_,6905);
-DYNX(W_,7066) = DYNX(W_,6906);
+DYNX(W_,6889) = DYNX(W_,6870) > 1E-15;
+DYNX(W_,6892) = DYNX(DP_,1372);
+DYNX(W_,6893) = DYNX(DP_,1373);
+DYNX(W_,6897) = DYNX(DP_,1450);
+DYNX(W_,6899) = DYNX(DP_,1449);
+DYNX(W_,6914) = DYNX(W_,6848);
+DYNX(W_,6915) = DYNX(W_,6849);
+DYNX(W_,6916) = DYNX(DP_,1359);
+DYNX(W_,6917) = DYNX(DP_,1360);
+DYNX(W_,6918) = 1006.0*(DYNX(W_,6915)-273.15)*(1-DYNX(W_,6916))+(2501014.5+1860*
+ (DYNX(W_,6915)-273.15))*DYNX(W_,6916);
+DYNX(W_,6923) = DYNX(W_,6848);
+DYNX(W_,6924) = DYNX(W_,6849);
+DYNX(W_,6925) = DYNX(DP_,1359);
+DYNX(W_,6926) = DYNX(DP_,1360);
+DYNX(W_,6954) = DYNX(W_,6897);
+DYNX(DYNhelp,279) = divinvGuarded(DYNX(W_,6942),"ventilation.generation.fanFlow.vol.rho_default");
+DYNX(W_,6955) = DYNX(DYNhelp,279)*DYNX(W_,6932)*DYNX(W_,6954);
+DYNX(W_,6936) = DYNX(W_,6955);
+DYNX(W_,6943) = DYNX(W_,6923);
+DYNX(W_,6937) = 1.1843079200592153E-05*DYNX(W_,6943);
+DYNX(W_,6944) = DYNX(W_,6924);
+DYNX(W_,6945) = DYNX(W_,6925);
+DYNX(W_,6946) = 1-DYNX(W_,6925);
+DYNX(W_,6960) = DYNX(W_,6923);
+DYNX(W_,6961) = DYNX(W_,6924);
+DYNX(W_,6962) = DYNX(W_,6925);
+DYNX(W_,6963) = DYNX(W_,6926);
+DYNX(W_,6974) = DYNX(W_,6936);
+DYNX(W_,6977) = 1.1843079200592153E-05*DYNX(W_,6960);
+DYNX(W_,6985) = 1006.0*(DYNX(W_,6961)-273.15)*(1-DYNX(W_,6962))+(2501014.5+1860*
+ (DYNX(W_,6961)-273.15))*DYNX(W_,6962);
+DYNX(W_,7013) = DYNX(W_,6861);
+DYNX(W_,7014) = DYNX(W_,6862);
+DYNX(W_,7015) = DYNX(W_,6863);
+DYNX(W_,7016) = DYNX(DP_,1361);
+DYNX(W_,7017) = DYNX(DP_,1362);
+DYNX(W_,7018) = DYNX(DP_,1363);
+DYNX(W_,7019) = DYNX(DP_,1364);
+DYNX(W_,7020) = DYNX(DP_,1365);
+DYNX(W_,7021) = DYNX(DP_,1366);
+DYNX(W_,7022) = DYNX(DP_,1367);
+DYNX(W_,7023) = DYNX(DP_,1368);
+DYNX(W_,7024) = DYNX(W_,6864);
+DYNX(W_,7025) = DYNX(W_,6865);
+DYNX(W_,7026) = DYNX(W_,6866);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,7053) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,7013) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nventilation.generation.fanFlow.eff.per.pressure, \nventilation.generation.fanFlow.eff.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,7045), 1, 3), RealTemporaryDense(
- &DYNX(W_,7048), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(W_,7063), 1, 1), RealTemporaryDense( &DYNX(W_,7062), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,7005), 1, 3), RealTemporaryDense(
+ &DYNX(W_,7008), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(W_,7023), 1, 1), RealTemporaryDense( &DYNX(W_,7022), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(ventilation.generation.fanFlow.eff.per.V_flow_max/2, ventilation.generation.fanFlow.eff.per.dpMax/2, max(ventilation.generation.fanFlow.eff.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,7051)/(double)(2),
- DYNX(W_,7052)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,7057), 1, 1))));
- DYNX(W_,7067) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,7068) = dummy_DymStruc1.dp_0member;
- DYNX(W_,7069) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,7011)/(double)(2),
+ DYNX(W_,7012)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,7017), 1, 1))));
+ DYNX(W_,7027) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,7028) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,7029) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,7070) = DYNX(DP_,1363);
-DYNX(W_,7071) = IF DYNX(W_,7063) > 1E-15 THEN (IF DYNX(W_,7055) THEN 1.2*
- DYNX(W_,7063) ELSE DYNX(W_,7063)) ELSE IF DYNX(W_,7094) THEN (IF DYNX(W_,7055)
- THEN divGuarded(0.3*DYNX(W_,7051)*DYNX(W_,7052),"0.3*(ventilation.generation.fanFlow.eff.per.V_flow_max*ventilation.generation.fanFlow.eff.per.dpMax)",
- DYNX(W_,7066),"ventilation.generation.fanFlow.eff.per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,7051)*DYNX(W_,7052)) ELSE 0;
-AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,7063), 1, 1)) < 1E-06 OR
- DYNX(W_,7071) > Realmax( RealTemporaryDense( &DYNX(W_,7063), 1, 1))*0.99,
+DYNX(W_,7030) = DYNX(DP_,1369);
+DYNX(W_,7031) = IF DYNX(W_,7023) > 1E-15 THEN (IF DYNX(W_,7015) THEN 1.2*
+ DYNX(W_,7023) ELSE DYNX(W_,7023)) ELSE IF DYNX(W_,7054) THEN (IF DYNX(W_,7015)
+ THEN divGuarded(0.3*DYNX(W_,7011)*DYNX(W_,7012),"0.3*(ventilation.generation.fanFlow.eff.per.V_flow_max*ventilation.generation.fanFlow.eff.per.dpMax)",
+ DYNX(W_,7026),"ventilation.generation.fanFlow.eff.per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,7011)*DYNX(W_,7012)) ELSE 0;
+AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,7023), 1, 1)) < 1E-06 OR
+ DYNX(W_,7031) > Realmax( RealTemporaryDense( &DYNX(W_,7023), 1, 1))*0.99,
"max(ventilation.generation.fanFlow.eff.per.power.P) < 1E-06 or ventilation.generation.fanFlow.eff.per.WMot_nominal > max(ventilation.generation.fanFlow.eff.per.power.P)*0.99",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow.eff: The rated motor power provided in\n per.WMot_nominal is smaller than the maximum power provided in per.power.\n Use a larger value for per.WMot_nominal or leave it blank to allow the\n model to assume a default value.");
PopAllMarks();
@@ -13112,215 +13074,217 @@ PopAllMarks();
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(ventilation.generation.fanFlow.eff.per.WMot_nominal, ventilation.generation.fanFlow.eff.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,7071), DYNX(DP_,1370)));
- RealAssign (RealTemporaryDense( &DYNX(W_,7081), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7072), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,7031), DYNX(DP_,1376)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,7041), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7032), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,7090) = DYNX(W_,7071) > 1E-15;
-AssertModelica( NOT ( NOT DYNX(W_,7090))," not ( not ventilation.generation.fanFlow.eff.per.haveWMot_nominal)",
+DYNX(W_,7050) = DYNX(W_,7031) > 1E-15;
+AssertModelica( NOT ( NOT DYNX(W_,7050))," not ( not ventilation.generation.fanFlow.eff.per.haveWMot_nominal)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow.eff: etaMotMet is set to\n .Efficiency_MotorPartLoadRatio or .GenericCurve which requires\n the motor's rated power, but per.WMot_nominal is not assigned or\n cannot be estimated because no power curve is provided.");
-RealAssign (RealTemporaryDense( &DYNX(W_,7107), 1, 9), IF DYNX(W_,7054) == 4 OR
- DYNX(W_,7054) == 1 AND DYNX(W_,7090) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y, ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta, true)")
+RealAssign (RealTemporaryDense( &DYNX(W_,7067), 1, 9), IF DYNX(W_,7014) == 4 OR
+ DYNX(W_,7014) == 1 AND DYNX(W_,7050) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y, ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta, true)")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,7072), 1, 9), RealTemporaryDense( &DYNX(W_,7081), 1, 9), true)) ELSE
+ &DYNX(W_,7032), 1, 9), RealTemporaryDense( &DYNX(W_,7041), 1, 9), true)) ELSE
RealConvertInteger (IntegerFill( 0, 1, (SizeType)(9))));
PopAllMarks();
-DYNX(DYNhelp,280) = divinvGuarded(DYNX(W_,7100),"ventilation.generation.fanFlow.eff.V_flow_max");
-DYNX(W_,7118) = DYNX(DYNhelp,280)*0.1*DYNX(W_,7116)*sqr(DYNX(W_,7117));
-DYNX(W_,7125) = IF DYNX(W_,7099) AND DYNX(W_,7227) THEN DYNX(W_,7049)+
- DYNX(W_,7046)*DYNX(W_,7118) ELSE 0.0;
-DYNX(W_,7126) = IF DYNX(W_,7099) AND DYNX(W_,7227) THEN DYNX(W_,7050)+
- DYNX(W_,7047)*DYNX(W_,7118) ELSE 0.0;
-RealAssign (RealTemporaryDense( &DYNX(W_,7159), 1, 1), IF DYNX(W_,7053) == 3
+DYNX(DYNhelp,280) = divinvGuarded(DYNX(W_,7060),"ventilation.generation.fanFlow.eff.V_flow_max");
+DYNX(W_,7078) = DYNX(DYNhelp,280)*0.1*DYNX(W_,7076)*sqr(DYNX(W_,7077));
+DYNX(W_,7085) = IF DYNX(W_,7059) AND DYNX(W_,7187) THEN DYNX(W_,7009)+
+ DYNX(W_,7006)*DYNX(W_,7078) ELSE 0.0;
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(28);
+DYNX(W_,7086) = IF DYNX(W_,7059) AND DYNX(W_,7187) THEN DYNX(W_,7010)+
+ DYNX(W_,7007)*DYNX(W_,7078) ELSE 0.0;
+RealAssign (RealTemporaryDense( &DYNX(W_,7119), 1, 1), IF DYNX(W_,7013) == 3
THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanFlow.eff.per.power.V_flow, ventilation.generation.fanFlow.eff.per.power.P, IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanFlow.eff.per.power.P, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,7062), 1, 1), RealTemporaryDense( &DYNX(W_,7063), 1, 1), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7063),
+ &DYNX(W_,7022), 1, 1), RealTemporaryDense( &DYNX(W_,7023), 1, 1), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7023),
1, 1), false)))) ELSE RealConvertInteger (IntegerFill( 0, 1, (SizeType)(1))));
PopAllMarks();
{
struct DymStruc5 dummy_DymStruc5;
- dummy_DymStruc5 = IF DYNX(W_,7119) == 1 THEN (PushModelContext(1,
+ dummy_DymStruc5 = IF DYNX(W_,7079) == 1 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanFlow.eff.per.peak, \nventilation.generation.fanFlow.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7064),
- DYNX(W_,7065), DYNX(W_,7066)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,7121), 1, 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(
- DYNX(W_,7120))))) ELSE IF DYNX(W_,7119) == 2 THEN (PushModelContext(1,
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7024),
+ DYNX(W_,7025), DYNX(W_,7026)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,7081), 1, 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(
+ DYNX(W_,7080))))) ELSE IF DYNX(W_,7079) == 2 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanFlow.eff.per.peak, \nventilation.generation.fanFlow.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7064),
- DYNX(W_,7065), DYNX(W_,7066)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,7128), 1, 4), RealTemporaryDense( &DYNX(W_,7132), 1, 4), (Integer)(
- DYNX(W_,7127))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanFlow.eff.per.peak, \nventilation.generation.fanFlow.eff.pCur3)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7064),
- DYNX(W_,7065), DYNX(W_,7066)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,7137), 1, 5), RealTemporaryDense( &DYNX(W_,7142), 1, 5), (Integer)(
- DYNX(W_,7136)))));
- RealAssign (RealTemporaryDense( &DYNX(W_,7171), 1, 11), dummy_DymStruc5.P_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7160), 1, 11), dummy_DymStruc5.V_flow_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7182), 1, 11), dummy_DymStruc5.d_0member);
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7024),
+ DYNX(W_,7025), DYNX(W_,7026)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,7088), 1, 4), RealTemporaryDense( &DYNX(W_,7092), 1, 4), (Integer)(
+ DYNX(W_,7087))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanFlow.eff.per.peak, \nventilation.generation.fanFlow.eff.pCur3)")
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7024),
+ DYNX(W_,7025), DYNX(W_,7026)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,7097), 1, 5), RealTemporaryDense( &DYNX(W_,7102), 1, 5), (Integer)(
+ DYNX(W_,7096)))));
+ RealAssign (RealTemporaryDense( &DYNX(W_,7131), 1, 11), dummy_DymStruc5.P_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7120), 1, 11), dummy_DymStruc5.V_flow_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7142), 1, 11), dummy_DymStruc5.d_0member);
PopAllMarks();
}
-DYNX(W_,7193) = DYNX(W_,7160);
-DYNX(W_,7194) = DYNX(W_,7161);
-DYNX(W_,7195) = DYNX(W_,7162);
-DYNX(W_,7196) = DYNX(W_,7163);
-DYNX(W_,7197) = DYNX(W_,7164);
-DYNX(W_,7198) = DYNX(W_,7165);
-DYNX(W_,7199) = DYNX(W_,7166);
-DYNX(W_,7200) = DYNX(W_,7167);
-DYNX(W_,7201) = DYNX(W_,7168);
-DYNX(W_,7202) = DYNX(W_,7169);
-DYNX(W_,7203) = DYNX(W_,7170);
-DYNX(W_,7204) = DYNX(W_,7171);
-DYNX(W_,7205) = DYNX(W_,7172);
-DYNX(W_,7206) = DYNX(W_,7173);
-DYNX(W_,7207) = DYNX(W_,7174);
-DYNX(W_,7208) = DYNX(W_,7175);
-DYNX(W_,7209) = DYNX(W_,7176);
-DYNX(W_,7210) = DYNX(W_,7177);
-DYNX(W_,7211) = DYNX(W_,7178);
-DYNX(W_,7212) = DYNX(W_,7179);
-DYNX(W_,7213) = DYNX(W_,7180);
-DYNX(W_,7214) = DYNX(W_,7181);
-DYNX(W_,7215) = DYNX(W_,7182);
-DYNX(W_,7216) = DYNX(W_,7183);
-DYNX(W_,7217) = DYNX(W_,7184);
-DYNX(W_,7218) = DYNX(W_,7185);
-DYNX(W_,7219) = DYNX(W_,7186);
-DYNX(W_,7220) = DYNX(W_,7187);
-DYNX(W_,7221) = DYNX(W_,7188);
-DYNX(W_,7222) = DYNX(W_,7189);
-DYNX(W_,7223) = DYNX(W_,7190);
-DYNX(W_,7224) = DYNX(W_,7191);
-DYNX(W_,7225) = DYNX(W_,7192);
-DYNX(DYNhelp,281) = DYNX(W_,7046)-DYNX(W_,7045);
-DYNX(DYNhelp,282) = -DYNX(W_,7118);
-DYNX(DYNhelp,283) = DYNX(W_,7047)-DYNX(W_,7046);
-DYNX(W_,7226) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(ventilation.generation.fanFlow.eff.per.pressure.dp[2]-ventilation.generation.fanFlow.eff.per.pressure.dp[1])/(ventilation.generation.fanFlow.eff.per.pressure.V_flow[2]-ventilation.generation.fanFlow.eff.per.pressure.V_flow[1]) < -ventilation.generation.fanFlow.eff.kRes, (ventilation.generation.fanFlow.eff.per.pressure.dp[3]-ventilation.generation.fanFlow....")
+DYNX(W_,7153) = DYNX(W_,7120);
+DYNX(W_,7154) = DYNX(W_,7121);
+DYNX(W_,7155) = DYNX(W_,7122);
+DYNX(W_,7156) = DYNX(W_,7123);
+DYNX(W_,7157) = DYNX(W_,7124);
+DYNX(W_,7158) = DYNX(W_,7125);
+DYNX(W_,7159) = DYNX(W_,7126);
+DYNX(W_,7160) = DYNX(W_,7127);
+DYNX(W_,7161) = DYNX(W_,7128);
+DYNX(W_,7162) = DYNX(W_,7129);
+DYNX(W_,7163) = DYNX(W_,7130);
+DYNX(W_,7164) = DYNX(W_,7131);
+DYNX(W_,7165) = DYNX(W_,7132);
+DYNX(W_,7166) = DYNX(W_,7133);
+DYNX(W_,7167) = DYNX(W_,7134);
+DYNX(W_,7168) = DYNX(W_,7135);
+DYNX(W_,7169) = DYNX(W_,7136);
+DYNX(W_,7170) = DYNX(W_,7137);
+DYNX(W_,7171) = DYNX(W_,7138);
+DYNX(W_,7172) = DYNX(W_,7139);
+DYNX(W_,7173) = DYNX(W_,7140);
+DYNX(W_,7174) = DYNX(W_,7141);
+DYNX(W_,7175) = DYNX(W_,7142);
+DYNX(W_,7176) = DYNX(W_,7143);
+DYNX(W_,7177) = DYNX(W_,7144);
+DYNX(W_,7178) = DYNX(W_,7145);
+DYNX(W_,7179) = DYNX(W_,7146);
+DYNX(W_,7180) = DYNX(W_,7147);
+DYNX(W_,7181) = DYNX(W_,7148);
+DYNX(W_,7182) = DYNX(W_,7149);
+DYNX(W_,7183) = DYNX(W_,7150);
+DYNX(W_,7184) = DYNX(W_,7151);
+DYNX(W_,7185) = DYNX(W_,7152);
+DYNX(DYNhelp,281) = DYNX(W_,7006)-DYNX(W_,7005);
+DYNX(DYNhelp,282) = -DYNX(W_,7078);
+DYNX(DYNhelp,283) = DYNX(W_,7007)-DYNX(W_,7006);
+DYNX(W_,7186) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(ventilation.generation.fanFlow.eff.per.pressure.dp[2]-ventilation.generation.fanFlow.eff.per.pressure.dp[1])/(ventilation.generation.fanFlow.eff.per.pressure.V_flow[2]-ventilation.generation.fanFlow.eff.per.pressure.V_flow[1]) < -ventilation.generation.fanFlow.eff.kRes, (ventilation.generation.fanFlow.eff.per.pressure.dp[3]-ventilation.generation.fanFlow....")
Modelica_Math_BooleanVectors_allTrue(IntegerScalarArray ( 2, (int )(divGuarded
- (DYNX(W_,7049)-DYNX(W_,7048),"ventilation.generation.fanFlow.eff.per.pressure.dp[2]-ventilation.generation.fanFlow.eff.per.pressure.dp[1]",
+ (DYNX(W_,7009)-DYNX(W_,7008),"ventilation.generation.fanFlow.eff.per.pressure.dp[2]-ventilation.generation.fanFlow.eff.per.pressure.dp[1]",
DYNX(DYNhelp,281),"ventilation.generation.fanFlow.eff.per.pressure.V_flow[2]-ventilation.generation.fanFlow.eff.per.pressure.V_flow[1]")
- < DYNX(DYNhelp,282)), (int )(divGuarded(DYNX(W_,7050)-DYNX(W_,7049),
+ < DYNX(DYNhelp,282)), (int )(divGuarded(DYNX(W_,7010)-DYNX(W_,7009),
"ventilation.generation.fanFlow.eff.per.pressure.dp[3]-ventilation.generation.fanFlow.eff.per.pressure.dp[2]",
DYNX(DYNhelp,283),"ventilation.generation.fanFlow.eff.per.pressure.V_flow[3]-ventilation.generation.fanFlow.eff.per.pressure.V_flow[2]")
< DYNX(DYNhelp,282)))));
PopAllMarks();
-DYNX(W_,7240) = DYNX(W_,6683);
-DYNX(W_,7242) = DYNX(DP_,1446);
-DYNX(W_,7243) = DYNX(DP_,1445);
-AssertModelica(DYNX(W_,7243) >= 1.0,"ventilation.generation.TExhIn.tauHeaTra >= 1.0",
+DYNX(W_,7200) = DYNX(W_,6643);
+DYNX(W_,7202) = DYNX(DP_,1452);
+DYNX(W_,7203) = DYNX(DP_,1451);
+AssertModelica(DYNX(W_,7203) >= 1.0,"ventilation.generation.TExhIn.tauHeaTra >= 1.0",
StringAdd("Value for variable, with exploited min/max bound, is: ",
- Real2String(DYNX(W_,7243), 1, 10)));
-DYNX(W_,7244) = IF DYNX(W_,7243) < 1E-10 THEN 0 ELSE divinvGuarded(DYNX(W_,7243),
+ Real2String(DYNX(W_,7203), 1, 10)));
+DYNX(W_,7204) = IF DYNX(W_,7203) < 1E-10 THEN 0 ELSE divinvGuarded(DYNX(W_,7203),
"ventilation.generation.TExhIn.tauHeaTra");
-DYNX(W_,7245) = IF DYNX(W_,7238) THEN divGuarded(DYNX(W_,7243),"ventilation.generation.TExhIn.tauHeaTra",
- DYNX(W_,7236),"ventilation.generation.TExhIn.tau") ELSE 1;
-DYNX(W_,7266) = DYNX(W_,6682);
-DYNX(W_,7267) = DYNX(W_,6683);
+DYNX(W_,7205) = IF DYNX(W_,7198) THEN divGuarded(DYNX(W_,7203),"ventilation.generation.TExhIn.tauHeaTra",
+ DYNX(W_,7196),"ventilation.generation.TExhIn.tau") ELSE 1;
+DYNX(W_,7226) = DYNX(W_,6642);
+DYNX(W_,7227) = DYNX(W_,6643);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,7279) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,7239) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nventilation.generation.fanRet.per.pressure, \nventilation.generation.fanRet.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,7271), 1, 3), RealTemporaryDense(
- &DYNX(W_,7274), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(DP_,1384), 1, 1), RealTemporaryDense( &DYNX(DP_,1383), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,7231), 1, 3), RealTemporaryDense(
+ &DYNX(W_,7234), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(DP_,1390), 1, 1), RealTemporaryDense( &DYNX(DP_,1389), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(ventilation.generation.fanRet.per.V_flow_max/2, ventilation.generation.fanRet.per.dpMax/2, max(ventilation.generation.fanRet.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,7277)/(double)(2),
- DYNX(W_,7278)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1378), 1, 1))));
- DYNX(W_,7285) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,7286) = dummy_DymStruc1.dp_0member;
- DYNX(W_,7287) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,7237)/(double)(2),
+ DYNX(W_,7238)/(double)(2), Realmax( RealTemporaryDense( &DYNX(DP_,1384), 1, 1))));
+ DYNX(W_,7245) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,7246) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,7247) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,7282) = DYNX(W_,7285);
-DYNX(W_,7283) = DYNX(W_,7286);
-DYNX(W_,7284) = DYNX(W_,7287);
-DYNX(W_,7288) = IF DYNX(DP_,1384) > 1E-15 THEN (IF DYNX(W_,7281) THEN 1.2*
- DYNX(DP_,1384) ELSE DYNX(DP_,1384)) ELSE IF DYNX(W_,7308) THEN (IF
- DYNX(W_,7281) THEN divGuarded(0.3*DYNX(W_,7277)*DYNX(W_,7278),"0.3*(ventilation.generation.fanRet.per.V_flow_max*ventilation.generation.fanRet.per.dpMax)",
- DYNX(W_,7284),"ventilation.generation.fanRet.per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,7277)*DYNX(W_,7278)) ELSE 0;
+DYNX(W_,7242) = DYNX(W_,7245);
+DYNX(W_,7243) = DYNX(W_,7246);
+DYNX(W_,7244) = DYNX(W_,7247);
+DYNX(W_,7248) = IF DYNX(DP_,1390) > 1E-15 THEN (IF DYNX(W_,7241) THEN 1.2*
+ DYNX(DP_,1390) ELSE DYNX(DP_,1390)) ELSE IF DYNX(W_,7268) THEN (IF
+ DYNX(W_,7241) THEN divGuarded(0.3*DYNX(W_,7237)*DYNX(W_,7238),"0.3*(ventilation.generation.fanRet.per.V_flow_max*ventilation.generation.fanRet.per.dpMax)",
+ DYNX(W_,7244),"ventilation.generation.fanRet.per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,7237)*DYNX(W_,7238)) ELSE 0;
{
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(ventilation.generation.fanRet.per.WMot_nominal, ventilation.generation.fanRet.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,7288), DYNX(DP_,1386)));
- RealAssign (RealTemporaryDense( &DYNX(W_,7298), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7289), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,7248), DYNX(DP_,1392)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,7258), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7249), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,7307) = DYNX(W_,7288) > 1E-15;
-DYNX(W_,7310) = DYNX(DP_,1388);
-DYNX(W_,7311) = DYNX(DP_,1389);
-DYNX(W_,7315) = DYNX(DP_,1444);
-DYNX(W_,7317) = DYNX(DP_,1443);
-DYNX(W_,7332) = DYNX(W_,7266);
-DYNX(W_,7333) = DYNX(W_,7267);
-DYNX(W_,7334) = DYNX(DP_,1375);
-DYNX(W_,7335) = DYNX(DP_,1376);
-DYNX(W_,7336) = 1006.0*(DYNX(W_,7333)-273.15)*(1-DYNX(W_,7334))+(2501014.5+1860*
- (DYNX(W_,7333)-273.15))*DYNX(W_,7334);
-DYNX(W_,7341) = DYNX(W_,7266);
-DYNX(W_,7342) = DYNX(W_,7267);
-DYNX(W_,7343) = DYNX(DP_,1375);
-DYNX(W_,7344) = DYNX(DP_,1376);
-DYNX(W_,7372) = DYNX(W_,7315);
-DYNX(DYNhelp,284) = divinvGuarded(DYNX(W_,7360),"ventilation.generation.fanRet.vol.rho_default");
-DYNX(W_,7373) = DYNX(DYNhelp,284)*DYNX(W_,7350)*DYNX(W_,7372);
-DYNX(W_,7354) = DYNX(W_,7373);
-DYNX(W_,7361) = DYNX(W_,7341);
-DYNX(W_,7355) = 1.1843079200592153E-05*DYNX(W_,7361);
-DYNX(W_,7362) = DYNX(W_,7342);
-DYNX(W_,7363) = DYNX(W_,7343);
-DYNX(W_,7364) = 1-DYNX(W_,7343);
-DYNX(W_,7378) = DYNX(W_,7341);
-DYNX(W_,7379) = DYNX(W_,7342);
-DYNX(W_,7380) = DYNX(W_,7343);
-DYNX(W_,7381) = DYNX(W_,7344);
-DYNX(W_,7392) = DYNX(W_,7354);
-DYNX(W_,7395) = 1.1843079200592153E-05*DYNX(W_,7378);
-DYNX(W_,7403) = 1006.0*(DYNX(W_,7379)-273.15)*(1-DYNX(W_,7380))+(2501014.5+1860*
- (DYNX(W_,7379)-273.15))*DYNX(W_,7380);
-DYNX(W_,7431) = DYNX(W_,7279);
-DYNX(W_,7432) = DYNX(W_,7280);
-DYNX(W_,7433) = DYNX(W_,7281);
-DYNX(W_,7434) = DYNX(DP_,1377);
-DYNX(W_,7435) = DYNX(DP_,1378);
-DYNX(W_,7436) = DYNX(DP_,1379);
-DYNX(W_,7437) = DYNX(DP_,1380);
-DYNX(W_,7438) = DYNX(DP_,1381);
-DYNX(W_,7439) = DYNX(DP_,1382);
-DYNX(W_,7440) = DYNX(DP_,1383);
-DYNX(W_,7441) = DYNX(DP_,1384);
-DYNX(W_,7442) = DYNX(W_,7282);
-DYNX(W_,7443) = DYNX(W_,7283);
-DYNX(W_,7444) = DYNX(W_,7284);
+DYNX(W_,7267) = DYNX(W_,7248) > 1E-15;
+DYNX(W_,7270) = DYNX(DP_,1394);
+DYNX(W_,7271) = DYNX(DP_,1395);
+DYNX(W_,7275) = DYNX(DP_,1450);
+DYNX(W_,7277) = DYNX(DP_,1449);
+DYNX(W_,7292) = DYNX(W_,7226);
+DYNX(W_,7293) = DYNX(W_,7227);
+DYNX(W_,7294) = DYNX(DP_,1381);
+DYNX(W_,7295) = DYNX(DP_,1382);
+DYNX(W_,7296) = 1006.0*(DYNX(W_,7293)-273.15)*(1-DYNX(W_,7294))+(2501014.5+1860*
+ (DYNX(W_,7293)-273.15))*DYNX(W_,7294);
+DYNX(W_,7301) = DYNX(W_,7226);
+DYNX(W_,7302) = DYNX(W_,7227);
+DYNX(W_,7303) = DYNX(DP_,1381);
+DYNX(W_,7304) = DYNX(DP_,1382);
+DYNX(W_,7332) = DYNX(W_,7275);
+DYNX(DYNhelp,284) = divinvGuarded(DYNX(W_,7320),"ventilation.generation.fanRet.vol.rho_default");
+DYNX(W_,7333) = DYNX(DYNhelp,284)*DYNX(W_,7310)*DYNX(W_,7332);
+DYNX(W_,7314) = DYNX(W_,7333);
+DYNX(W_,7321) = DYNX(W_,7301);
+DYNX(W_,7315) = 1.1843079200592153E-05*DYNX(W_,7321);
+DYNX(W_,7322) = DYNX(W_,7302);
+DYNX(W_,7323) = DYNX(W_,7303);
+DYNX(W_,7324) = 1-DYNX(W_,7303);
+DYNX(W_,7338) = DYNX(W_,7301);
+DYNX(W_,7339) = DYNX(W_,7302);
+DYNX(W_,7340) = DYNX(W_,7303);
+DYNX(W_,7341) = DYNX(W_,7304);
+DYNX(W_,7352) = DYNX(W_,7314);
+DYNX(W_,7355) = 1.1843079200592153E-05*DYNX(W_,7338);
+DYNX(W_,7363) = 1006.0*(DYNX(W_,7339)-273.15)*(1-DYNX(W_,7340))+(2501014.5+1860*
+ (DYNX(W_,7339)-273.15))*DYNX(W_,7340);
+DYNX(W_,7391) = DYNX(W_,7239);
+DYNX(W_,7392) = DYNX(W_,7240);
+DYNX(W_,7393) = DYNX(W_,7241);
+DYNX(W_,7394) = DYNX(DP_,1383);
+DYNX(W_,7395) = DYNX(DP_,1384);
+DYNX(W_,7396) = DYNX(DP_,1385);
+DYNX(W_,7397) = DYNX(DP_,1386);
+DYNX(W_,7398) = DYNX(DP_,1387);
+DYNX(W_,7399) = DYNX(DP_,1388);
+DYNX(W_,7400) = DYNX(DP_,1389);
+DYNX(W_,7401) = DYNX(DP_,1390);
+DYNX(W_,7402) = DYNX(W_,7242);
+DYNX(W_,7403) = DYNX(W_,7243);
+DYNX(W_,7404) = DYNX(W_,7244);
{
struct DymStruc1 dummy_DymStruc1;
- dummy_DymStruc1 = IF DYNX(W_,7431) == 4 THEN (PushModelContext(1,
+ dummy_DymStruc1 = IF DYNX(W_,7391) == 4 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.getPeak(\nventilation.generation.fanRet.eff.per.pressure, \nventilation.generation.fanRet.eff.per.power)")
IBPSA_Fluid_Movers_BaseClasses_Euler_getPeak(DymStruc2_construct(
- RealTemporaryDense( &DYNX(W_,7423), 1, 3), RealTemporaryDense(
- &DYNX(W_,7426), 1, 3)), DymStruc3_construct(RealTemporaryDense(
- &DYNX(W_,7441), 1, 1), RealTemporaryDense( &DYNX(W_,7440), 1, 1)))) ELSE
+ RealTemporaryDense( &DYNX(W_,7383), 1, 3), RealTemporaryDense(
+ &DYNX(W_,7386), 1, 3)), DymStruc3_construct(RealTemporaryDense(
+ &DYNX(W_,7401), 1, 1), RealTemporaryDense( &DYNX(W_,7400), 1, 1)))) ELSE
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.peak(ventilation.generation.fanRet.eff.per.V_flow_max/2, ventilation.generation.fanRet.eff.per.dpMax/2, max(ventilation.generation.fanRet.eff.per.efficiency.eta))")
- IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,7429)/(double)(2),
- DYNX(W_,7430)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,7435), 1, 1))));
- DYNX(W_,7445) = dummy_DymStruc1.V_flow_0member;
- DYNX(W_,7446) = dummy_DymStruc1.dp_0member;
- DYNX(W_,7447) = dummy_DymStruc1.eta_0member;
+ IBPSA_Fluid_Movers_BaseClasses_Euler_peak(DYNX(W_,7389)/(double)(2),
+ DYNX(W_,7390)/(double)(2), Realmax( RealTemporaryDense( &DYNX(W_,7395), 1, 1))));
+ DYNX(W_,7405) = dummy_DymStruc1.V_flow_0member;
+ DYNX(W_,7406) = dummy_DymStruc1.dp_0member;
+ DYNX(W_,7407) = dummy_DymStruc1.eta_0member;
PopAllMarks();
}
-DYNX(W_,7448) = DYNX(DP_,1385);
-DYNX(W_,7449) = IF DYNX(W_,7441) > 1E-15 THEN (IF DYNX(W_,7433) THEN 1.2*
- DYNX(W_,7441) ELSE DYNX(W_,7441)) ELSE IF DYNX(W_,7472) THEN (IF DYNX(W_,7433)
- THEN divGuarded(0.3*DYNX(W_,7429)*DYNX(W_,7430),"0.3*(ventilation.generation.fanRet.eff.per.V_flow_max*ventilation.generation.fanRet.eff.per.dpMax)",
- DYNX(W_,7444),"ventilation.generation.fanRet.eff.per.peak.eta") ELSE
- 0.42857142857142855*DYNX(W_,7429)*DYNX(W_,7430)) ELSE 0;
-AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,7441), 1, 1)) < 1E-06 OR
- DYNX(W_,7449) > Realmax( RealTemporaryDense( &DYNX(W_,7441), 1, 1))*0.99,
+DYNX(W_,7408) = DYNX(DP_,1391);
+DYNX(W_,7409) = IF DYNX(W_,7401) > 1E-15 THEN (IF DYNX(W_,7393) THEN 1.2*
+ DYNX(W_,7401) ELSE DYNX(W_,7401)) ELSE IF DYNX(W_,7432) THEN (IF DYNX(W_,7393)
+ THEN divGuarded(0.3*DYNX(W_,7389)*DYNX(W_,7390),"0.3*(ventilation.generation.fanRet.eff.per.V_flow_max*ventilation.generation.fanRet.eff.per.dpMax)",
+ DYNX(W_,7404),"ventilation.generation.fanRet.eff.per.peak.eta") ELSE
+ 0.42857142857142855*DYNX(W_,7389)*DYNX(W_,7390)) ELSE 0;
+AssertModelica(Realmax( RealTemporaryDense( &DYNX(W_,7401), 1, 1)) < 1E-06 OR
+ DYNX(W_,7409) > Realmax( RealTemporaryDense( &DYNX(W_,7401), 1, 1))*0.99,
"max(ventilation.generation.fanRet.eff.per.power.P) < 1E-06 or ventilation.generation.fanRet.eff.per.WMot_nominal > max(ventilation.generation.fanRet.eff.per.power.P)*0.99",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet.eff: The rated motor power provided in\n per.WMot_nominal is smaller than the maximum power provided in per.power.\n Use a larger value for per.WMot_nominal or leave it blank to allow the\n model to assume a default value.");
PopAllMarks();
@@ -13328,220 +13292,218 @@ PopAllMarks();
struct DymStruc4 dummy_DymStruc4;
dummy_DymStruc4 = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.motorEfficiencyCurve(ventilation.generation.fanRet.eff.per.WMot_nominal, ventilation.generation.fanRet.eff.per.etaMot_max)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_motorEfficiencyCurve(
- DYNX(W_,7449), DYNX(DP_,1392)));
- RealAssign (RealTemporaryDense( &DYNX(W_,7459), 1, 9), dummy_DymStruc4.eta_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7450), 1, 9), dummy_DymStruc4.y_0member);
+ DYNX(W_,7409), DYNX(DP_,1398)));
+ RealAssign (RealTemporaryDense( &DYNX(W_,7419), 1, 9), dummy_DymStruc4.eta_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7410), 1, 9), dummy_DymStruc4.y_0member);
PopAllMarks();
}
-DYNX(W_,7468) = DYNX(W_,7449) > 1E-15;
-AssertModelica( NOT ( NOT DYNX(W_,7468))," not ( not ventilation.generation.fanRet.eff.per.haveWMot_nominal)",
+DYNX(W_,7428) = DYNX(W_,7409) > 1E-15;
+AssertModelica( NOT ( NOT DYNX(W_,7428))," not ( not ventilation.generation.fanRet.eff.per.haveWMot_nominal)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet.eff: etaMotMet is set to\n .Efficiency_MotorPartLoadRatio or .GenericCurve which requires\n the motor's rated power, but per.WMot_nominal is not assigned or\n cannot be estimated because no power curve is provided.");
-RealAssign (RealTemporaryDense( &DYNX(W_,7485), 1, 9), IF DYNX(W_,7432) == 4 OR
- DYNX(W_,7432) == 1 AND DYNX(W_,7468) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y, ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta, true)")
+RealAssign (RealTemporaryDense( &DYNX(W_,7445), 1, 9), IF DYNX(W_,7392) == 4 OR
+ DYNX(W_,7392) == 1 AND DYNX(W_,7428) THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y, ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta, true)")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,7450), 1, 9), RealTemporaryDense( &DYNX(W_,7459), 1, 9), true)) ELSE
+ &DYNX(W_,7410), 1, 9), RealTemporaryDense( &DYNX(W_,7419), 1, 9), true)) ELSE
RealConvertInteger (IntegerFill( 0, 1, (SizeType)(9))));
PopAllMarks();
-DYNX(DYNhelp,285) = divinvGuarded(DYNX(W_,7478),"ventilation.generation.fanRet.eff.V_flow_max");
-DYNX(W_,7496) = DYNX(DYNhelp,285)*0.1*DYNX(W_,7494)*sqr(DYNX(W_,7495));
-DYNX(W_,7503) = IF DYNX(W_,7477) AND DYNX(W_,7605) THEN DYNX(W_,7427)+
- DYNX(W_,7424)*DYNX(W_,7496) ELSE 0.0;
-DYNX(W_,7504) = IF DYNX(W_,7477) AND DYNX(W_,7605) THEN DYNX(W_,7428)+
- DYNX(W_,7425)*DYNX(W_,7496) ELSE 0.0;
-RealAssign (RealTemporaryDense( &DYNX(W_,7537), 1, 1), IF DYNX(W_,7431) == 3
+DYNX(DYNhelp,285) = divinvGuarded(DYNX(W_,7438),"ventilation.generation.fanRet.eff.V_flow_max");
+DYNX(W_,7456) = DYNX(DYNhelp,285)*0.1*DYNX(W_,7454)*sqr(DYNX(W_,7455));
+DYNX(W_,7463) = IF DYNX(W_,7437) AND DYNX(W_,7565) THEN DYNX(W_,7387)+
+ DYNX(W_,7384)*DYNX(W_,7456) ELSE 0.0;
+DYNX(W_,7464) = IF DYNX(W_,7437) AND DYNX(W_,7565) THEN DYNX(W_,7388)+
+ DYNX(W_,7385)*DYNX(W_,7456) ELSE 0.0;
+RealAssign (RealTemporaryDense( &DYNX(W_,7497), 1, 1), IF DYNX(W_,7391) == 3
THEN (PushModelContext(1,"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanRet.eff.per.power.V_flow, ventilation.generation.fanRet.eff.per.power.P, IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanRet.eff.per.power.P, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,7440), 1, 1), RealTemporaryDense( &DYNX(W_,7441), 1, 1), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7441),
+ &DYNX(W_,7400), 1, 1), RealTemporaryDense( &DYNX(W_,7401), 1, 1), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7401),
1, 1), false)))) ELSE RealConvertInteger (IntegerFill( 0, 1, (SizeType)(1))));
PopAllMarks();
{
struct DymStruc5 dummy_DymStruc5;
- dummy_DymStruc5 = IF DYNX(W_,7497) == 1 THEN (PushModelContext(1,
+ dummy_DymStruc5 = IF DYNX(W_,7457) == 1 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanRet.eff.per.peak, \nventilation.generation.fanRet.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7442),
- DYNX(W_,7443), DYNX(W_,7444)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,7499), 1, 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(
- DYNX(W_,7498))))) ELSE IF DYNX(W_,7497) == 2 THEN (PushModelContext(1,
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7402),
+ DYNX(W_,7403), DYNX(W_,7404)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,7459), 1, 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(
+ DYNX(W_,7458))))) ELSE IF DYNX(W_,7457) == 2 THEN (PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanRet.eff.per.peak, \nventilation.generation.fanRet.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7442),
- DYNX(W_,7443), DYNX(W_,7444)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,7506), 1, 4), RealTemporaryDense( &DYNX(W_,7510), 1, 4), (Integer)(
- DYNX(W_,7505))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanRet.eff.per.peak, \nventilation.generation.fanRet.eff.pCur3)")
- IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7442),
- DYNX(W_,7443), DYNX(W_,7444)), DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,7515), 1, 5), RealTemporaryDense( &DYNX(W_,7520), 1, 5), (Integer)(
- DYNX(W_,7514)))));
- RealAssign (RealTemporaryDense( &DYNX(W_,7549), 1, 11), dummy_DymStruc5.P_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7538), 1, 11), dummy_DymStruc5.V_flow_0member);
- RealAssign (RealTemporaryDense( &DYNX(W_,7560), 1, 11), dummy_DymStruc5.d_0member);
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7402),
+ DYNX(W_,7403), DYNX(W_,7404)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,7466), 1, 4), RealTemporaryDense( &DYNX(W_,7470), 1, 4), (Integer)(
+ DYNX(W_,7465))))) ELSE (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Euler.power(\nventilation.generation.fanRet.eff.per.peak, \nventilation.generation.fanRet.eff.pCur3)")
+ IBPSA_Fluid_Movers_BaseClasses_Euler_power(DymStruc1_construct(DYNX(W_,7402),
+ DYNX(W_,7403), DYNX(W_,7404)), DymStruc6_construct(RealTemporaryDense(
+ &DYNX(W_,7475), 1, 5), RealTemporaryDense( &DYNX(W_,7480), 1, 5), (Integer)(
+ DYNX(W_,7474)))));
+ RealAssign (RealTemporaryDense( &DYNX(W_,7509), 1, 11), dummy_DymStruc5.P_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7498), 1, 11), dummy_DymStruc5.V_flow_0member);
+ RealAssign (RealTemporaryDense( &DYNX(W_,7520), 1, 11), dummy_DymStruc5.d_0member);
PopAllMarks();
}
-DYNX(W_,7571) = DYNX(W_,7538);
-DYNX(W_,7572) = DYNX(W_,7539);
-DYNX(W_,7573) = DYNX(W_,7540);
-DYNX(W_,7574) = DYNX(W_,7541);
-DYNX(W_,7575) = DYNX(W_,7542);
-DYNX(W_,7576) = DYNX(W_,7543);
-DYNX(W_,7577) = DYNX(W_,7544);
-DYNX(W_,7578) = DYNX(W_,7545);
-DYNX(W_,7579) = DYNX(W_,7546);
-DYNX(W_,7580) = DYNX(W_,7547);
-DYNX(W_,7581) = DYNX(W_,7548);
-DYNX(W_,7582) = DYNX(W_,7549);
-DYNX(W_,7583) = DYNX(W_,7550);
-DYNX(W_,7584) = DYNX(W_,7551);
-DYNX(W_,7585) = DYNX(W_,7552);
-DYNX(W_,7586) = DYNX(W_,7553);
-DYNX(W_,7587) = DYNX(W_,7554);
-DYNX(W_,7588) = DYNX(W_,7555);
-DYNX(W_,7589) = DYNX(W_,7556);
-DYNX(W_,7590) = DYNX(W_,7557);
-DYNX(W_,7591) = DYNX(W_,7558);
-DYNX(W_,7592) = DYNX(W_,7559);
-DYNX(W_,7593) = DYNX(W_,7560);
-DYNX(W_,7594) = DYNX(W_,7561);
-DYNX(W_,7595) = DYNX(W_,7562);
-DYNX(W_,7596) = DYNX(W_,7563);
-DYNX(W_,7597) = DYNX(W_,7564);
-DYNX(W_,7598) = DYNX(W_,7565);
-DYNX(W_,7599) = DYNX(W_,7566);
-DYNX(W_,7600) = DYNX(W_,7567);
-DYNX(W_,7601) = DYNX(W_,7568);
-DYNX(W_,7602) = DYNX(W_,7569);
-DYNX(W_,7603) = DYNX(W_,7570);
-DYNX(DYNhelp,286) = DYNX(W_,7424)-DYNX(W_,7423);
-DYNX(DYNhelp,287) = -DYNX(W_,7496);
-DYNX(DYNhelp,288) = DYNX(W_,7425)-DYNX(W_,7424);
-DYNX(W_,7604) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(ventilation.generation.fanRet.eff.per.pressure.dp[2]-ventilation.generation.fanRet.eff.per.pressure.dp[1])/(ventilation.generation.fanRet.eff.per.pressure.V_flow[2]-ventilation.generation.fanRet.eff.per.pressure.V_flow[1]) < -ventilation.generation.fanRet.eff.kRes, (ventilation.generation.fanRet.eff.per.pressure.dp[3]-ventilation.generation.fanRet.eff.per...")
+DYNX(W_,7531) = DYNX(W_,7498);
+DYNX(W_,7532) = DYNX(W_,7499);
+DYNX(W_,7533) = DYNX(W_,7500);
+DYNX(W_,7534) = DYNX(W_,7501);
+DYNX(W_,7535) = DYNX(W_,7502);
+DYNX(W_,7536) = DYNX(W_,7503);
+DYNX(W_,7537) = DYNX(W_,7504);
+DYNX(W_,7538) = DYNX(W_,7505);
+DYNX(W_,7539) = DYNX(W_,7506);
+DYNX(W_,7540) = DYNX(W_,7507);
+DYNX(W_,7541) = DYNX(W_,7508);
+DYNX(W_,7542) = DYNX(W_,7509);
+DYNX(W_,7543) = DYNX(W_,7510);
+DYNX(W_,7544) = DYNX(W_,7511);
+DYNX(W_,7545) = DYNX(W_,7512);
+DYNX(W_,7546) = DYNX(W_,7513);
+DYNX(W_,7547) = DYNX(W_,7514);
+DYNX(W_,7548) = DYNX(W_,7515);
+DYNX(W_,7549) = DYNX(W_,7516);
+DYNX(W_,7550) = DYNX(W_,7517);
+DYNX(W_,7551) = DYNX(W_,7518);
+DYNX(W_,7552) = DYNX(W_,7519);
+DYNX(W_,7553) = DYNX(W_,7520);
+DYNX(W_,7554) = DYNX(W_,7521);
+DYNX(W_,7555) = DYNX(W_,7522);
+DYNX(W_,7556) = DYNX(W_,7523);
+DYNX(W_,7557) = DYNX(W_,7524);
+DYNX(W_,7558) = DYNX(W_,7525);
+DYNX(W_,7559) = DYNX(W_,7526);
+DYNX(W_,7560) = DYNX(W_,7527);
+DYNX(W_,7561) = DYNX(W_,7528);
+DYNX(W_,7562) = DYNX(W_,7529);
+DYNX(W_,7563) = DYNX(W_,7530);
+DYNX(DYNhelp,286) = DYNX(W_,7384)-DYNX(W_,7383);
+DYNX(DYNhelp,287) = -DYNX(W_,7456);
+DYNX(DYNhelp,288) = DYNX(W_,7385)-DYNX(W_,7384);
+DYNX(W_,7564) = (PushModelContext(1,"Modelica.Math.BooleanVectors.allTrue({(ventilation.generation.fanRet.eff.per.pressure.dp[2]-ventilation.generation.fanRet.eff.per.pressure.dp[1])/(ventilation.generation.fanRet.eff.per.pressure.V_flow[2]-ventilation.generation.fanRet.eff.per.pressure.V_flow[1]) < -ventilation.generation.fanRet.eff.kRes, (ventilation.generation.fanRet.eff.per.pressure.dp[3]-ventilation.generation.fanRet.eff.per...")
Modelica_Math_BooleanVectors_allTrue(IntegerScalarArray ( 2, (int )(divGuarded
- (DYNX(W_,7427)-DYNX(W_,7426),"ventilation.generation.fanRet.eff.per.pressure.dp[2]-ventilation.generation.fanRet.eff.per.pressure.dp[1]",
+ (DYNX(W_,7387)-DYNX(W_,7386),"ventilation.generation.fanRet.eff.per.pressure.dp[2]-ventilation.generation.fanRet.eff.per.pressure.dp[1]",
DYNX(DYNhelp,286),"ventilation.generation.fanRet.eff.per.pressure.V_flow[2]-ventilation.generation.fanRet.eff.per.pressure.V_flow[1]")
- < DYNX(DYNhelp,287)), (int )(divGuarded(DYNX(W_,7428)-DYNX(W_,7427),
+ < DYNX(DYNhelp,287)), (int )(divGuarded(DYNX(W_,7388)-DYNX(W_,7387),
"ventilation.generation.fanRet.eff.per.pressure.dp[3]-ventilation.generation.fanRet.eff.per.pressure.dp[2]",
DYNX(DYNhelp,288),"ventilation.generation.fanRet.eff.per.pressure.V_flow[3]-ventilation.generation.fanRet.eff.per.pressure.V_flow[2]")
< DYNX(DYNhelp,287)))));
PopAllMarks();
-DYNX(W_,7619) = DYNX(W_,6683);
-DYNX(W_,7621) = DYNX(DP_,1446);
-DYNX(W_,7622) = DYNX(DP_,1445);
-AssertModelica(DYNX(W_,7622) >= 1.0,"ventilation.generation.TSup.tauHeaTra >= 1.0",
+DYNX(W_,7579) = DYNX(W_,6643);
+DYNX(W_,7581) = DYNX(DP_,1452);
+DYNX(W_,7582) = DYNX(DP_,1451);
+AssertModelica(DYNX(W_,7582) >= 1.0,"ventilation.generation.TSup.tauHeaTra >= 1.0",
StringAdd("Value for variable, with exploited min/max bound, is: ",
- Real2String(DYNX(W_,7622), 1, 10)));
-DYNX(W_,7623) = IF DYNX(W_,7622) < 1E-10 THEN 0 ELSE divinvGuarded(DYNX(W_,7622),
+ Real2String(DYNX(W_,7582), 1, 10)));
+DYNX(W_,7583) = IF DYNX(W_,7582) < 1E-10 THEN 0 ELSE divinvGuarded(DYNX(W_,7582),
"ventilation.generation.TSup.tauHeaTra");
-DYNX(W_,7624) = IF DYNX(W_,7617) THEN divGuarded(DYNX(W_,7622),"ventilation.generation.TSup.tauHeaTra",
- DYNX(W_,7615),"ventilation.generation.TSup.tau") ELSE 1;
-DYNX(W_,7629) = DYNX(W_,6682);
-DYNX(W_,7630) = DYNX(W_,6683);
-DYNX(W_,7634) = DYNX(DP_,1438);
-DYNX(W_,7724) = DYNX(DP_,1432);
-DYNX(W_,7661) = DYNX(W_,7724);
-DYNX(W_,7653) = 0.1088888888888889*DYNX(W_,7661);
-DYNX(W_,7654) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1397);
-DYNX(W_,7716) = DYNX(DP_,1439);
-DYNX(W_,7665) = DYNX(W_,7716);
-DYNX(W_,7668) = DYNX(DP_,1411);
-AssertModelica(DYNX(W_,7668) > 0,"ventilation.generation.threeWayValve_b.res1.l > 0",
+DYNX(W_,7584) = IF DYNX(W_,7577) THEN divGuarded(DYNX(W_,7582),"ventilation.generation.TSup.tauHeaTra",
+ DYNX(W_,7575),"ventilation.generation.TSup.tau") ELSE 1;
+DYNX(W_,7589) = DYNX(W_,6642);
+DYNX(W_,7590) = DYNX(W_,6643);
+DYNX(W_,7594) = DYNX(DP_,1444);
+DYNX(W_,7684) = DYNX(DP_,1438);
+DYNX(W_,7621) = DYNX(W_,7684);
+DYNX(W_,7613) = 0.1088888888888889*DYNX(W_,7621);
+DYNX(W_,7614) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1403);
+DYNX(W_,7676) = DYNX(DP_,1445);
+DYNX(W_,7625) = DYNX(W_,7676);
+DYNX(W_,7628) = DYNX(DP_,1417);
+AssertModelica(DYNX(W_,7628) > 0,"ventilation.generation.threeWayValve_b.res1.l > 0",
"Valve leakage parameter l must be bigger than zero.");
-DYNX(W_,7731) = DYNX(DP_,1437);
-DYNX(W_,7703) = divGuarded(DYNX(W_,7726),"ventilation.generation.threeWayValve_b.dpValve_nominal",
- sqr(DYNX(W_,7731)),"ventilation.generation.threeWayValve_b.fraK^2");
-DYNX(W_,7692) = DYNX(W_,7703)+DYNX(W_,7709);
-DYNX(W_,7702) = DYNX(W_,7724);
-DYNX(W_,7694) = 0.1088888888888889*DYNX(W_,7702);
-DYNX(W_,7695) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1404);
-DYNX(W_,7697) = fabs(DYNX(W_,7692));
-DYNX(W_,7706) = DYNX(W_,7716);
-DYNX(W_,7710) = DYNX(DP_,1412);
-AssertModelica(DYNX(W_,7710) > 0,"ventilation.generation.threeWayValve_b.res3.l > 0",
+DYNX(W_,7691) = DYNX(DP_,1443);
+DYNX(W_,7663) = divGuarded(DYNX(W_,7686),"ventilation.generation.threeWayValve_b.dpValve_nominal",
+ sqr(DYNX(W_,7691)),"ventilation.generation.threeWayValve_b.fraK^2");
+DYNX(W_,7652) = DYNX(W_,7663)+DYNX(W_,7669);
+DYNX(W_,7662) = DYNX(W_,7684);
+DYNX(W_,7654) = 0.1088888888888889*DYNX(W_,7662);
+DYNX(W_,7655) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1410);
+DYNX(W_,7657) = fabs(DYNX(W_,7652));
+DYNX(W_,7666) = DYNX(W_,7676);
+DYNX(W_,7670) = DYNX(DP_,1418);
+AssertModelica(DYNX(W_,7670) > 0,"ventilation.generation.threeWayValve_b.res3.l > 0",
"Valve leakage parameter l must be bigger than zero.");
-DYNX(W_,7717) = DYNX(DP_,1441);
-DYNX(W_,7718) = DYNX(DP_,1442);
-DYNX(W_,7741) = DYNX(W_,7629);
-DYNX(W_,7742) = DYNX(W_,7630);
-DYNX(W_,7743) = DYNX(DP_,1394);
-DYNX(W_,7744) = DYNX(DP_,1395);
-DYNX(W_,7776) = DYNX(W_,7634);
-DYNX(DYNhelp,289) = divinvGuarded(DYNX(W_,7764),"ventilation.generation.threeWayValve_b.vol.rho_default");
-DYNX(W_,7777) = DYNX(DYNhelp,289)*DYNX(W_,7750)*DYNX(W_,7776);
-DYNX(W_,7754) = DYNX(W_,7777);
-DYNX(W_,7765) = DYNX(W_,7741);
-DYNX(W_,7759) = 1.1843079200592153E-05*DYNX(W_,7765);
-DYNX(W_,7766) = DYNX(W_,7742);
-DYNX(W_,7767) = DYNX(W_,7743);
-DYNX(W_,7768) = 1-DYNX(W_,7743);
-DYNX(W_,7782) = DYNX(W_,7741);
-DYNX(W_,7783) = DYNX(W_,7742);
-DYNX(W_,7784) = DYNX(W_,7743);
-DYNX(W_,7785) = DYNX(W_,7744);
-DYNX(W_,7806) = DYNX(W_,7754);
-DYNX(W_,7809) = 1.1843079200592153E-05*DYNX(W_,7782);
-DYNX(W_,7817) = 1006.0*(DYNX(W_,7783)-273.15)*(1-DYNX(W_,7784))+(2501014.5+1860*
- (DYNX(W_,7783)-273.15))*DYNX(W_,7784);
-DYNX(W_,7824) = DYNX(W_,6682);
-DYNX(W_,7825) = DYNX(W_,6683);
-DYNX(W_,7828) = DYNX(DP_,1438);
-DYNX(W_,7914) = DYNX(DP_,1432);
-DYNX(W_,7854) = DYNX(W_,7914);
-DYNX(W_,7846) = 0.1088888888888889*DYNX(W_,7854);
-DYNX(W_,7847) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1416);
-DYNX(W_,7906) = DYNX(DP_,1439);
-DYNX(W_,7858) = DYNX(W_,7906);
-DYNX(W_,7861) = DYNX(DP_,1430);
-AssertModelica(DYNX(W_,7861) > 0,"ventilation.generation.threeWayValve_a.res1.l > 0",
+DYNX(W_,7677) = DYNX(DP_,1447);
+DYNX(W_,7678) = DYNX(DP_,1448);
+DYNX(W_,7701) = DYNX(W_,7589);
+DYNX(W_,7702) = DYNX(W_,7590);
+DYNX(W_,7703) = DYNX(DP_,1400);
+DYNX(W_,7704) = DYNX(DP_,1401);
+DYNX(W_,7736) = DYNX(W_,7594);
+DYNX(DYNhelp,289) = divinvGuarded(DYNX(W_,7724),"ventilation.generation.threeWayValve_b.vol.rho_default");
+DYNX(W_,7737) = DYNX(DYNhelp,289)*DYNX(W_,7710)*DYNX(W_,7736);
+DYNX(W_,7714) = DYNX(W_,7737);
+DYNX(W_,7725) = DYNX(W_,7701);
+DYNX(W_,7719) = 1.1843079200592153E-05*DYNX(W_,7725);
+DYNX(W_,7726) = DYNX(W_,7702);
+DYNX(W_,7727) = DYNX(W_,7703);
+DYNX(W_,7728) = 1-DYNX(W_,7703);
+DYNX(W_,7742) = DYNX(W_,7701);
+DYNX(W_,7743) = DYNX(W_,7702);
+DYNX(W_,7744) = DYNX(W_,7703);
+DYNX(W_,7745) = DYNX(W_,7704);
+DYNX(W_,7766) = DYNX(W_,7714);
+DYNX(W_,7769) = 1.1843079200592153E-05*DYNX(W_,7742);
+DYNX(W_,7777) = 1006.0*(DYNX(W_,7743)-273.15)*(1-DYNX(W_,7744))+(2501014.5+1860*
+ (DYNX(W_,7743)-273.15))*DYNX(W_,7744);
+DYNX(W_,7784) = DYNX(W_,6642);
+DYNX(W_,7785) = DYNX(W_,6643);
+DYNX(W_,7788) = DYNX(DP_,1444);
+DYNX(W_,7874) = DYNX(DP_,1438);
+DYNX(W_,7814) = DYNX(W_,7874);
+DYNX(W_,7806) = 0.1088888888888889*DYNX(W_,7814);
+DYNX(W_,7807) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1422);
+DYNX(W_,7866) = DYNX(DP_,1445);
+DYNX(W_,7818) = DYNX(W_,7866);
+DYNX(W_,7821) = DYNX(DP_,1436);
+AssertModelica(DYNX(W_,7821) > 0,"ventilation.generation.threeWayValve_a.res1.l > 0",
"Valve leakage parameter l must be bigger than zero.");
-DYNX(W_,7921) = DYNX(DP_,1437);
-DYNX(W_,7893) = divGuarded(DYNX(W_,7916),"ventilation.generation.threeWayValve_a.dpValve_nominal",
- sqr(DYNX(W_,7921)),"ventilation.generation.threeWayValve_a.fraK^2");
-DYNX(W_,7882) = DYNX(W_,7893)+DYNX(W_,7899);
-DYNX(W_,7892) = DYNX(W_,7914);
-DYNX(W_,7884) = 0.1088888888888889*DYNX(W_,7892);
-DYNX(W_,7885) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1423);
-DYNX(W_,7887) = fabs(DYNX(W_,7882));
-DYNX(W_,7896) = DYNX(W_,7906);
-DYNX(W_,7900) = DYNX(DP_,1431);
-AssertModelica(DYNX(W_,7900) > 0,"ventilation.generation.threeWayValve_a.res3.l > 0",
+DYNX(W_,7881) = DYNX(DP_,1443);
+DYNX(W_,7853) = divGuarded(DYNX(W_,7876),"ventilation.generation.threeWayValve_a.dpValve_nominal",
+ sqr(DYNX(W_,7881)),"ventilation.generation.threeWayValve_a.fraK^2");
+DYNX(W_,7842) = DYNX(W_,7853)+DYNX(W_,7859);
+DYNX(W_,7852) = DYNX(W_,7874);
+DYNX(W_,7844) = 0.1088888888888889*DYNX(W_,7852);
+DYNX(W_,7845) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1429);
+DYNX(W_,7847) = fabs(DYNX(W_,7842));
+DYNX(W_,7856) = DYNX(W_,7866);
+DYNX(W_,7860) = DYNX(DP_,1437);
+AssertModelica(DYNX(W_,7860) > 0,"ventilation.generation.threeWayValve_a.res3.l > 0",
"Valve leakage parameter l must be bigger than zero.");
-DYNX(W_,7907) = DYNX(DP_,1441);
-DYNX(W_,7908) = DYNX(DP_,1442);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(29);
-DYNX(W_,7931) = DYNX(W_,7824);
-DYNX(W_,7932) = DYNX(W_,7825);
-DYNX(W_,7933) = DYNX(DP_,1413);
-DYNX(W_,7934) = DYNX(DP_,1414);
-DYNX(W_,7962) = DYNX(W_,7828);
-DYNX(DYNhelp,290) = divinvGuarded(DYNX(W_,7950),"ventilation.generation.threeWayValve_a.vol.rho_default");
-DYNX(W_,7963) = DYNX(DYNhelp,290)*DYNX(W_,7940)*DYNX(W_,7962);
-DYNX(W_,7944) = DYNX(W_,7963);
-DYNX(W_,7951) = DYNX(W_,7931);
-DYNX(W_,7945) = 1.1843079200592153E-05*DYNX(W_,7951);
-DYNX(W_,7952) = DYNX(W_,7932);
-DYNX(W_,7953) = DYNX(W_,7933);
-DYNX(W_,7954) = 1-DYNX(W_,7933);
-DYNX(W_,7968) = DYNX(W_,7931);
-DYNX(W_,7969) = DYNX(W_,7932);
-DYNX(W_,7970) = DYNX(W_,7933);
-DYNX(W_,7971) = DYNX(W_,7934);
-DYNX(W_,7982) = DYNX(W_,7944);
-DYNX(W_,7985) = 1.1843079200592153E-05*DYNX(W_,7968);
-DYNX(W_,7993) = 1006.0*(DYNX(W_,7969)-273.15)*(1-DYNX(W_,7970))+(2501014.5+1860*
- (DYNX(W_,7969)-273.15))*DYNX(W_,7970);
-DYNX(W_,8021) = DYNX(W_,6657);
-DYNX(W_,8022) = DYNX(DP_,1325);
-DYNX(W_,8023) = DYNX(DP_,1326);
-DYNX(W_,8024) = DYNX(DP_,1327);
-DYNX(W_,8025) = DYNX(DP_,1328);
-DYNX(W_,8030) = DYNX(W_,6662);
-DYNX(W_,8031) = DYNX(W_,6663);
-DYNX(W_,8067) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1454);
-DYNX(W_,8085) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1458);
-DYNX(W_,8113) = DYNX(DP_,1337);
-DYNX(W_,8116) = DYNX(DP_,1338);
-DYNX(W_,8117) = DYNX(DP_,1339);
-DYNX(W_,8118) = DYNX(W_,6701);
-RealAssign (RealTemporaryDense( &DYNX(W_,8155), 1, 2), (PushModelContext(1,
+DYNX(W_,7867) = DYNX(DP_,1447);
+DYNX(W_,7868) = DYNX(DP_,1448);
+DYNX(W_,7891) = DYNX(W_,7784);
+DYNX(W_,7892) = DYNX(W_,7785);
+DYNX(W_,7893) = DYNX(DP_,1419);
+DYNX(W_,7894) = DYNX(DP_,1420);
+DYNX(W_,7922) = DYNX(W_,7788);
+DYNX(DYNhelp,290) = divinvGuarded(DYNX(W_,7910),"ventilation.generation.threeWayValve_a.vol.rho_default");
+DYNX(W_,7923) = DYNX(DYNhelp,290)*DYNX(W_,7900)*DYNX(W_,7922);
+DYNX(W_,7904) = DYNX(W_,7923);
+DYNX(W_,7911) = DYNX(W_,7891);
+DYNX(W_,7905) = 1.1843079200592153E-05*DYNX(W_,7911);
+DYNX(W_,7912) = DYNX(W_,7892);
+DYNX(W_,7913) = DYNX(W_,7893);
+DYNX(W_,7914) = 1-DYNX(W_,7893);
+DYNX(W_,7928) = DYNX(W_,7891);
+DYNX(W_,7929) = DYNX(W_,7892);
+DYNX(W_,7930) = DYNX(W_,7893);
+DYNX(W_,7931) = DYNX(W_,7894);
+DYNX(W_,7942) = DYNX(W_,7904);
+DYNX(W_,7945) = 1.1843079200592153E-05*DYNX(W_,7928);
+DYNX(W_,7953) = 1006.0*(DYNX(W_,7929)-273.15)*(1-DYNX(W_,7930))+(2501014.5+1860*
+ (DYNX(W_,7929)-273.15))*DYNX(W_,7930);
+DYNX(W_,7981) = DYNX(W_,6617);
+DYNX(W_,7982) = DYNX(DP_,1331);
+DYNX(W_,7983) = DYNX(DP_,1332);
+DYNX(W_,7984) = DYNX(DP_,1333);
+DYNX(W_,7985) = DYNX(DP_,1334);
+DYNX(W_,7990) = DYNX(W_,6622);
+DYNX(W_,7991) = DYNX(W_,6623);
+DYNX(W_,8027) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1460);
+DYNX(W_,8045) = 3.88335940547E-06+4.89493640395E-08*DYNX(DP_,1464);
+DYNX(W_,8073) = DYNX(DP_,1343);
+DYNX(W_,8076) = DYNX(DP_,1344);
+DYNX(W_,8077) = DYNX(DP_,1345);
+DYNX(W_,8078) = DYNX(W_,6661);
+RealAssign (RealTemporaryDense( &DYNX(W_,8115), 1, 2), (PushModelContext(1,
"IBPSA.BoundaryConditions.WeatherData.BaseClasses.getTimeSpanTMY3(weaDat.filNam, \"tab1\")")
IBPSA_BoundaryConditions_WeatherData_BaseClasses_getTimeSpanTMY3_M(
"C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
@@ -13554,47 +13516,49 @@ PopModelContext();
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable1D((if weaDat.datRea.tableOnFile then weaDat.datRea.tableName else \"NoName\"), (if weaDat.datRea.tableOnFile and weaDat.datRea.fileName <> \"NoName\" and not Modelica.Utilities.Strings.isEmpty(weaDat.datRea.fileName) then weaDat.datRea.fileName else \"NoName\"), weaDat.datRea.table, weaDat.datRea.columns, weaDat.datRea.smoothness, weaDat.datRea.extrapolation,...")
- Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,8158) THEN "tab1"
- ELSE "NoName", IF DYNX(W_,8158) AND (strcmp("C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
+ Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,8118) THEN "tab1"
+ ELSE "NoName", IF DYNX(W_,8118) AND (strcmp("C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
"NoName")!=0) AND NOT DYNX(DYNhelp,291) THEN "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos"
ELSE "NoName", RealTemporaryDense( (Real*)(0), 2, 0, 2), IntegerTemporaryDense(
- &DYNX(W_,8159), 1, 26), (Integer)(DYNX(W_,8185)), (Integer)(DYNX(W_,8186)),
- (Integer)(IF DYNX(W_,8158) THEN DYNX(DP_,1473) ELSE false), 8, 1));
- DYNX(W_,8190) = dummy_DymStruc0.id_0member;
+ &DYNX(W_,8119), 1, 26), (Integer)(DYNX(W_,8145)), (Integer)(DYNX(W_,8146)),
+ (Integer)(IF DYNX(W_,8118) THEN DYNX(DP_,1479) ELSE false), 8, 1));
+ DYNX(W_,8150) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-DYNX(W_,8188) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nweaDat.datRea.tableID)")
+DYNX(W_,8148) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nweaDat.datRea.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmin_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190)))));
+ (Integer)(DYNX(W_,8150)))));
PopModelContext();
-DYNX(W_,8189) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nweaDat.datRea.tableID)")
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(29);
+DYNX(W_,8149) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nweaDat.datRea.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmax_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190)))));
+ (Integer)(DYNX(W_,8150)))));
PopModelContext();
-DYNX(W_,8192) = DYNX(DP_,1462);
-AssertModelica(DYNX(W_,8192) > 50000.0 AND DYNX(W_,8192) < 150000.0,
+DYNX(W_,8152) = DYNX(DP_,1468);
+AssertModelica(DYNX(W_,8152) > 50000.0 AND DYNX(W_,8152) < 150000.0,
"ventilation.generation.bouSup.p_in_internal > 50000.0 and ventilation.generation.bouSup.p_in_internal < 150000.0",
StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.bouSup: The value of p_in=",
- Real2String2(DYNX(W_,8192), true, 0))," is not within a realistic range for air. This is likely an error."));
-AssertModelica(DYNX(W_,8192) > 3100.0 AND DYNX(W_,8192) < 120000.0,
+ Real2String2(DYNX(W_,8152), true, 0))," is not within a realistic range for air. This is likely an error."));
+AssertModelica(DYNX(W_,8152) > 3100.0 AND DYNX(W_,8152) < 120000.0,
"weaDat.chePre.PIn > 3100.0 and weaDat.chePre.PIn < 120000.0", StringAdd(
"In HeatPumpMonoenergeticResidentialBuilding.weaDat.chePre: Weather data atmospheric pressure out of bounds.\n PIn = ",
- Real2String2(DYNX(W_,8192), true, 0)));
-DYNX(W_,8194) = DYNX(DP_,1464);
-DYNX(W_,8196) = DYNX(DP_,1463);
-DYNX(W_,8198) = DYNX(DP_,1465);
-DYNX(W_,8200) = DYNX(DP_,1466);
-DYNX(W_,8202) = DYNX(DP_,1472);
-DYNX(W_,8204) = DYNX(DP_,1470);
-DYNX(W_,8206) = DYNX(DP_,1471);
-DYNX(W_,8208) = DYNX(DP_,1467);
-DYNX(W_,8210) = DYNX(DP_,1468);
-DYNX(W_,8212) = DYNX(DP_,1469);
-DYNX(W_,8231) = DYNX(DP_,1481)-DYNX(DP_,1480);
-DYNX(DYNhelp,292) = modulusDymola(DYNX(W_,8231), 31536000);
+ Real2String2(DYNX(W_,8152), true, 0)));
+DYNX(W_,8154) = DYNX(DP_,1470);
+DYNX(W_,8156) = DYNX(DP_,1469);
+DYNX(W_,8158) = DYNX(DP_,1471);
+DYNX(W_,8160) = DYNX(DP_,1472);
+DYNX(W_,8162) = DYNX(DP_,1478);
+DYNX(W_,8164) = DYNX(DP_,1476);
+DYNX(W_,8166) = DYNX(DP_,1477);
+DYNX(W_,8168) = DYNX(DP_,1473);
+DYNX(W_,8170) = DYNX(DP_,1474);
+DYNX(W_,8172) = DYNX(DP_,1475);
+DYNX(W_,8191) = DYNX(DP_,1487)-DYNX(DP_,1486);
+DYNX(DYNhelp,292) = modulusDymola(DYNX(W_,8191), 31536000);
DYNX(DYNhelp,293) = fabs(DYNX(DYNhelp,292));
-DYNX(W_,8232) = DYNX(DYNhelp,293) < 0.01;
+DYNX(W_,8192) = DYNX(DYNhelp,293) < 0.01;
InitialBoundSection
DYNX(DYNhelp,294) = (PushModelContext(1,"Modelica.Utilities.Strings.isEmpty(weaDat.datRea30Min.fileName)")
Modelica_Utilities_Strings_isEmpty("C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos"));
@@ -13602,85 +13566,90 @@ PopModelContext();
{
struct DymStruc0 dummy_DymStruc0;
dummy_DymStruc0 = (PushModelContext(1,"Modelica.Blocks.Types.ExternalCombiTable1D((if weaDat.datRea30Min.tableOnFile then weaDat.datRea30Min.tableName else \"NoName\"), (if weaDat.datRea30Min.tableOnFile and weaDat.datRea30Min.fileName <> \"NoName\" and not Modelica.Utilities.Strings.isEmpty(weaDat.datRea30Min.fileName) then weaDat.datRea30Min.fileName else \"NoName\"), weaDat.datRea30Min.table, weaDat.datRea30Min.columns, weaDat.datRea3...")
- Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,8237) THEN "tab1"
- ELSE "NoName", IF DYNX(W_,8237) AND (strcmp("C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
+ Modelica_Blocks_Types_ExternalCombiTable1D_M(IF DYNX(W_,8197) THEN "tab1"
+ ELSE "NoName", IF DYNX(W_,8197) AND (strcmp("C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos",
"NoName")!=0) AND NOT DYNX(DYNhelp,294) THEN "C:/Users/mbc/Documents/Git-Repos/RollOut/BuildingSim/BESMod/BESMod/Resources/WeatherData/TRY2015_522361130393_Jahr_City_Potsdam.mos"
ELSE "NoName", RealTemporaryDense( (Real*)(0), 2, 0, 2), IntegerTemporaryDense(
- &DYNX(W_,8238), 1, 3), (Integer)(DYNX(W_,8241)), (Integer)(DYNX(W_,8242)),
- (Integer)(IF DYNX(W_,8237) THEN DYNX(DP_,1482) ELSE false), 9, 1));
- DYNX(W_,8246) = dummy_DymStruc0.id_0member;
+ &DYNX(W_,8198), 1, 3), (Integer)(DYNX(W_,8201)), (Integer)(DYNX(W_,8202)),
+ (Integer)(IF DYNX(W_,8197) THEN DYNX(DP_,1488) ELSE false), 9, 1));
+ DYNX(W_,8206) = dummy_DymStruc0.id_0member;
PopAllMarks();
}
BoundParameterSection
-DYNX(W_,8244) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nweaDat.datRea30Min.tableID)")
+DYNX(W_,8204) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmin(\nweaDat.datRea30Min.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmin_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246)))));
+ (Integer)(DYNX(W_,8206)))));
PopModelContext();
-DYNX(W_,8245) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nweaDat.datRea30Min.tableID)")
+DYNX(W_,8205) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DAbscissaUmax(\nweaDat.datRea30Min.tableID)")
Modelica_Blocks_Tables_Internal_getTable1DAbscissaUmax_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246)))));
+ (Integer)(DYNX(W_,8206)))));
PopModelContext();
-DYNX(W_,8247) = DYNX(W_,8155);
-DYNX(W_,8248) = DYNX(W_,8156);
-DYNX(W_,8249) = DYNX(W_,8248)-DYNX(W_,8247);
-DYNX(DYNhelp,295) = modulusDymola(DYNX(W_,8249), 31536000);
+DYNX(W_,8207) = DYNX(W_,8115);
+DYNX(W_,8208) = DYNX(W_,8116);
+DYNX(W_,8209) = DYNX(W_,8208)-DYNX(W_,8207);
+DYNX(DYNhelp,295) = modulusDymola(DYNX(W_,8209), 31536000);
DYNX(DYNhelp,296) = fabs(DYNX(DYNhelp,295));
-DYNX(W_,8250) = DYNX(DYNhelp,296) < 0.01;
-DYNX(W_,8252) = DYNX(W_,8155);
-DYNX(W_,8253) = DYNX(W_,8156);
-DYNX(W_,8254) = DYNX(W_,8253)-DYNX(W_,8252);
-DYNX(DYNhelp,297) = modulusDymola(DYNX(W_,8254), 31536000);
+DYNX(W_,8210) = DYNX(DYNhelp,296) < 0.01;
+DYNX(W_,8212) = DYNX(W_,8115);
+DYNX(W_,8213) = DYNX(W_,8116);
+DYNX(W_,8214) = DYNX(W_,8213)-DYNX(W_,8212);
+DYNX(DYNhelp,297) = modulusDymola(DYNX(W_,8214), 31536000);
DYNX(DYNhelp,298) = fabs(DYNX(DYNhelp,297));
-DYNX(W_,8255) = DYNX(DYNhelp,298) < 0.01;
-DYNX(W_,8257) = DYNX(DP_,1484)-DYNX(DP_,1483);
-DYNX(DYNhelp,299) = modulusDymola(DYNX(W_,8257), 31536000);
+DYNX(W_,8215) = DYNX(DYNhelp,298) < 0.01;
+DYNX(W_,8217) = DYNX(DP_,1490)-DYNX(DP_,1489);
+DYNX(DYNhelp,299) = modulusDymola(DYNX(W_,8217), 31536000);
DYNX(DYNhelp,300) = fabs(DYNX(DYNhelp,299));
-DYNX(W_,8258) = DYNX(DYNhelp,300) < 0.01;
-DYNX(W_,8260) = DYNX(DP_,1486)-DYNX(DP_,1485);
-DYNX(DYNhelp,301) = modulusDymola(DYNX(W_,8260), 31536000);
+DYNX(W_,8218) = DYNX(DYNhelp,300) < 0.01;
+DYNX(W_,8220) = DYNX(DP_,1492)-DYNX(DP_,1491);
+DYNX(DYNhelp,301) = modulusDymola(DYNX(W_,8220), 31536000);
DYNX(DYNhelp,302) = fabs(DYNX(DYNhelp,301));
-DYNX(W_,8261) = DYNX(DYNhelp,302) < 0.01;
-DYNX(W_,8279) = DYNX(DP_,1491);
-DYNX(W_,8280) = DYNX(DP_,1490);
-DYNX(W_,8282) = DYNX(W_,8281)+DYNX(DP_,1492);
+DYNX(W_,8221) = DYNX(DYNhelp,302) < 0.01;
+DYNX(W_,8239) = DYNX(DP_,1497);
+DYNX(W_,8240) = DYNX(DP_,1496);
+DYNX(W_,8242) = DYNX(W_,8241)+DYNX(DP_,1498);
BoundParameterConstantSection
DYNX(W_,1062) = 0.01*DYNX(DP_,344)*DYNX(DP_,343);
-DYNX(W_,3436) = DYNX(DP_,1067);
-DYNX(W_,7707) = 1.0-DYNX(DP_,1461);
-DYNX(W_,7897) = 1.0-DYNX(DP_,1461);
-DYNX(Aux_,218) = DYNX(DP_,1372);
-DYNX(W_,7803) = DYNX(W_,7806)*1.1843079200592153E-05*DYNX(W_,7258);
-DYNX(Aux_,159) = DYNX(DP_,1349);
-DYNX(W_,7252) = DYNX(DP_,1372);
-DYNX(W_,6875) = DYNX(DP_,1349);
+DYNX(W_,3398) = DYNX(DP_,1073);
+DYNX(Aux_,140) = DYNX(DP_,1073);
+DYNX(Aux_,142) = DYNX(DP_,1070);
+DYNX(W_,3091) = DYNX(W_,3094)*1.1843079200592153E-05*DYNX(W_,3389);
+DYNX(W_,7667) = 1.0-DYNX(DP_,1467);
+DYNX(W_,7857) = 1.0-DYNX(DP_,1467);
+DYNX(Aux_,218) = DYNX(DP_,1378);
+DYNX(W_,7763) = DYNX(W_,7766)*1.1843079200592153E-05*DYNX(W_,7218);
+DYNX(Aux_,159) = DYNX(DP_,1355);
+DYNX(W_,7212) = DYNX(DP_,1378);
+DYNX(W_,6835) = DYNX(DP_,1355);
DYNX(W_,1090) = 323.15*DYNX(DP_,356)-DYNX(W_,1092);
DYNX(W_,1476) = 4184*(DYNX(W_,1485)-273.15);
DYNX(Aux_,135) = DYNX(W_,1476);
DYNX(W_,1240) = 995.586*DYNX(W_,1243);
-DYNX(W_,5113) = 995.586*DYNX(W_,5116);
-DYNX(W_,5054) = 995.586*DYNX(W_,5057);
-DYNX(W_,4995) = 995.586*DYNX(W_,4998);
-DYNX(W_,5774) = 4184*(DYNX(W_,5783)-273.15);
-DYNX(W_,5349) = 995.586*DYNX(W_,5352);
-DYNX(W_,5290) = 995.586*DYNX(W_,5293);
-DYNX(W_,5231) = 995.586*DYNX(W_,5234);
-DYNX(W_,3808) = 4184*(DYNX(W_,3817)-273.15);
-DYNX(W_,2996) = 995.586*DYNX(W_,2999);
-DYNX(W_,4751) = 995.586*DYNX(W_,4754);
-DYNX(W_,4810) = 995.586*DYNX(W_,4813);
-DYNX(W_,4869) = 995.586*DYNX(W_,4872);
-DYNX(W_,5647) = 995.586*DYNX(W_,5650);
-DYNX(W_,3928) = 995.586*DYNX(W_,3931);
-DYNX(W_,3580) = 995.586*DYNX(W_,3583);
-DYNX(W_,4692) = 995.586*DYNX(W_,4695);
-DYNX(W_,4456) = 995.586*DYNX(W_,4459);
-DYNX(W_,4515) = 995.586*DYNX(W_,4518);
-DYNX(W_,4574) = 995.586*DYNX(W_,4577);
-DYNX(W_,4633) = 995.586*DYNX(W_,4636);
+DYNX(W_,5073) = 995.586*DYNX(W_,5076);
+DYNX(W_,5014) = 995.586*DYNX(W_,5017);
+DYNX(W_,4955) = 995.586*DYNX(W_,4958);
+DYNX(W_,5734) = 4184*(DYNX(W_,5743)-273.15);
+DYNX(W_,5309) = 995.586*DYNX(W_,5312);
+DYNX(W_,5250) = 995.586*DYNX(W_,5253);
+DYNX(W_,5191) = 995.586*DYNX(W_,5194);
+DYNX(W_,3770) = 4184*(DYNX(W_,3779)-273.15);
+DYNX(W_,4711) = 995.586*DYNX(W_,4714);
+DYNX(W_,4770) = 995.586*DYNX(W_,4773);
+DYNX(W_,4829) = 995.586*DYNX(W_,4832);
+DYNX(W_,5607) = 995.586*DYNX(W_,5610);
+DYNX(W_,3888) = 995.586*DYNX(W_,3891);
+DYNX(Aux_,141) = DYNX(DP_,1072);
+DYNX(W_,2568) = DYNX(W_,2845)-DYNX(W_,2846);
+DYNX(W_,2971) = 995.586*DYNX(W_,2974);
+DYNX(W_,3542) = 995.586*DYNX(W_,3545);
+DYNX(W_,4652) = 995.586*DYNX(W_,4655);
+DYNX(W_,4416) = 995.586*DYNX(W_,4419);
+DYNX(W_,4475) = 995.586*DYNX(W_,4478);
+DYNX(W_,4534) = 995.586*DYNX(W_,4537);
+DYNX(W_,4593) = 995.586*DYNX(W_,4596);
DYNX(Aux_,177) = DYNX(DP_,380);
-DYNX(W_,5408) = 995.586*DYNX(W_,5411);
-DYNX(W_,5172) = 995.586*DYNX(W_,5175);
-DYNX(W_,6399) = 995.586*DYNX(W_,6402);
+DYNX(W_,5368) = 995.586*DYNX(W_,5371);
+DYNX(W_,5132) = 995.586*DYNX(W_,5135);
+DYNX(W_,6359) = 995.586*DYNX(W_,6362);
DYNX(W_,2225) = 1.041961563440615+0.017453292519943295*(0.001497*sqr(
0.3183098861837907*DYNX(W_,2216)*180)-7.9526541964158275*DYNX(W_,2216));
DYNX(W_,2229) = IF DYNX(W_,2225) >= 0.0001 AND DYNX(W_,2225) <= 1.5692255304681018
@@ -13789,28 +13758,24 @@ DYNX(DYNhelp,323) = divinvGuarded(DYNX(W_,2314),"electrical.generation.pVSystem[
DYNX(W_,2311) = (1+DYNX(DYNhelp,323)*DYNX(W_,2313))*DYNX(W_,2301);
DYNX(DYNhelp,324) = exp( -DYNX(DYNhelp,315)*DYNX(W_,2300));
DYNX(W_,2312) = DYNX(W_,2311)*DYNX(DYNhelp,324);
-DYNX(Aux_,140) = DYNX(DP_,1067);
-DYNX(Aux_,142) = DYNX(DP_,1064);
-DYNX(W_,3116) = DYNX(W_,3119)*1.1843079200592153E-05*DYNX(W_,3427);
-DYNX(Aux_,141) = DYNX(DP_,1066);
-DYNX(W_,3421) = DYNX(DP_,1064);
-DYNX(W_,3422) = DYNX(DP_,1065);
-DYNX(W_,3437) = DYNX(DP_,1068);
-DYNX(W_,6876) = DYNX(DP_,1350);
-DYNX(W_,7253) = DYNX(DP_,1373);
+DYNX(W_,3383) = DYNX(DP_,1070);
+DYNX(W_,3384) = DYNX(DP_,1071);
+DYNX(W_,3399) = DYNX(DP_,1074);
+DYNX(W_,6836) = DYNX(DP_,1356);
+DYNX(W_,7213) = DYNX(DP_,1379);
DYNX(Aux_,9) = DYNX(W_,1476);
-DYNX(Aux_,19) = DYNX(DP_,1066);
-DYNX(Aux_,20) = DYNX(DP_,1064);
-DYNX(Aux_,21) = DYNX(DP_,1066);
-DYNX(Aux_,22) = DYNX(DP_,1064);
-DYNX(Aux_,24) = DYNX(DP_,1067);
-DYNX(Aux_,26) = DYNX(DP_,1067);
+DYNX(Aux_,19) = DYNX(DP_,1072);
+DYNX(Aux_,20) = DYNX(DP_,1070);
+DYNX(Aux_,21) = DYNX(DP_,1072);
+DYNX(Aux_,22) = DYNX(DP_,1070);
+DYNX(Aux_,24) = DYNX(DP_,1073);
+DYNX(Aux_,26) = DYNX(DP_,1073);
DYNX(Aux_,39) = DYNX(DP_,380);
DYNX(Aux_,42) = DYNX(DP_,380);
-DYNX(Aux_,64) = DYNX(DP_,1349);
-DYNX(Aux_,70) = DYNX(DP_,1349);
-DYNX(Aux_,82) = DYNX(DP_,1349);
-DYNX(Aux_,110) = DYNX(DP_,1372);
+DYNX(Aux_,64) = DYNX(DP_,1355);
+DYNX(Aux_,70) = DYNX(DP_,1355);
+DYNX(Aux_,82) = DYNX(DP_,1355);
+DYNX(Aux_,110) = DYNX(DP_,1378);
DYNX(Aux_,148) = DYNX(DP_,380);
DYNX(W_,1270) = DYNX(W_,1470)-DYNX(W_,1483);
DYNX(W_,1169) = DYNX(W_,1470)-DYNX(W_,1483);
@@ -13820,177 +13785,177 @@ AssertModelica( -DYNX(W_,1172) <= 227.99999999999997," -DHW.pump.dp <= 227.99999
Real2String2( -DYNX(W_,1172), true, 0))," Pa,\n exceeding the pressure allowed by the parameter "),
"HeatPumpMonoenergeticResidentialBuilding.DHW.pump"),".dpMax.\n This can happen if the model forces a high mass flow rate through a closed actuator,\n or if the performance record is unreasonable. Please verify your model, and\n consider using one of the other pump or fan models."));
DYNX(W_,1239) = 1E-05*DYNX(W_,1483);
-DYNX(W_,3113) = 1.1843079200592153E-05*DYNX(W_,3427);
-DYNX(W_,3115) = 1E-05*DYNX(W_,3427);
-DYNX(W_,3579) = 1E-05*DYNX(W_,3815);
-DYNX(W_,4455) = 1E-05*DYNX(W_,1470);
-DYNX(W_,4514) = 1E-05*DYNX(W_,1470);
-DYNX(W_,4573) = 1E-05*DYNX(W_,1470);
-DYNX(W_,4632) = 1E-05*DYNX(W_,1470);
-DYNX(W_,4691) = 1E-05*DYNX(W_,3815);
-DYNX(W_,4750) = 1E-05*DYNX(W_,3815);
-DYNX(W_,4809) = 1E-05*DYNX(W_,3815);
-DYNX(W_,4868) = 1E-05*DYNX(W_,3815);
-DYNX(W_,4994) = 1E-05*DYNX(W_,5781);
-DYNX(W_,5053) = 1E-05*DYNX(W_,5781);
-DYNX(W_,5112) = 1E-05*DYNX(W_,5781);
-DYNX(W_,5171) = 1E-05*DYNX(W_,5781);
-DYNX(W_,5230) = 1E-05*DYNX(W_,3815);
-DYNX(W_,5289) = 1E-05*DYNX(W_,3815);
-DYNX(W_,5348) = 1E-05*DYNX(W_,3815);
-DYNX(W_,5407) = 1E-05*DYNX(W_,3815);
-DYNX(W_,5973) = 1E-05*DYNX(W_,5781);
-DYNX(W_,6035) = 1E-05*DYNX(W_,5781);
-DYNX(W_,6097) = 1E-05*DYNX(W_,5781);
-DYNX(W_,6159) = 1E-05*DYNX(W_,5781);
-DYNX(W_,6221) = 1E-05*DYNX(W_,5781);
-DYNX(W_,7800) = 1.1843079200592153E-05*DYNX(W_,7258);
-DYNX(W_,7802) = 1E-05*DYNX(W_,7258);
-DYNX(W_,7862) = RealBmax(0.1*DYNX(W_,7861), DYNX(W_,7861)+DYNX(DP_,1461)*(1-
- DYNX(W_,7861)));
-DYNX(W_,7669) = RealBmax(0.1*DYNX(W_,7668), DYNX(W_,7668)+DYNX(DP_,1461)*(1-
- DYNX(W_,7668)));
-DYNX(W_,7711) = RealBmax(0.1*DYNX(W_,7710), DYNX(W_,7710)+DYNX(W_,7707)*(1-
- DYNX(W_,7710)));
-DYNX(W_,7901) = RealBmax(0.1*DYNX(W_,7900), DYNX(W_,7900)+DYNX(W_,7897)*(1-
- DYNX(W_,7900)));
-DYNX(W_,7249) = 1006.0*(DYNX(DP_,1374)-273.15)*(1-DYNX(W_,7252))+(2501014.5+1860
- *(DYNX(DP_,1374)-273.15))*DYNX(W_,7252);
-DYNX(Aux_,217) = DYNX(W_,7249);
-DYNX(Aux_,109) = DYNX(W_,7249);
-DYNX(W_,2565) = 1-DYNX(DP_,1067);
-DYNX(W_,2567) = 273.15+divGuarded(DYNX(DP_,1066)-2501014.5*DYNX(DP_,1064),
+DYNX(W_,3088) = 1.1843079200592153E-05*DYNX(W_,3389);
+DYNX(W_,3090) = 1E-05*DYNX(W_,3389);
+DYNX(W_,3541) = 1E-05*DYNX(W_,3777);
+DYNX(W_,4415) = 1E-05*DYNX(W_,1470);
+DYNX(W_,4474) = 1E-05*DYNX(W_,1470);
+DYNX(W_,4533) = 1E-05*DYNX(W_,1470);
+DYNX(W_,4592) = 1E-05*DYNX(W_,1470);
+DYNX(W_,4651) = 1E-05*DYNX(W_,3777);
+DYNX(W_,4710) = 1E-05*DYNX(W_,3777);
+DYNX(W_,4769) = 1E-05*DYNX(W_,3777);
+DYNX(W_,4828) = 1E-05*DYNX(W_,3777);
+DYNX(W_,4954) = 1E-05*DYNX(W_,5741);
+DYNX(W_,5013) = 1E-05*DYNX(W_,5741);
+DYNX(W_,5072) = 1E-05*DYNX(W_,5741);
+DYNX(W_,5131) = 1E-05*DYNX(W_,5741);
+DYNX(W_,5190) = 1E-05*DYNX(W_,3777);
+DYNX(W_,5249) = 1E-05*DYNX(W_,3777);
+DYNX(W_,5308) = 1E-05*DYNX(W_,3777);
+DYNX(W_,5367) = 1E-05*DYNX(W_,3777);
+DYNX(W_,5933) = 1E-05*DYNX(W_,5741);
+DYNX(W_,5995) = 1E-05*DYNX(W_,5741);
+DYNX(W_,6057) = 1E-05*DYNX(W_,5741);
+DYNX(W_,6119) = 1E-05*DYNX(W_,5741);
+DYNX(W_,6181) = 1E-05*DYNX(W_,5741);
+DYNX(W_,7760) = 1.1843079200592153E-05*DYNX(W_,7218);
+DYNX(W_,7762) = 1E-05*DYNX(W_,7218);
+DYNX(W_,7822) = RealBmax(0.1*DYNX(W_,7821), DYNX(W_,7821)+DYNX(DP_,1467)*(1-
+ DYNX(W_,7821)));
+DYNX(W_,7629) = RealBmax(0.1*DYNX(W_,7628), DYNX(W_,7628)+DYNX(DP_,1467)*(1-
+ DYNX(W_,7628)));
+DYNX(W_,7671) = RealBmax(0.1*DYNX(W_,7670), DYNX(W_,7670)+DYNX(W_,7667)*(1-
+ DYNX(W_,7670)));
+DYNX(W_,7861) = RealBmax(0.1*DYNX(W_,7860), DYNX(W_,7860)+DYNX(W_,7857)*(1-
+ DYNX(W_,7860)));
+DYNX(W_,7209) = 1006.0*(DYNX(DP_,1380)-273.15)*(1-DYNX(W_,7212))+(2501014.5+1860
+ *(DYNX(DP_,1380)-273.15))*DYNX(W_,7212);
+DYNX(Aux_,217) = DYNX(W_,7209);
+DYNX(Aux_,109) = DYNX(W_,7209);
+DYNX(W_,2562) = 1-DYNX(DP_,1073);
+DYNX(W_,2564) = 273.15+divGuarded(DYNX(DP_,1072)-2501014.5*DYNX(DP_,1070),
"hydraulic.generation.bou_sinkAir.ports[1].h_outflow-2501014.5*hydraulic.generation.bou_sinkAir.ports[1].Xi_outflow[1]",1006
- *(1-DYNX(DP_,1064))+1860*DYNX(DP_,1064),"1006*(1-hydraulic.generation.bou_sinkAir.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bou_sinkAir.ports[1].Xi_outflow[1]");
-DYNX(W_,2568) = 1-DYNX(DP_,1064);
-DYNX(W_,6724) = 1-DYNX(DP_,1349);
+ *(1-DYNX(DP_,1070))+1860*DYNX(DP_,1070),"1006*(1-hydraulic.generation.bou_sinkAir.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bou_sinkAir.ports[1].Xi_outflow[1]");
+DYNX(W_,2565) = 1-DYNX(DP_,1070);
+DYNX(W_,6684) = 1-DYNX(DP_,1355);
DYNX(W_,1478) = DYNX(DP_,381);
DYNX(W_,1465) = DYNX(DP_,379);
-DYNX(W_,5776) = DYNX(DP_,1281);
-DYNX(W_,3810) = DYNX(DP_,1091);
+DYNX(W_,5736) = DYNX(DP_,1287);
+DYNX(W_,3772) = DYNX(DP_,1097);
BoundParameterSection
InitialSection
InitialStartSection
InitialStartSection2
-DYNX(W_,8507) = DYNX(W_,342);
-DYNX(W_,8511) = DYNX(W_,371);
-DYNX(W_,8524) = 640.0*DYNX(W_,387)*DYNX(W_,373);
-DYNX(W_,8526) = DYNX(W_,387);
-DYNX(W_,8527) = DYNX(W_,372);
-DYNX(W_,8528) = DYNX(W_,374);
-DYNX(W_,9022) = DYNX(W_,1185);
-DYNX(W_,9035) = DYNX(W_,1185);
-DYNX(W_,9036) = 10.0*DYNX(DP_,378);
-DYNX(W_,9038) = DYNX(W_,1191);
-DYNX(W_,9043) = DYNX(W_,1223);
-DYNX(W_,9059) = 0.5*DYNX(W_,2175);
-DYNX(W_,9093) = 0.5*DYNX(W_,2303);
-DYNX(W_,8337) = DYNX(W_,3912);
+DYNX(W_,8470) = DYNX(W_,342);
+DYNX(W_,8474) = DYNX(W_,371);
+DYNX(W_,8487) = 640.0*DYNX(W_,387)*DYNX(W_,373);
+DYNX(W_,8489) = DYNX(W_,387);
+DYNX(W_,8490) = DYNX(W_,372);
+DYNX(W_,8491) = DYNX(W_,374);
+DYNX(W_,8985) = DYNX(W_,1185);
+DYNX(W_,8998) = DYNX(W_,1185);
+DYNX(W_,8999) = 10.0*DYNX(DP_,378);
+DYNX(W_,9001) = DYNX(W_,1191);
+DYNX(W_,9006) = DYNX(W_,1223);
+DYNX(W_,9022) = 0.5*DYNX(W_,2175);
+DYNX(W_,9056) = 0.5*DYNX(W_,2303);
+DYNX(W_,8297) = DYNX(W_,3872);
+DYNX(W_,9100) = DYNX(W_,3923);
+DYNX(W_,8300) = DYNX(W_,3419);
+DYNX(W_,8301) = DYNX(W_,2955);
+DYNX(W_,9129) = DYNX(W_,2956);
+DYNX(W_,9134) = DYNX(W_,2931);
+DYNX(W_,9135) = 1.2*DYNX(W_,3094)*DYNX(W_,3074);
+DYNX(W_,9137) = DYNX(W_,3075);
+DYNX(W_,9172) = DYNX(W_,3487);
+DYNX(W_,9173) = DYNX(W_,3487);
+DYNX(W_,9174) = DYNX(W_,3493);
+DYNX(W_,8360) = -DYNX(DP_,1092);
+DYNX(W_,9175) = DYNX(W_,3525);
+DYNX(W_,9179) = DYNX(W_,3789);
+DYNX(W_,9182) = DYNX(W_,3848);
+DYNX(W_,9183) = DYNX(W_,3873);
+DYNX(W_,9309) = DYNX(W_,4966);
+DYNX(W_,9310) = DYNX(W_,5202);
+DYNX(W_,9311) = DYNX(W_,5379);
+DYNX(W_,9313) = DYNX(W_,4939);
+DYNX(W_,9318) = DYNX(W_,5025);
+DYNX(W_,9319) = DYNX(W_,4974);
+DYNX(W_,9321) = DYNX(W_,4998);
+DYNX(W_,9326) = DYNX(W_,5084);
+DYNX(W_,9327) = DYNX(W_,5033);
+DYNX(W_,9329) = DYNX(W_,5057);
+DYNX(W_,9335) = DYNX(W_,5116);
+DYNX(W_,9340) = DYNX(W_,5151);
+DYNX(W_,9342) = DYNX(W_,5175);
+DYNX(W_,9347) = DYNX(W_,5261);
+DYNX(W_,9348) = DYNX(W_,5210);
+DYNX(W_,9350) = DYNX(W_,5234);
+DYNX(W_,9355) = DYNX(W_,5320);
+DYNX(W_,9356) = DYNX(W_,5269);
+DYNX(W_,9358) = DYNX(W_,5293);
+DYNX(W_,9363) = DYNX(W_,5328);
+DYNX(W_,9365) = DYNX(W_,5352);
BreakSectionFunctionEnd()
BreakSectionFunctionStart(30);
-DYNX(W_,9137) = DYNX(W_,3963);
-DYNX(W_,8339) = DYNX(W_,3457);
-DYNX(W_,8340) = DYNX(W_,2980);
-DYNX(W_,9162) = DYNX(W_,2981);
-DYNX(W_,9167) = DYNX(W_,2956);
-DYNX(W_,9168) = 1.2*DYNX(W_,3119)*DYNX(W_,3099);
-DYNX(W_,9170) = DYNX(W_,3100);
-DYNX(W_,9203) = DYNX(W_,3525);
-DYNX(W_,9204) = DYNX(W_,3525);
-DYNX(W_,9205) = DYNX(W_,3531);
-DYNX(W_,8397) = -DYNX(DP_,1086);
-DYNX(W_,9206) = DYNX(W_,3563);
-DYNX(W_,9210) = DYNX(W_,3827);
-DYNX(W_,9213) = DYNX(W_,3888);
-DYNX(W_,9214) = DYNX(W_,3913);
-DYNX(W_,9340) = DYNX(W_,5006);
-DYNX(W_,9341) = DYNX(W_,5242);
-DYNX(W_,9342) = DYNX(W_,5419);
-DYNX(W_,9344) = DYNX(W_,4979);
-DYNX(W_,9349) = DYNX(W_,5065);
-DYNX(W_,9350) = DYNX(W_,5014);
-DYNX(W_,9352) = DYNX(W_,5038);
-DYNX(W_,9357) = DYNX(W_,5124);
-DYNX(W_,9358) = DYNX(W_,5073);
-DYNX(W_,9360) = DYNX(W_,5097);
-DYNX(W_,9366) = DYNX(W_,5156);
-DYNX(W_,9371) = DYNX(W_,5191);
-DYNX(W_,9373) = DYNX(W_,5215);
-DYNX(W_,9378) = DYNX(W_,5301);
-DYNX(W_,9379) = DYNX(W_,5250);
-DYNX(W_,9381) = DYNX(W_,5274);
-DYNX(W_,9386) = DYNX(W_,5360);
-DYNX(W_,9387) = DYNX(W_,5309);
-DYNX(W_,9389) = DYNX(W_,5333);
-DYNX(W_,9394) = DYNX(W_,5368);
-DYNX(W_,9396) = DYNX(W_,5392);
-DYNX(W_,9424) = DYNX(W_,5599);
-DYNX(W_,9425) = DYNX(W_,5631);
-DYNX(W_,9431) = DYNX(W_,5132);
-DYNX(W_,9432) = DYNX(W_,4955);
-DYNX(W_,9435) = DYNX(W_,6345);
-DYNX(W_,9462) = DYNX(W_,5931);
-DYNX(W_,9464) = DYNX(W_,5957);
-DYNX(W_,9469) = DYNX(W_,6047);
-DYNX(W_,9470) = DYNX(W_,5993);
-DYNX(W_,9472) = DYNX(W_,6019);
-DYNX(W_,9477) = DYNX(W_,6109);
-DYNX(W_,9478) = DYNX(W_,6055);
-DYNX(W_,9480) = DYNX(W_,6081);
-DYNX(W_,9485) = DYNX(W_,6171);
-DYNX(W_,9486) = DYNX(W_,6117);
-DYNX(W_,9488) = DYNX(W_,6143);
-DYNX(W_,9493) = DYNX(W_,6179);
-DYNX(W_,9495) = DYNX(W_,6205);
-DYNX(W_,9500) = DYNX(W_,6382);
-DYNX(W_,9502) = DYNX(W_,6345);
-DYNX(W_,9505) = DYNX(W_,6351);
-DYNX(W_,9507) = -DYNX(DP_,1317);
-DYNX(W_,9512) = DYNX(W_,6383);
-DYNX(W_,9527) = DYNX(W_,1185);
-DYNX(W_,9532) = DYNX(W_,7378);
-DYNX(W_,9533) = DYNX(W_,6888);
-DYNX(W_,9536) = DYNX(W_,7000);
-DYNX(W_,9574) = DYNX(W_,6958);
-DYNX(W_,9575) = DYNX(W_,6964);
-DYNX(W_,9577) = -DYNX(DP_,1368);
-DYNX(W_,9582) = DYNX(W_,7014)*DYNX(W_,7017)*DYNX(W_,7002);
-DYNX(W_,9583) = DYNX(W_,7017);
-DYNX(W_,9584) = DYNX(W_,7001);
-DYNX(W_,9585) = DYNX(W_,7003);
-DYNX(W_,9604) = DYNX(DP_,1391);
-DYNX(W_,9605) = DYNX(W_,7266);
-DYNX(W_,9607) = DYNX(W_,7336);
-DYNX(W_,9611) = DYNX(W_,7240);
-DYNX(W_,9615) = DYNX(W_,7342);
-DYNX(W_,9617) = -DYNX(DP_,1390);
-DYNX(W_,9622) = DYNX(W_,7392)*DYNX(W_,7395)*DYNX(W_,7380);
-DYNX(W_,9623) = DYNX(W_,7395);
-DYNX(W_,9624) = DYNX(W_,7379);
-DYNX(W_,9625) = DYNX(W_,7381);
-DYNX(W_,9646) = DYNX(W_,7619);
-DYNX(W_,9654) = DYNX(W_,7742);
-DYNX(W_,9655) = DYNX(W_,7806)*DYNX(W_,7809)*DYNX(W_,7784);
-DYNX(W_,9656) = DYNX(W_,7783);
-DYNX(W_,9657) = DYNX(W_,7785);
-DYNX(W_,9672) = DYNX(W_,7932);
-DYNX(W_,9673) = DYNX(W_,7982)*DYNX(W_,7985)*DYNX(W_,7970);
-DYNX(W_,9674) = DYNX(W_,7985);
-DYNX(W_,9675) = DYNX(W_,7969);
-DYNX(W_,9676) = DYNX(W_,7971);
-DYNX(W_,9696) = DYNX(W_,6958);
-DYNX(W_,9698) = DYNX(W_,7336);
+DYNX(W_,9393) = DYNX(W_,5559);
+DYNX(W_,9394) = DYNX(W_,5591);
+DYNX(W_,9400) = DYNX(W_,5092);
+DYNX(W_,9401) = DYNX(W_,4915);
+DYNX(W_,9404) = DYNX(W_,6305);
+DYNX(W_,9431) = DYNX(W_,5891);
+DYNX(W_,9433) = DYNX(W_,5917);
+DYNX(W_,9438) = DYNX(W_,6007);
+DYNX(W_,9439) = DYNX(W_,5953);
+DYNX(W_,9441) = DYNX(W_,5979);
+DYNX(W_,9446) = DYNX(W_,6069);
+DYNX(W_,9447) = DYNX(W_,6015);
+DYNX(W_,9449) = DYNX(W_,6041);
+DYNX(W_,9454) = DYNX(W_,6131);
+DYNX(W_,9455) = DYNX(W_,6077);
+DYNX(W_,9457) = DYNX(W_,6103);
+DYNX(W_,9462) = DYNX(W_,6139);
+DYNX(W_,9464) = DYNX(W_,6165);
+DYNX(W_,9469) = DYNX(W_,6342);
+DYNX(W_,9471) = DYNX(W_,6305);
+DYNX(W_,9474) = DYNX(W_,6311);
+DYNX(W_,9476) = -DYNX(DP_,1323);
+DYNX(W_,9481) = DYNX(W_,6343);
+DYNX(W_,9496) = DYNX(W_,1185);
+DYNX(W_,9501) = DYNX(W_,7338);
+DYNX(W_,9502) = DYNX(W_,6848);
+DYNX(W_,9505) = DYNX(W_,6960);
+DYNX(W_,9543) = DYNX(W_,6918);
+DYNX(W_,9544) = DYNX(W_,6924);
+DYNX(W_,9546) = -DYNX(DP_,1374);
+DYNX(W_,9551) = DYNX(W_,6974)*DYNX(W_,6977)*DYNX(W_,6962);
+DYNX(W_,9552) = DYNX(W_,6977);
+DYNX(W_,9553) = DYNX(W_,6961);
+DYNX(W_,9554) = DYNX(W_,6963);
+DYNX(W_,9573) = DYNX(DP_,1397);
+DYNX(W_,9574) = DYNX(W_,7226);
+DYNX(W_,9576) = DYNX(W_,7296);
+DYNX(W_,9580) = DYNX(W_,7200);
+DYNX(W_,9584) = DYNX(W_,7302);
+DYNX(W_,9586) = -DYNX(DP_,1396);
+DYNX(W_,9591) = DYNX(W_,7352)*DYNX(W_,7355)*DYNX(W_,7340);
+DYNX(W_,9592) = DYNX(W_,7355);
+DYNX(W_,9593) = DYNX(W_,7339);
+DYNX(W_,9594) = DYNX(W_,7341);
+DYNX(W_,9615) = DYNX(W_,7579);
+DYNX(W_,9623) = DYNX(W_,7702);
+DYNX(W_,9624) = DYNX(W_,7766)*DYNX(W_,7769)*DYNX(W_,7744);
+DYNX(W_,9625) = DYNX(W_,7743);
+DYNX(W_,9626) = DYNX(W_,7745);
+DYNX(W_,9641) = DYNX(W_,7892);
+DYNX(W_,9642) = DYNX(W_,7942)*DYNX(W_,7945)*DYNX(W_,7930);
+DYNX(W_,9643) = DYNX(W_,7945);
+DYNX(W_,9644) = DYNX(W_,7929);
+DYNX(W_,9645) = DYNX(W_,7931);
+DYNX(W_,9665) = DYNX(W_,6918);
+DYNX(W_,9667) = DYNX(W_,7296);
InitialStartSection
DYNX(Aux_,8) = DYNX(W_,1185);
-DYNX(Aux_,16) = DYNX(W_,3031);
-DYNX(Aux_,28) = DYNX(W_,3525);
-DYNX(Aux_,79) = DYNX(W_,6958);
-DYNX(Aux_,93) = DYNX(W_,7336);
+DYNX(Aux_,16) = DYNX(W_,3006);
+DYNX(Aux_,28) = DYNX(W_,3487);
+DYNX(Aux_,79) = DYNX(W_,6918);
+DYNX(Aux_,93) = DYNX(W_,7296);
DYNX(Aux_,8) = DYNX(W_,1185);
-DYNX(Aux_,16) = DYNX(W_,3031);
-DYNX(Aux_,28) = DYNX(W_,3525);
-DYNX(Aux_,79) = DYNX(W_,6958);
-DYNX(Aux_,93) = DYNX(W_,7336);
+DYNX(Aux_,16) = DYNX(W_,3006);
+DYNX(Aux_,28) = DYNX(W_,3487);
+DYNX(Aux_,79) = DYNX(W_,6918);
+DYNX(Aux_,93) = DYNX(W_,7296);
InitialStartSection2
DYNX(X_,0) = DYNX(W_,373);
DYNX(X_,1) = 640.0*DYNX(W_,387)*(1006.0*(DYNX(W_,372)-273.15)*(1-DYNX(W_,373))+(
@@ -14007,297 +13972,298 @@ DYNX(X_,16) = 4165531.824*DYNX(W_,1243)*(DYNX(W_,1223)-273.15);
DYNX(X_,17) = DYNX(DP_,830);
DYNX(X_,18) = DYNX(DP_,832);
DYNX(X_,19) = DYNX(DP_,834);
-DYNX(X_,21) = 4165531.824*DYNX(W_,2999)*(DYNX(W_,2981)-273.15);
-DYNX(X_,22) = DYNX(W_,3099);
-DYNX(X_,23) = 1.2*DYNX(W_,3119)*(2481484.5*DYNX(W_,3099)-10563.0*(1-
- DYNX(W_,3099))-84437.5);
-DYNX(X_,24) = DYNX(DP_,1071);
-DYNX(X_,25) = 4165531.824*DYNX(W_,3583)*(DYNX(W_,3563)-273.15);
-DYNX(X_,26) = DYNX(DP_,1090);
-DYNX(X_,27) = DYNX(W_,3827);
-DYNX(X_,28) = DYNX(DP_,1101);
-DYNX(X_,29) = DYNX(DP_,1103);
-DYNX(X_,30) = 4165531.824*DYNX(W_,3931)*(DYNX(W_,3913)-273.15);
-DYNX(X_,31) = DYNX(DP_,1118);
-DYNX(X_,32) = DYNX(DP_,1120);
-DYNX(X_,33) = DYNX(DP_,1122);
-DYNX(X_,34) = DYNX(DP_,1124);
-DYNX(X_,35) = DYNX(W_,4088);
-DYNX(X_,36) = DYNX(DP_,1164);
-DYNX(X_,37) = DYNX(DP_,1166);
-DYNX(X_,40) = 208276591.2*DYNX(W_,4459);
-DYNX(X_,41) = 208276591.2*DYNX(W_,4518);
-DYNX(X_,42) = 208276591.2*DYNX(W_,4577);
-DYNX(X_,43) = 208276591.2*DYNX(W_,4636);
-DYNX(X_,44) = 208276591.2*DYNX(W_,4695);
-DYNX(X_,45) = 208276591.2*DYNX(W_,4754);
-DYNX(X_,46) = 208276591.2*DYNX(W_,4813);
-DYNX(X_,47) = 208276591.2*DYNX(W_,4872);
-DYNX(X_,48) = 4165531.824*DYNX(W_,4998)*(DYNX(W_,4979)-273.15);
-DYNX(X_,49) = 4165531.824*DYNX(W_,5057)*(DYNX(W_,5038)-273.15);
-DYNX(X_,50) = 4165531.824*DYNX(W_,5116)*(DYNX(W_,5097)-273.15);
-DYNX(X_,51) = 4165531.824*DYNX(W_,5175)*(DYNX(W_,5156)-273.15);
-DYNX(X_,52) = 4165531.824*DYNX(W_,5234)*(DYNX(W_,5215)-273.15);
-DYNX(X_,53) = 4165531.824*DYNX(W_,5293)*(DYNX(W_,5274)-273.15);
-DYNX(X_,54) = 4165531.824*DYNX(W_,5352)*(DYNX(W_,5333)-273.15);
-DYNX(X_,55) = 4165531.824*DYNX(W_,5411)*(DYNX(W_,5392)-273.15);
-DYNX(X_,56) = 4165531.824*DYNX(W_,5650)*(DYNX(W_,5631)-273.15);
-DYNX(X_,57) = DYNX(DP_,1263);
-DYNX(X_,58) = DYNX(DP_,1265);
-DYNX(X_,59) = 99158.13761176253*(DYNX(W_,5957)-273.15);
-DYNX(X_,60) = 99158.13761176253*(DYNX(W_,6019)-273.15);
-DYNX(X_,61) = 99158.13761176253*(DYNX(W_,6081)-273.15);
-DYNX(X_,62) = 99158.13761176253*(DYNX(W_,6143)-273.15);
-DYNX(X_,63) = 99158.13761176253*(DYNX(W_,6205)-273.15);
-DYNX(X_,64) = DYNX(DP_,1303);
-DYNX(X_,65) = 4165531.824*DYNX(W_,6402)*(DYNX(W_,6383)-273.15);
-DYNX(X_,66) = DYNX(W_,7002);
-DYNX(X_,67) = DYNX(W_,7014)*DYNX(W_,7017)*(1006.0*(DYNX(W_,7001)-273.15)*(1-
- DYNX(W_,7002))+(2501014.5+1860*(DYNX(W_,7001)-273.15))*DYNX(W_,7002)-84437.5);
-DYNX(X_,68) = DYNX(W_,6976)*DYNX(W_,6977);
-DYNX(X_,69) = DYNX(W_,7240);
-DYNX(X_,70) = DYNX(W_,7380);
-DYNX(X_,71) = DYNX(W_,7392)*DYNX(W_,7395)*(1006.0*(DYNX(W_,7379)-273.15)*(1-
- DYNX(W_,7380))+(2501014.5+1860*(DYNX(W_,7379)-273.15))*DYNX(W_,7380)-84437.5);
-DYNX(X_,72) = DYNX(W_,7354)*DYNX(W_,7355);
-DYNX(X_,73) = DYNX(W_,7619);
-DYNX(X_,74) = DYNX(W_,7784);
-DYNX(X_,75) = DYNX(W_,7806)*DYNX(W_,7809)*(1006.0*(DYNX(W_,7783)-273.15)*(1-
- DYNX(W_,7784))+(2501014.5+1860*(DYNX(W_,7783)-273.15))*DYNX(W_,7784)-84437.5);
-DYNX(X_,76) = DYNX(W_,7970);
-DYNX(X_,77) = DYNX(W_,7982)*DYNX(W_,7985)*(1006.0*(DYNX(W_,7969)-273.15)*(1-
- DYNX(W_,7970))+(2501014.5+1860*(DYNX(W_,7969)-273.15))*DYNX(W_,7970)-84437.5);
-DYNX(X_,78) = DYNX(W_,7944)*DYNX(W_,7945);
+DYNX(X_,21) = 4165531.824*DYNX(W_,2974)*(DYNX(W_,2956)-273.15);
+DYNX(X_,22) = DYNX(W_,3074);
+DYNX(X_,23) = 1.2*DYNX(W_,3094)*(2481484.5*DYNX(W_,3074)-10563.0*(1-
+ DYNX(W_,3074))-84437.5);
+DYNX(X_,24) = DYNX(DP_,1077);
+DYNX(X_,25) = 4165531.824*DYNX(W_,3545)*(DYNX(W_,3525)-273.15);
+DYNX(X_,26) = DYNX(DP_,1096);
+DYNX(X_,27) = DYNX(W_,3789);
+DYNX(X_,28) = DYNX(DP_,1107);
+DYNX(X_,29) = DYNX(DP_,1109);
+DYNX(X_,30) = 4165531.824*DYNX(W_,3891)*(DYNX(W_,3873)-273.15);
+DYNX(X_,31) = DYNX(DP_,1124);
+DYNX(X_,32) = DYNX(DP_,1126);
+DYNX(X_,33) = DYNX(DP_,1128);
+DYNX(X_,34) = DYNX(DP_,1130);
+DYNX(X_,35) = DYNX(W_,4048);
+DYNX(X_,36) = DYNX(DP_,1170);
+DYNX(X_,37) = DYNX(DP_,1172);
+DYNX(X_,40) = 208276591.2*DYNX(W_,4419);
+DYNX(X_,41) = 208276591.2*DYNX(W_,4478);
+DYNX(X_,42) = 208276591.2*DYNX(W_,4537);
+DYNX(X_,43) = 208276591.2*DYNX(W_,4596);
+DYNX(X_,44) = 208276591.2*DYNX(W_,4655);
+DYNX(X_,45) = 208276591.2*DYNX(W_,4714);
+DYNX(X_,46) = 208276591.2*DYNX(W_,4773);
+DYNX(X_,47) = 208276591.2*DYNX(W_,4832);
+DYNX(X_,48) = 4165531.824*DYNX(W_,4958)*(DYNX(W_,4939)-273.15);
+DYNX(X_,49) = 4165531.824*DYNX(W_,5017)*(DYNX(W_,4998)-273.15);
+DYNX(X_,50) = 4165531.824*DYNX(W_,5076)*(DYNX(W_,5057)-273.15);
+DYNX(X_,51) = 4165531.824*DYNX(W_,5135)*(DYNX(W_,5116)-273.15);
+DYNX(X_,52) = 4165531.824*DYNX(W_,5194)*(DYNX(W_,5175)-273.15);
+DYNX(X_,53) = 4165531.824*DYNX(W_,5253)*(DYNX(W_,5234)-273.15);
+DYNX(X_,54) = 4165531.824*DYNX(W_,5312)*(DYNX(W_,5293)-273.15);
+DYNX(X_,55) = 4165531.824*DYNX(W_,5371)*(DYNX(W_,5352)-273.15);
+DYNX(X_,56) = 4165531.824*DYNX(W_,5610)*(DYNX(W_,5591)-273.15);
+DYNX(X_,57) = DYNX(DP_,1269);
+DYNX(X_,58) = DYNX(DP_,1271);
+DYNX(X_,59) = 99158.13761176253*(DYNX(W_,5917)-273.15);
+DYNX(X_,60) = 99158.13761176253*(DYNX(W_,5979)-273.15);
+DYNX(X_,61) = 99158.13761176253*(DYNX(W_,6041)-273.15);
+DYNX(X_,62) = 99158.13761176253*(DYNX(W_,6103)-273.15);
+DYNX(X_,63) = 99158.13761176253*(DYNX(W_,6165)-273.15);
+DYNX(X_,64) = DYNX(DP_,1309);
+DYNX(X_,65) = 4165531.824*DYNX(W_,6362)*(DYNX(W_,6343)-273.15);
+DYNX(X_,66) = DYNX(W_,6962);
+DYNX(X_,67) = DYNX(W_,6974)*DYNX(W_,6977)*(1006.0*(DYNX(W_,6961)-273.15)*(1-
+ DYNX(W_,6962))+(2501014.5+1860*(DYNX(W_,6961)-273.15))*DYNX(W_,6962)-84437.5);
+DYNX(X_,68) = DYNX(W_,6936)*DYNX(W_,6937);
+DYNX(X_,69) = DYNX(W_,7200);
+DYNX(X_,70) = DYNX(W_,7340);
+DYNX(X_,71) = DYNX(W_,7352)*DYNX(W_,7355)*(1006.0*(DYNX(W_,7339)-273.15)*(1-
+ DYNX(W_,7340))+(2501014.5+1860*(DYNX(W_,7339)-273.15))*DYNX(W_,7340)-84437.5);
+DYNX(X_,72) = DYNX(W_,7314)*DYNX(W_,7315);
+DYNX(X_,73) = DYNX(W_,7579);
+DYNX(X_,74) = DYNX(W_,7744);
+DYNX(X_,75) = DYNX(W_,7766)*DYNX(W_,7769)*(1006.0*(DYNX(W_,7743)-273.15)*(1-
+ DYNX(W_,7744))+(2501014.5+1860*(DYNX(W_,7743)-273.15))*DYNX(W_,7744)-84437.5);
+DYNX(X_,76) = DYNX(W_,7930);
+DYNX(X_,77) = DYNX(W_,7942)*DYNX(W_,7945)*(1006.0*(DYNX(W_,7929)-273.15)*(1-
+ DYNX(W_,7930))+(2501014.5+1860*(DYNX(W_,7929)-273.15))*DYNX(W_,7930)-84437.5);
+DYNX(X_,78) = DYNX(W_,7904)*DYNX(W_,7905);
InitialSection
if (!DymolaUserHomotopy) UpdateInitVars(time, X_, XD_, U_, DP_, IP_, LP_, F_, Y_, W_, QZ_, duser_, iuser_, cuser_, did_, 1);
DefaultSection
InitializeData(0)
InitialBoundSection
-DYNX(Aux_,274) = DYNX(W_,8313);
-DYNX(Aux_,273) = DYNX(W_,8312);
-DYNX(Aux_,275) = DYNX(W_,8304);
-DYNX(Aux_,276) = DYNX(W_,8288);
-DYNX(Aux_,277) = DYNX(W_,8289);
-DYNX(Aux_,278) = DYNX(W_,8290);
-DYNX(Aux_,279) = DYNX(W_,8291);
-DYNX(Aux_,280) = DYNX(W_,8296);
-DYNX(Aux_,281) = DYNX(W_,8292);
-DYNX(Aux_,282) = DYNX(W_,8293);
-DYNX(Aux_,283) = DYNX(W_,8294);
-DYNX(Aux_,284) = DYNX(W_,8295);
-DYNX(Aux_,285) = DYNX(W_,8302);
-DYNX(Aux_,286) = DYNX(W_,8472);
-DYNX(Aux_,287) = DYNX(W_,8321);
-DYNX(Aux_,288) = DYNX(W_,8318);
-DYNX(Aux_,289) = DYNX(W_,8315);
-DYNX(Aux_,290) = DYNX(W_,8332);
-DYNX(Aux_,291) = DYNX(W_,8329);
-DYNX(Aux_,292) = DYNX(W_,8326);
-DYNX(Aux_,293) = DYNX(W_,8430);
-DYNX(Aux_,294) = DYNX(W_,8426);
-DYNX(Aux_,295) = DYNX(W_,8428);
-DYNX(Aux_,296) = DYNX(W_,8427);
-DYNX(Aux_,297) = DYNX(W_,8436);
-DYNX(Aux_,298) = DYNX(W_,8431);
-DYNX(Aux_,299) = DYNX(W_,8433);
-DYNX(Aux_,300) = DYNX(W_,8432);
-DYNX(Aux_,301) = DYNX(W_,8417);
-DYNX(Aux_,302) = DYNX(W_,8420);
-DYNX(Aux_,303) = DYNX(W_,8413);
-DYNX(Aux_,304) = DYNX(W_,8393);
-DYNX(Aux_,305) = DYNX(W_,8392);
-DYNX(Aux_,306) = DYNX(W_,8388);
-DYNX(Aux_,307) = DYNX(W_,8390);
-DYNX(Aux_,308) = DYNX(W_,8391);
-DYNX(Aux_,309) = DYNX(W_,8369);
-DYNX(Aux_,310) = DYNX(W_,8368);
-DYNX(Aux_,311) = DYNX(W_,8371);
-DYNX(Aux_,312) = DYNX(W_,8386);
-DYNX(Aux_,313) = DYNX(W_,8384);
-DYNX(Aux_,314) = DYNX(W_,8385);
-DYNX(Aux_,315) = DYNX(W_,8380);
-DYNX(Aux_,316) = DYNX(W_,8378);
-DYNX(Aux_,317) = DYNX(W_,8365);
-DYNX(Aux_,318) = DYNX(W_,8373);
-DYNX(Aux_,319) = DYNX(W_,8363);
-DYNX(Aux_,320) = DYNX(W_,8362);
-DYNX(Aux_,321) = DYNX(W_,8360);
-DYNX(Aux_,322) = DYNX(W_,8361);
-DYNX(Aux_,323) = DYNX(W_,8355);
-DYNX(Aux_,324) = DYNX(W_,8353);
-DYNX(Aux_,325) = DYNX(W_,8354);
-DYNX(Aux_,326) = DYNX(W_,8348);
+DYNX(Aux_,274) = DYNX(W_,8273);
+DYNX(Aux_,273) = DYNX(W_,8272);
+DYNX(Aux_,275) = DYNX(W_,8264);
+DYNX(Aux_,276) = DYNX(W_,8248);
+DYNX(Aux_,277) = DYNX(W_,8249);
+DYNX(Aux_,278) = DYNX(W_,8250);
+DYNX(Aux_,279) = DYNX(W_,8251);
+DYNX(Aux_,280) = DYNX(W_,8256);
+DYNX(Aux_,281) = DYNX(W_,8252);
+DYNX(Aux_,282) = DYNX(W_,8253);
+DYNX(Aux_,283) = DYNX(W_,8254);
+DYNX(Aux_,284) = DYNX(W_,8255);
+DYNX(Aux_,285) = DYNX(W_,8262);
+DYNX(Aux_,286) = DYNX(W_,8435);
+DYNX(Aux_,287) = DYNX(W_,8281);
+DYNX(Aux_,288) = DYNX(W_,8278);
+DYNX(Aux_,289) = DYNX(W_,8275);
+DYNX(Aux_,290) = DYNX(W_,8292);
+DYNX(Aux_,291) = DYNX(W_,8289);
+DYNX(Aux_,292) = DYNX(W_,8286);
+DYNX(Aux_,293) = DYNX(W_,8393);
+DYNX(Aux_,294) = DYNX(W_,8389);
+DYNX(Aux_,295) = DYNX(W_,8391);
+DYNX(Aux_,296) = DYNX(W_,8390);
+DYNX(Aux_,297) = DYNX(W_,8399);
+DYNX(Aux_,298) = DYNX(W_,8394);
+DYNX(Aux_,299) = DYNX(W_,8396);
+DYNX(Aux_,300) = DYNX(W_,8395);
+DYNX(Aux_,301) = DYNX(W_,8380);
+DYNX(Aux_,302) = DYNX(W_,8383);
+DYNX(Aux_,303) = DYNX(W_,8376);
+DYNX(Aux_,304) = DYNX(W_,8299);
+DYNX(Aux_,305) = DYNX(W_,8356);
+DYNX(Aux_,306) = DYNX(W_,8355);
+DYNX(Aux_,307) = DYNX(W_,8351);
+DYNX(Aux_,308) = DYNX(W_,8353);
+DYNX(Aux_,309) = DYNX(W_,8354);
+DYNX(Aux_,310) = DYNX(W_,8332);
+DYNX(Aux_,311) = DYNX(W_,8331);
+DYNX(Aux_,312) = DYNX(W_,8334);
+DYNX(Aux_,313) = DYNX(W_,8349);
+DYNX(Aux_,314) = DYNX(W_,8347);
+DYNX(Aux_,315) = DYNX(W_,8348);
+DYNX(Aux_,316) = DYNX(W_,8343);
+DYNX(Aux_,317) = DYNX(W_,8341);
+DYNX(Aux_,318) = DYNX(W_,8328);
+DYNX(Aux_,319) = DYNX(W_,8336);
+DYNX(Aux_,320) = DYNX(W_,8326);
+DYNX(Aux_,321) = DYNX(W_,8325);
+DYNX(Aux_,322) = DYNX(W_,8323);
+DYNX(Aux_,323) = DYNX(W_,8324);
+DYNX(Aux_,324) = DYNX(W_,8318);
+DYNX(Aux_,325) = DYNX(W_,8316);
+DYNX(Aux_,326) = DYNX(W_,8317);
DYNX(Aux_,327) = DYNX(W_,8310);
-DYNX(Aux_,328) = DYNX(W_,8311);
-DYNX(Aux_,330) = DYNX(W_,8309);
-DYNX(Aux_,329) = DYNX(W_,8308);
-DYNX(Aux_,331) = DYNX(W_,8469);
-DYNX(Aux_,332) = DYNX(W_,8468);
-DYNX(Aux_,333) = DYNX(W_,8471);
-DYNX(Aux_,334) = DYNX(W_,8470);
-DYNX(Aux_,335) = DYNX(W_,8467);
+DYNX(Aux_,328) = DYNX(W_,8270);
+DYNX(Aux_,329) = DYNX(W_,8271);
+DYNX(Aux_,331) = DYNX(W_,8269);
+DYNX(Aux_,330) = DYNX(W_,8268);
+DYNX(Aux_,332) = DYNX(W_,8432);
+DYNX(Aux_,333) = DYNX(W_,8431);
+DYNX(Aux_,334) = DYNX(W_,8434);
+DYNX(Aux_,335) = DYNX(W_,8433);
+DYNX(Aux_,336) = DYNX(W_,8430);
InitialSection
InitialSection2
-DYNX(W_,9526) = 209200.0;
-DYNX(W_,9430) = 323.15;
-DYNX(W_,8371) = 0;
-DYNX(W_,8373) = 0;
-DYNX(W_,5773) = 0.0;
+DYNX(W_,9495) = 209200.0;
+DYNX(W_,9399) = 323.15;
+DYNX(W_,8334) = 0;
+DYNX(W_,8336) = 0;
+DYNX(W_,5733) = 0.0;
DYNX(Y_,2) = 0;
DYNX(Y_,3) = 0;
DYNX(Y_,4) = 0;
DYNX(Y_,5) = 0;
DYNX(Y_,6) = 0;
DYNX(Y_,7) = 0;
-DYNX(W_,9527) = 209200.0;
-DYNX(W_,9433) = 323.15;
-DYNX(W_,9324) = 29.0;
-DYNX(W_,9267) = 209200.0;
-DYNX(W_,9268) = 323.15;
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(31);
-DYNX(W_,9326) = 29.0;
-DYNX(W_,9275) = 209200.0;
-DYNX(W_,9276) = 323.15;
-DYNX(W_,9328) = 29.0;
-DYNX(W_,9330) = 29.0;
-DYNX(W_,9028) = 323.15;
-DYNX(W_,9337) = 0.0;
-DYNX(W_,9338) = 0.598;
-DYNX(W_,9339) = 0.0;
-DYNX(W_,9260) = 209200.0;
-DYNX(W_,9312) = 323.15;
-DYNX(W_,9322) = 0.0;
-DYNX(W_,9313) = 0.0;
-DYNX(W_,9334) = 0.0;
-DYNX(W_,9335) = 0.598;
-DYNX(W_,9336) = 0.0;
-DYNX(W_,9304) = 209200.0;
-DYNX(W_,9305) = 323.15;
-DYNX(W_,9321) = 0.0;
+DYNX(W_,9496) = 209200.0;
+DYNX(W_,9402) = 323.15;
+DYNX(W_,9293) = 29.0;
+DYNX(W_,9236) = 209200.0;
+DYNX(W_,9237) = 323.15;
+DYNX(W_,9295) = 29.0;
+DYNX(W_,9244) = 209200.0;
+DYNX(W_,9245) = 323.15;
+DYNX(W_,9297) = 29.0;
+DYNX(W_,9299) = 29.0;
+DYNX(W_,8991) = 323.15;
DYNX(W_,9306) = 0.0;
-DYNX(W_,9331) = 0.0;
-DYNX(W_,9332) = 0.598;
-DYNX(W_,9333) = 0.0;
-DYNX(W_,9296) = 209200.0;
-DYNX(W_,9297) = 323.15;
-DYNX(W_,9320) = 0.0;
-DYNX(W_,9298) = 0.0;
-DYNX(W_,9259) = 209200.0;
-DYNX(W_,9289) = 323.15;
-DYNX(W_,9319) = 0.0;
+DYNX(W_,9307) = 0.598;
+DYNX(W_,9308) = 0.0;
+DYNX(W_,9229) = 209200.0;
+DYNX(W_,9281) = 323.15;
+DYNX(W_,9291) = 0.0;
+DYNX(W_,9282) = 0.0;
+DYNX(W_,9303) = 0.0;
+DYNX(W_,9304) = 0.598;
+DYNX(W_,9305) = 0.0;
+DYNX(W_,9273) = 209200.0;
+DYNX(W_,9274) = 323.15;
DYNX(W_,9290) = 0.0;
+DYNX(W_,9275) = 0.0;
+DYNX(W_,9300) = 0.0;
+DYNX(W_,9301) = 0.598;
+DYNX(W_,9302) = 0.0;
+DYNX(W_,9265) = 209200.0;
+DYNX(W_,9266) = 323.15;
+DYNX(W_,9289) = 0.0;
+DYNX(W_,9267) = 0.0;
+DYNX(W_,9228) = 209200.0;
+DYNX(W_,9258) = 323.15;
+DYNX(W_,9288) = 0.0;
+DYNX(W_,9259) = 0.0;
DYNX(F_,39) = 0;
-DYNX(W_,9175) = -10.5;
-DYNX(W_,9169) = 262.65;
-AssertModelica(DYNX(W_,9169) >= 200.0,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9142) = -10.5;
+DYNX(W_,9136) = 262.65;
+AssertModelica(DYNX(W_,9136) >= 200.0,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.eva.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"AixLib.Media.Air\".");
-AssertModelica(DYNX(W_,9169) <= 423.15,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9136) <= 423.15,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.eva.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"AixLib.Media.Air\".");
-DYNX(W_,9262) = 323.15;
-AssertModelica(DYNX(W_,9262) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T >= 272.15)",
+DYNX(W_,9231) = 323.15;
+AssertModelica(DYNX(W_,9231) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9262), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9231), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9262) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9231) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9262), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9231), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9262), true, 0))," K)"));
-DYNX(W_,9270) = 323.15;
-AssertModelica(DYNX(W_,9270) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T >= 272.15)",
+ Real2String2(DYNX(W_,9231), true, 0))," K)"));
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(31);
+DYNX(W_,9239) = 323.15;
+AssertModelica(DYNX(W_,9239) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9270), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9239), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9270) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9239) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9270), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9239), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9270), true, 0))," K)"));
-DYNX(W_,9278) = 323.15;
-AssertModelica(DYNX(W_,9278) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T >= 272.15)",
+ Real2String2(DYNX(W_,9239), true, 0))," K)"));
+DYNX(W_,9247) = 323.15;
+AssertModelica(DYNX(W_,9247) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9278), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9247), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9278) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9247) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9278), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9247), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9278), true, 0))," K)"));
-DYNX(W_,9284) = 323.15;
-AssertModelica(DYNX(W_,9284) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T >= 272.15)",
+ Real2String2(DYNX(W_,9247), true, 0))," K)"));
+DYNX(W_,9253) = 323.15;
+AssertModelica(DYNX(W_,9253) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9284), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9253), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9284) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9253) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9284), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9253), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9284), true, 0))," K)"));
-DYNX(W_,9291) = 323.15;
-AssertModelica(DYNX(W_,9291) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T >= 272.15)",
+ Real2String2(DYNX(W_,9253), true, 0))," K)"));
+DYNX(W_,9260) = 323.15;
+AssertModelica(DYNX(W_,9260) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9291), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9260), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9291) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9260) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9291), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9260), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9291), true, 0))," K)"));
-DYNX(W_,9299) = 323.15;
-AssertModelica(DYNX(W_,9299) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9260), true, 0))," K)"));
+DYNX(W_,9268) = 323.15;
+AssertModelica(DYNX(W_,9268) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9299), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9268), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9299) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9268) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9299), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9268), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9299), true, 0))," K)"));
-DYNX(W_,9307) = 323.15;
-AssertModelica(DYNX(W_,9307) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9268), true, 0))," K)"));
+DYNX(W_,9276) = 323.15;
+AssertModelica(DYNX(W_,9276) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9307), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9276), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9307) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9276) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9307), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9276), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9307), true, 0))," K)"));
-DYNX(W_,9314) = 323.15;
-AssertModelica(DYNX(W_,9314) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9276), true, 0))," K)"));
+DYNX(W_,9283) = 323.15;
+AssertModelica(DYNX(W_,9283) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9314), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9283), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9314) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9283) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9314), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9283), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9314), true, 0))," K)"));
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9283), true, 0))," K)"));
InitialBoundSection
DYNX(Aux_,176) = 209200.0;
DYNX(Aux_,175) = 209200.0;
@@ -14314,12 +14280,12 @@ DYNX(Aux_,136) = 209200.0;
DYNX(Aux_,172) = 209200.0;
DYNX(Aux_,174) = 209200.0;
InitialSection2
-DYNX(W_,8481) = 0;
-DYNX(W_,8482) = 0;
-DYNX(W_,8483) = 0;
-DYNX(W_,8484) = 0;
-DYNX(W_,8485) = 0;
-DYNX(W_,8486) = 0;
+DYNX(W_,8444) = 0;
+DYNX(W_,8445) = 0;
+DYNX(W_,8446) = 0;
+DYNX(W_,8447) = 0;
+DYNX(W_,8448) = 0;
+DYNX(W_,8449) = 0;
InitialBoundSection
DYNX(Aux_,8) = 209200.0;
DYNX(Aux_,11) = 209200.0;
@@ -14328,18 +14294,18 @@ DYNX(Aux_,15) = 209200.0;
DYNX(Aux_,49) = 209200.0;
DYNX(Aux_,52) = 209200.0;
InitialSection2
-DYNX(W_,9174) = -10.5;
-DYNX(W_,9263) = 50.0;
-DYNX(W_,9271) = 50.0;
-DYNX(W_,9279) = 50.0;
-DYNX(W_,9285) = 50.0;
-DYNX(W_,9292) = 50.0;
-DYNX(W_,9300) = 50.0;
-DYNX(W_,9308) = 50.0;
-DYNX(W_,9315) = 50.0;
+DYNX(W_,9141) = -10.5;
+DYNX(W_,9232) = 50.0;
+DYNX(W_,9240) = 50.0;
+DYNX(W_,9248) = 50.0;
+DYNX(W_,9254) = 50.0;
+DYNX(W_,9261) = 50.0;
+DYNX(W_,9269) = 50.0;
+DYNX(W_,9277) = 50.0;
+DYNX(W_,9284) = 50.0;
InitialBoundSection
-DYNX(Aux_,311) = 0;
-DYNX(Aux_,318) = 0;
+DYNX(Aux_,312) = 0;
+DYNX(Aux_,319) = 0;
InitialSection2
DYNX(X_,38) = 0.0;
DYNX(X_,10) = 0;
@@ -14349,9 +14315,9 @@ DYNX(X_,12) = 0;
DYNX(X_,14) = 0;
DYNX(X_,11) = 0;
DYNX(X_,39) = 0.0;
-DYNX(W_,8413) = 0;
+DYNX(W_,8376) = 0;
DYNX(Y_,16) = 0;
-DYNX(W_,8420) = 0;
+DYNX(W_,8383) = 0;
DYNX(Y_,23) = 0;
InitialBoundSection
DYNX(Aux_,302) = 0;
@@ -14359,9 +14325,9 @@ DYNX(Aux_,303) = 0;
DYNX(Aux_,294) = true;
DYNX(Aux_,298) = true;
DYNX(Aux_,301) = false;
-DYNX(Aux_,305) = false;
-DYNX(Aux_,307) = false;
+DYNX(Aux_,306) = false;
DYNX(Aux_,308) = false;
+DYNX(Aux_,309) = false;
InitialSection2
DYNX(W_,1375) = 0;
DYNX(W_,1376) = 0;
@@ -14371,47 +14337,47 @@ DYNX(W_,1383) = 0;
DYNX(W_,1384) = 0;
DYNX(W_,1385) = 0;
DYNX(W_,1386) = 0;
-DYNX(W_,3713) = 0;
-DYNX(W_,3714) = 0;
-DYNX(W_,3715) = 0;
-DYNX(W_,3720) = 0;
-DYNX(W_,3721) = 0;
-DYNX(W_,3722) = 0;
-DYNX(W_,3723) = 0;
-DYNX(W_,3724) = 0;
-DYNX(W_,5523) = 0.010686434104164361;
-DYNX(W_,5560) = 0.010686434104164361;
-DYNX(W_,5580) = 0.010686434104164361;
-DYNX(W_,6533) = 0;
-DYNX(W_,6534) = 0;
-DYNX(W_,6535) = 0;
-DYNX(W_,6540) = 0;
-DYNX(W_,6541) = 0;
-DYNX(W_,6542) = 0;
-DYNX(W_,6543) = 0;
-DYNX(W_,6544) = 0;
-DYNX(W_,7150) = 0;
-DYNX(W_,7151) = 0;
-DYNX(W_,7152) = 0;
-DYNX(W_,7153) = 0;
-DYNX(W_,7154) = 0;
-DYNX(W_,7155) = 0;
-DYNX(W_,7156) = 0;
-DYNX(W_,7157) = 0;
-DYNX(W_,7158) = 0;
-DYNX(W_,7528) = 0;
-DYNX(W_,7529) = 0;
-DYNX(W_,7530) = 0;
-DYNX(W_,7531) = 0;
-DYNX(W_,7532) = 0;
-DYNX(W_,7533) = 0;
-DYNX(W_,7534) = 0;
-DYNX(W_,7535) = 0;
-DYNX(W_,7536) = 0;
-DYNX(W_,7663) = 0.007699607172920184;
-DYNX(W_,7727) = 0.007699607172920184;
-DYNX(W_,7856) = 0.007699607172920184;
-DYNX(W_,7917) = 0.007699607172920184;
+DYNX(W_,3675) = 0;
+DYNX(W_,3676) = 0;
+DYNX(W_,3677) = 0;
+DYNX(W_,3682) = 0;
+DYNX(W_,3683) = 0;
+DYNX(W_,3684) = 0;
+DYNX(W_,3685) = 0;
+DYNX(W_,3686) = 0;
+DYNX(W_,5483) = 0.010686434104164361;
+DYNX(W_,5520) = 0.010686434104164361;
+DYNX(W_,5540) = 0.010686434104164361;
+DYNX(W_,6493) = 0;
+DYNX(W_,6494) = 0;
+DYNX(W_,6495) = 0;
+DYNX(W_,6500) = 0;
+DYNX(W_,6501) = 0;
+DYNX(W_,6502) = 0;
+DYNX(W_,6503) = 0;
+DYNX(W_,6504) = 0;
+DYNX(W_,7110) = 0;
+DYNX(W_,7111) = 0;
+DYNX(W_,7112) = 0;
+DYNX(W_,7113) = 0;
+DYNX(W_,7114) = 0;
+DYNX(W_,7115) = 0;
+DYNX(W_,7116) = 0;
+DYNX(W_,7117) = 0;
+DYNX(W_,7118) = 0;
+DYNX(W_,7488) = 0;
+DYNX(W_,7489) = 0;
+DYNX(W_,7490) = 0;
+DYNX(W_,7491) = 0;
+DYNX(W_,7492) = 0;
+DYNX(W_,7493) = 0;
+DYNX(W_,7494) = 0;
+DYNX(W_,7495) = 0;
+DYNX(W_,7496) = 0;
+DYNX(W_,7623) = 0.007699607172920184;
+DYNX(W_,7687) = 0.007699607172920184;
+DYNX(W_,7816) = 0.007699607172920184;
+DYNX(W_,7877) = 0.007699607172920184;
RealAssign (RealTemporaryDense( &DYNX(W_,1378), 1, 4), (PushModelContext(1,
"IBPSA.Utilities.Math.Functions.splineDerivatives(DHW.pump.eff.pCur2.V_flow, DHW.pump.eff.pCur2.dp, IBPSA.Utilities.Math.Functions.isMonotonic(DHW.pump.eff.pCur2.dp, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
@@ -14419,33 +14385,33 @@ RealAssign (RealTemporaryDense( &DYNX(W_,1378), 1, 4), (PushModelContext(1,
IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,1360),
1, 4), false)))));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,3716), 1, 4), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,3678), 1, 4), (PushModelContext(1,
"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.generation.pump.eff.pCur2.V_flow, hydraulic.generation.pump.eff.pCur2.dp, IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.generation.pump.eff.pCur2.dp, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,3698),
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,3660),
1, 4), false)))));
PopAllMarks();
-DYNX(W_,5518) = divGuarded(0.010686434104164361,"0.010686434104164361",
- 8.78410461157883E-07*DYNX(DP_,1220),"8.78410461157883E-07*hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd");
-DYNX(W_,5519) = divGuarded(0.010686434104164361,"0.010686434104164361",
- 1.2042949486827428E-05*DYNX(DP_,1220)*0.0631,"1.2042949486827428E-05*(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd*0.0631)");
-DYNX(W_,5520) = divGuarded(0.010686434104164361,"0.010686434104164361",
- sqrtGuarded(DYNX(DP_,1220),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd"),
+DYNX(W_,5478) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ 8.78410461157883E-07*DYNX(DP_,1226),"8.78410461157883E-07*hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd");
+DYNX(W_,5479) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ 1.2042949486827428E-05*DYNX(DP_,1226)*0.0631,"1.2042949486827428E-05*(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd*0.0631)");
+DYNX(W_,5480) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ sqrtGuarded(DYNX(DP_,1226),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd"),
"sqrt(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd)");
-DYNX(W_,5555) = divGuarded(0.010686434104164361,"0.010686434104164361",
- 8.78410461157883E-07*DYNX(DP_,1225),"8.78410461157883E-07*hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd");
-DYNX(W_,5556) = divGuarded(0.010686434104164361,"0.010686434104164361",
- 1.2042949486827428E-05*DYNX(DP_,1225)*0.0631,"1.2042949486827428E-05*(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd*0.0631)");
-DYNX(W_,5557) = divGuarded(0.010686434104164361,"0.010686434104164361",
- sqrtGuarded(DYNX(DP_,1225),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd"),
+DYNX(W_,5515) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ 8.78410461157883E-07*DYNX(DP_,1231),"8.78410461157883E-07*hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd");
+DYNX(W_,5516) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ 1.2042949486827428E-05*DYNX(DP_,1231)*0.0631,"1.2042949486827428E-05*(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd*0.0631)");
+DYNX(W_,5517) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ sqrtGuarded(DYNX(DP_,1231),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd"),
"sqrt(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd)");
-DYNX(W_,5574) = divGuarded(0.010686434104164361,"0.010686434104164361",
- 8.78410461157883E-07*DYNX(DP_,1228),"8.78410461157883E-07*hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd");
-DYNX(W_,5575) = divGuarded(0.010686434104164361,"0.010686434104164361",
- 1.2042949486827428E-05*DYNX(DP_,1228)*0.0631,"1.2042949486827428E-05*(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd*0.0631)");
-DYNX(W_,5576) = divGuarded(0.010686434104164361,"0.010686434104164361",
- sqrtGuarded(DYNX(DP_,1228),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd"),
+DYNX(W_,5534) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ 8.78410461157883E-07*DYNX(DP_,1234),"8.78410461157883E-07*hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd");
+DYNX(W_,5535) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ 1.2042949486827428E-05*DYNX(DP_,1234)*0.0631,"1.2042949486827428E-05*(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd*0.0631)");
+DYNX(W_,5536) = divGuarded(0.010686434104164361,"0.010686434104164361",
+ sqrtGuarded(DYNX(DP_,1234),"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd"),
"sqrt(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd)");
{ /* Non-linear system of equations to solve. */
@@ -14459,114 +14425,114 @@ const char*const varnames_[]={"hydraulic.transfer.rad[1].TWat_nominal[5]",
const double nominal_[]={300.0, 1.0, 1.0, 1.0, 1.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 5, 0, 0, 1, -2,
DYNX(DYNhelp,325), 125, DYNX(did_->helpvari_vec,5), 27);
-SetInitVector(x__, 1, DYNX(W_,5880), DYNX(W_,5860));
-SetInitVector(x__, 2, DYNX(W_,5874), 0.2*DYNX(W_,5858));
-SetInitVector(x__, 3, DYNX(W_,5873), 0.2*DYNX(W_,5858));
-SetInitVector(x__, 4, DYNX(W_,5872), 0.2*DYNX(W_,5858));
-SetInitVector(x__, 5, DYNX(W_,5891), divGuarded(0.2*DYNX(W_,5858),
- "0.2*hydraulic.transfer.rad[1].Q_flow_nominal",0.5*(DYNX(W_,5859)+
- DYNX(W_,5860))-((1-DYNX(W_,5857))*DYNX(W_,5861)+DYNX(W_,5857)*DYNX(W_,5862)),
+SetInitVector(x__, 1, DYNX(W_,5840), DYNX(W_,5820));
+SetInitVector(x__, 2, DYNX(W_,5834), 0.2*DYNX(W_,5818));
+SetInitVector(x__, 3, DYNX(W_,5833), 0.2*DYNX(W_,5818));
+SetInitVector(x__, 4, DYNX(W_,5832), 0.2*DYNX(W_,5818));
+SetInitVector(x__, 5, DYNX(W_,5851), divGuarded(0.2*DYNX(W_,5818),
+ "0.2*hydraulic.transfer.rad[1].Q_flow_nominal",0.5*(DYNX(W_,5819)+
+ DYNX(W_,5820))-((1-DYNX(W_,5817))*DYNX(W_,5821)+DYNX(W_,5817)*DYNX(W_,5822)),
"0.5*(hydraulic.transfer.rad[1].T_a_nominal+hydraulic.transfer.rad[1].T_b_nominal)-((1-hydraulic.transfer.rad[1].fraRad)*hydraulic.transfer.rad[1].TAir_nominal+hydraulic.transfer.rad[1].fraRad*hydraulic.transfer.rad[1].TRad_nominal)"));
Residues;
- DYNX(DYNhelp,450) = DYNX(W_,5880)-294.15;
+ DYNX(DYNhelp,450) = DYNX(W_,5840)-294.15;
DYNX(DYNhelp,451) = DYNX(DYNhelp,450) > 2.4000000000000004;
DYNX(DYNhelp,452) = IF DYNX(DYNhelp,451) THEN powGuarded(DYNX(DYNhelp,450),
- "hydraulic.transfer.rad[1].TWat_nominal[5]-294.15",DYNX(W_,5863),
+ "hydraulic.transfer.rad[1].TWat_nominal[5]-294.15",DYNX(W_,5823),
"hydraulic.transfer.rad[1].n") ELSE powGuarded(2.4000000000000004,
- "2.4000000000000004",DYNX(W_,5863),"hydraulic.transfer.rad[1].n")*(1-
- DYNX(W_,5863))+DYNX(W_,5863)*powGuarded(2.4000000000000004,"2.4000000000000004",
- DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,450);
- DYNX(DYNhelp,453) = 1-DYNX(W_,5857);
- DYNX(DYNhelp,454) = DYNX(W_,5857)*DYNX(DYNhelp,452)+DYNX(DYNhelp,453)*
+ "2.4000000000000004",DYNX(W_,5823),"hydraulic.transfer.rad[1].n")*(1-
+ DYNX(W_,5823))+DYNX(W_,5823)*powGuarded(2.4000000000000004,"2.4000000000000004",
+ DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,450);
+ DYNX(DYNhelp,453) = 1-DYNX(W_,5817);
+ DYNX(DYNhelp,454) = DYNX(W_,5817)*DYNX(DYNhelp,452)+DYNX(DYNhelp,453)*
DYNX(DYNhelp,452);
- DYNX(W_,5875) = DYNX(W_,5891)*DYNX(DYNhelp,454);
- DYNX(W_,5871) = 13288.382850121196-(DYNX(W_,5872)+DYNX(W_,5873)+DYNX(W_,5874)+
- DYNX(W_,5875));
- DYNX(W_,5876) = 328.15-0.0007525370176935259*DYNX(W_,5871);
- DYNX(W_,5877) = DYNX(W_,5876)-0.0007525370176935259*DYNX(W_,5872);
- DYNX(W_,5878) = DYNX(W_,5877)-0.0007525370176935259*DYNX(W_,5873);
- DYNX(W_,5879) = DYNX(W_,5878)-0.0007525370176935259*DYNX(W_,5874);
-DYNX(DYNhelp,455) = DYNX(W_,5876)-294.15;
+ DYNX(W_,5835) = DYNX(W_,5851)*DYNX(DYNhelp,454);
+ DYNX(W_,5831) = 13288.382850121196-(DYNX(W_,5832)+DYNX(W_,5833)+DYNX(W_,5834)+
+ DYNX(W_,5835));
+ DYNX(W_,5836) = 328.15-0.0007525370176935259*DYNX(W_,5831);
+ DYNX(W_,5837) = DYNX(W_,5836)-0.0007525370176935259*DYNX(W_,5832);
+ DYNX(W_,5838) = DYNX(W_,5837)-0.0007525370176935259*DYNX(W_,5833);
+ DYNX(W_,5839) = DYNX(W_,5838)-0.0007525370176935259*DYNX(W_,5834);
+DYNX(DYNhelp,455) = DYNX(W_,5836)-294.15;
DYNX(DYNhelp,456) = DYNX(DYNhelp,455) > 2.4000000000000004;
DYNX(DYNhelp,457) = IF DYNX(DYNhelp,456) THEN powGuarded(DYNX(DYNhelp,455),
- "hydraulic.transfer.rad[1].TWat_nominal[1]-294.15",DYNX(W_,5863),
+ "hydraulic.transfer.rad[1].TWat_nominal[1]-294.15",DYNX(W_,5823),
"hydraulic.transfer.rad[1].n") ELSE powGuarded(2.4000000000000004,
- "2.4000000000000004",DYNX(W_,5863),"hydraulic.transfer.rad[1].n")*(1-
- DYNX(W_,5863))+DYNX(W_,5863)*powGuarded(2.4000000000000004,"2.4000000000000004",
- DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,455);
-DYNX(DYNhelp,458) = DYNX(W_,5857)*DYNX(DYNhelp,457)+DYNX(DYNhelp,453)*
+ "2.4000000000000004",DYNX(W_,5823),"hydraulic.transfer.rad[1].n")*(1-
+ DYNX(W_,5823))+DYNX(W_,5823)*powGuarded(2.4000000000000004,"2.4000000000000004",
+ DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,455);
+DYNX(DYNhelp,458) = DYNX(W_,5817)*DYNX(DYNhelp,457)+DYNX(DYNhelp,453)*
DYNX(DYNhelp,457);
-DYNX(DYNhelp,459) = DYNX(W_,5877)-294.15;
+DYNX(DYNhelp,459) = DYNX(W_,5837)-294.15;
DYNX(DYNhelp,460) = DYNX(DYNhelp,459) > 2.4000000000000004;
DYNX(DYNhelp,461) = IF DYNX(DYNhelp,460) THEN powGuarded(DYNX(DYNhelp,459),
- "hydraulic.transfer.rad[1].TWat_nominal[2]-294.15",DYNX(W_,5863),
+ "hydraulic.transfer.rad[1].TWat_nominal[2]-294.15",DYNX(W_,5823),
"hydraulic.transfer.rad[1].n") ELSE powGuarded(2.4000000000000004,
- "2.4000000000000004",DYNX(W_,5863),"hydraulic.transfer.rad[1].n")*(1-
- DYNX(W_,5863))+DYNX(W_,5863)*powGuarded(2.4000000000000004,"2.4000000000000004",
- DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,459);
-DYNX(DYNhelp,462) = DYNX(W_,5857)*DYNX(DYNhelp,461)+DYNX(DYNhelp,453)*
+ "2.4000000000000004",DYNX(W_,5823),"hydraulic.transfer.rad[1].n")*(1-
+ DYNX(W_,5823))+DYNX(W_,5823)*powGuarded(2.4000000000000004,"2.4000000000000004",
+ DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,459);
+DYNX(DYNhelp,462) = DYNX(W_,5817)*DYNX(DYNhelp,461)+DYNX(DYNhelp,453)*
DYNX(DYNhelp,461);
-DYNX(DYNhelp,463) = DYNX(W_,5878)-294.15;
+DYNX(DYNhelp,463) = DYNX(W_,5838)-294.15;
DYNX(DYNhelp,464) = DYNX(DYNhelp,463) > 2.4000000000000004;
DYNX(DYNhelp,465) = IF DYNX(DYNhelp,464) THEN powGuarded(DYNX(DYNhelp,463),
- "hydraulic.transfer.rad[1].TWat_nominal[3]-294.15",DYNX(W_,5863),
+ "hydraulic.transfer.rad[1].TWat_nominal[3]-294.15",DYNX(W_,5823),
"hydraulic.transfer.rad[1].n") ELSE powGuarded(2.4000000000000004,
- "2.4000000000000004",DYNX(W_,5863),"hydraulic.transfer.rad[1].n")*(1-
- DYNX(W_,5863))+DYNX(W_,5863)*powGuarded(2.4000000000000004,"2.4000000000000004",
- DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,463);
-DYNX(DYNhelp,466) = DYNX(W_,5857)*DYNX(DYNhelp,465)+DYNX(DYNhelp,453)*
+ "2.4000000000000004",DYNX(W_,5823),"hydraulic.transfer.rad[1].n")*(1-
+ DYNX(W_,5823))+DYNX(W_,5823)*powGuarded(2.4000000000000004,"2.4000000000000004",
+ DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,463);
+DYNX(DYNhelp,466) = DYNX(W_,5817)*DYNX(DYNhelp,465)+DYNX(DYNhelp,453)*
DYNX(DYNhelp,465);
-DYNX(DYNhelp,467) = DYNX(W_,5879)-294.15;
+DYNX(DYNhelp,467) = DYNX(W_,5839)-294.15;
DYNX(DYNhelp,468) = DYNX(DYNhelp,467) > 2.4000000000000004;
DYNX(DYNhelp,469) = IF DYNX(DYNhelp,468) THEN powGuarded(DYNX(DYNhelp,467),
- "hydraulic.transfer.rad[1].TWat_nominal[4]-294.15",DYNX(W_,5863),
+ "hydraulic.transfer.rad[1].TWat_nominal[4]-294.15",DYNX(W_,5823),
"hydraulic.transfer.rad[1].n") ELSE powGuarded(2.4000000000000004,
- "2.4000000000000004",DYNX(W_,5863),"hydraulic.transfer.rad[1].n")*(1-
- DYNX(W_,5863))+DYNX(W_,5863)*powGuarded(2.4000000000000004,"2.4000000000000004",
- DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,467);
-DYNX(DYNhelp,470) = DYNX(W_,5857)*DYNX(DYNhelp,469)+DYNX(DYNhelp,453)*
+ "2.4000000000000004",DYNX(W_,5823),"hydraulic.transfer.rad[1].n")*(1-
+ DYNX(W_,5823))+DYNX(W_,5823)*powGuarded(2.4000000000000004,"2.4000000000000004",
+ DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1")*DYNX(DYNhelp,467);
+DYNX(DYNhelp,470) = DYNX(W_,5817)*DYNX(DYNhelp,469)+DYNX(DYNhelp,453)*
DYNX(DYNhelp,469);
-SetVector(residue__, 1, DYNX(W_,5880)-DYNX(W_,5879)+0.0007525370176935259*
- DYNX(W_,5875));
-SetVector(residue__, 2, DYNX(W_,5871)-DYNX(W_,5891)*DYNX(DYNhelp,458));
-SetVector(residue__, 3, DYNX(W_,5872)-DYNX(W_,5891)*DYNX(DYNhelp,462));
-SetVector(residue__, 4, DYNX(W_,5873)-DYNX(W_,5891)*DYNX(DYNhelp,466));
-SetVector(residue__, 5, DYNX(W_,5874)-DYNX(W_,5891)*DYNX(DYNhelp,470));
+SetVector(residue__, 1, DYNX(W_,5840)-DYNX(W_,5839)+0.0007525370176935259*
+ DYNX(W_,5835));
+SetVector(residue__, 2, DYNX(W_,5831)-DYNX(W_,5851)*DYNX(DYNhelp,458));
+SetVector(residue__, 3, DYNX(W_,5832)-DYNX(W_,5851)*DYNX(DYNhelp,462));
+SetVector(residue__, 4, DYNX(W_,5833)-DYNX(W_,5851)*DYNX(DYNhelp,466));
+SetVector(residue__, 5, DYNX(W_,5834)-DYNX(W_,5851)*DYNX(DYNhelp,470));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
DYNX(DYNhelp,471) = IF DYNX(DYNhelp,456) THEN powGuarded(DYNX(DYNhelp,455),
- "hydraulic.transfer.rad[1].TWat_nominal[1]-294.15",DYNX(W_,5863)-1.0,
- "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5863) ELSE DYNX(W_,5863)*powGuarded
- (2.4000000000000004,"2.4000000000000004",DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,472) = DYNX(W_,5857)*DYNX(DYNhelp,471);
+ "hydraulic.transfer.rad[1].TWat_nominal[1]-294.15",DYNX(W_,5823)-1.0,
+ "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5823) ELSE DYNX(W_,5823)*powGuarded
+ (2.4000000000000004,"2.4000000000000004",DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1");
+DYNX(DYNhelp,472) = DYNX(W_,5817)*DYNX(DYNhelp,471);
DYNX(DYNhelp,473) = DYNX(DYNhelp,453)*DYNX(DYNhelp,471);
-DYNX(DYNhelp,474) = (-1.0)-0.0007525370176935259*DYNX(W_,5891)*(DYNX(DYNhelp,472)
+DYNX(DYNhelp,474) = (-1.0)-0.0007525370176935259*DYNX(W_,5851)*(DYNX(DYNhelp,472)
+DYNX(DYNhelp,473));
DYNX(DYNhelp,475) = IF DYNX(DYNhelp,451) THEN powGuarded(DYNX(DYNhelp,450),
- "hydraulic.transfer.rad[1].TWat_nominal[5]-294.15",DYNX(W_,5863)-1.0,
- "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5863) ELSE DYNX(W_,5863)*powGuarded
- (2.4000000000000004,"2.4000000000000004",DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,476) = DYNX(W_,5891)*(DYNX(W_,5857)*DYNX(DYNhelp,475)+
+ "hydraulic.transfer.rad[1].TWat_nominal[5]-294.15",DYNX(W_,5823)-1.0,
+ "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5823) ELSE DYNX(W_,5823)*powGuarded
+ (2.4000000000000004,"2.4000000000000004",DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1");
+DYNX(DYNhelp,476) = DYNX(W_,5851)*(DYNX(W_,5817)*DYNX(DYNhelp,475)+
DYNX(DYNhelp,453)*DYNX(DYNhelp,475));
DYNX(DYNhelp,477) = IF DYNX(DYNhelp,460) THEN powGuarded(DYNX(DYNhelp,459),
- "hydraulic.transfer.rad[1].TWat_nominal[2]-294.15",DYNX(W_,5863)-1.0,
- "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5863) ELSE DYNX(W_,5863)*powGuarded
- (2.4000000000000004,"2.4000000000000004",DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,478) = DYNX(W_,5891)*(DYNX(W_,5857)*DYNX(DYNhelp,477)+
+ "hydraulic.transfer.rad[1].TWat_nominal[2]-294.15",DYNX(W_,5823)-1.0,
+ "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5823) ELSE DYNX(W_,5823)*powGuarded
+ (2.4000000000000004,"2.4000000000000004",DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1");
+DYNX(DYNhelp,478) = DYNX(W_,5851)*(DYNX(W_,5817)*DYNX(DYNhelp,477)+
DYNX(DYNhelp,453)*DYNX(DYNhelp,477));
DYNX(DYNhelp,479) = (-0.0007525370176935259)*DYNX(DYNhelp,478);
DYNX(DYNhelp,480) = IF DYNX(DYNhelp,464) THEN powGuarded(DYNX(DYNhelp,463),
- "hydraulic.transfer.rad[1].TWat_nominal[3]-294.15",DYNX(W_,5863)-1.0,
- "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5863) ELSE DYNX(W_,5863)*powGuarded
- (2.4000000000000004,"2.4000000000000004",DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,481) = DYNX(W_,5891)*(DYNX(W_,5857)*DYNX(DYNhelp,480)+
+ "hydraulic.transfer.rad[1].TWat_nominal[3]-294.15",DYNX(W_,5823)-1.0,
+ "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5823) ELSE DYNX(W_,5823)*powGuarded
+ (2.4000000000000004,"2.4000000000000004",DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1");
+DYNX(DYNhelp,481) = DYNX(W_,5851)*(DYNX(W_,5817)*DYNX(DYNhelp,480)+
DYNX(DYNhelp,453)*DYNX(DYNhelp,480));
DYNX(DYNhelp,482) = IF DYNX(DYNhelp,468) THEN powGuarded(DYNX(DYNhelp,467),
- "hydraulic.transfer.rad[1].TWat_nominal[4]-294.15",DYNX(W_,5863)-1.0,
- "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5863) ELSE DYNX(W_,5863)*powGuarded
- (2.4000000000000004,"2.4000000000000004",DYNX(W_,5863)-1,"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,483) = DYNX(W_,5891)*(DYNX(W_,5857)*DYNX(DYNhelp,482)+
+ "hydraulic.transfer.rad[1].TWat_nominal[4]-294.15",DYNX(W_,5823)-1.0,
+ "hydraulic.transfer.rad[1].n-1.0")*DYNX(W_,5823) ELSE DYNX(W_,5823)*powGuarded
+ (2.4000000000000004,"2.4000000000000004",DYNX(W_,5823)-1,"hydraulic.transfer.rad[1].n-1");
+DYNX(DYNhelp,483) = DYNX(W_,5851)*(DYNX(W_,5817)*DYNX(DYNhelp,482)+
DYNX(DYNhelp,453)*DYNX(DYNhelp,482));
SetMatrixLeading(Jacobian__, 1, 1, 5, 1.0);
SetMatrixLeading(Jacobian__, 2, 1, 5, DYNX(DYNhelp,474)*DYNX(DYNhelp,476));
@@ -14595,1605 +14561,1613 @@ SetMatrixLeading(Jacobian__, 5, 5, 5, (-0.0007525370176935259)*DYNX(DYNhelp,483)
*DYNX(DYNhelp,454)-DYNX(DYNhelp,470));
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[1]");
-DYNX(W_,5880) = GetVector(x__, 1);
-DYNX(W_,5874) = GetVector(x__, 2);
-DYNX(W_,5873) = GetVector(x__, 3);
-DYNX(W_,5872) = GetVector(x__, 4);
-DYNX(W_,5891) = GetVector(x__, 5);
+DYNX(W_,5840) = GetVector(x__, 1);
+DYNX(W_,5834) = GetVector(x__, 2);
+DYNX(W_,5833) = GetVector(x__, 3);
+DYNX(W_,5832) = GetVector(x__, 4);
+DYNX(W_,5851) = GetVector(x__, 5);
EndNonLinearSystemOfEquationsInit(residue__, x__, 1);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,5881) = DYNX(W_,5876)-294.15;
-DYNX(W_,5882) = DYNX(W_,5877)-294.15;
-DYNX(W_,5883) = DYNX(W_,5878)-294.15;
-DYNX(W_,5884) = DYNX(W_,5879)-294.15;
-DYNX(W_,5885) = DYNX(W_,5880)-294.15;
-DYNX(W_,5886) = DYNX(W_,5876)-294.15;
-DYNX(W_,5887) = DYNX(W_,5877)-294.15;
-DYNX(W_,5888) = DYNX(W_,5878)-294.15;
-DYNX(W_,5889) = DYNX(W_,5879)-294.15;
-DYNX(W_,5890) = DYNX(W_,5880)-294.15;
-RealAssign (RealTemporaryDense( &DYNX(W_,6536), 1, 4), (PushModelContext(1,
+DYNX(W_,5841) = DYNX(W_,5836)-294.15;
+DYNX(W_,5842) = DYNX(W_,5837)-294.15;
+DYNX(W_,5843) = DYNX(W_,5838)-294.15;
+DYNX(W_,5844) = DYNX(W_,5839)-294.15;
+DYNX(W_,5845) = DYNX(W_,5840)-294.15;
+DYNX(W_,5846) = DYNX(W_,5836)-294.15;
+DYNX(W_,5847) = DYNX(W_,5837)-294.15;
+DYNX(W_,5848) = DYNX(W_,5838)-294.15;
+DYNX(W_,5849) = DYNX(W_,5839)-294.15;
+DYNX(W_,5850) = DYNX(W_,5840)-294.15;
+RealAssign (RealTemporaryDense( &DYNX(W_,6496), 1, 4), (PushModelContext(1,
"IBPSA.Utilities.Math.Functions.splineDerivatives(hydraulic.transfer.pumFixMFlo[1].eff.pCur2.V_flow, hydraulic.transfer.pumFixMFlo[1].eff.pCur2.dp, IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.transfer.pumFixMFlo[1].eff.pCur2.dp, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,6518),
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,6478),
1, 4), false)))));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,7147), 1, 3), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,7107), 1, 3), (PushModelContext(1,
"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanFlow.eff.pCur1.V_flow, ventilation.generation.fanFlow.eff.pCur1.dp, IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanFlow.eff.pCur1.dp, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,7121), 1, 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7124),
+ &DYNX(W_,7081), 1, 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7084),
1, 3), false)))));
PopAllMarks();
-RealAssign (RealTemporaryDense( &DYNX(W_,7525), 1, 3), (PushModelContext(1,
+RealAssign (RealTemporaryDense( &DYNX(W_,7485), 1, 3), (PushModelContext(1,
"IBPSA.Utilities.Math.Functions.splineDerivatives(ventilation.generation.fanRet.eff.pCur1.V_flow, ventilation.generation.fanRet.eff.pCur1.dp, IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanRet.eff.pCur1.dp, false))")
IBPSA_Utilities_Math_Functions_splineDerivatives(RealTemporaryDense(
- &DYNX(W_,7499), 1, 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7502),
+ &DYNX(W_,7459), 1, 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7462),
1, 3), false)))));
PopAllMarks();
-DYNX(W_,7658) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 8.78410461157883E-07*DYNX(DP_,1400),"8.78410461157883E-07*ventilation.generation.threeWayValve_b.res1.rhoStd");
-DYNX(W_,7659) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 1.2042949486827428E-05*DYNX(DP_,1400)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_b.res1.rhoStd*0.0631)");
-DYNX(W_,7660) = divGuarded(0.007699607172920184,"0.007699607172920184",
- sqrtGuarded(DYNX(DP_,1400),"ventilation.generation.threeWayValve_b.res1.rhoStd"),
+DYNX(W_,7618) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 8.78410461157883E-07*DYNX(DP_,1406),"8.78410461157883E-07*ventilation.generation.threeWayValve_b.res1.rhoStd");
+DYNX(W_,7619) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 1.2042949486827428E-05*DYNX(DP_,1406)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_b.res1.rhoStd*0.0631)");
+DYNX(W_,7620) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ sqrtGuarded(DYNX(DP_,1406),"ventilation.generation.threeWayValve_b.res1.rhoStd"),
"sqrt(ventilation.generation.threeWayValve_b.res1.rhoStd)");
-DYNX(W_,7704) = divGuarded(0.1088888888888889,"0.1088888888888889",sqrtGuarded(
- DYNX(W_,7703),"ventilation.generation.threeWayValve_b.res3.dpValve_nominal"),
+DYNX(W_,7664) = divGuarded(0.1088888888888889,"0.1088888888888889",sqrtGuarded(
+ DYNX(W_,7663),"ventilation.generation.threeWayValve_b.res3.dpValve_nominal"),
"sqrt(ventilation.generation.threeWayValve_b.res3.dpValve_nominal)");
-DYNX(W_,7699) = divGuarded(DYNX(W_,7704),"ventilation.generation.threeWayValve_b.res3.Kv_SI",
- 8.78410461157883E-07*DYNX(DP_,1407),"8.78410461157883E-07*ventilation.generation.threeWayValve_b.res3.rhoStd");
-DYNX(W_,7700) = divGuarded(DYNX(W_,7704),"ventilation.generation.threeWayValve_b.res3.Kv_SI",
- 1.2042949486827428E-05*DYNX(DP_,1407)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_b.res3.rhoStd*0.0631)");
-DYNX(W_,7701) = divGuarded(DYNX(W_,7704),"ventilation.generation.threeWayValve_b.res3.Kv_SI",
- sqrtGuarded(DYNX(DP_,1407),"ventilation.generation.threeWayValve_b.res3.rhoStd"),
+DYNX(W_,7659) = divGuarded(DYNX(W_,7664),"ventilation.generation.threeWayValve_b.res3.Kv_SI",
+ 8.78410461157883E-07*DYNX(DP_,1413),"8.78410461157883E-07*ventilation.generation.threeWayValve_b.res3.rhoStd");
+DYNX(W_,7660) = divGuarded(DYNX(W_,7664),"ventilation.generation.threeWayValve_b.res3.Kv_SI",
+ 1.2042949486827428E-05*DYNX(DP_,1413)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_b.res3.rhoStd*0.0631)");
+DYNX(W_,7661) = divGuarded(DYNX(W_,7664),"ventilation.generation.threeWayValve_b.res3.Kv_SI",
+ sqrtGuarded(DYNX(DP_,1413),"ventilation.generation.threeWayValve_b.res3.rhoStd"),
"sqrt(ventilation.generation.threeWayValve_b.res3.rhoStd)");
-DYNX(W_,7721) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 8.78410461157883E-07*DYNX(DP_,1410),"8.78410461157883E-07*ventilation.generation.threeWayValve_b.rhoStd");
-DYNX(W_,7722) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 1.2042949486827428E-05*DYNX(DP_,1410)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_b.rhoStd*0.0631)");
-DYNX(W_,7723) = divGuarded(0.007699607172920184,"0.007699607172920184",
- sqrtGuarded(DYNX(DP_,1410),"ventilation.generation.threeWayValve_b.rhoStd"),
+DYNX(W_,7681) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 8.78410461157883E-07*DYNX(DP_,1416),"8.78410461157883E-07*ventilation.generation.threeWayValve_b.rhoStd");
+DYNX(W_,7682) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 1.2042949486827428E-05*DYNX(DP_,1416)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_b.rhoStd*0.0631)");
+DYNX(W_,7683) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ sqrtGuarded(DYNX(DP_,1416),"ventilation.generation.threeWayValve_b.rhoStd"),
"sqrt(ventilation.generation.threeWayValve_b.rhoStd)");
-DYNX(W_,7851) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 8.78410461157883E-07*DYNX(DP_,1419),"8.78410461157883E-07*ventilation.generation.threeWayValve_a.res1.rhoStd");
-DYNX(W_,7852) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 1.2042949486827428E-05*DYNX(DP_,1419)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_a.res1.rhoStd*0.0631)");
-DYNX(W_,7853) = divGuarded(0.007699607172920184,"0.007699607172920184",
- sqrtGuarded(DYNX(DP_,1419),"ventilation.generation.threeWayValve_a.res1.rhoStd"),
+DYNX(W_,7811) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 8.78410461157883E-07*DYNX(DP_,1425),"8.78410461157883E-07*ventilation.generation.threeWayValve_a.res1.rhoStd");
+DYNX(W_,7812) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 1.2042949486827428E-05*DYNX(DP_,1425)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_a.res1.rhoStd*0.0631)");
+DYNX(W_,7813) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ sqrtGuarded(DYNX(DP_,1425),"ventilation.generation.threeWayValve_a.res1.rhoStd"),
"sqrt(ventilation.generation.threeWayValve_a.res1.rhoStd)");
-DYNX(W_,7894) = divGuarded(0.1088888888888889,"0.1088888888888889",sqrtGuarded(
- DYNX(W_,7893),"ventilation.generation.threeWayValve_a.res3.dpValve_nominal"),
+DYNX(W_,7854) = divGuarded(0.1088888888888889,"0.1088888888888889",sqrtGuarded(
+ DYNX(W_,7853),"ventilation.generation.threeWayValve_a.res3.dpValve_nominal"),
"sqrt(ventilation.generation.threeWayValve_a.res3.dpValve_nominal)");
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(32);
-DYNX(W_,7889) = divGuarded(DYNX(W_,7894),"ventilation.generation.threeWayValve_a.res3.Kv_SI",
- 8.78410461157883E-07*DYNX(DP_,1426),"8.78410461157883E-07*ventilation.generation.threeWayValve_a.res3.rhoStd");
-DYNX(W_,7890) = divGuarded(DYNX(W_,7894),"ventilation.generation.threeWayValve_a.res3.Kv_SI",
- 1.2042949486827428E-05*DYNX(DP_,1426)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_a.res3.rhoStd*0.0631)");
-DYNX(W_,7891) = divGuarded(DYNX(W_,7894),"ventilation.generation.threeWayValve_a.res3.Kv_SI",
- sqrtGuarded(DYNX(DP_,1426),"ventilation.generation.threeWayValve_a.res3.rhoStd"),
+DYNX(W_,7849) = divGuarded(DYNX(W_,7854),"ventilation.generation.threeWayValve_a.res3.Kv_SI",
+ 8.78410461157883E-07*DYNX(DP_,1432),"8.78410461157883E-07*ventilation.generation.threeWayValve_a.res3.rhoStd");
+DYNX(W_,7850) = divGuarded(DYNX(W_,7854),"ventilation.generation.threeWayValve_a.res3.Kv_SI",
+ 1.2042949486827428E-05*DYNX(DP_,1432)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_a.res3.rhoStd*0.0631)");
+DYNX(W_,7851) = divGuarded(DYNX(W_,7854),"ventilation.generation.threeWayValve_a.res3.Kv_SI",
+ sqrtGuarded(DYNX(DP_,1432),"ventilation.generation.threeWayValve_a.res3.rhoStd"),
"sqrt(ventilation.generation.threeWayValve_a.res3.rhoStd)");
-DYNX(W_,7911) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 8.78410461157883E-07*DYNX(DP_,1429),"8.78410461157883E-07*ventilation.generation.threeWayValve_a.rhoStd");
-DYNX(W_,7912) = divGuarded(0.007699607172920184,"0.007699607172920184",
- 1.2042949486827428E-05*DYNX(DP_,1429)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_a.rhoStd*0.0631)");
-DYNX(W_,7913) = divGuarded(0.007699607172920184,"0.007699607172920184",
- sqrtGuarded(DYNX(DP_,1429),"ventilation.generation.threeWayValve_a.rhoStd"),
+DYNX(W_,7871) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 8.78410461157883E-07*DYNX(DP_,1435),"8.78410461157883E-07*ventilation.generation.threeWayValve_a.rhoStd");
+DYNX(W_,7872) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ 1.2042949486827428E-05*DYNX(DP_,1435)*0.0631,"1.2042949486827428E-05*(ventilation.generation.threeWayValve_a.rhoStd*0.0631)");
+DYNX(W_,7873) = divGuarded(0.007699607172920184,"0.007699607172920184",
+ sqrtGuarded(DYNX(DP_,1435),"ventilation.generation.threeWayValve_a.rhoStd"),
"sqrt(ventilation.generation.threeWayValve_a.rhoStd)");
- DYNX(W_,8311) = real2integerEvent(divGuarded(DYNTime-DYNX(DP_,346),
+ DYNX(W_,8271) = real2integerEvent(divGuarded(DYNTime-DYNX(DP_,346),
"time-userProfiles.setBakTSetZone[1].startTime",DYNX(DP_,344),
"userProfiles.setBakTSetZone[1].period"),"(time-userProfiles.setBakTSetZone[1].startTime)/userProfiles.setBakTSetZone[1].period",
0);
- DYNX(W_,8310) = DYNX(DP_,346)+DYNX(W_,8311)*DYNX(DP_,344);
-DYNX(W_,8432) = DYNX(Aux_,300);
-DYNX(W_,8506) = DYNTime;
-DYNX(W_,8469) = IF DYNX(W_,8255) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
- "weaDat.conTim.modTimAux",DYNX(W_,8254),"weaDat.conTim.lenWea"),
- "weaDat.conTim.modTimAux/weaDat.conTim.lenWea", 1)*DYNX(W_,8254)+DYNX(W_,8254)
+ DYNX(W_,8270) = DYNX(DP_,346)+DYNX(W_,8271)*DYNX(DP_,344);
+DYNX(W_,8395) = DYNX(Aux_,300);
+DYNX(W_,8469) = DYNTime;
+DYNX(W_,8432) = IF DYNX(W_,8215) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
+ "weaDat.conTim.modTimAux",DYNX(W_,8214),"weaDat.conTim.lenWea"),
+ "weaDat.conTim.modTimAux/weaDat.conTim.lenWea", 1)*DYNX(W_,8214)+DYNX(W_,8214)
ELSE DYNTime;
-DYNX(W_,8427) = DYNX(Aux_,296);
-DYNX(W_,9020) = DYNTime;
+DYNX(W_,8390) = DYNX(Aux_,296);
+DYNX(W_,8983) = DYNTime;
InitialBoundSection
-DYNX(W_,8309) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nuserProfiles.tabIntGai.tableID, \nuserProfiles.tabIntGai.timeScaled)")
+DYNX(W_,8269) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nuserProfiles.tabIntGai.tableID, \nuserProfiles.tabIntGai.timeScaled)")
Modelica_Blocks_Tables_Internal_getNextTimeEvent_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), DYNX(W_,9020)));
+ (Integer)(DYNX(W_,1057))), DYNX(W_,8983)));
PopModelContext();
InitialSection2
-DYNX(W_,9740) = 1800.0*DYNX(DP_,1478)+DYNX(DP_,1479)*DYNX(W_,8506);
-DYNX(W_,8468) = IF DYNX(W_,8250) THEN real2integerEvent(divGuarded(DYNX(W_,9740),
- "weaDat.conTimMin.modTimAux",DYNX(W_,8249),"weaDat.conTimMin.lenWea"),
- "weaDat.conTimMin.modTimAux/weaDat.conTimMin.lenWea", 2)*DYNX(W_,8249)+
- DYNX(W_,8249) ELSE DYNTime;
-DYNX(W_,9088) = DYNTime;
-DYNX(W_,8314) = 86400*floorEvent(DYNX(W_,9088)/(double)(86400),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.modTim.y/86400",
+DYNX(W_,9709) = 1800.0*DYNX(DP_,1484)+DYNX(DP_,1485)*DYNX(W_,8469);
+DYNX(W_,8431) = IF DYNX(W_,8210) THEN real2integerEvent(divGuarded(DYNX(W_,9709),
+ "weaDat.conTimMin.modTimAux",DYNX(W_,8209),"weaDat.conTimMin.lenWea"),
+ "weaDat.conTimMin.modTimAux/weaDat.conTimMin.lenWea", 2)*DYNX(W_,8209)+
+ DYNX(W_,8209) ELSE DYNTime;
+DYNX(W_,9051) = DYNTime;
+DYNX(W_,8274) = 86400*floorEvent(DYNX(W_,9051)/(double)(86400),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.modTim.y/86400",
3);
-DYNX(W_,8321) = IF DYNX(W_,2240) THEN real2integer(divGuarded(DYNX(W_,8314),
+DYNX(W_,8281) = IF DYNX(W_,2240) THEN real2integer(divGuarded(DYNX(W_,8274),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.modTimAux",
DYNX(W_,2239),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.lenWea"))
*DYNX(W_,2239)+DYNX(W_,2239) ELSE DYNTime;
-DYNX(W_,9069) = DYNX(W_,9088)-DYNX(W_,8314);
-DYNX(W_,8315) = IF DYNX(W_,2233) THEN real2integerEvent(divGuarded(DYNX(W_,9069),
+DYNX(W_,9032) = DYNX(W_,9051)-DYNX(W_,8274);
+DYNX(W_,8275) = IF DYNX(W_,2233) THEN real2integerEvent(divGuarded(DYNX(W_,9032),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux",
DYNX(W_,2232),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.lenWea"),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux/electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.lenWea",
4)*DYNX(W_,2232)+DYNX(W_,2232) ELSE DYNTime;
-DYNX(W_,8318) = IF DYNX(W_,2238) THEN real2integer(divGuarded(DYNX(W_,8314),
+DYNX(W_,8278) = IF DYNX(W_,2238) THEN real2integer(divGuarded(DYNX(W_,8274),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.modTimAux",
DYNX(W_,2237),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.lenWea"))
*DYNX(W_,2237)+DYNX(W_,2237) ELSE DYNTime;
-DYNX(W_,9122) = DYNTime;
-DYNX(W_,8325) = 86400*floorEvent(DYNX(W_,9122)/(double)(86400),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.modTim.y/86400",
+DYNX(W_,9085) = DYNTime;
+DYNX(W_,8285) = 86400*floorEvent(DYNX(W_,9085)/(double)(86400),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.modTim.y/86400",
5);
-DYNX(W_,8332) = IF DYNX(W_,2368) THEN real2integer(divGuarded(DYNX(W_,8325),
+DYNX(W_,8292) = IF DYNX(W_,2368) THEN real2integer(divGuarded(DYNX(W_,8285),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.modTimAux",
DYNX(W_,2367),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.lenWea"))
*DYNX(W_,2367)+DYNX(W_,2367) ELSE DYNTime;
-DYNX(W_,9103) = DYNX(W_,9122)-DYNX(W_,8325);
-DYNX(W_,8326) = IF DYNX(W_,2361) THEN real2integerEvent(divGuarded(DYNX(W_,9103),
+DYNX(W_,9066) = DYNX(W_,9085)-DYNX(W_,8285);
+DYNX(W_,8286) = IF DYNX(W_,2361) THEN real2integerEvent(divGuarded(DYNX(W_,9066),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux",
DYNX(W_,2360),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.lenWea"),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux/electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.lenWea",
6)*DYNX(W_,2360)+DYNX(W_,2360) ELSE DYNTime;
-DYNX(W_,8329) = IF DYNX(W_,2366) THEN real2integer(divGuarded(DYNX(W_,8325),
+DYNX(W_,8289) = IF DYNX(W_,2366) THEN real2integer(divGuarded(DYNX(W_,8285),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.modTimAux",
DYNX(W_,2365),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.lenWea"))
*DYNX(W_,2365)+DYNX(W_,2365) ELSE DYNTime;
-DYNX(W_,8292) = IF DYNX(W_,753) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8252) = IF DYNX(W_,753) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux",DYNX(W_,752),
"building.thermalZone[1].HDirTilWall[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[1].incAng.decAng.lenWea",
7)*DYNX(W_,752)+DYNX(W_,752) ELSE DYNTime;
-DYNX(W_,8467) = IF DYNX(W_,8232) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
- "weaDat.locTim.modTimAux",DYNX(W_,8231),"weaDat.locTim.lenWea"),
- "weaDat.locTim.modTimAux/weaDat.locTim.lenWea", 8)*DYNX(W_,8231)+DYNX(W_,8231)
+DYNX(W_,8430) = IF DYNX(W_,8192) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
+ "weaDat.locTim.modTimAux",DYNX(W_,8191),"weaDat.locTim.lenWea"),
+ "weaDat.locTim.modTimAux/weaDat.locTim.lenWea", 8)*DYNX(W_,8191)+DYNX(W_,8191)
ELSE DYNTime;
-DYNX(W_,8470) = IF DYNX(W_,8258) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
- "weaDat.eqnTim.modTimAux",DYNX(W_,8257),"weaDat.eqnTim.lenWea"),
- "weaDat.eqnTim.modTimAux/weaDat.eqnTim.lenWea", 9)*DYNX(W_,8257)+DYNX(W_,8257)
+DYNX(W_,8433) = IF DYNX(W_,8218) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
+ "weaDat.eqnTim.modTimAux",DYNX(W_,8217),"weaDat.eqnTim.lenWea"),
+ "weaDat.eqnTim.modTimAux/weaDat.eqnTim.lenWea", 9)*DYNX(W_,8217)+DYNX(W_,8217)
ELSE DYNTime;
-DYNX(W_,8471) = IF DYNX(W_,8261) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
- "weaDat.decAng.modTimAux",DYNX(W_,8260),"weaDat.decAng.lenWea"),
- "weaDat.decAng.modTimAux/weaDat.decAng.lenWea", 10)*DYNX(W_,8260)+
- DYNX(W_,8260) ELSE DYNTime;
-DYNX(W_,8288) = IF DYNX(W_,647) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8434) = IF DYNX(W_,8221) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
+ "weaDat.decAng.modTimAux",DYNX(W_,8220),"weaDat.decAng.lenWea"),
+ "weaDat.decAng.modTimAux/weaDat.decAng.lenWea", 10)*DYNX(W_,8220)+
+ DYNX(W_,8220) ELSE DYNTime;
+DYNX(W_,8248) = IF DYNX(W_,647) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux",DYNX(W_,646),
"building.thermalZone[1].HDifTilWall[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[1].incAng.decAng.lenWea",
11)*DYNX(W_,646)+DYNX(W_,646) ELSE DYNTime;
-DYNX(W_,8293) = IF DYNX(W_,772) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8253) = IF DYNX(W_,772) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux",DYNX(W_,771),
"building.thermalZone[1].HDirTilWall[2].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[2].incAng.decAng.lenWea",
12)*DYNX(W_,771)+DYNX(W_,771) ELSE DYNTime;
-DYNX(W_,8289) = IF DYNX(W_,676) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8249) = IF DYNX(W_,676) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux",DYNX(W_,675),
"building.thermalZone[1].HDifTilWall[2].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[2].incAng.decAng.lenWea",
13)*DYNX(W_,675)+DYNX(W_,675) ELSE DYNTime;
-DYNX(W_,8294) = IF DYNX(W_,791) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8254) = IF DYNX(W_,791) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux",DYNX(W_,790),
"building.thermalZone[1].HDirTilWall[3].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[3].incAng.decAng.lenWea",
14)*DYNX(W_,790)+DYNX(W_,790) ELSE DYNTime;
-DYNX(W_,8290) = IF DYNX(W_,705) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(32);
+DYNX(W_,8250) = IF DYNX(W_,705) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux",DYNX(W_,704),
"building.thermalZone[1].HDifTilWall[3].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[3].incAng.decAng.lenWea",
15)*DYNX(W_,704)+DYNX(W_,704) ELSE DYNTime;
-DYNX(W_,8295) = IF DYNX(W_,810) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8255) = IF DYNX(W_,810) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux",DYNX(W_,809),
"building.thermalZone[1].HDirTilWall[4].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[4].incAng.decAng.lenWea",
16)*DYNX(W_,809)+DYNX(W_,809) ELSE DYNTime;
-DYNX(W_,8291) = IF DYNX(W_,734) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8251) = IF DYNX(W_,734) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux",DYNX(W_,733),
"building.thermalZone[1].HDifTilWall[4].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[4].incAng.decAng.lenWea",
17)*DYNX(W_,733)+DYNX(W_,733) ELSE DYNTime;
-DYNX(W_,9054) = DYNTime;
+DYNX(W_,9017) = DYNTime;
InitialBoundSection
-DYNX(W_,8313) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nDHW.combiTimeTableDHWInput.tableID, \nDHW.combiTimeTableDHWInput.timeScaled)")
+DYNX(W_,8273) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nDHW.combiTimeTableDHWInput.tableID, \nDHW.combiTimeTableDHWInput.timeScaled)")
Modelica_Blocks_Tables_Internal_getNextTimeEvent_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), DYNX(W_,9054)));
+ (Integer)(DYNX(W_,1978))), DYNX(W_,9017)));
PopModelContext();
InitialSection2
-DYNX(W_,8296) = IF DYNX(W_,829) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8256) = IF DYNX(W_,829) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux",DYNX(W_,828),
"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilRoof[1].incAng.decAng.lenWea",
18)*DYNX(W_,828)+DYNX(W_,828) ELSE DYNTime;
-DYNX(W_,8304) = IF DYNX(W_,911) THEN real2integerEvent(divGuarded(DYNX(W_,8506),
+DYNX(W_,8264) = IF DYNX(W_,911) THEN real2integerEvent(divGuarded(DYNX(W_,8469),
"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux",DYNX(W_,910),
"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilRoof[1].incAng.decAng.lenWea",
19)*DYNX(W_,910)+DYNX(W_,910) ELSE DYNTime;
-DYNX(W_,8308) = IF Less(DYNX(W_,8309),"userProfiles.tabIntGai.nextTimeEventScaled",
- 1E+60,"1E+60", 20) THEN DYNX(W_,8309) ELSE 1E+60;
-DYNX(W_,8312) = IF Less(DYNX(W_,8313),"DHW.combiTimeTableDHWInput.nextTimeEventScaled",
- 1E+60,"1E+60", 21) THEN DYNX(W_,8313) ELSE 1E+60;
+DYNX(W_,8268) = IF Less(DYNX(W_,8269),"userProfiles.tabIntGai.nextTimeEventScaled",
+ 1E+60,"1E+60", 20) THEN DYNX(W_,8269) ELSE 1E+60;
+DYNX(W_,8272) = IF Less(DYNX(W_,8273),"DHW.combiTimeTableDHWInput.nextTimeEventScaled",
+ 1E+60,"1E+60", 21) THEN DYNX(W_,8273) ELSE 1E+60;
DYNX(X_,7) = DYNX(W_,874);
DYNX(X_,8) = DYNX(W_,883);
-DYNX(W_,8946) = DYNX(DP_,299)*DYNX(X_,7);
-DYNX(W_,8947) = DYNX(W_,8946)-DYNX(X_,8);
-DYNX(W_,8303) = DYNX(W_,8947);
-DYNX(W_,7864) = 0.007699607172920184*DYNX(W_,7862);
-DYNX(W_,7865) = sqrtGuarded(divinvGuarded(8433.985839233652+divinvGuarded(sqr(
- DYNX(W_,7864)),"ventilation.generation.threeWayValve_a.res1.kVal^2"),
+DYNX(W_,8909) = DYNX(DP_,299)*DYNX(X_,7);
+DYNX(W_,8910) = DYNX(W_,8909)-DYNX(X_,8);
+DYNX(W_,8263) = DYNX(W_,8910);
+DYNX(W_,7824) = 0.007699607172920184*DYNX(W_,7822);
+DYNX(W_,7825) = sqrtGuarded(divinvGuarded(8433.985839233652+divinvGuarded(sqr(
+ DYNX(W_,7824)),"ventilation.generation.threeWayValve_a.res1.kVal^2"),
"8433.985839233652+1/ventilation.generation.threeWayValve_a.res1.kVal^2"),
"1/(8433.985839233652+1/ventilation.generation.threeWayValve_a.res1.kVal^2)");
-DYNX(W_,7671) = 0.007699607172920184*DYNX(W_,7669);
-DYNX(W_,7672) = sqrtGuarded(divinvGuarded(8433.985839233652+divinvGuarded(sqr(
- DYNX(W_,7671)),"ventilation.generation.threeWayValve_b.res1.kVal^2"),
+DYNX(W_,7631) = 0.007699607172920184*DYNX(W_,7629);
+DYNX(W_,7632) = sqrtGuarded(divinvGuarded(8433.985839233652+divinvGuarded(sqr(
+ DYNX(W_,7631)),"ventilation.generation.threeWayValve_b.res1.kVal^2"),
"8433.985839233652+1/ventilation.generation.threeWayValve_b.res1.kVal^2"),
"1/(8433.985839233652+1/ventilation.generation.threeWayValve_b.res1.kVal^2)");
-DYNX(W_,7713) = DYNX(W_,7711)*DYNX(W_,7704);
-DYNX(W_,7903) = DYNX(W_,7901)*DYNX(W_,7894);
+DYNX(W_,7673) = DYNX(W_,7671)*DYNX(W_,7664);
+DYNX(W_,7863) = DYNX(W_,7861)*DYNX(W_,7854);
InitialBoundSection
-DYNX(Aux_,310) = DYNX(DP_,1053);
+DYNX(Aux_,311) = DYNX(DP_,1059);
InitialSection2
-DYNX(W_,8368) = DYNX(Aux_,310);
-DYNX(W_,8369) = DYNX(W_,8368);
+DYNX(W_,8331) = DYNX(Aux_,311);
+DYNX(W_,8332) = DYNX(W_,8331);
InitialBoundSection
-DYNX(Aux_,309) = DYNX(W_,8369);
-DYNX(Aux_,327) = DYNX(W_,8310);
+DYNX(Aux_,310) = DYNX(W_,8332);
+DYNX(Aux_,328) = DYNX(W_,8270);
InitialSection2
-DYNX(W_,9536) = DYNX(W_,7000);
-DYNX(X_,68) = DYNX(W_,7014)*1.1843079200592153E-05*DYNX(W_,9536);
-DYNX(W_,8511) = DYNX(W_,371);
-DYNX(X_,2) = 0.007579570688378979*DYNX(W_,8511);
-DYNX(W_,9532) = DYNX(W_,7378);
-DYNX(X_,72) = DYNX(W_,7392)*1.1843079200592153E-05*DYNX(W_,9532);
-DYNX(W_,9605) = DYNX(W_,7968);
-DYNX(X_,78) = DYNX(W_,7982)*1.1843079200592153E-05*DYNX(W_,9605);
+DYNX(X_,22) = DYNX(W_,3074);
+AssertModelica(DYNX(X_,22) >= -1E-05 AND DYNX(X_,22) <= 1.00001,"noEvent(hydraulic.generation.heatPump.port_a2.Xi_outflow[1] >= -1E-05) and noEvent(hydraulic.generation.heatPump.port_a2.Xi_outflow[1] <= 1.00001)",
+ StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(
+ DYNX(X_,22), true, 0))," of substance water"),"\nof medium \"AixLib.Media.Air\" is not in the range 0..1"));
+DYNX(W_,9505) = DYNX(W_,6960);
+DYNX(X_,68) = DYNX(W_,6974)*1.1843079200592153E-05*DYNX(W_,9505);
+DYNX(W_,8474) = DYNX(W_,371);
+DYNX(X_,2) = 0.007579570688378979*DYNX(W_,8474);
+DYNX(W_,9501) = DYNX(W_,7338);
+DYNX(X_,72) = DYNX(W_,7352)*1.1843079200592153E-05*DYNX(W_,9501);
+DYNX(W_,9574) = DYNX(W_,7928);
+DYNX(X_,78) = DYNX(W_,7942)*1.1843079200592153E-05*DYNX(W_,9574);
DYNX(X_,0) = DYNX(W_,373);
AssertModelica(DYNX(X_,0) >= -1E-05 AND DYNX(X_,0) <= 1.00001,"noEvent(building.thermalZone[1].ports[1].Xi_outflow[1] >= -1E-05) and noEvent(building.thermalZone[1].ports[1].Xi_outflow[1] <= 1.00001)",
StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(DYNX(X_,0),
true, 0))," of substance water"),"\nof medium \"IBPSA.Media.Air\" is not in the range 0..1"));
-DYNX(X_,66) = DYNX(W_,7002);
+DYNX(X_,66) = DYNX(W_,6962);
AssertModelica(DYNX(X_,66) >= -1E-05 AND DYNX(X_,66) <= 1.00001,"noEvent(ventilation.generation.hex.port_a1.Xi_outflow[1] >= -1E-05) and noEvent(ventilation.generation.hex.port_a1.Xi_outflow[1] <= 1.00001)",
StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(
DYNX(X_,66), true, 0))," of substance water"),"\nof medium \"IBPSA.Media.Air\" is not in the range 0..1"));
-DYNX(X_,70) = DYNX(W_,7380);
+DYNX(X_,70) = DYNX(W_,7340);
AssertModelica(DYNX(X_,70) >= -1E-05 AND DYNX(X_,70) <= 1.00001,"noEvent(ventilation.portVent_out[1].Xi_outflow[1] >= -1E-05) and noEvent(ventilation.portVent_out[1].Xi_outflow[1] <= 1.00001)",
StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(
DYNX(X_,70), true, 0))," of substance water"),"\nof medium \"IBPSA.Media.Air\" is not in the range 0..1"));
-DYNX(X_,76) = DYNX(W_,7970);
+DYNX(X_,76) = DYNX(W_,7930);
AssertModelica(DYNX(X_,76) >= -1E-05 AND DYNX(X_,76) <= 1.00001,"noEvent(ventilation.generation.hex.port_b2.Xi_outflow[1] >= -1E-05) and noEvent(ventilation.generation.hex.port_b2.Xi_outflow[1] <= 1.00001)",
StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(
DYNX(X_,76), true, 0))," of substance water"),"\nof medium \"IBPSA.Media.Air\" is not in the range 0..1"));
-DYNX(X_,74) = DYNX(W_,7784);
+DYNX(X_,74) = DYNX(W_,7744);
AssertModelica(DYNX(X_,74) >= -1E-05 AND DYNX(X_,74) <= 1.00001,"noEvent(ventilation.generation.hex.port_a2.Xi_outflow[1] >= -1E-05) and noEvent(ventilation.generation.hex.port_a2.Xi_outflow[1] <= 1.00001)",
StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(
DYNX(X_,74), true, 0))," of substance water"),"\nof medium \"IBPSA.Media.Air\" is not in the range 0..1"));
-DYNX(W_,9584) = DYNX(W_,7001);
-AssertModelica(DYNX(W_,9584) >= 200.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9553) = DYNX(W_,6961);
+AssertModelica(DYNX(W_,9553) >= 200.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9584) <= 423.15,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9553) <= 423.15,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9536) >= 0.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,9505) >= 0.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9536), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9584), true, 0))," K)"));
-DYNX(W_,9591) = DYNX(W_,9584)-273.15;
-DYNX(W_,9585) = 1-DYNX(X_,66);
-DYNX(W_,9574) = DYNX(W_,9591)*1006*DYNX(W_,9585)+(2501014.5+DYNX(W_,9591)*1860)*
+ DYNX(W_,9505), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9553), true, 0))," K)"));
+DYNX(W_,9560) = DYNX(W_,9553)-273.15;
+DYNX(W_,9554) = 1-DYNX(X_,66);
+DYNX(W_,9543) = DYNX(W_,9560)*1006*DYNX(W_,9554)+(2501014.5+DYNX(W_,9560)*1860)*
DYNX(X_,66);
-DYNX(W_,9586) = DYNX(W_,9574)-84437.5;
-DYNX(X_,67) = DYNX(X_,68)*DYNX(W_,9586);
-DYNX(W_,8527) = DYNX(W_,372);
-AssertModelica(DYNX(W_,8527) >= 200.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T >= 200.0)",
+DYNX(W_,9555) = DYNX(W_,9543)-84437.5;
+DYNX(X_,67) = DYNX(X_,68)*DYNX(W_,9555);
+DYNX(W_,8490) = DYNX(W_,372);
+AssertModelica(DYNX(W_,8490) >= 200.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.building.thermalZone[1].ROM.volAir.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,8527) <= 423.15,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,8490) <= 423.15,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.building.thermalZone[1].ROM.volAir.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,8511) >= 0.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,8474) >= 0.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8511), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,8527), true, 0))," K)"));
-DYNX(W_,8534) = DYNX(W_,8527)-273.15;
-DYNX(W_,8528) = 1-DYNX(X_,0);
-DYNX(W_,8512) = DYNX(W_,8534)*1006*DYNX(W_,8528)+(2501014.5+DYNX(W_,8534)*1860)*
+ DYNX(W_,8474), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,8490), true, 0))," K)"));
+DYNX(W_,8497) = DYNX(W_,8490)-273.15;
+DYNX(W_,8491) = 1-DYNX(X_,0);
+DYNX(W_,8475) = DYNX(W_,8497)*1006*DYNX(W_,8491)+(2501014.5+DYNX(W_,8497)*1860)*
DYNX(X_,0);
-DYNX(W_,8529) = DYNX(W_,8512)-84437.5;
-DYNX(X_,1) = DYNX(X_,2)*DYNX(W_,8529);
-DYNX(W_,9366) = DYNX(W_,5156);
-AssertModelica(DYNX(W_,9366) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T >= 272.15)",
+DYNX(W_,8492) = DYNX(W_,8475)-84437.5;
+DYNX(X_,1) = DYNX(X_,2)*DYNX(W_,8492);
+DYNX(W_,9335) = DYNX(W_,5116);
+AssertModelica(DYNX(W_,9335) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9366), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9335), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9366) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9335) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9366), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9335), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9366), true, 0))," K)"));
-DYNX(W_,9257) = (-4184.0)*(273.15-DYNX(W_,9366));
-DYNX(X_,51) = DYNX(W_,5172)*DYNX(W_,9257);
-DYNX(X_,43) = 209200.0*DYNX(W_,4633);
-DYNX(X_,42) = 209200.0*DYNX(W_,4574);
-DYNX(X_,41) = 209200.0*DYNX(W_,4515);
-DYNX(W_,9043) = DYNX(W_,1223);
-AssertModelica(DYNX(W_,9043) >= 272.15,"noEvent(DHW.pump.vol.dynBal.medium.T >= 272.15)",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9335), true, 0))," K)"));
+DYNX(W_,9226) = (-4184.0)*(273.15-DYNX(W_,9335));
+DYNX(X_,51) = DYNX(W_,5132)*DYNX(W_,9226);
+DYNX(X_,43) = 209200.0*DYNX(W_,4593);
+DYNX(X_,42) = 209200.0*DYNX(W_,4534);
+DYNX(X_,41) = 209200.0*DYNX(W_,4475);
+DYNX(W_,9006) = DYNX(W_,1223);
+AssertModelica(DYNX(W_,9006) >= 272.15,"noEvent(DHW.pump.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.DHW.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9043), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9006), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9043) <= 403.15,"noEvent(DHW.pump.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9006) <= 403.15,"noEvent(DHW.pump.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.DHW.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9043), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9006), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
AssertModelica(DYNX(W_,1483) >= 0.0,"DHW.pump.vol.dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1483), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9043), true, 0))," K)"));
-DYNX(W_,9035) = (-4184.0)*(273.15-DYNX(W_,9043));
-DYNX(X_,16) = DYNX(W_,1240)*DYNX(W_,9035);
-DYNX(X_,40) = 209200.0*DYNX(W_,4456);
-DYNX(X_,27) = DYNX(W_,3827);
-DYNX(W_,9425) = DYNX(W_,5631);
-AssertModelica(DYNX(W_,9425) >= 272.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T >= 272.15)",
+ Real2String2(DYNX(W_,9006), true, 0))," K)"));
+DYNX(W_,8998) = (-4184.0)*(273.15-DYNX(W_,9006));
+DYNX(X_,16) = DYNX(W_,1240)*DYNX(W_,8998);
+DYNX(X_,40) = 209200.0*DYNX(W_,4416);
+DYNX(X_,27) = DYNX(W_,3789);
+DYNX(W_,9137) = 1-DYNX(X_,22);
+DYNX(W_,9103) = 2481484.5*DYNX(X_,22)-10563.0*DYNX(W_,9137);
+DYNX(W_,9138) = DYNX(W_,9103)-84437.5;
+DYNX(X_,23) = DYNX(W_,3091)*DYNX(W_,9138);
+DYNX(W_,9394) = DYNX(W_,5591);
+AssertModelica(DYNX(W_,9394) >= 272.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9425), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9394), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9425) <= 403.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9394) <= 403.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9425), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9394), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9254) = (-4184.0)*(273.15-DYNX(W_,9425));
-DYNX(X_,56) = DYNX(W_,5647)*DYNX(W_,9254);
-DYNX(W_,9214) = DYNX(W_,3913);
-AssertModelica(DYNX(W_,9214) >= 272.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9223) = (-4184.0)*(273.15-DYNX(W_,9394));
+DYNX(X_,56) = DYNX(W_,5607)*DYNX(W_,9223);
+DYNX(W_,9183) = DYNX(W_,3873);
+AssertModelica(DYNX(W_,9183) >= 272.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.eleHea.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9214), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9183), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9214) <= 403.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9183) <= 403.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.eleHea.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9214), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9183), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9137) = (-4184.0)*(273.15-DYNX(W_,9214));
-DYNX(X_,30) = DYNX(W_,3928)*DYNX(W_,9137);
-DYNX(W_,9162) = DYNX(W_,2981);
-AssertModelica(DYNX(W_,9162) >= 272.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9100) = (-4184.0)*(273.15-DYNX(W_,9183));
+DYNX(X_,30) = DYNX(W_,3888)*DYNX(W_,9100);
+DYNX(W_,9129) = DYNX(W_,2956);
+AssertModelica(DYNX(W_,9129) >= 272.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.con.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9162), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9129), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9162) <= 403.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9129) <= 403.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.con.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9162), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9129), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9139) = (-4184.0)*(273.15-DYNX(W_,9162));
-DYNX(X_,21) = DYNX(W_,2996)*DYNX(W_,9139);
-DYNX(W_,9472) = DYNX(W_,6019);
-AssertModelica(DYNX(W_,9472) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T >= 272.15)",
+DYNX(W_,9102) = (-4184.0)*(273.15-DYNX(W_,9129));
+DYNX(X_,21) = DYNX(W_,2971)*DYNX(W_,9102);
+DYNX(W_,9441) = DYNX(W_,5979);
+AssertModelica(DYNX(W_,9441) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9472), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9441), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9472) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9441) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9472), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9441), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[2].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9472), true, 0))," K)"));
-DYNX(W_,9469) = 4184*(DYNX(W_,9472)-273.15);
-DYNX(X_,60) = 15.346484396736084*DYNX(W_,9469)+34948.44689581876*(DYNX(W_,9472)-
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9441), true, 0))," K)"));
+DYNX(W_,9438) = 4184*(DYNX(W_,9441)-273.15);
+DYNX(X_,60) = 15.346484396736084*DYNX(W_,9438)+34948.44689581876*(DYNX(W_,9441)-
273.15);
-DYNX(W_,9480) = DYNX(W_,6081);
-AssertModelica(DYNX(W_,9480) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T >= 272.15)",
+DYNX(W_,9449) = DYNX(W_,6041);
+AssertModelica(DYNX(W_,9449) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9480), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9449), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9480) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9449) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9480), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9449), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[3].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9480), true, 0))," K)"));
-DYNX(W_,9477) = 4184*(DYNX(W_,9480)-273.15);
-DYNX(X_,61) = 15.346484396736084*DYNX(W_,9477)+34948.44689581876*(DYNX(W_,9480)-
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9449), true, 0))," K)"));
+DYNX(W_,9446) = 4184*(DYNX(W_,9449)-273.15);
+DYNX(X_,61) = 15.346484396736084*DYNX(W_,9446)+34948.44689581876*(DYNX(W_,9449)-
273.15);
-DYNX(W_,9488) = DYNX(W_,6143);
-AssertModelica(DYNX(W_,9488) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T >= 272.15)",
+DYNX(W_,9457) = DYNX(W_,6103);
+AssertModelica(DYNX(W_,9457) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9488), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9457), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9488) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9457) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9488), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9457), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[4].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9488), true, 0))," K)"));
-DYNX(W_,9485) = 4184*(DYNX(W_,9488)-273.15);
-DYNX(X_,62) = 15.346484396736084*DYNX(W_,9485)+34948.44689581876*(DYNX(W_,9488)-
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9457), true, 0))," K)"));
+DYNX(W_,9454) = 4184*(DYNX(W_,9457)-273.15);
+DYNX(X_,62) = 15.346484396736084*DYNX(W_,9454)+34948.44689581876*(DYNX(W_,9457)-
273.15);
-DYNX(W_,9495) = DYNX(W_,6205);
-AssertModelica(DYNX(W_,9495) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T >= 272.15)",
+DYNX(W_,9464) = DYNX(W_,6165);
+AssertModelica(DYNX(W_,9464) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[5].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9495), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9464), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9495) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9464) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[5].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9495), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9464), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[5].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[5].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9495), true, 0))," K)"));
-DYNX(W_,9434) = 4184*(DYNX(W_,9495)-273.15);
-DYNX(X_,63) = 15.346484396736084*DYNX(W_,9434)+34948.44689581876*(DYNX(W_,9495)-
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9464), true, 0))," K)"));
+DYNX(W_,9403) = 4184*(DYNX(W_,9464)-273.15);
+DYNX(X_,63) = 15.346484396736084*DYNX(W_,9403)+34948.44689581876*(DYNX(W_,9464)-
273.15);
-DYNX(W_,9344) = DYNX(W_,4979);
-AssertModelica(DYNX(W_,9344) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T >= 272.15)",
+DYNX(W_,9313) = DYNX(W_,4939);
+AssertModelica(DYNX(W_,9313) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9344), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9313), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9344) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9313) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9344), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9313), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9344), true, 0))," K)"));
-DYNX(W_,9340) = (-4184.0)*(273.15-DYNX(W_,9344));
-DYNX(X_,48) = DYNX(W_,4995)*DYNX(W_,9340);
-DYNX(W_,9352) = DYNX(W_,5038);
-AssertModelica(DYNX(W_,9352) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T >= 272.15)",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9313), true, 0))," K)"));
+DYNX(W_,9309) = (-4184.0)*(273.15-DYNX(W_,9313));
+DYNX(X_,48) = DYNX(W_,4955)*DYNX(W_,9309);
+DYNX(W_,9321) = DYNX(W_,4998);
+AssertModelica(DYNX(W_,9321) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9352), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9321), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9352) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9321) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9352), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9321), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9352), true, 0))," K)"));
-DYNX(W_,9349) = (-4184.0)*(273.15-DYNX(W_,9352));
-DYNX(X_,49) = DYNX(W_,5054)*DYNX(W_,9349);
-DYNX(W_,9360) = DYNX(W_,5097);
-AssertModelica(DYNX(W_,9360) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T >= 272.15)",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9321), true, 0))," K)"));
+DYNX(W_,9318) = (-4184.0)*(273.15-DYNX(W_,9321));
+DYNX(X_,49) = DYNX(W_,5014)*DYNX(W_,9318);
+DYNX(W_,9329) = DYNX(W_,5057);
+AssertModelica(DYNX(W_,9329) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9360), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9329), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9360) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9329) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9360), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9329), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9360), true, 0))," K)"));
-DYNX(W_,9357) = (-4184.0)*(273.15-DYNX(W_,9360));
-DYNX(X_,50) = DYNX(W_,5113)*DYNX(W_,9357);
-DYNX(W_,9389) = DYNX(W_,5333);
-AssertModelica(DYNX(W_,9389) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T >= 272.15)",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9329), true, 0))," K)"));
+DYNX(W_,9326) = (-4184.0)*(273.15-DYNX(W_,9329));
+DYNX(X_,50) = DYNX(W_,5073)*DYNX(W_,9326);
+DYNX(W_,9358) = DYNX(W_,5293);
+AssertModelica(DYNX(W_,9358) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9389), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9358), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9389) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9358) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9389), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9358), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9389), true, 0))," K)"));
-DYNX(W_,9386) = (-4184.0)*(273.15-DYNX(W_,9389));
-DYNX(X_,54) = DYNX(W_,5349)*DYNX(W_,9386);
-DYNX(W_,9381) = DYNX(W_,5274);
-AssertModelica(DYNX(W_,9381) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9358), true, 0))," K)"));
+DYNX(W_,9355) = (-4184.0)*(273.15-DYNX(W_,9358));
+DYNX(X_,54) = DYNX(W_,5309)*DYNX(W_,9355);
+DYNX(W_,9350) = DYNX(W_,5234);
+AssertModelica(DYNX(W_,9350) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9381), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9350), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9381) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9350) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9381), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9350), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9381), true, 0))," K)"));
-DYNX(W_,9378) = (-4184.0)*(273.15-DYNX(W_,9381));
-DYNX(X_,53) = DYNX(W_,5290)*DYNX(W_,9378);
-DYNX(W_,9373) = DYNX(W_,5215);
-AssertModelica(DYNX(W_,9373) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9350), true, 0))," K)"));
+DYNX(W_,9347) = (-4184.0)*(273.15-DYNX(W_,9350));
+DYNX(X_,53) = DYNX(W_,5250)*DYNX(W_,9347);
+DYNX(W_,9342) = DYNX(W_,5175);
+AssertModelica(DYNX(W_,9342) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9373), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9342), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9373) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9342) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9373), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9342), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9373), true, 0))," K)"));
-DYNX(W_,9341) = (-4184.0)*(273.15-DYNX(W_,9373));
-DYNX(X_,52) = DYNX(W_,5231)*DYNX(W_,9341);
-DYNX(W_,9206) = DYNX(W_,3563);
-AssertModelica(DYNX(W_,9206) >= 272.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9342), true, 0))," K)"));
+DYNX(W_,9310) = (-4184.0)*(273.15-DYNX(W_,9342));
+DYNX(X_,52) = DYNX(W_,5191)*DYNX(W_,9310);
+DYNX(W_,9175) = DYNX(W_,3525);
+AssertModelica(DYNX(W_,9175) >= 272.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9206), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9175), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9206) <= 403.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9175) <= 403.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9206), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9175), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.generation.pump.vol.dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.generation.pump.vol.dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9206), true, 0))," K)"));
-DYNX(W_,9203) = (-4184.0)*(273.15-DYNX(W_,9206));
-DYNX(X_,25) = DYNX(W_,3580)*DYNX(W_,9203);
-DYNX(X_,44) = 209200.0*DYNX(W_,4692);
-DYNX(X_,45) = 209200.0*DYNX(W_,4751);
-DYNX(X_,46) = 209200.0*DYNX(W_,4810);
-DYNX(X_,47) = 209200.0*DYNX(W_,4869);
-DYNX(W_,9396) = DYNX(W_,5392);
-AssertModelica(DYNX(W_,9396) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9175), true, 0))," K)"));
+DYNX(W_,9172) = (-4184.0)*(273.15-DYNX(W_,9175));
+DYNX(X_,25) = DYNX(W_,3542)*DYNX(W_,9172);
+DYNX(X_,44) = 209200.0*DYNX(W_,4652);
+DYNX(X_,45) = 209200.0*DYNX(W_,4711);
+DYNX(X_,46) = 209200.0*DYNX(W_,4770);
+DYNX(X_,47) = 209200.0*DYNX(W_,4829);
+DYNX(W_,9365) = DYNX(W_,5352);
+AssertModelica(DYNX(W_,9365) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9396), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9365), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9396) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9365) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9396), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9365), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9396), true, 0))," K)"));
-DYNX(W_,9342) = (-4184.0)*(273.15-DYNX(W_,9396));
-DYNX(X_,55) = DYNX(W_,5408)*DYNX(W_,9342);
-DYNX(W_,9512) = DYNX(W_,6383);
-AssertModelica(DYNX(W_,9512) >= 272.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T >= 272.15)",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9365), true, 0))," K)"));
+DYNX(W_,9311) = (-4184.0)*(273.15-DYNX(W_,9365));
+DYNX(X_,55) = DYNX(W_,5368)*DYNX(W_,9311);
+DYNX(W_,9481) = DYNX(W_,6343);
+AssertModelica(DYNX(W_,9481) >= 272.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9512), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9481), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9512) <= 403.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9481) <= 403.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9512), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9481), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9435) = (-4184.0)*(273.15-DYNX(W_,9512));
-DYNX(X_,65) = DYNX(W_,6399)*DYNX(W_,9435);
-DYNX(X_,35) = DYNX(W_,4088);
-DYNX(W_,9464) = DYNX(W_,5957);
-AssertModelica(DYNX(W_,9464) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T >= 272.15)",
+DYNX(W_,9404) = (-4184.0)*(273.15-DYNX(W_,9481));
+DYNX(X_,65) = DYNX(W_,6359)*DYNX(W_,9404);
+DYNX(X_,35) = DYNX(W_,4048);
+DYNX(W_,9433) = DYNX(W_,5917);
+AssertModelica(DYNX(W_,9433) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9464), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9433), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9464) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9433) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9464), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9433), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[1].dynBal.medium.p >= 0.0",
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9464), true, 0))," K)"));
-DYNX(W_,9440) = 4184*(DYNX(W_,9464)-273.15);
-DYNX(X_,59) = 15.346484396736084*DYNX(W_,9440)+34948.44689581876*(DYNX(W_,9464)-
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9433), true, 0))," K)"));
+DYNX(W_,9409) = 4184*(DYNX(W_,9433)-273.15);
+DYNX(X_,59) = 15.346484396736084*DYNX(W_,9409)+34948.44689581876*(DYNX(W_,9433)-
273.15);
-DYNX(W_,8568) = DYNX(W_,438)*DYNX(W_,8567);
-DYNX(W_,8507) = 273.15+divGuarded(DYNX(W_,8512)-2501014.5*DYNX(X_,0),
+DYNX(W_,8531) = DYNX(W_,438)*DYNX(W_,8530);
+DYNX(W_,8470) = 273.15+divGuarded(DYNX(W_,8475)-2501014.5*DYNX(X_,0),
"building.thermalZone[1].ROM.volAir.hOut_internal-2501014.5*building.thermalZone[1].ports[1].Xi_outflow[1]",1006
*(1-DYNX(X_,0))+1860*DYNX(X_,0),"1006*(1-building.thermalZone[1].ports[1].Xi_outflow[1])+1860*building.thermalZone[1].ports[1].Xi_outflow[1]");
-DYNX(W_,9017) = DYNX(W_,1054)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n1, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled_.start)")
+DYNX(W_,8980) = DYNX(W_,1054)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n1, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled_.start)")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), 1, DYNX(W_,9020), DYNX(W_,8309), DYNX(Aux_,330)));
+ (Integer)(DYNX(W_,1057))), 1, DYNX(W_,8983), DYNX(W_,8269), DYNX(Aux_,331)));
PopModelContext();
-DYNX(W_,8473) = DYNX(W_,1058)*DYNX(W_,9017);
-AssertModelica(Less(DYNX(W_,8473),"building.thermalZone[1].ventCont.relOccupation",
+DYNX(W_,8436) = DYNX(W_,1058)*DYNX(W_,8980);
+AssertModelica(Less(DYNX(W_,8436),"building.thermalZone[1].ventCont.relOccupation",
1.01,"1.01", 22),"building.thermalZone[1].ventCont.relOccupation < 1.01",
"Error in ventilation model. Relative occupation must not exceed 1.0!");
-DYNX(W_,8625) = DYNX(W_,516)*DYNX(W_,8473);
-DYNX(W_,8629) = DYNX(W_,8507)-273.15;
-DYNX(W_,8627) = RealBmax(0, 35+104.4*(0.865-0.025*DYNX(W_,8629))*DYNX(W_,531));
-DYNX(W_,8628) = DYNX(W_,8625)*DYNX(W_,8627);
-DYNX(W_,8624) = -DYNX(W_,524)*DYNX(W_,8628);
-DYNX(W_,9019) = DYNX(W_,1056)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n3, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled_.start)")
+DYNX(W_,8588) = DYNX(W_,516)*DYNX(W_,8436);
+DYNX(W_,8592) = DYNX(W_,8470)-273.15;
+DYNX(W_,8590) = RealBmax(0, 35+104.4*(0.865-0.025*DYNX(W_,8592))*DYNX(W_,531));
+DYNX(W_,8591) = DYNX(W_,8588)*DYNX(W_,8590);
+DYNX(W_,8587) = -DYNX(W_,524)*DYNX(W_,8591);
+DYNX(W_,8982) = DYNX(W_,1056)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n3, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled_.start)")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), 3, DYNX(W_,9020), DYNX(W_,8309), DYNX(Aux_,330)));
+ (Integer)(DYNX(W_,1057))), 3, DYNX(W_,8983), DYNX(W_,8269), DYNX(Aux_,331)));
PopModelContext();
-DYNX(W_,8475) = DYNX(W_,1060)*DYNX(W_,9019);
-DYNX(W_,8640) = DYNX(W_,565)*DYNX(W_,8475);
-DYNX(W_,8639) = -DYNX(W_,573)*DYNX(W_,8640);
-DYNX(W_,9018) = DYNX(W_,1055)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n2, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled_.start)")
+DYNX(W_,8438) = DYNX(W_,1060)*DYNX(W_,8982);
+DYNX(W_,8603) = DYNX(W_,565)*DYNX(W_,8438);
+DYNX(W_,8602) = -DYNX(W_,573)*DYNX(W_,8603);
+DYNX(W_,8981) = DYNX(W_,1055)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n2, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled_.start)")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), 2, DYNX(W_,9020), DYNX(W_,8309), DYNX(Aux_,330)));
+ (Integer)(DYNX(W_,1057))), 2, DYNX(W_,8983), DYNX(W_,8269), DYNX(Aux_,331)));
PopModelContext();
-DYNX(W_,8474) = DYNX(W_,1059)*DYNX(W_,9018);
-DYNX(W_,8634) = DYNX(W_,544)*DYNX(W_,8474);
-DYNX(W_,8633) = -DYNX(W_,552)*DYNX(W_,8634);
-DYNX(W_,8581) = DYNX(W_,458)*DYNX(W_,8582);
-DYNX(W_,8893) = IF DYNX(W_,753) THEN DYNX(W_,8506)-DYNX(W_,8292)+DYNX(W_,752)
- ELSE DYNX(W_,8506);
-DYNX(W_,8894) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8893)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[1].incAng.decAng.calTimAux)");
-DYNX(W_,8896) = cos(DYNX(W_,8894));
-DYNX(W_,9741) = IF DYNX(W_,8232) THEN DYNX(W_,8506)-DYNX(W_,8467)+DYNX(W_,8231)
- ELSE DYNX(W_,8506);
-DYNX(W_,9742) = DYNX(W_,9741)-470.5631344194285;
-DYNX(W_,9744) = IF DYNX(W_,8258) THEN DYNX(W_,8506)-DYNX(W_,8470)+DYNX(W_,8257)
- ELSE DYNX(W_,8506);
-DYNX(W_,9746) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,9744)+86400)
+DYNX(W_,8437) = DYNX(W_,1059)*DYNX(W_,8981);
+DYNX(W_,8597) = DYNX(W_,544)*DYNX(W_,8437);
+DYNX(W_,8596) = -DYNX(W_,552)*DYNX(W_,8597);
+DYNX(W_,8544) = DYNX(W_,458)*DYNX(W_,8545);
+DYNX(W_,8856) = IF DYNX(W_,753) THEN DYNX(W_,8469)-DYNX(W_,8252)+DYNX(W_,752)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8857) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8856)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[1].incAng.decAng.calTimAux)");
+DYNX(W_,8859) = cos(DYNX(W_,8857));
+DYNX(W_,9710) = IF DYNX(W_,8192) THEN DYNX(W_,8469)-DYNX(W_,8430)+DYNX(W_,8191)
+ ELSE DYNX(W_,8469);
+DYNX(W_,9711) = DYNX(W_,9710)-470.5631344194285;
+DYNX(W_,9713) = IF DYNX(W_,8218) THEN DYNX(W_,8469)-DYNX(W_,8433)+DYNX(W_,8217)
+ ELSE DYNX(W_,8469);
+DYNX(W_,9715) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,9713)+86400)
-81);
-DYNX(W_,9745) = 60*(9.87*sin(2*DYNX(W_,9746))-7.53*cos(DYNX(W_,9746))-1.5*sin(
- DYNX(W_,9746)));
-DYNX(W_,8505) = DYNX(W_,9742)+DYNX(W_,9745);
-DYNX(W_,8895) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8898) = cos(DYNX(W_,8895));
-DYNX(W_,8897) = sin(DYNX(W_,8894));
-DYNX(W_,8899) = sin(DYNX(W_,8895));
-DYNX(W_,8892) = acosGuarded(cos(DYNX(W_,757))*(0.6124088231015443*DYNX(W_,8896)*
- DYNX(W_,8898)+0.7905412281389133*DYNX(W_,8897))+sin(DYNX(W_,757))*(sin(
- DYNX(W_,756))*DYNX(W_,8896)*DYNX(W_,8899)+cos(DYNX(W_,756))*(0.7905412281389133
- *DYNX(W_,8896)*DYNX(W_,8898)-0.6124088231015443*DYNX(W_,8897))),
+DYNX(W_,9714) = 60*(9.87*sin(2*DYNX(W_,9715))-7.53*cos(DYNX(W_,9715))-1.5*sin(
+ DYNX(W_,9715)));
+DYNX(W_,8468) = DYNX(W_,9711)+DYNX(W_,9714);
+DYNX(W_,8858) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8861) = cos(DYNX(W_,8858));
+DYNX(W_,8860) = sin(DYNX(W_,8857));
+DYNX(W_,8862) = sin(DYNX(W_,8858));
+DYNX(W_,8855) = acosGuarded(cos(DYNX(W_,757))*(0.6124088231015443*DYNX(W_,8859)*
+ DYNX(W_,8861)+0.7905412281389133*DYNX(W_,8860))+sin(DYNX(W_,757))*(sin(
+ DYNX(W_,756))*DYNX(W_,8859)*DYNX(W_,8862)+cos(DYNX(W_,756))*(0.7905412281389133
+ *DYNX(W_,8859)*DYNX(W_,8861)-0.6124088231015443*DYNX(W_,8860))),
"cos(building.thermalZone[1].HDirTilWall[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[1].incAng.inc...");
-DYNX(W_,9743) = IF DYNX(W_,8250) THEN DYNX(W_,9740)-DYNX(W_,8468)+DYNX(W_,8249)
- ELSE DYNX(W_,9740);
-DYNX(W_,9736) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n2, \nweaDat.datRea30Min.u)")
+DYNX(W_,9712) = IF DYNX(W_,8210) THEN DYNX(W_,9709)-DYNX(W_,8431)+DYNX(W_,8209)
+ ELSE DYNX(W_,9709);
+DYNX(W_,9705) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n2, \nweaDat.datRea30Min.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246))), 2, DYNX(W_,9743)));
+ (Integer)(DYNX(W_,8206))), 2, DYNX(W_,9712)));
PopModelContext();
-DYNX(W_,8492) = RealBmax(0, DYNX(W_,9736));
-DYNX(W_,8891) = RealBmax(0, cos(DYNX(W_,8892))*DYNX(W_,8492));
-DYNX(W_,8646) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(W_,8455) = RealBmax(0, DYNX(W_,9705));
+DYNX(W_,8854) = RealBmax(0, cos(DYNX(W_,8855))*DYNX(W_,8455));
+DYNX(W_,8609) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8892)+DYNX(DP_,251))*DYNX(W_,8892)+DYNX(DP_,250))*DYNX(W_,8892)+
- DYNX(DP_,249))*DYNX(W_,8892)+DYNX(DP_,248))*DYNX(W_,8892)+DYNX(DP_,247))*
- DYNX(W_,8892)+DYNX(DP_,246);
-DYNX(W_,8650) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
- 0.6600660066006601*sin(DYNX(W_,8892))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2"),
+ DYNX(W_,8855)+DYNX(DP_,251))*DYNX(W_,8855)+DYNX(DP_,250))*DYNX(W_,8855)+
+ DYNX(DP_,249))*DYNX(W_,8855)+DYNX(DP_,248))*DYNX(W_,8855)+DYNX(DP_,247))*
+ DYNX(W_,8855)+DYNX(DP_,246);
+DYNX(W_,8613) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
+ 0.6600660066006601*sin(DYNX(W_,8855))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2"),
"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2)"),
"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2)");
-DYNX(W_,8654) = DYNX(W_,8646)*DYNX(W_,8650);
-DYNX(W_,8658) = 1-DYNX(W_,8646);
-DYNX(W_,8662) = divGuarded(DYNX(W_,8658),"building.thermalZone[1].corGMod.rho_T1_dir[1]",2
- -DYNX(W_,8658),"2-building.thermalZone[1].corGMod.rho_T1_dir[1]");
-DYNX(W_,8666) = DYNX(W_,8662)+divGuarded(sqr((1-DYNX(W_,8662))*DYNX(W_,8650))*
- DYNX(W_,8662),"((1-building.thermalZone[1].corGMod.rho_11_dir[1])*building.thermalZone[1].corGMod.Tai_dir[1])^2*building.thermalZone[1].corGMod.rho_11_dir[1]",1
- -sqr(DYNX(W_,8662)*DYNX(W_,8650)),"1-(building.thermalZone[1].corGMod.rho_11_dir[1]*building.thermalZone[1].corGMod.Tai_dir[1])^2");
-DYNX(W_,8670) = 1.0-sqr(DYNX(W_,8666));
-DYNX(W_,8674) = divGuarded(sqr(DYNX(W_,8654)),"building.thermalZone[1].corGMod.Ta1_dir[1]^2",
- DYNX(W_,8670),"building.thermalZone[1].corGMod.XN2_dir[1]");
-DYNX(W_,8678) = 1-(DYNX(W_,8654)+DYNX(W_,8666));
-DYNX(W_,8682) = 0.04*DYNX(W_,8678)*(1+divGuarded(DYNX(W_,8654)*DYNX(W_,8666),
+DYNX(W_,8617) = DYNX(W_,8609)*DYNX(W_,8613);
+DYNX(W_,8621) = 1-DYNX(W_,8609);
+DYNX(W_,8625) = divGuarded(DYNX(W_,8621),"building.thermalZone[1].corGMod.rho_T1_dir[1]",2
+ -DYNX(W_,8621),"2-building.thermalZone[1].corGMod.rho_T1_dir[1]");
+DYNX(W_,8629) = DYNX(W_,8625)+divGuarded(sqr((1-DYNX(W_,8625))*DYNX(W_,8613))*
+ DYNX(W_,8625),"((1-building.thermalZone[1].corGMod.rho_11_dir[1])*building.thermalZone[1].corGMod.Tai_dir[1])^2*building.thermalZone[1].corGMod.rho_11_dir[1]",1
+ -sqr(DYNX(W_,8625)*DYNX(W_,8613)),"1-(building.thermalZone[1].corGMod.rho_11_dir[1]*building.thermalZone[1].corGMod.Tai_dir[1])^2");
+DYNX(W_,8633) = 1.0-sqr(DYNX(W_,8629));
+DYNX(W_,8637) = divGuarded(sqr(DYNX(W_,8617)),"building.thermalZone[1].corGMod.Ta1_dir[1]^2",
+ DYNX(W_,8633),"building.thermalZone[1].corGMod.XN2_dir[1]");
+DYNX(W_,8641) = 1-(DYNX(W_,8617)+DYNX(W_,8629));
+DYNX(W_,8645) = 0.04*DYNX(W_,8641)*(1+divGuarded(DYNX(W_,8617)*DYNX(W_,8629),
"building.thermalZone[1].corGMod.Ta1_dir[1]*building.thermalZone[1].corGMod.rho_1_dir[1]",
- DYNX(W_,8670),"building.thermalZone[1].corGMod.XN2_dir[1]"))*DYNX(W_,578);
-DYNX(W_,8686) = divGuarded(DYNX(W_,8678)*DYNX(W_,8654)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8633),"building.thermalZone[1].corGMod.XN2_dir[1]"))*DYNX(W_,578);
+DYNX(W_,8649) = divGuarded(DYNX(W_,8641)*DYNX(W_,8617)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[1]*building.thermalZone[1].corGMod.Ta1_dir[1]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8670),"building.thermalZone[1].corGMod.XN2_dir[1]");
-DYNX(W_,8690) = DYNX(W_,8682)+DYNX(W_,8686);
-DYNX(W_,8694) = DYNX(DYNhelp,4)*(DYNX(W_,8674)+DYNX(W_,8690));
-DYNX(W_,9735) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n3, \nweaDat.datRea30Min.u)")
+ DYNX(W_,8633),"building.thermalZone[1].corGMod.XN2_dir[1]");
+DYNX(W_,8653) = DYNX(W_,8645)+DYNX(W_,8649);
+DYNX(W_,8657) = DYNX(DYNhelp,4)*(DYNX(W_,8637)+DYNX(W_,8653));
+DYNX(W_,9704) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n3, \nweaDat.datRea30Min.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246))), 3, DYNX(W_,9743)));
+ (Integer)(DYNX(W_,8206))), 3, DYNX(W_,9712)));
PopModelContext();
-DYNX(W_,8494) = RealBmax(0, DYNX(W_,9735));
-DYNX(W_,8729) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,9747) = IF DYNX(W_,8261) THEN DYNX(W_,8506)-DYNX(W_,8471)+DYNX(W_,8260)
- ELSE DYNX(W_,8506);
-DYNX(W_,8502) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,9747)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*weaDat.decAng.calTimAux)");
-DYNX(W_,8503) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8504) = acosGuarded(0.6124088231015443*cos(DYNX(W_,8502))*cos(
- DYNX(W_,8503))+0.7905412281389133*sin(DYNX(W_,8502)),"0.6124088231015443*(cos(weaDat.zenAng.decAng)*cos(weaDat.zenAng.solHouAng))+0.7905412281389133*sin(weaDat.zenAng.decAng)");
-DYNX(W_,8728) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(W_,8727) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1), 1, 8, 0.01)")
+DYNX(W_,8457) = RealBmax(0, DYNX(W_,9704));
+DYNX(W_,8692) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,9716) = IF DYNX(W_,8221) THEN DYNX(W_,8469)-DYNX(W_,8434)+DYNX(W_,8220)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8465) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,9716)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*weaDat.decAng.calTimAux)");
+DYNX(W_,8466) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8467) = acosGuarded(0.6124088231015443*cos(DYNX(W_,8465))*cos(
+ DYNX(W_,8466))+0.7905412281389133*sin(DYNX(W_,8465)),"0.6124088231015443*(cos(weaDat.zenAng.decAng)*cos(weaDat.zenAng.solHouAng))+0.7905412281389133*sin(weaDat.zenAng.decAng)");
+DYNX(W_,8691) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(W_,8690) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8729),"building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou",
- DYNX(W_,8729),"building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou")+
- DYNX(W_,8728),"(building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1",1
- +DYNX(W_,8728),"1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1"), 1, 8,
+ DYNX(W_,8455)+DYNX(W_,8692),"building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou",
+ DYNX(W_,8692),"building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou")+
+ DYNX(W_,8691),"(building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1",1
+ +DYNX(W_,8691),"1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1"), 1, 8,
0.01));
PopModelContext();
-DYNX(W_,8745) = IF 1.23-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8727)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8727))*(sqr(100.0*(1.23-
- DYNX(W_,8727)))-3);
-DYNX(W_,8737) = IF 1.065-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8727)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8727))*(sqr(100.0*(1.065-
- DYNX(W_,8727)))-3);
-DYNX(W_,8738) = DYNX(W_,8745)-DYNX(W_,8737);
-DYNX(W_,8746) = IF 1.5-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8727))*(sqr(100.0*(1.5-DYNX(W_,8727)))
+DYNX(W_,8708) = IF 1.23-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8690)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8690))*(sqr(100.0*(1.23-
+ DYNX(W_,8690)))-3);
+DYNX(W_,8700) = IF 1.065-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8690)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8690))*(sqr(100.0*(1.065-
+ DYNX(W_,8690)))-3);
+DYNX(W_,8701) = DYNX(W_,8708)-DYNX(W_,8700);
+DYNX(W_,8709) = IF 1.5-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8690))*(sqr(100.0*(1.5-DYNX(W_,8690)))
-3);
-DYNX(W_,8739) = DYNX(W_,8746)-DYNX(W_,8745);
-DYNX(W_,8747) = IF 1.95-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8727)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8727))*(sqr(100.0*(1.95-
- DYNX(W_,8727)))-3);
-DYNX(W_,8740) = DYNX(W_,8747)-DYNX(W_,8746);
-DYNX(W_,8748) = IF 2.8-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8727))*(sqr(100.0*(2.8-DYNX(W_,8727)))
+DYNX(W_,8702) = DYNX(W_,8709)-DYNX(W_,8708);
+DYNX(W_,8710) = IF 1.95-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8690)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8690))*(sqr(100.0*(1.95-
+ DYNX(W_,8690)))-3);
+DYNX(W_,8703) = DYNX(W_,8710)-DYNX(W_,8709);
+DYNX(W_,8711) = IF 2.8-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8690))*(sqr(100.0*(2.8-DYNX(W_,8690)))
-3);
-DYNX(W_,8741) = DYNX(W_,8748)-DYNX(W_,8747);
-DYNX(W_,8749) = IF 4.5-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8727))*(sqr(100.0*(4.5-DYNX(W_,8727)))
+DYNX(W_,8704) = DYNX(W_,8711)-DYNX(W_,8710);
+DYNX(W_,8712) = IF 4.5-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8690))*(sqr(100.0*(4.5-DYNX(W_,8690)))
-3);
-DYNX(W_,8742) = DYNX(W_,8749)-DYNX(W_,8748);
-DYNX(W_,8750) = IF 6.2-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8727))*(sqr(100.0*(6.2-DYNX(W_,8727)))
+DYNX(W_,8705) = DYNX(W_,8712)-DYNX(W_,8711);
+DYNX(W_,8713) = IF 6.2-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8690))*(sqr(100.0*(6.2-DYNX(W_,8690)))
-3);
-DYNX(W_,8743) = DYNX(W_,8750)-DYNX(W_,8749);
-DYNX(W_,8744) = IF DYNX(W_,8727)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8727)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8727)-6.2)*(sqr(100.0*(DYNX(W_,8727)-6.2))
+DYNX(W_,8706) = DYNX(W_,8713)-DYNX(W_,8712);
+DYNX(W_,8707) = IF DYNX(W_,8690)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8690)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8690)-6.2)*(sqr(100.0*(DYNX(W_,8690)-6.2))
-3);
-DYNX(W_,8731) = 0.1299457*DYNX(W_,8738)-0.0083117*DYNX(W_,8737)+0.3296958*
- DYNX(W_,8739)+0.5682053*DYNX(W_,8740)+0.873028*DYNX(W_,8741)+1.1326077*
- DYNX(W_,8742)+1.0601591*DYNX(W_,8743)+0.677747*DYNX(W_,8744);
-DYNX(W_,8732) = 0.5877285*DYNX(W_,8737)+0.6825954*DYNX(W_,8738)+0.4868735*
- DYNX(W_,8739)+0.1874525*DYNX(W_,8740)-0.3920403*DYNX(W_,8741)-1.2367284*
- DYNX(W_,8742)-1.5999137*DYNX(W_,8743)-0.3272588*DYNX(W_,8744);
-DYNX(W_,8752) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8753) = 0.3183098861837907*DYNX(W_,8752)*180;
-DYNX(W_,8751) = divinvGuarded(cos(DYNX(W_,8752))+0.15*powGuarded(93.9-
- DYNX(W_,8753),"93.9-building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg",
+DYNX(W_,8694) = 0.1299457*DYNX(W_,8701)-0.0083117*DYNX(W_,8700)+0.3296958*
+ DYNX(W_,8702)+0.5682053*DYNX(W_,8703)+0.873028*DYNX(W_,8704)+1.1326077*
+ DYNX(W_,8705)+1.0601591*DYNX(W_,8706)+0.677747*DYNX(W_,8707);
+DYNX(W_,8695) = 0.5877285*DYNX(W_,8700)+0.6825954*DYNX(W_,8701)+0.4868735*
+ DYNX(W_,8702)+0.1874525*DYNX(W_,8703)-0.3920403*DYNX(W_,8704)-1.2367284*
+ DYNX(W_,8705)-1.5999137*DYNX(W_,8706)-0.3272588*DYNX(W_,8707);
+DYNX(W_,8715) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8716) = 0.3183098861837907*DYNX(W_,8715)*180;
+DYNX(W_,8714) = divinvGuarded(cos(DYNX(W_,8715))+0.15*powGuarded(93.9-
+ DYNX(W_,8716),"93.9-building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg",
-1.253,"-1.253"),"cos(building.thermalZone[1].HDifTilWall[1].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8754) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
- DYNX(W_,8505));
-DYNX(W_,8730) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),
+DYNX(W_,8717) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
+ DYNX(W_,8468));
+DYNX(W_,8693) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),
"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8751),"0.5*(building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor");
-DYNX(W_,8733) = (-0.0620636)*DYNX(W_,8737)-0.1513725*DYNX(W_,8738)-0.2210958*
- DYNX(W_,8739)-0.295129*DYNX(W_,8740)-0.3616149*DYNX(W_,8741)-0.4118494*
- DYNX(W_,8742)-0.3589221*DYNX(W_,8743)-0.2504286*DYNX(W_,8744);
-DYNX(W_,8720) = IF -(DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8731)+DYNX(W_,8732)*
- DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8731)+
- DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504));
-DYNX(W_,8755) = IF DYNX(W_,647) THEN DYNX(W_,8506)-DYNX(W_,8288)+DYNX(W_,646)
- ELSE DYNX(W_,8506);
-DYNX(W_,8756) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8755)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[1].incAng.decAng.calTimAux)");
-DYNX(W_,8758) = cos(DYNX(W_,8756));
-DYNX(W_,8757) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8760) = cos(DYNX(W_,8757));
-DYNX(W_,8759) = sin(DYNX(W_,8756));
-DYNX(W_,8761) = sin(DYNX(W_,8757));
-DYNX(W_,8722) = acosGuarded(cos(DYNX(W_,651))*(0.6124088231015443*DYNX(W_,8758)*
- DYNX(W_,8760)+0.7905412281389133*DYNX(W_,8759))+sin(DYNX(W_,651))*(sin(
- DYNX(W_,650))*DYNX(W_,8758)*DYNX(W_,8761)+cos(DYNX(W_,650))*(0.7905412281389133
- *DYNX(W_,8758)*DYNX(W_,8760)-0.6124088231015443*DYNX(W_,8759))),
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8714),"0.5*(building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor");
+DYNX(W_,8696) = (-0.0620636)*DYNX(W_,8700)-0.1513725*DYNX(W_,8701)-0.2210958*
+ DYNX(W_,8702)-0.295129*DYNX(W_,8703)-0.3616149*DYNX(W_,8704)-0.4118494*
+ DYNX(W_,8705)-0.3589221*DYNX(W_,8706)-0.2504286*DYNX(W_,8707);
+DYNX(W_,8683) = IF -(DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8694)+DYNX(W_,8695)*
+ DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8694)+
+ DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467));
+DYNX(W_,8718) = IF DYNX(W_,647) THEN DYNX(W_,8469)-DYNX(W_,8248)+DYNX(W_,646)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8719) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8718)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[1].incAng.decAng.calTimAux)");
+DYNX(W_,8721) = cos(DYNX(W_,8719));
+DYNX(W_,8720) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8723) = cos(DYNX(W_,8720));
+DYNX(W_,8722) = sin(DYNX(W_,8719));
+DYNX(W_,8724) = sin(DYNX(W_,8720));
+DYNX(W_,8685) = acosGuarded(cos(DYNX(W_,651))*(0.6124088231015443*DYNX(W_,8721)*
+ DYNX(W_,8723)+0.7905412281389133*DYNX(W_,8722))+sin(DYNX(W_,651))*(sin(
+ DYNX(W_,650))*DYNX(W_,8721)*DYNX(W_,8724)+cos(DYNX(W_,650))*(0.7905412281389133
+ *DYNX(W_,8721)*DYNX(W_,8723)-0.6124088231015443*DYNX(W_,8722))),
"cos(building.thermalZone[1].HDifTilWall[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[1].incAng.inc...");
-DYNX(W_,8725) = IF -cos(DYNX(W_,8722)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8722)) < -0.01 THEN cos(DYNX(W_,8722)) ELSE 0.5*cos(DYNX(W_,8722))-
- 25.0*cos(DYNX(W_,8722))*(sqr((-100.0)*cos(DYNX(W_,8722)))-3)*cos(DYNX(W_,8722));
-DYNX(W_,8726) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8734) = (-0.0596012)*DYNX(W_,8737)-0.0189325*DYNX(W_,8738)+0.055414*
- DYNX(W_,8739)+0.1088631*DYNX(W_,8740)+0.2255647*DYNX(W_,8741)+0.2877813*
- DYNX(W_,8742)+0.2642124*DYNX(W_,8743)+0.1561313*DYNX(W_,8744);
-DYNX(W_,8735) = 0.0721249*DYNX(W_,8737)+0.065965*DYNX(W_,8738)-0.0639588*
- DYNX(W_,8739)-0.1519229*DYNX(W_,8740)-0.4620442*DYNX(W_,8741)-0.8230357*
- DYNX(W_,8742)-1.127234*DYNX(W_,8743)-1.3765031*DYNX(W_,8744);
-DYNX(W_,8736) = (-0.0220216)*DYNX(W_,8737)-0.0288748*DYNX(W_,8738)-0.0260542*
- DYNX(W_,8739)-0.0139754*DYNX(W_,8740)+0.0012448*DYNX(W_,8741)+0.0558651*
- DYNX(W_,8742)+0.1310694*DYNX(W_,8743)+0.2506212*DYNX(W_,8744);
-DYNX(W_,8721) = DYNX(W_,8734)+DYNX(W_,8735)*DYNX(W_,8730)+DYNX(W_,8736)*
- DYNX(W_,8504);
-DYNX(W_,8724) = DYNX(W_,8494)*(0.5*(1-DYNX(W_,8720))*(1+cos(DYNX(W_,634)))+
- divGuarded(DYNX(W_,8720)*DYNX(W_,8725),"building.thermalZone[1].HDifTilWall[1].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[1].HDifTil.a",
- DYNX(W_,8726),"building.thermalZone[1].HDifTilWall[1].HDifTil.b")+
- DYNX(W_,8721)*sin(DYNX(W_,634)));
-DYNX(W_,9734) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n1, \nweaDat.datRea30Min.u)")
+DYNX(W_,8688) = IF -cos(DYNX(W_,8685)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8685)) < -0.01 THEN cos(DYNX(W_,8685)) ELSE 0.5*cos(DYNX(W_,8685))-
+ 25.0*cos(DYNX(W_,8685))*(sqr((-100.0)*cos(DYNX(W_,8685)))-3)*cos(DYNX(W_,8685));
+DYNX(W_,8689) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8697) = (-0.0596012)*DYNX(W_,8700)-0.0189325*DYNX(W_,8701)+0.055414*
+ DYNX(W_,8702)+0.1088631*DYNX(W_,8703)+0.2255647*DYNX(W_,8704)+0.2877813*
+ DYNX(W_,8705)+0.2642124*DYNX(W_,8706)+0.1561313*DYNX(W_,8707);
+DYNX(W_,8698) = 0.0721249*DYNX(W_,8700)+0.065965*DYNX(W_,8701)-0.0639588*
+ DYNX(W_,8702)-0.1519229*DYNX(W_,8703)-0.4620442*DYNX(W_,8704)-0.8230357*
+ DYNX(W_,8705)-1.127234*DYNX(W_,8706)-1.3765031*DYNX(W_,8707);
+DYNX(W_,8699) = (-0.0220216)*DYNX(W_,8700)-0.0288748*DYNX(W_,8701)-0.0260542*
+ DYNX(W_,8702)-0.0139754*DYNX(W_,8703)+0.0012448*DYNX(W_,8704)+0.0558651*
+ DYNX(W_,8705)+0.1310694*DYNX(W_,8706)+0.2506212*DYNX(W_,8707);
+DYNX(W_,8684) = DYNX(W_,8697)+DYNX(W_,8698)*DYNX(W_,8693)+DYNX(W_,8699)*
+ DYNX(W_,8467);
+DYNX(W_,8687) = DYNX(W_,8457)*(0.5*(1-DYNX(W_,8683))*(1+cos(DYNX(W_,634)))+
+ divGuarded(DYNX(W_,8683)*DYNX(W_,8688),"building.thermalZone[1].HDifTilWall[1].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[1].HDifTil.a",
+ DYNX(W_,8689),"building.thermalZone[1].HDifTilWall[1].HDifTil.b")+
+ DYNX(W_,8684)*sin(DYNX(W_,634)));
+DYNX(W_,9703) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n1, \nweaDat.datRea30Min.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246))), 1, DYNX(W_,9743)));
+ (Integer)(DYNX(W_,8206))), 1, DYNX(W_,9712)));
PopModelContext();
-DYNX(W_,8493) = RealBmax(0, DYNX(W_,9734));
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(33);
-DYNX(W_,8723) = 0.5*DYNX(W_,8493)*DYNX(W_,633)*(1-cos(DYNX(W_,634)));
-DYNX(W_,8642) = DYNX(W_,8891)*DYNX(W_,8694)+DYNX(W_,8724)*DYNX(W_,589)+
- DYNX(W_,8723)*DYNX(W_,590);
-DYNX(W_,8719) = DYNX(DP_,262)*DYNX(W_,8724)+DYNX(DP_,263)*DYNX(W_,8723);
-DYNX(W_,9001) = DYNX(DP_,309)*DYNX(W_,8891)+DYNX(DP_,310)*DYNX(W_,8719);
-DYNX(W_,8297) = Greater(DYNX(W_,9001),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].u",
+DYNX(W_,8456) = RealBmax(0, DYNX(W_,9703));
+DYNX(W_,8686) = 0.5*DYNX(W_,8456)*DYNX(W_,633)*(1-cos(DYNX(W_,634)));
+DYNX(W_,8605) = DYNX(W_,8854)*DYNX(W_,8657)+DYNX(W_,8687)*DYNX(W_,589)+
+ DYNX(W_,8686)*DYNX(W_,590);
+DYNX(W_,8682) = DYNX(DP_,262)*DYNX(W_,8687)+DYNX(DP_,263)*DYNX(W_,8686);
+DYNX(W_,8964) = DYNX(DP_,309)*DYNX(W_,8854)+DYNX(DP_,310)*DYNX(W_,8682);
+DYNX(W_,8257) = Greater(DYNX(W_,8964),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].u",
DYNX(W_,846),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].threshold",
23);
-DYNX(W_,8284) = IF DYNX(W_,8297) THEN DYNX(W_,850) ELSE DYNX(DP_,289);
-DYNX(W_,8514) = DYNX(W_,8642)*DYNX(W_,8284);
-DYNX(W_,8554) = DYNX(W_,442)*DYNX(W_,8514);
-DYNX(W_,8902) = IF DYNX(W_,772) THEN DYNX(W_,8506)-DYNX(W_,8293)+DYNX(W_,771)
- ELSE DYNX(W_,8506);
-DYNX(W_,8903) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8902)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[2].incAng.decAng.calTimAux)");
-DYNX(W_,8905) = cos(DYNX(W_,8903));
-DYNX(W_,8904) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8907) = cos(DYNX(W_,8904));
-DYNX(W_,8906) = sin(DYNX(W_,8903));
-DYNX(W_,8908) = sin(DYNX(W_,8904));
-DYNX(W_,8901) = acosGuarded(cos(DYNX(W_,776))*(0.6124088231015443*DYNX(W_,8905)*
- DYNX(W_,8907)+0.7905412281389133*DYNX(W_,8906))+sin(DYNX(W_,776))*(sin(
- DYNX(W_,775))*DYNX(W_,8905)*DYNX(W_,8908)+cos(DYNX(W_,775))*(0.7905412281389133
- *DYNX(W_,8905)*DYNX(W_,8907)-0.6124088231015443*DYNX(W_,8906))),
+DYNX(W_,8244) = IF DYNX(W_,8257) THEN DYNX(W_,850) ELSE DYNX(DP_,289);
+DYNX(W_,8477) = DYNX(W_,8605)*DYNX(W_,8244);
+DYNX(W_,8517) = DYNX(W_,442)*DYNX(W_,8477);
+DYNX(W_,8865) = IF DYNX(W_,772) THEN DYNX(W_,8469)-DYNX(W_,8253)+DYNX(W_,771)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8866) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8865)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[2].incAng.decAng.calTimAux)");
+DYNX(W_,8868) = cos(DYNX(W_,8866));
+DYNX(W_,8867) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8870) = cos(DYNX(W_,8867));
+DYNX(W_,8869) = sin(DYNX(W_,8866));
+DYNX(W_,8871) = sin(DYNX(W_,8867));
+DYNX(W_,8864) = acosGuarded(cos(DYNX(W_,776))*(0.6124088231015443*DYNX(W_,8868)*
+ DYNX(W_,8870)+0.7905412281389133*DYNX(W_,8869))+sin(DYNX(W_,776))*(sin(
+ DYNX(W_,775))*DYNX(W_,8868)*DYNX(W_,8871)+cos(DYNX(W_,775))*(0.7905412281389133
+ *DYNX(W_,8868)*DYNX(W_,8870)-0.6124088231015443*DYNX(W_,8869))),
"cos(building.thermalZone[1].HDirTilWall[2].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[2].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[2].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[2].incAng.inc...");
-DYNX(W_,8900) = RealBmax(0, cos(DYNX(W_,8901))*DYNX(W_,8492));
-DYNX(W_,8647) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(W_,8863) = RealBmax(0, cos(DYNX(W_,8864))*DYNX(W_,8455));
+DYNX(W_,8610) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8901)+DYNX(DP_,251))*DYNX(W_,8901)+DYNX(DP_,250))*DYNX(W_,8901)+
- DYNX(DP_,249))*DYNX(W_,8901)+DYNX(DP_,248))*DYNX(W_,8901)+DYNX(DP_,247))*
- DYNX(W_,8901)+DYNX(DP_,246);
-DYNX(W_,8651) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
- 0.6600660066006601*sin(DYNX(W_,8901))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2"),
+ DYNX(W_,8864)+DYNX(DP_,251))*DYNX(W_,8864)+DYNX(DP_,250))*DYNX(W_,8864)+
+ DYNX(DP_,249))*DYNX(W_,8864)+DYNX(DP_,248))*DYNX(W_,8864)+DYNX(DP_,247))*
+ DYNX(W_,8864)+DYNX(DP_,246);
+DYNX(W_,8614) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
+ 0.6600660066006601*sin(DYNX(W_,8864))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2"),
"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2)"),
"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2)");
-DYNX(W_,8655) = DYNX(W_,8647)*DYNX(W_,8651);
-DYNX(W_,8659) = 1-DYNX(W_,8647);
-DYNX(W_,8663) = divGuarded(DYNX(W_,8659),"building.thermalZone[1].corGMod.rho_T1_dir[2]",2
- -DYNX(W_,8659),"2-building.thermalZone[1].corGMod.rho_T1_dir[2]");
-DYNX(W_,8667) = DYNX(W_,8663)+divGuarded(sqr((1-DYNX(W_,8663))*DYNX(W_,8651))*
- DYNX(W_,8663),"((1-building.thermalZone[1].corGMod.rho_11_dir[2])*building.thermalZone[1].corGMod.Tai_dir[2])^2*building.thermalZone[1].corGMod.rho_11_dir[2]",1
- -sqr(DYNX(W_,8663)*DYNX(W_,8651)),"1-(building.thermalZone[1].corGMod.rho_11_dir[2]*building.thermalZone[1].corGMod.Tai_dir[2])^2");
-DYNX(W_,8671) = 1.0-sqr(DYNX(W_,8667));
-DYNX(W_,8675) = divGuarded(sqr(DYNX(W_,8655)),"building.thermalZone[1].corGMod.Ta1_dir[2]^2",
- DYNX(W_,8671),"building.thermalZone[1].corGMod.XN2_dir[2]");
-DYNX(W_,8679) = 1-(DYNX(W_,8655)+DYNX(W_,8667));
-DYNX(W_,8683) = 0.04*DYNX(W_,8679)*(1+divGuarded(DYNX(W_,8655)*DYNX(W_,8667),
+DYNX(W_,8618) = DYNX(W_,8610)*DYNX(W_,8614);
+DYNX(W_,8622) = 1-DYNX(W_,8610);
+DYNX(W_,8626) = divGuarded(DYNX(W_,8622),"building.thermalZone[1].corGMod.rho_T1_dir[2]",2
+ -DYNX(W_,8622),"2-building.thermalZone[1].corGMod.rho_T1_dir[2]");
+DYNX(W_,8630) = DYNX(W_,8626)+divGuarded(sqr((1-DYNX(W_,8626))*DYNX(W_,8614))*
+ DYNX(W_,8626),"((1-building.thermalZone[1].corGMod.rho_11_dir[2])*building.thermalZone[1].corGMod.Tai_dir[2])^2*building.thermalZone[1].corGMod.rho_11_dir[2]",1
+ -sqr(DYNX(W_,8626)*DYNX(W_,8614)),"1-(building.thermalZone[1].corGMod.rho_11_dir[2]*building.thermalZone[1].corGMod.Tai_dir[2])^2");
+DYNX(W_,8634) = 1.0-sqr(DYNX(W_,8630));
+DYNX(W_,8638) = divGuarded(sqr(DYNX(W_,8618)),"building.thermalZone[1].corGMod.Ta1_dir[2]^2",
+ DYNX(W_,8634),"building.thermalZone[1].corGMod.XN2_dir[2]");
+DYNX(W_,8642) = 1-(DYNX(W_,8618)+DYNX(W_,8630));
+DYNX(W_,8646) = 0.04*DYNX(W_,8642)*(1+divGuarded(DYNX(W_,8618)*DYNX(W_,8630),
"building.thermalZone[1].corGMod.Ta1_dir[2]*building.thermalZone[1].corGMod.rho_1_dir[2]",
- DYNX(W_,8671),"building.thermalZone[1].corGMod.XN2_dir[2]"))*DYNX(W_,578);
-DYNX(W_,8687) = divGuarded(DYNX(W_,8679)*DYNX(W_,8655)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8634),"building.thermalZone[1].corGMod.XN2_dir[2]"))*DYNX(W_,578);
+DYNX(W_,8650) = divGuarded(DYNX(W_,8642)*DYNX(W_,8618)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[2]*building.thermalZone[1].corGMod.Ta1_dir[2]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8671),"building.thermalZone[1].corGMod.XN2_dir[2]");
-DYNX(W_,8691) = DYNX(W_,8683)+DYNX(W_,8687);
-DYNX(W_,8695) = DYNX(DYNhelp,4)*(DYNX(W_,8675)+DYNX(W_,8691));
-DYNX(W_,8772) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8771) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(W_,8770) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1), 1, 8, 0.01)")
+ DYNX(W_,8634),"building.thermalZone[1].corGMod.XN2_dir[2]");
+DYNX(W_,8654) = DYNX(W_,8646)+DYNX(W_,8650);
+DYNX(W_,8658) = DYNX(DYNhelp,4)*(DYNX(W_,8638)+DYNX(W_,8654));
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(33);
+DYNX(W_,8735) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8734) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(W_,8733) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8772),"building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou",
- DYNX(W_,8772),"building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou")+
- DYNX(W_,8771),"(building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1",1
- +DYNX(W_,8771),"1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1"), 1, 8,
+ DYNX(W_,8455)+DYNX(W_,8735),"building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou",
+ DYNX(W_,8735),"building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou")+
+ DYNX(W_,8734),"(building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1",1
+ +DYNX(W_,8734),"1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1"), 1, 8,
0.01));
PopModelContext();
-DYNX(W_,8788) = IF 1.23-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8770)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8770))*(sqr(100.0*(1.23-
- DYNX(W_,8770)))-3);
-DYNX(W_,8780) = IF 1.065-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8770)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8770))*(sqr(100.0*(1.065-
- DYNX(W_,8770)))-3);
-DYNX(W_,8781) = DYNX(W_,8788)-DYNX(W_,8780);
-DYNX(W_,8789) = IF 1.5-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8770))*(sqr(100.0*(1.5-DYNX(W_,8770)))
+DYNX(W_,8751) = IF 1.23-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8733)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8733))*(sqr(100.0*(1.23-
+ DYNX(W_,8733)))-3);
+DYNX(W_,8743) = IF 1.065-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8733)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8733))*(sqr(100.0*(1.065-
+ DYNX(W_,8733)))-3);
+DYNX(W_,8744) = DYNX(W_,8751)-DYNX(W_,8743);
+DYNX(W_,8752) = IF 1.5-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8733))*(sqr(100.0*(1.5-DYNX(W_,8733)))
-3);
-DYNX(W_,8782) = DYNX(W_,8789)-DYNX(W_,8788);
-DYNX(W_,8790) = IF 1.95-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8770)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8770))*(sqr(100.0*(1.95-
- DYNX(W_,8770)))-3);
-DYNX(W_,8783) = DYNX(W_,8790)-DYNX(W_,8789);
-DYNX(W_,8791) = IF 2.8-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8770))*(sqr(100.0*(2.8-DYNX(W_,8770)))
+DYNX(W_,8745) = DYNX(W_,8752)-DYNX(W_,8751);
+DYNX(W_,8753) = IF 1.95-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8733)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8733))*(sqr(100.0*(1.95-
+ DYNX(W_,8733)))-3);
+DYNX(W_,8746) = DYNX(W_,8753)-DYNX(W_,8752);
+DYNX(W_,8754) = IF 2.8-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8733))*(sqr(100.0*(2.8-DYNX(W_,8733)))
-3);
-DYNX(W_,8784) = DYNX(W_,8791)-DYNX(W_,8790);
-DYNX(W_,8792) = IF 4.5-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8770))*(sqr(100.0*(4.5-DYNX(W_,8770)))
+DYNX(W_,8747) = DYNX(W_,8754)-DYNX(W_,8753);
+DYNX(W_,8755) = IF 4.5-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8733))*(sqr(100.0*(4.5-DYNX(W_,8733)))
-3);
-DYNX(W_,8785) = DYNX(W_,8792)-DYNX(W_,8791);
-DYNX(W_,8793) = IF 6.2-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8770))*(sqr(100.0*(6.2-DYNX(W_,8770)))
+DYNX(W_,8748) = DYNX(W_,8755)-DYNX(W_,8754);
+DYNX(W_,8756) = IF 6.2-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8733))*(sqr(100.0*(6.2-DYNX(W_,8733)))
-3);
-DYNX(W_,8786) = DYNX(W_,8793)-DYNX(W_,8792);
-DYNX(W_,8787) = IF DYNX(W_,8770)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8770)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8770)-6.2)*(sqr(100.0*(DYNX(W_,8770)-6.2))
+DYNX(W_,8749) = DYNX(W_,8756)-DYNX(W_,8755);
+DYNX(W_,8750) = IF DYNX(W_,8733)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8733)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8733)-6.2)*(sqr(100.0*(DYNX(W_,8733)-6.2))
-3);
-DYNX(W_,8774) = 0.1299457*DYNX(W_,8781)-0.0083117*DYNX(W_,8780)+0.3296958*
- DYNX(W_,8782)+0.5682053*DYNX(W_,8783)+0.873028*DYNX(W_,8784)+1.1326077*
- DYNX(W_,8785)+1.0601591*DYNX(W_,8786)+0.677747*DYNX(W_,8787);
-DYNX(W_,8775) = 0.5877285*DYNX(W_,8780)+0.6825954*DYNX(W_,8781)+0.4868735*
- DYNX(W_,8782)+0.1874525*DYNX(W_,8783)-0.3920403*DYNX(W_,8784)-1.2367284*
- DYNX(W_,8785)-1.5999137*DYNX(W_,8786)-0.3272588*DYNX(W_,8787);
-DYNX(W_,8795) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8796) = 0.3183098861837907*DYNX(W_,8795)*180;
-DYNX(W_,8794) = divinvGuarded(cos(DYNX(W_,8795))+0.15*powGuarded(93.9-
- DYNX(W_,8796),"93.9-building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg",
+DYNX(W_,8737) = 0.1299457*DYNX(W_,8744)-0.0083117*DYNX(W_,8743)+0.3296958*
+ DYNX(W_,8745)+0.5682053*DYNX(W_,8746)+0.873028*DYNX(W_,8747)+1.1326077*
+ DYNX(W_,8748)+1.0601591*DYNX(W_,8749)+0.677747*DYNX(W_,8750);
+DYNX(W_,8738) = 0.5877285*DYNX(W_,8743)+0.6825954*DYNX(W_,8744)+0.4868735*
+ DYNX(W_,8745)+0.1874525*DYNX(W_,8746)-0.3920403*DYNX(W_,8747)-1.2367284*
+ DYNX(W_,8748)-1.5999137*DYNX(W_,8749)-0.3272588*DYNX(W_,8750);
+DYNX(W_,8758) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8759) = 0.3183098861837907*DYNX(W_,8758)*180;
+DYNX(W_,8757) = divinvGuarded(cos(DYNX(W_,8758))+0.15*powGuarded(93.9-
+ DYNX(W_,8759),"93.9-building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg",
-1.253,"-1.253"),"cos(building.thermalZone[1].HDifTilWall[2].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8797) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
- DYNX(W_,8505));
-DYNX(W_,8773) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),
+DYNX(W_,8760) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
+ DYNX(W_,8468));
+DYNX(W_,8736) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),
"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8794),"0.5*(building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor");
-DYNX(W_,8776) = (-0.0620636)*DYNX(W_,8780)-0.1513725*DYNX(W_,8781)-0.2210958*
- DYNX(W_,8782)-0.295129*DYNX(W_,8783)-0.3616149*DYNX(W_,8784)-0.4118494*
- DYNX(W_,8785)-0.3589221*DYNX(W_,8786)-0.2504286*DYNX(W_,8787);
-DYNX(W_,8763) = IF -(DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8774)+DYNX(W_,8775)*
- DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8774)+
- DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504));
-DYNX(W_,8798) = IF DYNX(W_,676) THEN DYNX(W_,8506)-DYNX(W_,8289)+DYNX(W_,675)
- ELSE DYNX(W_,8506);
-DYNX(W_,8799) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8798)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[2].incAng.decAng.calTimAux)");
-DYNX(W_,8801) = cos(DYNX(W_,8799));
-DYNX(W_,8800) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8803) = cos(DYNX(W_,8800));
-DYNX(W_,8802) = sin(DYNX(W_,8799));
-DYNX(W_,8804) = sin(DYNX(W_,8800));
-DYNX(W_,8765) = acosGuarded(cos(DYNX(W_,680))*(0.6124088231015443*DYNX(W_,8801)*
- DYNX(W_,8803)+0.7905412281389133*DYNX(W_,8802))+sin(DYNX(W_,680))*(sin(
- DYNX(W_,679))*DYNX(W_,8801)*DYNX(W_,8804)+cos(DYNX(W_,679))*(0.7905412281389133
- *DYNX(W_,8801)*DYNX(W_,8803)-0.6124088231015443*DYNX(W_,8802))),
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8757),"0.5*(building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor");
+DYNX(W_,8739) = (-0.0620636)*DYNX(W_,8743)-0.1513725*DYNX(W_,8744)-0.2210958*
+ DYNX(W_,8745)-0.295129*DYNX(W_,8746)-0.3616149*DYNX(W_,8747)-0.4118494*
+ DYNX(W_,8748)-0.3589221*DYNX(W_,8749)-0.2504286*DYNX(W_,8750);
+DYNX(W_,8726) = IF -(DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8737)+DYNX(W_,8738)*
+ DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8737)+
+ DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467));
+DYNX(W_,8761) = IF DYNX(W_,676) THEN DYNX(W_,8469)-DYNX(W_,8249)+DYNX(W_,675)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8762) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8761)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[2].incAng.decAng.calTimAux)");
+DYNX(W_,8764) = cos(DYNX(W_,8762));
+DYNX(W_,8763) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8766) = cos(DYNX(W_,8763));
+DYNX(W_,8765) = sin(DYNX(W_,8762));
+DYNX(W_,8767) = sin(DYNX(W_,8763));
+DYNX(W_,8728) = acosGuarded(cos(DYNX(W_,680))*(0.6124088231015443*DYNX(W_,8764)*
+ DYNX(W_,8766)+0.7905412281389133*DYNX(W_,8765))+sin(DYNX(W_,680))*(sin(
+ DYNX(W_,679))*DYNX(W_,8764)*DYNX(W_,8767)+cos(DYNX(W_,679))*(0.7905412281389133
+ *DYNX(W_,8764)*DYNX(W_,8766)-0.6124088231015443*DYNX(W_,8765))),
"cos(building.thermalZone[1].HDifTilWall[2].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[2].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[2].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[2].incAng.inc...");
-DYNX(W_,8768) = IF -cos(DYNX(W_,8765)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8765)) < -0.01 THEN cos(DYNX(W_,8765)) ELSE 0.5*cos(DYNX(W_,8765))-
- 25.0*cos(DYNX(W_,8765))*(sqr((-100.0)*cos(DYNX(W_,8765)))-3)*cos(DYNX(W_,8765));
-DYNX(W_,8769) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8777) = (-0.0596012)*DYNX(W_,8780)-0.0189325*DYNX(W_,8781)+0.055414*
- DYNX(W_,8782)+0.1088631*DYNX(W_,8783)+0.2255647*DYNX(W_,8784)+0.2877813*
- DYNX(W_,8785)+0.2642124*DYNX(W_,8786)+0.1561313*DYNX(W_,8787);
-DYNX(W_,8778) = 0.0721249*DYNX(W_,8780)+0.065965*DYNX(W_,8781)-0.0639588*
- DYNX(W_,8782)-0.1519229*DYNX(W_,8783)-0.4620442*DYNX(W_,8784)-0.8230357*
- DYNX(W_,8785)-1.127234*DYNX(W_,8786)-1.3765031*DYNX(W_,8787);
-DYNX(W_,8779) = (-0.0220216)*DYNX(W_,8780)-0.0288748*DYNX(W_,8781)-0.0260542*
- DYNX(W_,8782)-0.0139754*DYNX(W_,8783)+0.0012448*DYNX(W_,8784)+0.0558651*
- DYNX(W_,8785)+0.1310694*DYNX(W_,8786)+0.2506212*DYNX(W_,8787);
-DYNX(W_,8764) = DYNX(W_,8777)+DYNX(W_,8778)*DYNX(W_,8773)+DYNX(W_,8779)*
- DYNX(W_,8504);
-DYNX(W_,8767) = DYNX(W_,8494)*(0.5*(1-DYNX(W_,8763))*(1+cos(DYNX(W_,663)))+
- divGuarded(DYNX(W_,8763)*DYNX(W_,8768),"building.thermalZone[1].HDifTilWall[2].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[2].HDifTil.a",
- DYNX(W_,8769),"building.thermalZone[1].HDifTilWall[2].HDifTil.b")+
- DYNX(W_,8764)*sin(DYNX(W_,663)));
-DYNX(W_,8766) = 0.5*DYNX(W_,8493)*DYNX(W_,662)*(1-cos(DYNX(W_,663)));
-DYNX(W_,8643) = DYNX(W_,8900)*DYNX(W_,8695)+DYNX(W_,8767)*DYNX(W_,589)+
- DYNX(W_,8766)*DYNX(W_,590);
-DYNX(W_,8762) = DYNX(DP_,267)*DYNX(W_,8767)+DYNX(DP_,268)*DYNX(W_,8766);
-DYNX(W_,9002) = DYNX(DP_,311)*DYNX(W_,8900)+DYNX(DP_,312)*DYNX(W_,8762);
-DYNX(W_,8298) = Greater(DYNX(W_,9002),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].u",
+DYNX(W_,8731) = IF -cos(DYNX(W_,8728)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8728)) < -0.01 THEN cos(DYNX(W_,8728)) ELSE 0.5*cos(DYNX(W_,8728))-
+ 25.0*cos(DYNX(W_,8728))*(sqr((-100.0)*cos(DYNX(W_,8728)))-3)*cos(DYNX(W_,8728));
+DYNX(W_,8732) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8740) = (-0.0596012)*DYNX(W_,8743)-0.0189325*DYNX(W_,8744)+0.055414*
+ DYNX(W_,8745)+0.1088631*DYNX(W_,8746)+0.2255647*DYNX(W_,8747)+0.2877813*
+ DYNX(W_,8748)+0.2642124*DYNX(W_,8749)+0.1561313*DYNX(W_,8750);
+DYNX(W_,8741) = 0.0721249*DYNX(W_,8743)+0.065965*DYNX(W_,8744)-0.0639588*
+ DYNX(W_,8745)-0.1519229*DYNX(W_,8746)-0.4620442*DYNX(W_,8747)-0.8230357*
+ DYNX(W_,8748)-1.127234*DYNX(W_,8749)-1.3765031*DYNX(W_,8750);
+DYNX(W_,8742) = (-0.0220216)*DYNX(W_,8743)-0.0288748*DYNX(W_,8744)-0.0260542*
+ DYNX(W_,8745)-0.0139754*DYNX(W_,8746)+0.0012448*DYNX(W_,8747)+0.0558651*
+ DYNX(W_,8748)+0.1310694*DYNX(W_,8749)+0.2506212*DYNX(W_,8750);
+DYNX(W_,8727) = DYNX(W_,8740)+DYNX(W_,8741)*DYNX(W_,8736)+DYNX(W_,8742)*
+ DYNX(W_,8467);
+DYNX(W_,8730) = DYNX(W_,8457)*(0.5*(1-DYNX(W_,8726))*(1+cos(DYNX(W_,663)))+
+ divGuarded(DYNX(W_,8726)*DYNX(W_,8731),"building.thermalZone[1].HDifTilWall[2].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[2].HDifTil.a",
+ DYNX(W_,8732),"building.thermalZone[1].HDifTilWall[2].HDifTil.b")+
+ DYNX(W_,8727)*sin(DYNX(W_,663)));
+DYNX(W_,8729) = 0.5*DYNX(W_,8456)*DYNX(W_,662)*(1-cos(DYNX(W_,663)));
+DYNX(W_,8606) = DYNX(W_,8863)*DYNX(W_,8658)+DYNX(W_,8730)*DYNX(W_,589)+
+ DYNX(W_,8729)*DYNX(W_,590);
+DYNX(W_,8725) = DYNX(DP_,267)*DYNX(W_,8730)+DYNX(DP_,268)*DYNX(W_,8729);
+DYNX(W_,8965) = DYNX(DP_,311)*DYNX(W_,8863)+DYNX(DP_,312)*DYNX(W_,8725);
+DYNX(W_,8258) = Greater(DYNX(W_,8965),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].u",
DYNX(W_,847),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].threshold",
24);
-DYNX(W_,8285) = IF DYNX(W_,8298) THEN DYNX(W_,851) ELSE DYNX(DP_,290);
-DYNX(W_,8515) = DYNX(W_,8643)*DYNX(W_,8285);
-DYNX(W_,8556) = DYNX(W_,443)*DYNX(W_,8515);
-DYNX(W_,8911) = IF DYNX(W_,791) THEN DYNX(W_,8506)-DYNX(W_,8294)+DYNX(W_,790)
- ELSE DYNX(W_,8506);
-DYNX(W_,8912) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8911)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[3].incAng.decAng.calTimAux)");
-DYNX(W_,8914) = cos(DYNX(W_,8912));
-DYNX(W_,8913) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8916) = cos(DYNX(W_,8913));
-DYNX(W_,8915) = sin(DYNX(W_,8912));
-DYNX(W_,8917) = sin(DYNX(W_,8913));
-DYNX(W_,8910) = acosGuarded(cos(DYNX(W_,795))*(0.6124088231015443*DYNX(W_,8914)*
- DYNX(W_,8916)+0.7905412281389133*DYNX(W_,8915))+sin(DYNX(W_,795))*(sin(
- DYNX(W_,794))*DYNX(W_,8914)*DYNX(W_,8917)+cos(DYNX(W_,794))*(0.7905412281389133
- *DYNX(W_,8914)*DYNX(W_,8916)-0.6124088231015443*DYNX(W_,8915))),
+DYNX(W_,8245) = IF DYNX(W_,8258) THEN DYNX(W_,851) ELSE DYNX(DP_,290);
+DYNX(W_,8478) = DYNX(W_,8606)*DYNX(W_,8245);
+DYNX(W_,8519) = DYNX(W_,443)*DYNX(W_,8478);
+DYNX(W_,8874) = IF DYNX(W_,791) THEN DYNX(W_,8469)-DYNX(W_,8254)+DYNX(W_,790)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8875) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8874)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[3].incAng.decAng.calTimAux)");
+DYNX(W_,8877) = cos(DYNX(W_,8875));
+DYNX(W_,8876) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8879) = cos(DYNX(W_,8876));
+DYNX(W_,8878) = sin(DYNX(W_,8875));
+DYNX(W_,8880) = sin(DYNX(W_,8876));
+DYNX(W_,8873) = acosGuarded(cos(DYNX(W_,795))*(0.6124088231015443*DYNX(W_,8877)*
+ DYNX(W_,8879)+0.7905412281389133*DYNX(W_,8878))+sin(DYNX(W_,795))*(sin(
+ DYNX(W_,794))*DYNX(W_,8877)*DYNX(W_,8880)+cos(DYNX(W_,794))*(0.7905412281389133
+ *DYNX(W_,8877)*DYNX(W_,8879)-0.6124088231015443*DYNX(W_,8878))),
"cos(building.thermalZone[1].HDirTilWall[3].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[3].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[3].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[3].incAng.inc...");
-DYNX(W_,8909) = RealBmax(0, cos(DYNX(W_,8910))*DYNX(W_,8492));
-DYNX(W_,8648) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(W_,8872) = RealBmax(0, cos(DYNX(W_,8873))*DYNX(W_,8455));
+DYNX(W_,8611) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8910)+DYNX(DP_,251))*DYNX(W_,8910)+DYNX(DP_,250))*DYNX(W_,8910)+
- DYNX(DP_,249))*DYNX(W_,8910)+DYNX(DP_,248))*DYNX(W_,8910)+DYNX(DP_,247))*
- DYNX(W_,8910)+DYNX(DP_,246);
-DYNX(W_,8652) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
- 0.6600660066006601*sin(DYNX(W_,8910))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2"),
+ DYNX(W_,8873)+DYNX(DP_,251))*DYNX(W_,8873)+DYNX(DP_,250))*DYNX(W_,8873)+
+ DYNX(DP_,249))*DYNX(W_,8873)+DYNX(DP_,248))*DYNX(W_,8873)+DYNX(DP_,247))*
+ DYNX(W_,8873)+DYNX(DP_,246);
+DYNX(W_,8615) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
+ 0.6600660066006601*sin(DYNX(W_,8873))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2"),
"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2)"),
"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2)");
-DYNX(W_,8656) = DYNX(W_,8648)*DYNX(W_,8652);
-DYNX(W_,8660) = 1-DYNX(W_,8648);
-DYNX(W_,8664) = divGuarded(DYNX(W_,8660),"building.thermalZone[1].corGMod.rho_T1_dir[3]",2
- -DYNX(W_,8660),"2-building.thermalZone[1].corGMod.rho_T1_dir[3]");
-DYNX(W_,8668) = DYNX(W_,8664)+divGuarded(sqr((1-DYNX(W_,8664))*DYNX(W_,8652))*
- DYNX(W_,8664),"((1-building.thermalZone[1].corGMod.rho_11_dir[3])*building.thermalZone[1].corGMod.Tai_dir[3])^2*building.thermalZone[1].corGMod.rho_11_dir[3]",1
- -sqr(DYNX(W_,8664)*DYNX(W_,8652)),"1-(building.thermalZone[1].corGMod.rho_11_dir[3]*building.thermalZone[1].corGMod.Tai_dir[3])^2");
-DYNX(W_,8672) = 1.0-sqr(DYNX(W_,8668));
-DYNX(W_,8676) = divGuarded(sqr(DYNX(W_,8656)),"building.thermalZone[1].corGMod.Ta1_dir[3]^2",
- DYNX(W_,8672),"building.thermalZone[1].corGMod.XN2_dir[3]");
-DYNX(W_,8680) = 1-(DYNX(W_,8656)+DYNX(W_,8668));
-DYNX(W_,8684) = 0.04*DYNX(W_,8680)*(1+divGuarded(DYNX(W_,8656)*DYNX(W_,8668),
+DYNX(W_,8619) = DYNX(W_,8611)*DYNX(W_,8615);
+DYNX(W_,8623) = 1-DYNX(W_,8611);
+DYNX(W_,8627) = divGuarded(DYNX(W_,8623),"building.thermalZone[1].corGMod.rho_T1_dir[3]",2
+ -DYNX(W_,8623),"2-building.thermalZone[1].corGMod.rho_T1_dir[3]");
+DYNX(W_,8631) = DYNX(W_,8627)+divGuarded(sqr((1-DYNX(W_,8627))*DYNX(W_,8615))*
+ DYNX(W_,8627),"((1-building.thermalZone[1].corGMod.rho_11_dir[3])*building.thermalZone[1].corGMod.Tai_dir[3])^2*building.thermalZone[1].corGMod.rho_11_dir[3]",1
+ -sqr(DYNX(W_,8627)*DYNX(W_,8615)),"1-(building.thermalZone[1].corGMod.rho_11_dir[3]*building.thermalZone[1].corGMod.Tai_dir[3])^2");
+DYNX(W_,8635) = 1.0-sqr(DYNX(W_,8631));
+DYNX(W_,8639) = divGuarded(sqr(DYNX(W_,8619)),"building.thermalZone[1].corGMod.Ta1_dir[3]^2",
+ DYNX(W_,8635),"building.thermalZone[1].corGMod.XN2_dir[3]");
+DYNX(W_,8643) = 1-(DYNX(W_,8619)+DYNX(W_,8631));
+DYNX(W_,8647) = 0.04*DYNX(W_,8643)*(1+divGuarded(DYNX(W_,8619)*DYNX(W_,8631),
"building.thermalZone[1].corGMod.Ta1_dir[3]*building.thermalZone[1].corGMod.rho_1_dir[3]",
- DYNX(W_,8672),"building.thermalZone[1].corGMod.XN2_dir[3]"))*DYNX(W_,578);
-DYNX(W_,8688) = divGuarded(DYNX(W_,8680)*DYNX(W_,8656)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8635),"building.thermalZone[1].corGMod.XN2_dir[3]"))*DYNX(W_,578);
+DYNX(W_,8651) = divGuarded(DYNX(W_,8643)*DYNX(W_,8619)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[3]*building.thermalZone[1].corGMod.Ta1_dir[3]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8672),"building.thermalZone[1].corGMod.XN2_dir[3]");
-DYNX(W_,8692) = DYNX(W_,8684)+DYNX(W_,8688);
-DYNX(W_,8696) = DYNX(DYNhelp,4)*(DYNX(W_,8676)+DYNX(W_,8692));
-DYNX(W_,8815) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8814) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(W_,8813) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1), 1, 8, 0.01)")
+ DYNX(W_,8635),"building.thermalZone[1].corGMod.XN2_dir[3]");
+DYNX(W_,8655) = DYNX(W_,8647)+DYNX(W_,8651);
+DYNX(W_,8659) = DYNX(DYNhelp,4)*(DYNX(W_,8639)+DYNX(W_,8655));
+DYNX(W_,8778) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8777) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(W_,8776) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8815),"building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou",
- DYNX(W_,8815),"building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou")+
- DYNX(W_,8814),"(building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1",1
- +DYNX(W_,8814),"1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1"), 1, 8,
+ DYNX(W_,8455)+DYNX(W_,8778),"building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou",
+ DYNX(W_,8778),"building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou")+
+ DYNX(W_,8777),"(building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1",1
+ +DYNX(W_,8777),"1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1"), 1, 8,
0.01));
PopModelContext();
-DYNX(W_,8831) = IF 1.23-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8813)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8813))*(sqr(100.0*(1.23-
- DYNX(W_,8813)))-3);
-DYNX(W_,8823) = IF 1.065-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8813)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8813))*(sqr(100.0*(1.065-
- DYNX(W_,8813)))-3);
-DYNX(W_,8824) = DYNX(W_,8831)-DYNX(W_,8823);
-DYNX(W_,8832) = IF 1.5-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8813))*(sqr(100.0*(1.5-DYNX(W_,8813)))
+DYNX(W_,8794) = IF 1.23-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8776)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8776))*(sqr(100.0*(1.23-
+ DYNX(W_,8776)))-3);
+DYNX(W_,8786) = IF 1.065-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8776)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8776))*(sqr(100.0*(1.065-
+ DYNX(W_,8776)))-3);
+DYNX(W_,8787) = DYNX(W_,8794)-DYNX(W_,8786);
+DYNX(W_,8795) = IF 1.5-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8776))*(sqr(100.0*(1.5-DYNX(W_,8776)))
-3);
-DYNX(W_,8825) = DYNX(W_,8832)-DYNX(W_,8831);
-DYNX(W_,8833) = IF 1.95-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8813)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8813))*(sqr(100.0*(1.95-
- DYNX(W_,8813)))-3);
-DYNX(W_,8826) = DYNX(W_,8833)-DYNX(W_,8832);
-DYNX(W_,8834) = IF 2.8-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8813))*(sqr(100.0*(2.8-DYNX(W_,8813)))
+DYNX(W_,8788) = DYNX(W_,8795)-DYNX(W_,8794);
+DYNX(W_,8796) = IF 1.95-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8776)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8776))*(sqr(100.0*(1.95-
+ DYNX(W_,8776)))-3);
+DYNX(W_,8789) = DYNX(W_,8796)-DYNX(W_,8795);
+DYNX(W_,8797) = IF 2.8-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8776))*(sqr(100.0*(2.8-DYNX(W_,8776)))
-3);
-DYNX(W_,8827) = DYNX(W_,8834)-DYNX(W_,8833);
-DYNX(W_,8835) = IF 4.5-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8813))*(sqr(100.0*(4.5-DYNX(W_,8813)))
+DYNX(W_,8790) = DYNX(W_,8797)-DYNX(W_,8796);
+DYNX(W_,8798) = IF 4.5-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8776))*(sqr(100.0*(4.5-DYNX(W_,8776)))
-3);
-DYNX(W_,8828) = DYNX(W_,8835)-DYNX(W_,8834);
-DYNX(W_,8836) = IF 6.2-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8813))*(sqr(100.0*(6.2-DYNX(W_,8813)))
+DYNX(W_,8791) = DYNX(W_,8798)-DYNX(W_,8797);
+DYNX(W_,8799) = IF 6.2-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8776))*(sqr(100.0*(6.2-DYNX(W_,8776)))
-3);
-DYNX(W_,8829) = DYNX(W_,8836)-DYNX(W_,8835);
-DYNX(W_,8830) = IF DYNX(W_,8813)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8813)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8813)-6.2)*(sqr(100.0*(DYNX(W_,8813)-6.2))
+DYNX(W_,8792) = DYNX(W_,8799)-DYNX(W_,8798);
+DYNX(W_,8793) = IF DYNX(W_,8776)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8776)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8776)-6.2)*(sqr(100.0*(DYNX(W_,8776)-6.2))
-3);
-DYNX(W_,8817) = 0.1299457*DYNX(W_,8824)-0.0083117*DYNX(W_,8823)+0.3296958*
- DYNX(W_,8825)+0.5682053*DYNX(W_,8826)+0.873028*DYNX(W_,8827)+1.1326077*
- DYNX(W_,8828)+1.0601591*DYNX(W_,8829)+0.677747*DYNX(W_,8830);
-DYNX(W_,8818) = 0.5877285*DYNX(W_,8823)+0.6825954*DYNX(W_,8824)+0.4868735*
- DYNX(W_,8825)+0.1874525*DYNX(W_,8826)-0.3920403*DYNX(W_,8827)-1.2367284*
- DYNX(W_,8828)-1.5999137*DYNX(W_,8829)-0.3272588*DYNX(W_,8830);
-DYNX(W_,8838) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8839) = 0.3183098861837907*DYNX(W_,8838)*180;
-DYNX(W_,8837) = divinvGuarded(cos(DYNX(W_,8838))+0.15*powGuarded(93.9-
- DYNX(W_,8839),"93.9-building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg",
+DYNX(W_,8780) = 0.1299457*DYNX(W_,8787)-0.0083117*DYNX(W_,8786)+0.3296958*
+ DYNX(W_,8788)+0.5682053*DYNX(W_,8789)+0.873028*DYNX(W_,8790)+1.1326077*
+ DYNX(W_,8791)+1.0601591*DYNX(W_,8792)+0.677747*DYNX(W_,8793);
+DYNX(W_,8781) = 0.5877285*DYNX(W_,8786)+0.6825954*DYNX(W_,8787)+0.4868735*
+ DYNX(W_,8788)+0.1874525*DYNX(W_,8789)-0.3920403*DYNX(W_,8790)-1.2367284*
+ DYNX(W_,8791)-1.5999137*DYNX(W_,8792)-0.3272588*DYNX(W_,8793);
+DYNX(W_,8801) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8802) = 0.3183098861837907*DYNX(W_,8801)*180;
+DYNX(W_,8800) = divinvGuarded(cos(DYNX(W_,8801))+0.15*powGuarded(93.9-
+ DYNX(W_,8802),"93.9-building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg",
-1.253,"-1.253"),"cos(building.thermalZone[1].HDifTilWall[3].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8840) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
- DYNX(W_,8505));
-DYNX(W_,8816) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),
+DYNX(W_,8803) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
+ DYNX(W_,8468));
+DYNX(W_,8779) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),
"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8837),"0.5*(building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor");
-DYNX(W_,8819) = (-0.0620636)*DYNX(W_,8823)-0.1513725*DYNX(W_,8824)-0.2210958*
- DYNX(W_,8825)-0.295129*DYNX(W_,8826)-0.3616149*DYNX(W_,8827)-0.4118494*
- DYNX(W_,8828)-0.3589221*DYNX(W_,8829)-0.2504286*DYNX(W_,8830);
-DYNX(W_,8806) = IF -(DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8817)+DYNX(W_,8818)*
- DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8817)+
- DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504));
-DYNX(W_,8841) = IF DYNX(W_,705) THEN DYNX(W_,8506)-DYNX(W_,8290)+DYNX(W_,704)
- ELSE DYNX(W_,8506);
-DYNX(W_,8842) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8841)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[3].incAng.decAng.calTimAux)");
-DYNX(W_,8844) = cos(DYNX(W_,8842));
-DYNX(W_,8843) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8846) = cos(DYNX(W_,8843));
-DYNX(W_,8845) = sin(DYNX(W_,8842));
-DYNX(W_,8847) = sin(DYNX(W_,8843));
-DYNX(W_,8808) = acosGuarded(cos(DYNX(W_,709))*(0.6124088231015443*DYNX(W_,8844)*
- DYNX(W_,8846)+0.7905412281389133*DYNX(W_,8845))+sin(DYNX(W_,709))*(sin(
- DYNX(W_,708))*DYNX(W_,8844)*DYNX(W_,8847)+cos(DYNX(W_,708))*(0.7905412281389133
- *DYNX(W_,8844)*DYNX(W_,8846)-0.6124088231015443*DYNX(W_,8845))),
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8800),"0.5*(building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor");
+DYNX(W_,8782) = (-0.0620636)*DYNX(W_,8786)-0.1513725*DYNX(W_,8787)-0.2210958*
+ DYNX(W_,8788)-0.295129*DYNX(W_,8789)-0.3616149*DYNX(W_,8790)-0.4118494*
+ DYNX(W_,8791)-0.3589221*DYNX(W_,8792)-0.2504286*DYNX(W_,8793);
+DYNX(W_,8769) = IF -(DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8780)+DYNX(W_,8781)*
+ DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8780)+
+ DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467));
+DYNX(W_,8804) = IF DYNX(W_,705) THEN DYNX(W_,8469)-DYNX(W_,8250)+DYNX(W_,704)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8805) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8804)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[3].incAng.decAng.calTimAux)");
+DYNX(W_,8807) = cos(DYNX(W_,8805));
+DYNX(W_,8806) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8809) = cos(DYNX(W_,8806));
+DYNX(W_,8808) = sin(DYNX(W_,8805));
+DYNX(W_,8810) = sin(DYNX(W_,8806));
+DYNX(W_,8771) = acosGuarded(cos(DYNX(W_,709))*(0.6124088231015443*DYNX(W_,8807)*
+ DYNX(W_,8809)+0.7905412281389133*DYNX(W_,8808))+sin(DYNX(W_,709))*(sin(
+ DYNX(W_,708))*DYNX(W_,8807)*DYNX(W_,8810)+cos(DYNX(W_,708))*(0.7905412281389133
+ *DYNX(W_,8807)*DYNX(W_,8809)-0.6124088231015443*DYNX(W_,8808))),
"cos(building.thermalZone[1].HDifTilWall[3].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[3].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[3].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[3].incAng.inc...");
-DYNX(W_,8811) = IF -cos(DYNX(W_,8808)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8808)) < -0.01 THEN cos(DYNX(W_,8808)) ELSE 0.5*cos(DYNX(W_,8808))-
- 25.0*cos(DYNX(W_,8808))*(sqr((-100.0)*cos(DYNX(W_,8808)))-3)*cos(DYNX(W_,8808));
-DYNX(W_,8812) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8820) = (-0.0596012)*DYNX(W_,8823)-0.0189325*DYNX(W_,8824)+0.055414*
- DYNX(W_,8825)+0.1088631*DYNX(W_,8826)+0.2255647*DYNX(W_,8827)+0.2877813*
- DYNX(W_,8828)+0.2642124*DYNX(W_,8829)+0.1561313*DYNX(W_,8830);
-DYNX(W_,8821) = 0.0721249*DYNX(W_,8823)+0.065965*DYNX(W_,8824)-0.0639588*
- DYNX(W_,8825)-0.1519229*DYNX(W_,8826)-0.4620442*DYNX(W_,8827)-0.8230357*
- DYNX(W_,8828)-1.127234*DYNX(W_,8829)-1.3765031*DYNX(W_,8830);
-DYNX(W_,8822) = (-0.0220216)*DYNX(W_,8823)-0.0288748*DYNX(W_,8824)-0.0260542*
- DYNX(W_,8825)-0.0139754*DYNX(W_,8826)+0.0012448*DYNX(W_,8827)+0.0558651*
- DYNX(W_,8828)+0.1310694*DYNX(W_,8829)+0.2506212*DYNX(W_,8830);
-DYNX(W_,8807) = DYNX(W_,8820)+DYNX(W_,8821)*DYNX(W_,8816)+DYNX(W_,8822)*
- DYNX(W_,8504);
-DYNX(W_,8810) = DYNX(W_,8494)*(0.5*(1-DYNX(W_,8806))*(1+cos(DYNX(W_,692)))+
- divGuarded(DYNX(W_,8806)*DYNX(W_,8811),"building.thermalZone[1].HDifTilWall[3].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[3].HDifTil.a",
- DYNX(W_,8812),"building.thermalZone[1].HDifTilWall[3].HDifTil.b")+
- DYNX(W_,8807)*sin(DYNX(W_,692)));
-DYNX(W_,8809) = 0.5*DYNX(W_,8493)*DYNX(W_,691)*(1-cos(DYNX(W_,692)));
-DYNX(W_,8644) = DYNX(W_,8909)*DYNX(W_,8696)+DYNX(W_,8810)*DYNX(W_,589)+
- DYNX(W_,8809)*DYNX(W_,590);
-DYNX(W_,8805) = DYNX(DP_,272)*DYNX(W_,8810)+DYNX(DP_,273)*DYNX(W_,8809);
-DYNX(W_,9003) = DYNX(DP_,313)*DYNX(W_,8909)+DYNX(DP_,314)*DYNX(W_,8805);
-DYNX(W_,8299) = Greater(DYNX(W_,9003),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].u",
+DYNX(W_,8774) = IF -cos(DYNX(W_,8771)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8771)) < -0.01 THEN cos(DYNX(W_,8771)) ELSE 0.5*cos(DYNX(W_,8771))-
+ 25.0*cos(DYNX(W_,8771))*(sqr((-100.0)*cos(DYNX(W_,8771)))-3)*cos(DYNX(W_,8771));
+DYNX(W_,8775) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8783) = (-0.0596012)*DYNX(W_,8786)-0.0189325*DYNX(W_,8787)+0.055414*
+ DYNX(W_,8788)+0.1088631*DYNX(W_,8789)+0.2255647*DYNX(W_,8790)+0.2877813*
+ DYNX(W_,8791)+0.2642124*DYNX(W_,8792)+0.1561313*DYNX(W_,8793);
+DYNX(W_,8784) = 0.0721249*DYNX(W_,8786)+0.065965*DYNX(W_,8787)-0.0639588*
+ DYNX(W_,8788)-0.1519229*DYNX(W_,8789)-0.4620442*DYNX(W_,8790)-0.8230357*
+ DYNX(W_,8791)-1.127234*DYNX(W_,8792)-1.3765031*DYNX(W_,8793);
+DYNX(W_,8785) = (-0.0220216)*DYNX(W_,8786)-0.0288748*DYNX(W_,8787)-0.0260542*
+ DYNX(W_,8788)-0.0139754*DYNX(W_,8789)+0.0012448*DYNX(W_,8790)+0.0558651*
+ DYNX(W_,8791)+0.1310694*DYNX(W_,8792)+0.2506212*DYNX(W_,8793);
+DYNX(W_,8770) = DYNX(W_,8783)+DYNX(W_,8784)*DYNX(W_,8779)+DYNX(W_,8785)*
+ DYNX(W_,8467);
+DYNX(W_,8773) = DYNX(W_,8457)*(0.5*(1-DYNX(W_,8769))*(1+cos(DYNX(W_,692)))+
+ divGuarded(DYNX(W_,8769)*DYNX(W_,8774),"building.thermalZone[1].HDifTilWall[3].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[3].HDifTil.a",
+ DYNX(W_,8775),"building.thermalZone[1].HDifTilWall[3].HDifTil.b")+
+ DYNX(W_,8770)*sin(DYNX(W_,692)));
+DYNX(W_,8772) = 0.5*DYNX(W_,8456)*DYNX(W_,691)*(1-cos(DYNX(W_,692)));
+DYNX(W_,8607) = DYNX(W_,8872)*DYNX(W_,8659)+DYNX(W_,8773)*DYNX(W_,589)+
+ DYNX(W_,8772)*DYNX(W_,590);
+DYNX(W_,8768) = DYNX(DP_,272)*DYNX(W_,8773)+DYNX(DP_,273)*DYNX(W_,8772);
+DYNX(W_,8966) = DYNX(DP_,313)*DYNX(W_,8872)+DYNX(DP_,314)*DYNX(W_,8768);
+DYNX(W_,8259) = Greater(DYNX(W_,8966),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].u",
DYNX(W_,848),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].threshold",
25);
-DYNX(W_,8286) = IF DYNX(W_,8299) THEN DYNX(W_,852) ELSE DYNX(DP_,291);
-DYNX(W_,8516) = DYNX(W_,8644)*DYNX(W_,8286);
-DYNX(W_,8558) = DYNX(W_,444)*DYNX(W_,8516);
-DYNX(W_,8920) = IF DYNX(W_,810) THEN DYNX(W_,8506)-DYNX(W_,8295)+DYNX(W_,809)
- ELSE DYNX(W_,8506);
-DYNX(W_,8921) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8920)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[4].incAng.decAng.calTimAux)");
-DYNX(W_,8923) = cos(DYNX(W_,8921));
-DYNX(W_,8922) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8925) = cos(DYNX(W_,8922));
-DYNX(W_,8924) = sin(DYNX(W_,8921));
-DYNX(W_,8926) = sin(DYNX(W_,8922));
-DYNX(W_,8919) = acosGuarded(cos(DYNX(W_,814))*(0.6124088231015443*DYNX(W_,8923)*
- DYNX(W_,8925)+0.7905412281389133*DYNX(W_,8924))+sin(DYNX(W_,814))*(sin(
- DYNX(W_,813))*DYNX(W_,8923)*DYNX(W_,8926)+cos(DYNX(W_,813))*(0.7905412281389133
- *DYNX(W_,8923)*DYNX(W_,8925)-0.6124088231015443*DYNX(W_,8924))),
+DYNX(W_,8246) = IF DYNX(W_,8259) THEN DYNX(W_,852) ELSE DYNX(DP_,291);
+DYNX(W_,8479) = DYNX(W_,8607)*DYNX(W_,8246);
+DYNX(W_,8521) = DYNX(W_,444)*DYNX(W_,8479);
+DYNX(W_,8883) = IF DYNX(W_,810) THEN DYNX(W_,8469)-DYNX(W_,8255)+DYNX(W_,809)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8884) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8883)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[4].incAng.decAng.calTimAux)");
+DYNX(W_,8886) = cos(DYNX(W_,8884));
+DYNX(W_,8885) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8888) = cos(DYNX(W_,8885));
+DYNX(W_,8887) = sin(DYNX(W_,8884));
+DYNX(W_,8889) = sin(DYNX(W_,8885));
+DYNX(W_,8882) = acosGuarded(cos(DYNX(W_,814))*(0.6124088231015443*DYNX(W_,8886)*
+ DYNX(W_,8888)+0.7905412281389133*DYNX(W_,8887))+sin(DYNX(W_,814))*(sin(
+ DYNX(W_,813))*DYNX(W_,8886)*DYNX(W_,8889)+cos(DYNX(W_,813))*(0.7905412281389133
+ *DYNX(W_,8886)*DYNX(W_,8888)-0.6124088231015443*DYNX(W_,8887))),
"cos(building.thermalZone[1].HDirTilWall[4].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[4].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[4].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[4].incAng.inc...");
-DYNX(W_,8918) = RealBmax(0, cos(DYNX(W_,8919))*DYNX(W_,8492));
-DYNX(W_,8649) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(W_,8881) = RealBmax(0, cos(DYNX(W_,8882))*DYNX(W_,8455));
+DYNX(W_,8612) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8919)+DYNX(DP_,251))*DYNX(W_,8919)+DYNX(DP_,250))*DYNX(W_,8919)+
- DYNX(DP_,249))*DYNX(W_,8919)+DYNX(DP_,248))*DYNX(W_,8919)+DYNX(DP_,247))*
- DYNX(W_,8919)+DYNX(DP_,246);
-DYNX(W_,8653) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
- 0.6600660066006601*sin(DYNX(W_,8919))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2"),
+ DYNX(W_,8882)+DYNX(DP_,251))*DYNX(W_,8882)+DYNX(DP_,250))*DYNX(W_,8882)+
+ DYNX(DP_,249))*DYNX(W_,8882)+DYNX(DP_,248))*DYNX(W_,8882)+DYNX(DP_,247))*
+ DYNX(W_,8882)+DYNX(DP_,246);
+DYNX(W_,8616) = powGuarded(0.907,"0.907",divinvGuarded(sqrtGuarded(1-sqr(
+ 0.6600660066006601*sin(DYNX(W_,8882))),"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2"),
"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2)"),
"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2)");
-DYNX(W_,8657) = DYNX(W_,8649)*DYNX(W_,8653);
-DYNX(W_,8661) = 1-DYNX(W_,8649);
-DYNX(W_,8665) = divGuarded(DYNX(W_,8661),"building.thermalZone[1].corGMod.rho_T1_dir[4]",2
- -DYNX(W_,8661),"2-building.thermalZone[1].corGMod.rho_T1_dir[4]");
-DYNX(W_,8669) = DYNX(W_,8665)+divGuarded(sqr((1-DYNX(W_,8665))*DYNX(W_,8653))*
- DYNX(W_,8665),"((1-building.thermalZone[1].corGMod.rho_11_dir[4])*building.thermalZone[1].corGMod.Tai_dir[4])^2*building.thermalZone[1].corGMod.rho_11_dir[4]",1
- -sqr(DYNX(W_,8665)*DYNX(W_,8653)),"1-(building.thermalZone[1].corGMod.rho_11_dir[4]*building.thermalZone[1].corGMod.Tai_dir[4])^2");
-DYNX(W_,8673) = 1.0-sqr(DYNX(W_,8669));
-DYNX(W_,8677) = divGuarded(sqr(DYNX(W_,8657)),"building.thermalZone[1].corGMod.Ta1_dir[4]^2",
- DYNX(W_,8673),"building.thermalZone[1].corGMod.XN2_dir[4]");
-DYNX(W_,8681) = 1-(DYNX(W_,8657)+DYNX(W_,8669));
-DYNX(W_,8685) = 0.04*DYNX(W_,8681)*(1+divGuarded(DYNX(W_,8657)*DYNX(W_,8669),
+DYNX(W_,8620) = DYNX(W_,8612)*DYNX(W_,8616);
+DYNX(W_,8624) = 1-DYNX(W_,8612);
+DYNX(W_,8628) = divGuarded(DYNX(W_,8624),"building.thermalZone[1].corGMod.rho_T1_dir[4]",2
+ -DYNX(W_,8624),"2-building.thermalZone[1].corGMod.rho_T1_dir[4]");
+DYNX(W_,8632) = DYNX(W_,8628)+divGuarded(sqr((1-DYNX(W_,8628))*DYNX(W_,8616))*
+ DYNX(W_,8628),"((1-building.thermalZone[1].corGMod.rho_11_dir[4])*building.thermalZone[1].corGMod.Tai_dir[4])^2*building.thermalZone[1].corGMod.rho_11_dir[4]",1
+ -sqr(DYNX(W_,8628)*DYNX(W_,8616)),"1-(building.thermalZone[1].corGMod.rho_11_dir[4]*building.thermalZone[1].corGMod.Tai_dir[4])^2");
+DYNX(W_,8636) = 1.0-sqr(DYNX(W_,8632));
+DYNX(W_,8640) = divGuarded(sqr(DYNX(W_,8620)),"building.thermalZone[1].corGMod.Ta1_dir[4]^2",
+ DYNX(W_,8636),"building.thermalZone[1].corGMod.XN2_dir[4]");
+DYNX(W_,8644) = 1-(DYNX(W_,8620)+DYNX(W_,8632));
+DYNX(W_,8648) = 0.04*DYNX(W_,8644)*(1+divGuarded(DYNX(W_,8620)*DYNX(W_,8632),
"building.thermalZone[1].corGMod.Ta1_dir[4]*building.thermalZone[1].corGMod.rho_1_dir[4]",
- DYNX(W_,8673),"building.thermalZone[1].corGMod.XN2_dir[4]"))*DYNX(W_,578);
-DYNX(W_,8689) = divGuarded(DYNX(W_,8681)*DYNX(W_,8657)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8636),"building.thermalZone[1].corGMod.XN2_dir[4]"))*DYNX(W_,578);
+DYNX(W_,8652) = divGuarded(DYNX(W_,8644)*DYNX(W_,8620)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[4]*building.thermalZone[1].corGMod.Ta1_dir[4]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8673),"building.thermalZone[1].corGMod.XN2_dir[4]");
-DYNX(W_,8693) = DYNX(W_,8685)+DYNX(W_,8689);
-DYNX(W_,8697) = DYNX(DYNhelp,4)*(DYNX(W_,8677)+DYNX(W_,8693));
-DYNX(W_,8858) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8857) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(W_,8856) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1), 1, 8, 0.01)")
+ DYNX(W_,8636),"building.thermalZone[1].corGMod.XN2_dir[4]");
+DYNX(W_,8656) = DYNX(W_,8648)+DYNX(W_,8652);
+DYNX(W_,8660) = DYNX(DYNhelp,4)*(DYNX(W_,8640)+DYNX(W_,8656));
+DYNX(W_,8821) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8820) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(W_,8819) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8858),"building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou",
- DYNX(W_,8858),"building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou")+
- DYNX(W_,8857),"(building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1",1
- +DYNX(W_,8857),"1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1"), 1, 8,
+ DYNX(W_,8455)+DYNX(W_,8821),"building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou",
+ DYNX(W_,8821),"building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou")+
+ DYNX(W_,8820),"(building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1",1
+ +DYNX(W_,8820),"1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1"), 1, 8,
0.01));
PopModelContext();
-DYNX(W_,8874) = IF 1.23-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8856)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8856))*(sqr(100.0*(1.23-
- DYNX(W_,8856)))-3);
-DYNX(W_,8866) = IF 1.065-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8856)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8856))*(sqr(100.0*(1.065-
- DYNX(W_,8856)))-3);
-DYNX(W_,8867) = DYNX(W_,8874)-DYNX(W_,8866);
-DYNX(W_,8875) = IF 1.5-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8856))*(sqr(100.0*(1.5-DYNX(W_,8856)))
+DYNX(W_,8837) = IF 1.23-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8819)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8819))*(sqr(100.0*(1.23-
+ DYNX(W_,8819)))-3);
+DYNX(W_,8829) = IF 1.065-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8819)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8819))*(sqr(100.0*(1.065-
+ DYNX(W_,8819)))-3);
+DYNX(W_,8830) = DYNX(W_,8837)-DYNX(W_,8829);
+DYNX(W_,8838) = IF 1.5-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8819))*(sqr(100.0*(1.5-DYNX(W_,8819)))
-3);
-DYNX(W_,8868) = DYNX(W_,8875)-DYNX(W_,8874);
-DYNX(W_,8876) = IF 1.95-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8856)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8856))*(sqr(100.0*(1.95-
- DYNX(W_,8856)))-3);
-DYNX(W_,8869) = DYNX(W_,8876)-DYNX(W_,8875);
-DYNX(W_,8877) = IF 2.8-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8856))*(sqr(100.0*(2.8-DYNX(W_,8856)))
+DYNX(W_,8831) = DYNX(W_,8838)-DYNX(W_,8837);
+DYNX(W_,8839) = IF 1.95-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8819)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8819))*(sqr(100.0*(1.95-
+ DYNX(W_,8819)))-3);
+DYNX(W_,8832) = DYNX(W_,8839)-DYNX(W_,8838);
+DYNX(W_,8840) = IF 2.8-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8819))*(sqr(100.0*(2.8-DYNX(W_,8819)))
-3);
-DYNX(W_,8870) = DYNX(W_,8877)-DYNX(W_,8876);
-DYNX(W_,8878) = IF 4.5-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8856))*(sqr(100.0*(4.5-DYNX(W_,8856)))
+DYNX(W_,8833) = DYNX(W_,8840)-DYNX(W_,8839);
+DYNX(W_,8841) = IF 4.5-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8819))*(sqr(100.0*(4.5-DYNX(W_,8819)))
-3);
-DYNX(W_,8871) = DYNX(W_,8878)-DYNX(W_,8877);
-DYNX(W_,8879) = IF 6.2-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8856))*(sqr(100.0*(6.2-DYNX(W_,8856)))
+DYNX(W_,8834) = DYNX(W_,8841)-DYNX(W_,8840);
+DYNX(W_,8842) = IF 6.2-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8819))*(sqr(100.0*(6.2-DYNX(W_,8819)))
-3);
-DYNX(W_,8872) = DYNX(W_,8879)-DYNX(W_,8878);
-DYNX(W_,8873) = IF DYNX(W_,8856)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8856)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8856)-6.2)*(sqr(100.0*(DYNX(W_,8856)-6.2))
+DYNX(W_,8835) = DYNX(W_,8842)-DYNX(W_,8841);
+DYNX(W_,8836) = IF DYNX(W_,8819)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8819)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8819)-6.2)*(sqr(100.0*(DYNX(W_,8819)-6.2))
-3);
-DYNX(W_,8860) = 0.1299457*DYNX(W_,8867)-0.0083117*DYNX(W_,8866)+0.3296958*
- DYNX(W_,8868)+0.5682053*DYNX(W_,8869)+0.873028*DYNX(W_,8870)+1.1326077*
- DYNX(W_,8871)+1.0601591*DYNX(W_,8872)+0.677747*DYNX(W_,8873);
-DYNX(W_,8861) = 0.5877285*DYNX(W_,8866)+0.6825954*DYNX(W_,8867)+0.4868735*
- DYNX(W_,8868)+0.1874525*DYNX(W_,8869)-0.3920403*DYNX(W_,8870)-1.2367284*
- DYNX(W_,8871)-1.5999137*DYNX(W_,8872)-0.3272588*DYNX(W_,8873);
-DYNX(W_,8881) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8882) = 0.3183098861837907*DYNX(W_,8881)*180;
-DYNX(W_,8880) = divinvGuarded(cos(DYNX(W_,8881))+0.15*powGuarded(93.9-
- DYNX(W_,8882),"93.9-building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg",
+DYNX(W_,8823) = 0.1299457*DYNX(W_,8830)-0.0083117*DYNX(W_,8829)+0.3296958*
+ DYNX(W_,8831)+0.5682053*DYNX(W_,8832)+0.873028*DYNX(W_,8833)+1.1326077*
+ DYNX(W_,8834)+1.0601591*DYNX(W_,8835)+0.677747*DYNX(W_,8836);
+DYNX(W_,8824) = 0.5877285*DYNX(W_,8829)+0.6825954*DYNX(W_,8830)+0.4868735*
+ DYNX(W_,8831)+0.1874525*DYNX(W_,8832)-0.3920403*DYNX(W_,8833)-1.2367284*
+ DYNX(W_,8834)-1.5999137*DYNX(W_,8835)-0.3272588*DYNX(W_,8836);
+DYNX(W_,8844) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8845) = 0.3183098861837907*DYNX(W_,8844)*180;
+DYNX(W_,8843) = divinvGuarded(cos(DYNX(W_,8844))+0.15*powGuarded(93.9-
+ DYNX(W_,8845),"93.9-building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg",
-1.253,"-1.253"),"cos(building.thermalZone[1].HDifTilWall[4].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8883) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
- DYNX(W_,8505));
-DYNX(W_,8859) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),
+DYNX(W_,8846) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
+ DYNX(W_,8468));
+DYNX(W_,8822) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),
"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8880),"0.5*(building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor");
-DYNX(W_,8862) = (-0.0620636)*DYNX(W_,8866)-0.1513725*DYNX(W_,8867)-0.2210958*
- DYNX(W_,8868)-0.295129*DYNX(W_,8869)-0.3616149*DYNX(W_,8870)-0.4118494*
- DYNX(W_,8871)-0.3589221*DYNX(W_,8872)-0.2504286*DYNX(W_,8873);
-DYNX(W_,8849) = IF -(DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8860)+DYNX(W_,8861)*
- DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8860)+
- DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504));
-DYNX(W_,8884) = IF DYNX(W_,734) THEN DYNX(W_,8506)-DYNX(W_,8291)+DYNX(W_,733)
- ELSE DYNX(W_,8506);
-DYNX(W_,8885) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8884)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[4].incAng.decAng.calTimAux)");
-DYNX(W_,8887) = cos(DYNX(W_,8885));
-DYNX(W_,8886) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8889) = cos(DYNX(W_,8886));
-DYNX(W_,8888) = sin(DYNX(W_,8885));
-DYNX(W_,8890) = sin(DYNX(W_,8886));
-DYNX(W_,8851) = acosGuarded(cos(DYNX(W_,738))*(0.6124088231015443*DYNX(W_,8887)*
- DYNX(W_,8889)+0.7905412281389133*DYNX(W_,8888))+sin(DYNX(W_,738))*(sin(
- DYNX(W_,737))*DYNX(W_,8887)*DYNX(W_,8890)+cos(DYNX(W_,737))*(0.7905412281389133
- *DYNX(W_,8887)*DYNX(W_,8889)-0.6124088231015443*DYNX(W_,8888))),
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8843),"0.5*(building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor");
+DYNX(W_,8825) = (-0.0620636)*DYNX(W_,8829)-0.1513725*DYNX(W_,8830)-0.2210958*
+ DYNX(W_,8831)-0.295129*DYNX(W_,8832)-0.3616149*DYNX(W_,8833)-0.4118494*
+ DYNX(W_,8834)-0.3589221*DYNX(W_,8835)-0.2504286*DYNX(W_,8836);
+DYNX(W_,8812) = IF -(DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8823)+DYNX(W_,8824)*
+ DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8823)+
+ DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467));
+DYNX(W_,8847) = IF DYNX(W_,734) THEN DYNX(W_,8469)-DYNX(W_,8251)+DYNX(W_,733)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8848) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8847)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[4].incAng.decAng.calTimAux)");
+DYNX(W_,8850) = cos(DYNX(W_,8848));
+DYNX(W_,8849) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8852) = cos(DYNX(W_,8849));
+DYNX(W_,8851) = sin(DYNX(W_,8848));
+DYNX(W_,8853) = sin(DYNX(W_,8849));
+DYNX(W_,8814) = acosGuarded(cos(DYNX(W_,738))*(0.6124088231015443*DYNX(W_,8850)*
+ DYNX(W_,8852)+0.7905412281389133*DYNX(W_,8851))+sin(DYNX(W_,738))*(sin(
+ DYNX(W_,737))*DYNX(W_,8850)*DYNX(W_,8853)+cos(DYNX(W_,737))*(0.7905412281389133
+ *DYNX(W_,8850)*DYNX(W_,8852)-0.6124088231015443*DYNX(W_,8851))),
"cos(building.thermalZone[1].HDifTilWall[4].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[4].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[4].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[4].incAng.inc...");
-DYNX(W_,8854) = IF -cos(DYNX(W_,8851)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8851)) < -0.01 THEN cos(DYNX(W_,8851)) ELSE 0.5*cos(DYNX(W_,8851))-
- 25.0*cos(DYNX(W_,8851))*(sqr((-100.0)*cos(DYNX(W_,8851)))-3)*cos(DYNX(W_,8851));
-DYNX(W_,8855) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8863) = (-0.0596012)*DYNX(W_,8866)-0.0189325*DYNX(W_,8867)+0.055414*
- DYNX(W_,8868)+0.1088631*DYNX(W_,8869)+0.2255647*DYNX(W_,8870)+0.2877813*
- DYNX(W_,8871)+0.2642124*DYNX(W_,8872)+0.1561313*DYNX(W_,8873);
-DYNX(W_,8864) = 0.0721249*DYNX(W_,8866)+0.065965*DYNX(W_,8867)-0.0639588*
- DYNX(W_,8868)-0.1519229*DYNX(W_,8869)-0.4620442*DYNX(W_,8870)-0.8230357*
- DYNX(W_,8871)-1.127234*DYNX(W_,8872)-1.3765031*DYNX(W_,8873);
-DYNX(W_,8865) = (-0.0220216)*DYNX(W_,8866)-0.0288748*DYNX(W_,8867)-0.0260542*
- DYNX(W_,8868)-0.0139754*DYNX(W_,8869)+0.0012448*DYNX(W_,8870)+0.0558651*
- DYNX(W_,8871)+0.1310694*DYNX(W_,8872)+0.2506212*DYNX(W_,8873);
-DYNX(W_,8850) = DYNX(W_,8863)+DYNX(W_,8864)*DYNX(W_,8859)+DYNX(W_,8865)*
- DYNX(W_,8504);
-DYNX(W_,8853) = DYNX(W_,8494)*(0.5*(1-DYNX(W_,8849))*(1+cos(DYNX(W_,721)))+
- divGuarded(DYNX(W_,8849)*DYNX(W_,8854),"building.thermalZone[1].HDifTilWall[4].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[4].HDifTil.a",
- DYNX(W_,8855),"building.thermalZone[1].HDifTilWall[4].HDifTil.b")+
- DYNX(W_,8850)*sin(DYNX(W_,721)));
-DYNX(W_,8852) = 0.5*DYNX(W_,8493)*DYNX(W_,720)*(1-cos(DYNX(W_,721)));
-DYNX(W_,8645) = DYNX(W_,8918)*DYNX(W_,8697)+DYNX(W_,8853)*DYNX(W_,589)+
- DYNX(W_,8852)*DYNX(W_,590);
-DYNX(W_,8848) = DYNX(DP_,277)*DYNX(W_,8853)+DYNX(DP_,278)*DYNX(W_,8852);
-DYNX(W_,9004) = DYNX(DP_,315)*DYNX(W_,8918)+DYNX(DP_,316)*DYNX(W_,8848);
-DYNX(W_,8300) = Greater(DYNX(W_,9004),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].u",
+DYNX(W_,8817) = IF -cos(DYNX(W_,8814)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8814)) < -0.01 THEN cos(DYNX(W_,8814)) ELSE 0.5*cos(DYNX(W_,8814))-
+ 25.0*cos(DYNX(W_,8814))*(sqr((-100.0)*cos(DYNX(W_,8814)))-3)*cos(DYNX(W_,8814));
+DYNX(W_,8818) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8826) = (-0.0596012)*DYNX(W_,8829)-0.0189325*DYNX(W_,8830)+0.055414*
+ DYNX(W_,8831)+0.1088631*DYNX(W_,8832)+0.2255647*DYNX(W_,8833)+0.2877813*
+ DYNX(W_,8834)+0.2642124*DYNX(W_,8835)+0.1561313*DYNX(W_,8836);
+DYNX(W_,8827) = 0.0721249*DYNX(W_,8829)+0.065965*DYNX(W_,8830)-0.0639588*
+ DYNX(W_,8831)-0.1519229*DYNX(W_,8832)-0.4620442*DYNX(W_,8833)-0.8230357*
+ DYNX(W_,8834)-1.127234*DYNX(W_,8835)-1.3765031*DYNX(W_,8836);
+DYNX(W_,8828) = (-0.0220216)*DYNX(W_,8829)-0.0288748*DYNX(W_,8830)-0.0260542*
+ DYNX(W_,8831)-0.0139754*DYNX(W_,8832)+0.0012448*DYNX(W_,8833)+0.0558651*
+ DYNX(W_,8834)+0.1310694*DYNX(W_,8835)+0.2506212*DYNX(W_,8836);
+DYNX(W_,8813) = DYNX(W_,8826)+DYNX(W_,8827)*DYNX(W_,8822)+DYNX(W_,8828)*
+ DYNX(W_,8467);
+DYNX(W_,8816) = DYNX(W_,8457)*(0.5*(1-DYNX(W_,8812))*(1+cos(DYNX(W_,721)))+
+ divGuarded(DYNX(W_,8812)*DYNX(W_,8817),"building.thermalZone[1].HDifTilWall[4].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[4].HDifTil.a",
+ DYNX(W_,8818),"building.thermalZone[1].HDifTilWall[4].HDifTil.b")+
+ DYNX(W_,8813)*sin(DYNX(W_,721)));
+DYNX(W_,8815) = 0.5*DYNX(W_,8456)*DYNX(W_,720)*(1-cos(DYNX(W_,721)));
+DYNX(W_,8608) = DYNX(W_,8881)*DYNX(W_,8660)+DYNX(W_,8816)*DYNX(W_,589)+
+ DYNX(W_,8815)*DYNX(W_,590);
+DYNX(W_,8811) = DYNX(DP_,277)*DYNX(W_,8816)+DYNX(DP_,278)*DYNX(W_,8815);
+DYNX(W_,8967) = DYNX(DP_,315)*DYNX(W_,8881)+DYNX(DP_,316)*DYNX(W_,8811);
+DYNX(W_,8260) = Greater(DYNX(W_,8967),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].u",
DYNX(W_,849),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].threshold",
26);
-DYNX(W_,8287) = IF DYNX(W_,8300) THEN DYNX(W_,853) ELSE DYNX(DP_,292);
-DYNX(W_,8517) = DYNX(W_,8645)*DYNX(W_,8287);
-DYNX(W_,8560) = DYNX(W_,445)*DYNX(W_,8517);
-DYNX(W_,8565) = (-0.11587048061565267)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,8608) = DYNX(W_,483)*DYNX(W_,8607);
-DYNX(W_,9703) = IF DYNX(W_,8255) THEN DYNX(W_,8506)-DYNX(W_,8469)+DYNX(W_,8254)
- ELSE DYNX(W_,8506);
-DYNX(W_,9704) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n1, \nweaDat.datRea.u)")
+DYNX(W_,8247) = IF DYNX(W_,8260) THEN DYNX(W_,853) ELSE DYNX(DP_,292);
+DYNX(W_,8480) = DYNX(W_,8608)*DYNX(W_,8247);
+DYNX(W_,8523) = DYNX(W_,445)*DYNX(W_,8480);
+DYNX(W_,8528) = (-0.11587048061565267)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,8571) = DYNX(W_,483)*DYNX(W_,8570);
+DYNX(W_,9672) = IF DYNX(W_,8215) THEN DYNX(W_,8469)-DYNX(W_,8432)+DYNX(W_,8214)
+ ELSE DYNX(W_,8469);
+DYNX(W_,9673) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n1, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 1, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 1, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8487) = 273.15+DYNX(W_,9704);
-AssertModelica(DYNX(W_,8487) > DYNX(DP_,1474) AND DYNX(W_,8487) < DYNX(DP_,1475),
+DYNX(W_,8450) = 273.15+DYNX(W_,9673);
+AssertModelica(DYNX(W_,8450) > DYNX(DP_,1480) AND DYNX(W_,8450) < DYNX(DP_,1481),
"noEvent(weaDat.cheTemDryBul.TIn > weaDat.cheTemDryBul.TMin and weaDat.cheTemDryBul.TIn < weaDat.cheTemDryBul.TMax)",
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.cheTemDryBul: Weather data dry bulb temperature out of bounds.\n TIn = ",
- Real2String2(DYNX(W_,8487), true, 0)));
-DYNX(W_,9705) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n2, \nweaDat.datRea.u)")
+ Real2String2(DYNX(W_,8450), true, 0)));
+DYNX(W_,9674) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n2, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 2, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 2, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8489) = 273.15+DYNX(W_,9705);
-AssertModelica(DYNX(W_,8489) > DYNX(DP_,1476) AND DYNX(W_,8489) < DYNX(DP_,1477),
+DYNX(W_,8452) = 273.15+DYNX(W_,9674);
+AssertModelica(DYNX(W_,8452) > DYNX(DP_,1482) AND DYNX(W_,8452) < DYNX(DP_,1483),
"noEvent(weaDat.cheTemDewPoi.TIn > weaDat.cheTemDewPoi.TMin and weaDat.cheTemDewPoi.TIn < weaDat.cheTemDewPoi.TMax)",
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.cheTemDewPoi: Weather data dew point temperature out of bounds.\n TIn = ",
- Real2String2(DYNX(W_,8489), true, 0)));
-DYNX(W_,9737) = IF DYNX(W_,8489)-DYNX(W_,8487) > 0.1 THEN DYNX(W_,8487) ELSE IF
- DYNX(W_,8489)-DYNX(W_,8487) < -0.1 THEN DYNX(W_,8489) ELSE 2.5*(DYNX(W_,8489)-
- DYNX(W_,8487))*(sqr(10.0*(DYNX(W_,8489)-DYNX(W_,8487)))-3)*(DYNX(W_,8489)-
- DYNX(W_,8487))+0.5*(DYNX(W_,8487)+DYNX(W_,8489));
-DYNX(W_,9717) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n14, \nweaDat.datRea.u)")
+ Real2String2(DYNX(W_,8452), true, 0)));
+DYNX(W_,9706) = IF DYNX(W_,8452)-DYNX(W_,8450) > 0.1 THEN DYNX(W_,8450) ELSE IF
+ DYNX(W_,8452)-DYNX(W_,8450) < -0.1 THEN DYNX(W_,8452) ELSE 2.5*(DYNX(W_,8452)-
+ DYNX(W_,8450))*(sqr(10.0*(DYNX(W_,8452)-DYNX(W_,8450)))-3)*(DYNX(W_,8452)-
+ DYNX(W_,8450))+0.5*(DYNX(W_,8450)+DYNX(W_,8452));
+DYNX(W_,9686) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n14, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 14, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 14, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9731) = 0.1*DYNX(W_,9717);
-DYNX(W_,8499) = RealBmin(1, RealBmax(0, DYNX(W_,9731)));
-DYNX(W_,9739) = 10*DYNX(W_,8499);
-DYNX(W_,9738) = (0.787+0.764*logGuarded( -DYNX(W_,9737)/(double)((-273.15)),
- " -weaDat.TBlaSkyCom.TDewPoiK/(-273.15)"))*(1.0+0.0224*DYNX(W_,9739)-0.0035*
- sqr(DYNX(W_,9739))+0.00028*powUnguarded(DYNX(W_,9739), 3));
-DYNX(W_,8490) = DYNX(W_,8487)*powGuarded(DYNX(W_,9738),"weaDat.TBlaSkyCom.epsSky",
+DYNX(W_,9700) = 0.1*DYNX(W_,9686);
+DYNX(W_,8462) = RealBmin(1, RealBmax(0, DYNX(W_,9700)));
+DYNX(W_,9708) = 10*DYNX(W_,8462);
+DYNX(W_,9707) = (0.787+0.764*logGuarded( -DYNX(W_,9706)/(double)((-273.15)),
+ " -weaDat.TBlaSkyCom.TDewPoiK/(-273.15)"))*(1.0+0.0224*DYNX(W_,9708)-0.0035*
+ sqr(DYNX(W_,9708))+0.00028*powUnguarded(DYNX(W_,9708), 3));
+DYNX(W_,8453) = DYNX(W_,8450)*powGuarded(DYNX(W_,9707),"weaDat.TBlaSkyCom.epsSky",
0.25,"0.25");
-AssertModelica(DYNX(W_,8490) > DYNX(DP_,1487) AND DYNX(W_,8490) < DYNX(DP_,1488),
+AssertModelica(DYNX(W_,8453) > DYNX(DP_,1493) AND DYNX(W_,8453) < DYNX(DP_,1494),
"noEvent(weaDat.cheTemBlaSky.TIn > weaDat.cheTemBlaSky.TMin and weaDat.cheTemBlaSky.TIn < weaDat.cheTemBlaSky.TMax)",
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.cheTemBlaSky: Weather data black-body sky temperature out of bounds.\n TIn = ",
- Real2String2(DYNX(W_,8490), true, 0)));
-DYNX(W_,8716) = divGuarded((DYNX(W_,8490)-DYNX(W_,8487))*DYNX(W_,618),
+ Real2String2(DYNX(W_,8453), true, 0)));
+DYNX(W_,8679) = divGuarded((DYNX(W_,8453)-DYNX(W_,8450))*DYNX(W_,618),
"(building.thermalZone[1].eqAirTempRoof.TBlaSky-building.thermalZone[1].eqAirTempRoof.TDryBul)*building.thermalZone[1].eqAirTempRoof.hRad",
DYNX(W_,618)+DYNX(W_,617),"building.thermalZone[1].eqAirTempRoof.hRad+building.thermalZone[1].eqAirTempRoof.hConWallOut");
-DYNX(W_,8929) = IF DYNX(W_,829) THEN DYNX(W_,8506)-DYNX(W_,8296)+DYNX(W_,828)
- ELSE DYNX(W_,8506);
-DYNX(W_,8930) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8929)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilRoof[1].incAng.decAng.calTimAux)");
-DYNX(W_,8932) = cos(DYNX(W_,8930));
-DYNX(W_,8931) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8934) = cos(DYNX(W_,8931));
-DYNX(W_,8933) = sin(DYNX(W_,8930));
-DYNX(W_,8935) = sin(DYNX(W_,8931));
-DYNX(W_,8928) = acosGuarded(cos(DYNX(W_,833))*(0.6124088231015443*DYNX(W_,8932)*
- DYNX(W_,8934)+0.7905412281389133*DYNX(W_,8933))+sin(DYNX(W_,833))*(sin(
- DYNX(W_,832))*DYNX(W_,8932)*DYNX(W_,8935)+cos(DYNX(W_,832))*(0.7905412281389133
- *DYNX(W_,8932)*DYNX(W_,8934)-0.6124088231015443*DYNX(W_,8933))),
+DYNX(W_,8892) = IF DYNX(W_,829) THEN DYNX(W_,8469)-DYNX(W_,8256)+DYNX(W_,828)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8893) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8892)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilRoof[1].incAng.decAng.calTimAux)");
+DYNX(W_,8895) = cos(DYNX(W_,8893));
+DYNX(W_,8894) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8897) = cos(DYNX(W_,8894));
+DYNX(W_,8896) = sin(DYNX(W_,8893));
+DYNX(W_,8898) = sin(DYNX(W_,8894));
+DYNX(W_,8891) = acosGuarded(cos(DYNX(W_,833))*(0.6124088231015443*DYNX(W_,8895)*
+ DYNX(W_,8897)+0.7905412281389133*DYNX(W_,8896))+sin(DYNX(W_,833))*(sin(
+ DYNX(W_,832))*DYNX(W_,8895)*DYNX(W_,8898)+cos(DYNX(W_,832))*(0.7905412281389133
+ *DYNX(W_,8895)*DYNX(W_,8897)-0.6124088231015443*DYNX(W_,8896))),
"cos(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_c*building.thermalZone[1].HDirTilRoof[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilRoof[1].incAng.inc...");
-DYNX(W_,8927) = RealBmax(0, cos(DYNX(W_,8928))*DYNX(W_,8492));
-DYNX(W_,8963) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8962) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(W_,8961) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1), 1, 8, 0.01)")
+DYNX(W_,8890) = RealBmax(0, cos(DYNX(W_,8891))*DYNX(W_,8455));
+DYNX(W_,8926) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8925) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(W_,8924) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8963),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou",
- DYNX(W_,8963),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou")+
- DYNX(W_,8962),"(building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1",1
- +DYNX(W_,8962),"1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1"), 1, 8,
+ DYNX(W_,8455)+DYNX(W_,8926),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou",
+ DYNX(W_,8926),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou")+
+ DYNX(W_,8925),"(building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1",1
+ +DYNX(W_,8925),"1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1"), 1, 8,
0.01));
PopModelContext();
-DYNX(W_,8979) = IF 1.23-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8961)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8961))*(sqr(100.0*(1.23-
- DYNX(W_,8961)))-3);
-DYNX(W_,8971) = IF 1.065-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8961)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8961))*(sqr(100.0*(1.065-
- DYNX(W_,8961)))-3);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(34);
-DYNX(W_,8972) = DYNX(W_,8979)-DYNX(W_,8971);
-DYNX(W_,8980) = IF 1.5-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8961))*(sqr(100.0*(1.5-DYNX(W_,8961)))
+DYNX(W_,8942) = IF 1.23-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8924)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8924))*(sqr(100.0*(1.23-
+ DYNX(W_,8924)))-3);
+DYNX(W_,8934) = IF 1.065-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8924)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8924))*(sqr(100.0*(1.065-
+ DYNX(W_,8924)))-3);
+DYNX(W_,8935) = DYNX(W_,8942)-DYNX(W_,8934);
+DYNX(W_,8943) = IF 1.5-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8924))*(sqr(100.0*(1.5-DYNX(W_,8924)))
-3);
-DYNX(W_,8973) = DYNX(W_,8980)-DYNX(W_,8979);
-DYNX(W_,8981) = IF 1.95-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8961)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8961))*(sqr(100.0*(1.95-
- DYNX(W_,8961)))-3);
-DYNX(W_,8974) = DYNX(W_,8981)-DYNX(W_,8980);
-DYNX(W_,8982) = IF 2.8-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8961))*(sqr(100.0*(2.8-DYNX(W_,8961)))
+DYNX(W_,8936) = DYNX(W_,8943)-DYNX(W_,8942);
+DYNX(W_,8944) = IF 1.95-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8924)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8924))*(sqr(100.0*(1.95-
+ DYNX(W_,8924)))-3);
+DYNX(W_,8937) = DYNX(W_,8944)-DYNX(W_,8943);
+DYNX(W_,8945) = IF 2.8-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8924))*(sqr(100.0*(2.8-DYNX(W_,8924)))
-3);
-DYNX(W_,8975) = DYNX(W_,8982)-DYNX(W_,8981);
-DYNX(W_,8983) = IF 4.5-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8961))*(sqr(100.0*(4.5-DYNX(W_,8961)))
+DYNX(W_,8938) = DYNX(W_,8945)-DYNX(W_,8944);
+DYNX(W_,8946) = IF 4.5-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8924))*(sqr(100.0*(4.5-DYNX(W_,8924)))
-3);
-DYNX(W_,8976) = DYNX(W_,8983)-DYNX(W_,8982);
-DYNX(W_,8984) = IF 6.2-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8961))*(sqr(100.0*(6.2-DYNX(W_,8961)))
+DYNX(W_,8939) = DYNX(W_,8946)-DYNX(W_,8945);
+DYNX(W_,8947) = IF 6.2-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8924))*(sqr(100.0*(6.2-DYNX(W_,8924)))
-3);
-DYNX(W_,8977) = DYNX(W_,8984)-DYNX(W_,8983);
-DYNX(W_,8978) = IF DYNX(W_,8961)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8961)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8961)-6.2)*(sqr(100.0*(DYNX(W_,8961)-6.2))
+DYNX(W_,8940) = DYNX(W_,8947)-DYNX(W_,8946);
+DYNX(W_,8941) = IF DYNX(W_,8924)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8924)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8924)-6.2)*(sqr(100.0*(DYNX(W_,8924)-6.2))
-3);
-DYNX(W_,8965) = 0.1299457*DYNX(W_,8972)-0.0083117*DYNX(W_,8971)+0.3296958*
- DYNX(W_,8973)+0.5682053*DYNX(W_,8974)+0.873028*DYNX(W_,8975)+1.1326077*
- DYNX(W_,8976)+1.0601591*DYNX(W_,8977)+0.677747*DYNX(W_,8978);
-DYNX(W_,8966) = 0.5877285*DYNX(W_,8971)+0.6825954*DYNX(W_,8972)+0.4868735*
- DYNX(W_,8973)+0.1874525*DYNX(W_,8974)-0.3920403*DYNX(W_,8975)-1.2367284*
- DYNX(W_,8976)-1.5999137*DYNX(W_,8977)-0.3272588*DYNX(W_,8978);
-DYNX(W_,8986) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8987) = 0.3183098861837907*DYNX(W_,8986)*180;
-DYNX(W_,8985) = divinvGuarded(cos(DYNX(W_,8986))+0.15*powGuarded(93.9-
- DYNX(W_,8987),"93.9-building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg",
+DYNX(W_,8928) = 0.1299457*DYNX(W_,8935)-0.0083117*DYNX(W_,8934)+0.3296958*
+ DYNX(W_,8936)+0.5682053*DYNX(W_,8937)+0.873028*DYNX(W_,8938)+1.1326077*
+ DYNX(W_,8939)+1.0601591*DYNX(W_,8940)+0.677747*DYNX(W_,8941);
+DYNX(W_,8929) = 0.5877285*DYNX(W_,8934)+0.6825954*DYNX(W_,8935)+0.4868735*
+ DYNX(W_,8936)+0.1874525*DYNX(W_,8937)-0.3920403*DYNX(W_,8938)-1.2367284*
+ DYNX(W_,8939)-1.5999137*DYNX(W_,8940)-0.3272588*DYNX(W_,8941);
+DYNX(W_,8949) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8950) = 0.3183098861837907*DYNX(W_,8949)*180;
+DYNX(W_,8948) = divinvGuarded(cos(DYNX(W_,8949))+0.15*powGuarded(93.9-
+ DYNX(W_,8950),"93.9-building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg",
-1.253,"-1.253"),"cos(building.thermalZone[1].HDifTilRoof[1].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8988) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
- DYNX(W_,8505));
-DYNX(W_,8964) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),
+DYNX(W_,8951) = 1+0.033*cos(0.01721420632103996+1.9923849908611068E-07*
+ DYNX(W_,8468));
+DYNX(W_,8927) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),
"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8985),"0.5*(building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor");
-DYNX(W_,8967) = (-0.0620636)*DYNX(W_,8971)-0.1513725*DYNX(W_,8972)-0.2210958*
- DYNX(W_,8973)-0.295129*DYNX(W_,8974)-0.3616149*DYNX(W_,8975)-0.4118494*
- DYNX(W_,8976)-0.3589221*DYNX(W_,8977)-0.2504286*DYNX(W_,8978);
-DYNX(W_,8954) = IF -(DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8965)+DYNX(W_,8966)*
- DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8965)+
- DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504));
-DYNX(W_,8989) = IF DYNX(W_,911) THEN DYNX(W_,8506)-DYNX(W_,8304)+DYNX(W_,910)
- ELSE DYNX(W_,8506);
-DYNX(W_,8990) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8989)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilRoof[1].incAng.decAng.calTimAux)");
-DYNX(W_,8992) = cos(DYNX(W_,8990));
-DYNX(W_,8991) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8994) = cos(DYNX(W_,8991));
-DYNX(W_,8993) = sin(DYNX(W_,8990));
-DYNX(W_,8995) = sin(DYNX(W_,8991));
-DYNX(W_,8956) = acosGuarded(cos(DYNX(W_,915))*(0.6124088231015443*DYNX(W_,8992)*
- DYNX(W_,8994)+0.7905412281389133*DYNX(W_,8993))+sin(DYNX(W_,915))*(sin(
- DYNX(W_,914))*DYNX(W_,8992)*DYNX(W_,8995)+cos(DYNX(W_,914))*(0.7905412281389133
- *DYNX(W_,8992)*DYNX(W_,8994)-0.6124088231015443*DYNX(W_,8993))),
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8948),"0.5*(building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor");
+DYNX(W_,8930) = (-0.0620636)*DYNX(W_,8934)-0.1513725*DYNX(W_,8935)-0.2210958*
+ DYNX(W_,8936)-0.295129*DYNX(W_,8937)-0.3616149*DYNX(W_,8938)-0.4118494*
+ DYNX(W_,8939)-0.3589221*DYNX(W_,8940)-0.2504286*DYNX(W_,8941);
+DYNX(W_,8917) = IF -(DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8928)+DYNX(W_,8929)*
+ DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8928)+
+ DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467));
+DYNX(W_,8952) = IF DYNX(W_,911) THEN DYNX(W_,8469)-DYNX(W_,8264)+DYNX(W_,910)
+ ELSE DYNX(W_,8469);
+DYNX(W_,8953) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8952)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilRoof[1].incAng.decAng.calTimAux)");
+DYNX(W_,8955) = cos(DYNX(W_,8953));
+DYNX(W_,8954) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8957) = cos(DYNX(W_,8954));
+DYNX(W_,8956) = sin(DYNX(W_,8953));
+DYNX(W_,8958) = sin(DYNX(W_,8954));
+DYNX(W_,8919) = acosGuarded(cos(DYNX(W_,915))*(0.6124088231015443*DYNX(W_,8955)*
+ DYNX(W_,8957)+0.7905412281389133*DYNX(W_,8956))+sin(DYNX(W_,915))*(sin(
+ DYNX(W_,914))*DYNX(W_,8955)*DYNX(W_,8958)+cos(DYNX(W_,914))*(0.7905412281389133
+ *DYNX(W_,8955)*DYNX(W_,8957)-0.6124088231015443*DYNX(W_,8956))),
"cos(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_c*building.thermalZone[1].HDifTilRoof[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilRoof[1].incAng.inc...");
-DYNX(W_,8959) = IF -cos(DYNX(W_,8956)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8956)) < -0.01 THEN cos(DYNX(W_,8956)) ELSE 0.5*cos(DYNX(W_,8956))-
- 25.0*cos(DYNX(W_,8956))*(sqr((-100.0)*cos(DYNX(W_,8956)))-3)*cos(DYNX(W_,8956));
-DYNX(W_,8960) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8968) = (-0.0596012)*DYNX(W_,8971)-0.0189325*DYNX(W_,8972)+0.055414*
- DYNX(W_,8973)+0.1088631*DYNX(W_,8974)+0.2255647*DYNX(W_,8975)+0.2877813*
- DYNX(W_,8976)+0.2642124*DYNX(W_,8977)+0.1561313*DYNX(W_,8978);
-DYNX(W_,8969) = 0.0721249*DYNX(W_,8971)+0.065965*DYNX(W_,8972)-0.0639588*
- DYNX(W_,8973)-0.1519229*DYNX(W_,8974)-0.4620442*DYNX(W_,8975)-0.8230357*
- DYNX(W_,8976)-1.127234*DYNX(W_,8977)-1.3765031*DYNX(W_,8978);
-DYNX(W_,8970) = (-0.0220216)*DYNX(W_,8971)-0.0288748*DYNX(W_,8972)-0.0260542*
- DYNX(W_,8973)-0.0139754*DYNX(W_,8974)+0.0012448*DYNX(W_,8975)+0.0558651*
- DYNX(W_,8976)+0.1310694*DYNX(W_,8977)+0.2506212*DYNX(W_,8978);
-DYNX(W_,8955) = DYNX(W_,8968)+DYNX(W_,8969)*DYNX(W_,8964)+DYNX(W_,8970)*
- DYNX(W_,8504);
-DYNX(W_,8958) = DYNX(W_,8494)*(0.5*(1-DYNX(W_,8954))*(1+cos(DYNX(W_,898)))+
- divGuarded(DYNX(W_,8954)*DYNX(W_,8959),"building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof1*building.thermalZone[1].HDifTilRoof[1].HDifTil.a",
- DYNX(W_,8960),"building.thermalZone[1].HDifTilRoof[1].HDifTil.b")+
- DYNX(W_,8955)*sin(DYNX(W_,898)));
-DYNX(W_,8957) = 0.5*DYNX(W_,8493)*DYNX(W_,897)*(1-cos(DYNX(W_,898)));
-DYNX(W_,8953) = DYNX(DP_,305)*DYNX(W_,8958)+DYNX(DP_,306)*DYNX(W_,8957);
-DYNX(W_,9000) = DYNX(DP_,307)*DYNX(W_,8927)+DYNX(DP_,308)*DYNX(W_,8953);
-DYNX(W_,8717) = divGuarded(DYNX(W_,612)*DYNX(W_,9000),"building.thermalZone[1].eqAirTempRoof.aExt*building.thermalZone[1].eqAirTempRoof.HSol[1]",
+DYNX(W_,8922) = IF -cos(DYNX(W_,8919)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8919)) < -0.01 THEN cos(DYNX(W_,8919)) ELSE 0.5*cos(DYNX(W_,8919))-
+ 25.0*cos(DYNX(W_,8919))*(sqr((-100.0)*cos(DYNX(W_,8919)))-3)*cos(DYNX(W_,8919));
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(34);
+DYNX(W_,8923) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8931) = (-0.0596012)*DYNX(W_,8934)-0.0189325*DYNX(W_,8935)+0.055414*
+ DYNX(W_,8936)+0.1088631*DYNX(W_,8937)+0.2255647*DYNX(W_,8938)+0.2877813*
+ DYNX(W_,8939)+0.2642124*DYNX(W_,8940)+0.1561313*DYNX(W_,8941);
+DYNX(W_,8932) = 0.0721249*DYNX(W_,8934)+0.065965*DYNX(W_,8935)-0.0639588*
+ DYNX(W_,8936)-0.1519229*DYNX(W_,8937)-0.4620442*DYNX(W_,8938)-0.8230357*
+ DYNX(W_,8939)-1.127234*DYNX(W_,8940)-1.3765031*DYNX(W_,8941);
+DYNX(W_,8933) = (-0.0220216)*DYNX(W_,8934)-0.0288748*DYNX(W_,8935)-0.0260542*
+ DYNX(W_,8936)-0.0139754*DYNX(W_,8937)+0.0012448*DYNX(W_,8938)+0.0558651*
+ DYNX(W_,8939)+0.1310694*DYNX(W_,8940)+0.2506212*DYNX(W_,8941);
+DYNX(W_,8918) = DYNX(W_,8931)+DYNX(W_,8932)*DYNX(W_,8927)+DYNX(W_,8933)*
+ DYNX(W_,8467);
+DYNX(W_,8921) = DYNX(W_,8457)*(0.5*(1-DYNX(W_,8917))*(1+cos(DYNX(W_,898)))+
+ divGuarded(DYNX(W_,8917)*DYNX(W_,8922),"building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof1*building.thermalZone[1].HDifTilRoof[1].HDifTil.a",
+ DYNX(W_,8923),"building.thermalZone[1].HDifTilRoof[1].HDifTil.b")+
+ DYNX(W_,8918)*sin(DYNX(W_,898)));
+DYNX(W_,8920) = 0.5*DYNX(W_,8456)*DYNX(W_,897)*(1-cos(DYNX(W_,898)));
+DYNX(W_,8916) = DYNX(DP_,305)*DYNX(W_,8921)+DYNX(DP_,306)*DYNX(W_,8920);
+DYNX(W_,8963) = DYNX(DP_,307)*DYNX(W_,8890)+DYNX(DP_,308)*DYNX(W_,8916);
+DYNX(W_,8680) = divGuarded(DYNX(W_,612)*DYNX(W_,8963),"building.thermalZone[1].eqAirTempRoof.aExt*building.thermalZone[1].eqAirTempRoof.HSol[1]",
DYNX(W_,618)+DYNX(W_,617),"building.thermalZone[1].eqAirTempRoof.hRad+building.thermalZone[1].eqAirTempRoof.hConWallOut");
-DYNX(W_,8714) = DYNX(W_,8487)+DYNX(W_,8716)+DYNX(W_,8717);
-DYNX(W_,8718) = DYNX(W_,8714)*DYNX(W_,614);
-DYNX(W_,8563) = (-0.6388848555249019)*(DYNX(W_,8554)+DYNX(W_,8556)+DYNX(W_,8558)
- +DYNX(W_,8560));
-DYNX(W_,8707) = divGuarded((DYNX(W_,8490)-DYNX(W_,8487))*DYNX(W_,603),
+DYNX(W_,8677) = DYNX(W_,8450)+DYNX(W_,8679)+DYNX(W_,8680);
+DYNX(W_,8681) = DYNX(W_,8677)*DYNX(W_,614);
+DYNX(W_,8526) = (-0.6388848555249019)*(DYNX(W_,8517)+DYNX(W_,8519)+DYNX(W_,8521)
+ +DYNX(W_,8523));
+DYNX(W_,8670) = divGuarded((DYNX(W_,8453)-DYNX(W_,8450))*DYNX(W_,603),
"(building.thermalZone[1].eqAirTempWall.TBlaSky-building.thermalZone[1].eqAirTempWall.TDryBul)*building.thermalZone[1].eqAirTempWall.hRad",
DYNX(W_,603)+DYNX(W_,611),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWinOut");
-DYNX(W_,8702) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8284));
-DYNX(W_,8703) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8285));
-DYNX(W_,8704) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8286));
-DYNX(W_,8705) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8287));
-DYNX(W_,8713) = DYNX(W_,8702)*DYNX(W_,597)+DYNX(W_,8703)*DYNX(W_,598)+
- DYNX(W_,8704)*DYNX(W_,599)+DYNX(W_,8705)*DYNX(W_,600);
-DYNX(W_,8562) = (-0.026136198635109624)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,9462) = 273.15+0.0002390057361376673*DYNX(W_,9440);
-DYNX(W_,9470) = 273.15+0.0002390057361376673*DYNX(W_,9469);
-DYNX(W_,9478) = 273.15+0.0002390057361376673*DYNX(W_,9477);
-DYNX(W_,9486) = 273.15+0.0002390057361376673*DYNX(W_,9485);
-DYNX(W_,9493) = 273.15+0.0002390057361376673*DYNX(W_,9434);
-DYNX(W_,8564) = (-0.11587048061565267)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,8593) = DYNX(W_,470)*DYNX(W_,8592);
-DYNX(W_,8561) = (-0.10323798460868301)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,8706) = divGuarded((DYNX(W_,8490)-DYNX(W_,8487))*DYNX(W_,603),
+DYNX(W_,8665) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8244));
+DYNX(W_,8666) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8245));
+DYNX(W_,8667) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8246));
+DYNX(W_,8668) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8247));
+DYNX(W_,8676) = DYNX(W_,8665)*DYNX(W_,597)+DYNX(W_,8666)*DYNX(W_,598)+
+ DYNX(W_,8667)*DYNX(W_,599)+DYNX(W_,8668)*DYNX(W_,600);
+DYNX(W_,8525) = (-0.026136198635109624)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,9431) = 273.15+0.0002390057361376673*DYNX(W_,9409);
+DYNX(W_,9439) = 273.15+0.0002390057361376673*DYNX(W_,9438);
+DYNX(W_,9447) = 273.15+0.0002390057361376673*DYNX(W_,9446);
+DYNX(W_,9455) = 273.15+0.0002390057361376673*DYNX(W_,9454);
+DYNX(W_,9462) = 273.15+0.0002390057361376673*DYNX(W_,9403);
+DYNX(W_,8527) = (-0.11587048061565267)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,8556) = DYNX(W_,470)*DYNX(W_,8555);
+DYNX(W_,8524) = (-0.10323798460868301)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,8669) = divGuarded((DYNX(W_,8453)-DYNX(W_,8450))*DYNX(W_,603),
"(building.thermalZone[1].eqAirTempWall.TBlaSky-building.thermalZone[1].eqAirTempWall.TDryBul)*building.thermalZone[1].eqAirTempWall.hRad",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8708) = divGuarded(DYNX(W_,591)*DYNX(W_,9001),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[1]",
+DYNX(W_,8671) = divGuarded(DYNX(W_,591)*DYNX(W_,8964),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[1]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8698) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8708);
-DYNX(W_,8709) = divGuarded(DYNX(W_,591)*DYNX(W_,9002),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[2]",
+DYNX(W_,8661) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8671);
+DYNX(W_,8672) = divGuarded(DYNX(W_,591)*DYNX(W_,8965),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[2]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8699) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8709);
-DYNX(W_,8710) = divGuarded(DYNX(W_,591)*DYNX(W_,9003),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[3]",
+DYNX(W_,8662) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8672);
+DYNX(W_,8673) = divGuarded(DYNX(W_,591)*DYNX(W_,8966),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[3]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8700) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8710);
-DYNX(W_,8711) = divGuarded(DYNX(W_,591)*DYNX(W_,9004),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[4]",
+DYNX(W_,8663) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8673);
+DYNX(W_,8674) = divGuarded(DYNX(W_,591)*DYNX(W_,8967),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[4]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8701) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8711);
-DYNX(W_,8712) = DYNX(W_,8698)*DYNX(W_,593)+DYNX(W_,8699)*DYNX(W_,594)+
- DYNX(W_,8700)*DYNX(W_,595)+DYNX(W_,8701)*DYNX(W_,596)+286.15*DYNX(W_,601);
+DYNX(W_,8664) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8674);
+DYNX(W_,8675) = DYNX(W_,8661)*DYNX(W_,593)+DYNX(W_,8662)*DYNX(W_,594)+
+ DYNX(W_,8663)*DYNX(W_,595)+DYNX(W_,8664)*DYNX(W_,596)+286.15*DYNX(W_,601);
if (DymolaHomotopyLambda==0){
BreakSectionCallNew(35);
}
@@ -16213,150 +16187,150 @@ else {
const double nominal_[]={300.0, 300.0, 300.0, 300.0, 1.0, 300.0, 1.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 7, 0, 0, 2, -2,
DYNX(DYNhelp,758), 188, DYNX(did_->helpvari_vec,50), 29);
- SetInitVectorSimple(x__, 1, DYNX(W_,8518), 5, 288.15);
- SetInitVectorSimple(x__, 2, DYNX(W_,8520), 6, 288.15);
- SetInitVectorSimple(x__, 3, DYNX(W_,8604), 7, 288.15);
- SetInitVectorSimple(x__, 4, DYNX(W_,8551), 8, 288.15);
- SetInitVectorSimple(x__, 5, DYNX(W_,8585), 9, 0);
- SetInitVectorSimple(x__, 6, DYNX(W_,8549), 10, 288.15);
- SetInitVectorSimple(x__, 7, DYNX(W_,8572), 11, 0);
+ SetInitVectorSimple(x__, 1, DYNX(W_,8481), 5, 288.15);
+ SetInitVectorSimple(x__, 2, DYNX(W_,8483), 6, 288.15);
+ SetInitVectorSimple(x__, 3, DYNX(W_,8567), 7, 288.15);
+ SetInitVectorSimple(x__, 4, DYNX(W_,8514), 8, 288.15);
+ SetInitVectorSimple(x__, 5, DYNX(W_,8548), 9, 0);
+ SetInitVectorSimple(x__, 6, DYNX(W_,8512), 10, 288.15);
+ SetInitVectorSimple(x__, 7, DYNX(W_,8535), 11, 0);
Residues;
- DYNX(W_,8998) = DYNX(W_,8518)-DYNX(W_,8712);
- DYNX(W_,8544) = DYNX(W_,8572)+DYNX(W_,8507);
- DYNX(W_,8999) = DYNX(W_,8520)-DYNX(W_,8713);
- DYNX(W_,8521) = -DYNX(W_,507)*DYNX(W_,8999);
- DYNX(W_,8541) = DYNX(W_,398)*DYNX(W_,8521);
- DYNX(DYNhelp,946) = DYNX(W_,8585)+DYNX(W_,8507);
- DYNX(W_,8589) = -(DYNX(W_,8541)-DYNX(W_,8520)+DYNX(DYNhelp,946));
- DYNX(W_,8542) = DYNX(W_,8589)+DYNX(DYNhelp,946);
- DYNX(W_,8547) = DYNX(DYNhelp,946);
- DYNX(W_,8477) = 0.1319599109131403*DYNX(W_,8544)+0.03340757238307349*
- DYNX(W_,8542)+0.6124721603563474*DYNX(W_,8547)+0.11108017817371936*
- DYNX(W_,8549)+0.11108017817371936*DYNX(W_,8551);
- DYNX(DYNhelp,947) = DYNX(W_,5857)*DYNX(W_,5891);
- DYNX(DYNhelp,948) = DYNX(W_,8477)-DYNX(W_,9462);
+ DYNX(W_,8961) = DYNX(W_,8481)-DYNX(W_,8675);
+ DYNX(W_,8507) = DYNX(W_,8535)+DYNX(W_,8470);
+ DYNX(W_,8962) = DYNX(W_,8483)-DYNX(W_,8676);
+ DYNX(W_,8484) = -DYNX(W_,507)*DYNX(W_,8962);
+ DYNX(W_,8504) = DYNX(W_,398)*DYNX(W_,8484);
+ DYNX(DYNhelp,946) = DYNX(W_,8548)+DYNX(W_,8470);
+ DYNX(W_,8552) = -(DYNX(W_,8504)-DYNX(W_,8483)+DYNX(DYNhelp,946));
+ DYNX(W_,8505) = DYNX(W_,8552)+DYNX(DYNhelp,946);
+ DYNX(W_,8510) = DYNX(DYNhelp,946);
+ DYNX(W_,8440) = 0.1319599109131403*DYNX(W_,8507)+0.03340757238307349*
+ DYNX(W_,8505)+0.6124721603563474*DYNX(W_,8510)+0.11108017817371936*
+ DYNX(W_,8512)+0.11108017817371936*DYNX(W_,8514);
+ DYNX(DYNhelp,947) = DYNX(W_,5817)*DYNX(W_,5851);
+ DYNX(DYNhelp,948) = DYNX(W_,8440)-DYNX(W_,9431);
DYNX(DYNhelp,949) = DYNX(DYNhelp,947)*DYNX(DYNhelp,948);
- DYNX(DYNhelp,950) = DYNX(W_,5863)-1;
+ DYNX(DYNhelp,950) = DYNX(W_,5823)-1;
DYNX(DYNhelp,951) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,948),
DYNX(DYNhelp,950), 0.05));
PopModelContext();
- DYNX(DYNhelp,952) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5881)),
+ DYNX(DYNhelp,952) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5841)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[1])",DYNX(DYNhelp,950),
"hydraulic.transfer.rad[1].n-1");
- DYNX(W_,9457) = homotopy(DYNX(DYNhelp,949)*DYNX(DYNhelp,951),
+ DYNX(W_,9426) = homotopy(DYNX(DYNhelp,949)*DYNX(DYNhelp,951),
DYNX(DYNhelp,952)*DYNX(DYNhelp,948));
- DYNX(DYNhelp,953) = DYNX(W_,8477)-DYNX(W_,9470);
+ DYNX(DYNhelp,953) = DYNX(W_,8440)-DYNX(W_,9439);
DYNX(DYNhelp,954) = DYNX(DYNhelp,947)*DYNX(DYNhelp,953);
DYNX(DYNhelp,955) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,953),
DYNX(DYNhelp,950), 0.05));
PopModelContext();
- DYNX(DYNhelp,956) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5882)),
+ DYNX(DYNhelp,956) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5842)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[2])",DYNX(DYNhelp,950),
"hydraulic.transfer.rad[1].n-1");
- DYNX(W_,9458) = homotopy(DYNX(DYNhelp,954)*DYNX(DYNhelp,955),
+ DYNX(W_,9427) = homotopy(DYNX(DYNhelp,954)*DYNX(DYNhelp,955),
DYNX(DYNhelp,956)*DYNX(DYNhelp,953));
- DYNX(DYNhelp,957) = DYNX(W_,8477)-DYNX(W_,9478);
+ DYNX(DYNhelp,957) = DYNX(W_,8440)-DYNX(W_,9447);
DYNX(DYNhelp,958) = DYNX(DYNhelp,947)*DYNX(DYNhelp,957);
DYNX(DYNhelp,959) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,957),
DYNX(DYNhelp,950), 0.05));
PopModelContext();
- DYNX(DYNhelp,960) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5883)),
+ DYNX(DYNhelp,960) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5843)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[3])",DYNX(DYNhelp,950),
"hydraulic.transfer.rad[1].n-1");
- DYNX(W_,9459) = homotopy(DYNX(DYNhelp,958)*DYNX(DYNhelp,959),
+ DYNX(W_,9428) = homotopy(DYNX(DYNhelp,958)*DYNX(DYNhelp,959),
DYNX(DYNhelp,960)*DYNX(DYNhelp,957));
- DYNX(DYNhelp,961) = DYNX(W_,8477)-DYNX(W_,9486);
+ DYNX(DYNhelp,961) = DYNX(W_,8440)-DYNX(W_,9455);
DYNX(DYNhelp,962) = DYNX(DYNhelp,947)*DYNX(DYNhelp,961);
DYNX(DYNhelp,963) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,961),
DYNX(DYNhelp,950), 0.05));
PopModelContext();
- DYNX(DYNhelp,964) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5884)),
+ DYNX(DYNhelp,964) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5844)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[4])",DYNX(DYNhelp,950),
"hydraulic.transfer.rad[1].n-1");
- DYNX(W_,9460) = homotopy(DYNX(DYNhelp,962)*DYNX(DYNhelp,963),
+ DYNX(W_,9429) = homotopy(DYNX(DYNhelp,962)*DYNX(DYNhelp,963),
DYNX(DYNhelp,964)*DYNX(DYNhelp,961));
- DYNX(DYNhelp,965) = DYNX(W_,8477)-DYNX(W_,9493);
+ DYNX(DYNhelp,965) = DYNX(W_,8440)-DYNX(W_,9462);
DYNX(DYNhelp,966) = DYNX(DYNhelp,947)*DYNX(DYNhelp,965);
DYNX(DYNhelp,967) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,965),
DYNX(DYNhelp,950), 0.05));
PopModelContext();
- DYNX(DYNhelp,968) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5885)),
+ DYNX(DYNhelp,968) = DYNX(DYNhelp,947)*powGuarded(fabs(DYNX(W_,5845)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[5])",DYNX(DYNhelp,950),
"hydraulic.transfer.rad[1].n-1");
- DYNX(W_,9461) = homotopy(DYNX(DYNhelp,966)*DYNX(DYNhelp,967),
+ DYNX(W_,9430) = homotopy(DYNX(DYNhelp,966)*DYNX(DYNhelp,967),
DYNX(DYNhelp,968)*DYNX(DYNhelp,965));
- DYNX(W_,8523) = -(DYNX(W_,8624)+DYNX(W_,8639)+DYNX(W_,8633)+DYNX(W_,9457)+
- DYNX(W_,9458)+DYNX(W_,9459)+DYNX(W_,9460)+DYNX(W_,9461));
- DYNX(W_,8545) = (-0.1319599109131403)*DYNX(W_,8523);
- DYNX(W_,8597) = DYNX(W_,8549)-DYNX(W_,8507);
- DYNX(W_,8596) = DYNX(W_,474)*DYNX(W_,8597);
- DYNX(W_,8550) = (-0.11108017817371936)*DYNX(W_,8523);
- DYNX(W_,8599) = DYNX(W_,8544)-DYNX(W_,8549);
- DYNX(W_,8598) = DYNX(W_,475)*DYNX(W_,8599);
- DYNX(W_,8603) = DYNX(W_,8542)-DYNX(W_,8549);
- DYNX(W_,8602) = DYNX(W_,477)*DYNX(W_,8603);
- DYNX(W_,8601) = DYNX(DYNhelp,946)-DYNX(W_,8549);
- DYNX(W_,8600) = DYNX(W_,476)*DYNX(W_,8601);
- DYNX(W_,8618) = DYNX(W_,8551)-DYNX(W_,8549);
- DYNX(W_,8617) = DYNX(W_,489)*DYNX(W_,8618);
- DYNX(DYNhelp,969) = DYNX(W_,8598)+DYNX(W_,8602);
- DYNX(W_,8591) = -(DYNX(W_,8596)+DYNX(W_,8550)-(DYNX(DYNhelp,969)+
- DYNX(W_,8600)+DYNX(W_,8617))+DYNX(W_,8564));
- DYNX(W_,8590) = DYNX(W_,8593)-DYNX(W_,8591);
- DYNX(W_,8595) = -DYNX(W_,473)*DYNX(W_,8590);
- DYNX(W_,8594) = DYNX(W_,471)*DYNX(W_,8591);
- DYNX(X_,5) = DYNX(W_,8549)-DYNX(W_,8594);
- DYNX(W_,8546) = (-0.03340757238307349)*DYNX(W_,8523);
- DYNX(W_,8548) = (-0.6124721603563474)*DYNX(W_,8523);
- DYNX(W_,8588) = DYNX(W_,462)*DYNX(W_,8589);
- DYNX(W_,8997) = DYNX(W_,8604)-DYNX(W_,8718);
- DYNX(W_,8605) = -DYNX(W_,498)*DYNX(W_,8997);
- DYNX(W_,8610) = -DYNX(W_,485)*DYNX(W_,8605);
- DYNX(W_,8612) = DYNX(W_,8551)-DYNX(W_,8507);
- DYNX(W_,8611) = DYNX(W_,486)*DYNX(W_,8612);
- DYNX(W_,8614) = DYNX(W_,8551)-DYNX(DYNhelp,946);
- DYNX(W_,8613) = DYNX(W_,487)*DYNX(W_,8614);
- DYNX(W_,8620) = DYNX(W_,8544)-DYNX(W_,8551);
- DYNX(W_,8619) = DYNX(W_,490)*DYNX(W_,8620);
- DYNX(W_,8616) = DYNX(W_,8542)-DYNX(W_,8551);
- DYNX(W_,8615) = DYNX(W_,488)*DYNX(W_,8616);
- DYNX(W_,8552) = DYNX(W_,8550);
- DYNX(DYNhelp,970) = DYNX(W_,8613)-DYNX(W_,8619);
- DYNX(W_,8606) = -(DYNX(W_,8611)+DYNX(DYNhelp,970)+DYNX(W_,8617)-
- DYNX(W_,8615)+DYNX(W_,8552)+DYNX(W_,8565));
- DYNX(W_,8609) = DYNX(W_,484)*DYNX(W_,8606);
- DYNX(X_,6) = DYNX(W_,8551)-DYNX(W_,8609);
- DYNX(W_,8587) = DYNX(W_,8572)-DYNX(W_,8585);
- DYNX(W_,8586) = DYNX(W_,461)*DYNX(W_,8587);
- DYNX(W_,8584) = DYNX(W_,460)*DYNX(W_,8585);
- DYNX(W_,8576) = DYNX(W_,8589)+DYNX(W_,8585)-DYNX(W_,8572);
- DYNX(W_,8575) = DYNX(W_,450)*DYNX(W_,8576);
- DYNX(W_,8574) = DYNX(W_,8542)-DYNX(W_,8507);
- DYNX(W_,8573) = DYNX(W_,305)*DYNX(W_,8574);
- DYNX(W_,8571) = DYNX(W_,441)*DYNX(W_,8572);
- DYNX(DYNhelp,971) = DYNX(W_,8598)+DYNX(W_,8586);
- DYNX(W_,8566) = -(DYNX(W_,8571)+DYNX(DYNhelp,971)+DYNX(W_,8619)-
- DYNX(W_,8575)+DYNX(W_,8545)+DYNX(W_,8561));
- DYNX(W_,8569) = DYNX(W_,439)*DYNX(W_,8566);
- DYNX(W_,8519) = -DYNX(W_,506)*DYNX(W_,8998);
- DYNX(W_,8570) = -DYNX(W_,440)*DYNX(W_,8519);
- DYNX(X_,3) = DYNX(W_,8544)-DYNX(W_,8569);
- DYNX(DYNhelp,972) = DYNX(W_,8600)-(DYNX(W_,8586)+DYNX(W_,8613));
- DYNX(DYNhelp,973) = DYNX(W_,8575)+DYNX(W_,8602)+DYNX(W_,8588);
- SetVector(residue__, 1, DYNX(W_,8570)-DYNX(X_,3)+DYNX(W_,8518));
- SetVector(residue__, 2, 286.15+DYNX(W_,8595)-DYNX(X_,5));
- SetVector(residue__, 3, DYNX(W_,8610)-DYNX(X_,6)+DYNX(W_,8604));
- SetVector(residue__, 4, DYNX(W_,8581)+DYNX(W_,8584)+DYNX(DYNhelp,972)-
- DYNX(W_,8588)+DYNX(W_,8548)+DYNX(W_,8563));
- SetVector(residue__, 5, DYNX(W_,8573)+DYNX(DYNhelp,973)+DYNX(W_,8615)-
- DYNX(W_,8521)+DYNX(W_,8546)+DYNX(W_,8562));
- SetVector(residue__, 6, DYNX(W_,8568)-(DYNX(W_,8519)+DYNX(W_,8566)));
- SetVector(residue__, 7, DYNX(W_,8608)-(DYNX(W_,8605)+DYNX(W_,8606)));
+ DYNX(W_,8486) = -(DYNX(W_,8587)+DYNX(W_,8602)+DYNX(W_,8596)+DYNX(W_,9426)+
+ DYNX(W_,9427)+DYNX(W_,9428)+DYNX(W_,9429)+DYNX(W_,9430));
+ DYNX(W_,8508) = (-0.1319599109131403)*DYNX(W_,8486);
+ DYNX(W_,8560) = DYNX(W_,8512)-DYNX(W_,8470);
+ DYNX(W_,8559) = DYNX(W_,474)*DYNX(W_,8560);
+ DYNX(W_,8513) = (-0.11108017817371936)*DYNX(W_,8486);
+ DYNX(W_,8562) = DYNX(W_,8507)-DYNX(W_,8512);
+ DYNX(W_,8561) = DYNX(W_,475)*DYNX(W_,8562);
+ DYNX(W_,8566) = DYNX(W_,8505)-DYNX(W_,8512);
+ DYNX(W_,8565) = DYNX(W_,477)*DYNX(W_,8566);
+ DYNX(W_,8564) = DYNX(DYNhelp,946)-DYNX(W_,8512);
+ DYNX(W_,8563) = DYNX(W_,476)*DYNX(W_,8564);
+ DYNX(W_,8581) = DYNX(W_,8514)-DYNX(W_,8512);
+ DYNX(W_,8580) = DYNX(W_,489)*DYNX(W_,8581);
+ DYNX(DYNhelp,969) = DYNX(W_,8561)+DYNX(W_,8565);
+ DYNX(W_,8554) = -(DYNX(W_,8559)+DYNX(W_,8513)-(DYNX(DYNhelp,969)+
+ DYNX(W_,8563)+DYNX(W_,8580))+DYNX(W_,8527));
+ DYNX(W_,8553) = DYNX(W_,8556)-DYNX(W_,8554);
+ DYNX(W_,8558) = -DYNX(W_,473)*DYNX(W_,8553);
+ DYNX(W_,8557) = DYNX(W_,471)*DYNX(W_,8554);
+ DYNX(X_,5) = DYNX(W_,8512)-DYNX(W_,8557);
+ DYNX(W_,8509) = (-0.03340757238307349)*DYNX(W_,8486);
+ DYNX(W_,8511) = (-0.6124721603563474)*DYNX(W_,8486);
+ DYNX(W_,8551) = DYNX(W_,462)*DYNX(W_,8552);
+ DYNX(W_,8960) = DYNX(W_,8567)-DYNX(W_,8681);
+ DYNX(W_,8568) = -DYNX(W_,498)*DYNX(W_,8960);
+ DYNX(W_,8573) = -DYNX(W_,485)*DYNX(W_,8568);
+ DYNX(W_,8575) = DYNX(W_,8514)-DYNX(W_,8470);
+ DYNX(W_,8574) = DYNX(W_,486)*DYNX(W_,8575);
+ DYNX(W_,8577) = DYNX(W_,8514)-DYNX(DYNhelp,946);
+ DYNX(W_,8576) = DYNX(W_,487)*DYNX(W_,8577);
+ DYNX(W_,8583) = DYNX(W_,8507)-DYNX(W_,8514);
+ DYNX(W_,8582) = DYNX(W_,490)*DYNX(W_,8583);
+ DYNX(W_,8579) = DYNX(W_,8505)-DYNX(W_,8514);
+ DYNX(W_,8578) = DYNX(W_,488)*DYNX(W_,8579);
+ DYNX(W_,8515) = DYNX(W_,8513);
+ DYNX(DYNhelp,970) = DYNX(W_,8576)-DYNX(W_,8582);
+ DYNX(W_,8569) = -(DYNX(W_,8574)+DYNX(DYNhelp,970)+DYNX(W_,8580)-
+ DYNX(W_,8578)+DYNX(W_,8515)+DYNX(W_,8528));
+ DYNX(W_,8572) = DYNX(W_,484)*DYNX(W_,8569);
+ DYNX(X_,6) = DYNX(W_,8514)-DYNX(W_,8572);
+ DYNX(W_,8550) = DYNX(W_,8535)-DYNX(W_,8548);
+ DYNX(W_,8549) = DYNX(W_,461)*DYNX(W_,8550);
+ DYNX(W_,8547) = DYNX(W_,460)*DYNX(W_,8548);
+ DYNX(W_,8539) = DYNX(W_,8552)+DYNX(W_,8548)-DYNX(W_,8535);
+ DYNX(W_,8538) = DYNX(W_,450)*DYNX(W_,8539);
+ DYNX(W_,8537) = DYNX(W_,8505)-DYNX(W_,8470);
+ DYNX(W_,8536) = DYNX(W_,305)*DYNX(W_,8537);
+ DYNX(W_,8534) = DYNX(W_,441)*DYNX(W_,8535);
+ DYNX(DYNhelp,971) = DYNX(W_,8561)+DYNX(W_,8549);
+ DYNX(W_,8529) = -(DYNX(W_,8534)+DYNX(DYNhelp,971)+DYNX(W_,8582)-
+ DYNX(W_,8538)+DYNX(W_,8508)+DYNX(W_,8524));
+ DYNX(W_,8532) = DYNX(W_,439)*DYNX(W_,8529);
+ DYNX(W_,8482) = -DYNX(W_,506)*DYNX(W_,8961);
+ DYNX(W_,8533) = -DYNX(W_,440)*DYNX(W_,8482);
+ DYNX(X_,3) = DYNX(W_,8507)-DYNX(W_,8532);
+ DYNX(DYNhelp,972) = DYNX(W_,8563)-(DYNX(W_,8549)+DYNX(W_,8576));
+ DYNX(DYNhelp,973) = DYNX(W_,8538)+DYNX(W_,8565)+DYNX(W_,8551);
+ SetVector(residue__, 1, DYNX(W_,8533)-DYNX(X_,3)+DYNX(W_,8481));
+ SetVector(residue__, 2, 286.15+DYNX(W_,8558)-DYNX(X_,5));
+ SetVector(residue__, 3, DYNX(W_,8573)-DYNX(X_,6)+DYNX(W_,8567));
+ SetVector(residue__, 4, DYNX(W_,8544)+DYNX(W_,8547)+DYNX(DYNhelp,972)-
+ DYNX(W_,8551)+DYNX(W_,8511)+DYNX(W_,8526));
+ SetVector(residue__, 5, DYNX(W_,8536)+DYNX(DYNhelp,973)+DYNX(W_,8578)-
+ DYNX(W_,8484)+DYNX(W_,8509)+DYNX(W_,8525));
+ SetVector(residue__, 6, DYNX(W_,8531)-(DYNX(W_,8482)+DYNX(W_,8529)));
+ SetVector(residue__, 7, DYNX(W_,8571)-(DYNX(W_,8568)+DYNX(W_,8569)));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
@@ -16508,215 +16482,206 @@ else {
SetMatrixLeading(Jacobian__, 7, 7, 7, DYNX(DYNhelp,1022));
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[2]");
- DYNX(W_,8518) = GetVector(x__, 1);
- DYNX(W_,8520) = GetVector(x__, 2);
- DYNX(W_,8604) = GetVector(x__, 3);
- DYNX(W_,8551) = GetVector(x__, 4);
- DYNX(W_,8585) = GetVector(x__, 5);
- DYNX(W_,8549) = GetVector(x__, 6);
- DYNX(W_,8572) = GetVector(x__, 7);
+ DYNX(W_,8481) = GetVector(x__, 1);
+ DYNX(W_,8483) = GetVector(x__, 2);
+ DYNX(W_,8567) = GetVector(x__, 3);
+ DYNX(W_,8514) = GetVector(x__, 4);
+ DYNX(W_,8548) = GetVector(x__, 5);
+ DYNX(W_,8512) = GetVector(x__, 6);
+ DYNX(W_,8535) = GetVector(x__, 7);
EndNonLinearSystemOfEquationsInit(residue__, x__, 2);
/* End of Non-Linear Equation Block */ }
}
-DYNX(W_,8583) = DYNX(W_,459)*DYNX(W_,8581);
-DYNX(X_,4) = DYNX(W_,8585)+DYNX(W_,8507)-DYNX(W_,8583);
-DYNX(W_,9624) = DYNX(W_,7379);
-AssertModelica(DYNX(W_,9624) >= 200.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,8546) = DYNX(W_,459)*DYNX(W_,8544);
+DYNX(X_,4) = DYNX(W_,8548)+DYNX(W_,8470)-DYNX(W_,8546);
+DYNX(W_,9593) = DYNX(W_,7339);
+AssertModelica(DYNX(W_,9593) >= 200.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9624) <= 423.15,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9593) <= 423.15,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9532) >= 0.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,9501) >= 0.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9532), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9624), true, 0))," K)"));
-DYNX(W_,9631) = DYNX(W_,9624)-273.15;
-DYNX(W_,9625) = 1-DYNX(X_,70);
-DYNX(W_,9698) = DYNX(W_,9631)*1006*DYNX(W_,9625)+(2501014.5+DYNX(W_,9631)*1860)*
+ DYNX(W_,9501), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9593), true, 0))," K)"));
+DYNX(W_,9600) = DYNX(W_,9593)-273.15;
+DYNX(W_,9594) = 1-DYNX(X_,70);
+DYNX(W_,9667) = DYNX(W_,9600)*1006*DYNX(W_,9594)+(2501014.5+DYNX(W_,9600)*1860)*
DYNX(X_,70);
-DYNX(W_,9626) = DYNX(W_,9698)-84437.5;
-DYNX(X_,71) = DYNX(X_,72)*DYNX(W_,9626);
-DYNX(W_,9675) = DYNX(W_,7969);
-AssertModelica(DYNX(W_,9675) >= 200.0,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9595) = DYNX(W_,9667)-84437.5;
+DYNX(X_,71) = DYNX(X_,72)*DYNX(W_,9595);
+DYNX(W_,9644) = DYNX(W_,7929);
+AssertModelica(DYNX(W_,9644) >= 200.0,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_a.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9675) <= 423.15,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9644) <= 423.15,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_a.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9605) >= 0.0,"noEvent(ventilation.generation.threeWayValve_a.res1.port_b.p >= 0.0)",
+AssertModelica(DYNX(W_,9574) >= 0.0,"noEvent(ventilation.generation.threeWayValve_a.res1.port_b.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9605), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9675), true, 0))," K)"));
-DYNX(W_,9682) = DYNX(W_,9675)-273.15;
-DYNX(W_,9676) = 1-DYNX(X_,76);
-DYNX(W_,9606) = DYNX(W_,9682)*1006*DYNX(W_,9676)+(2501014.5+DYNX(W_,9682)*1860)*
+ DYNX(W_,9574), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9644), true, 0))," K)"));
+DYNX(W_,9651) = DYNX(W_,9644)-273.15;
+DYNX(W_,9645) = 1-DYNX(X_,76);
+DYNX(W_,9575) = DYNX(W_,9651)*1006*DYNX(W_,9645)+(2501014.5+DYNX(W_,9651)*1860)*
DYNX(X_,76);
-DYNX(W_,9677) = DYNX(W_,9606)-84437.5;
-DYNX(X_,77) = DYNX(X_,78)*DYNX(W_,9677);
-DYNX(W_,9656) = DYNX(W_,7783);
-AssertModelica(DYNX(W_,9656) >= 200.0,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9646) = DYNX(W_,9575)-84437.5;
+DYNX(X_,77) = DYNX(X_,78)*DYNX(W_,9646);
+DYNX(W_,9625) = DYNX(W_,7743);
+AssertModelica(DYNX(W_,9625) >= 200.0,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_b.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9656) <= 423.15,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9625) <= 423.15,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_b.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-DYNX(W_,9662) = DYNX(W_,9656)-273.15;
-DYNX(W_,9657) = 1-DYNX(X_,74);
-DYNX(W_,9651) = DYNX(W_,9662)*1006*DYNX(W_,9657)+(2501014.5+DYNX(W_,9662)*1860)*
+DYNX(W_,9631) = DYNX(W_,9625)-273.15;
+DYNX(W_,9626) = 1-DYNX(X_,74);
+DYNX(W_,9620) = DYNX(W_,9631)*1006*DYNX(W_,9626)+(2501014.5+DYNX(W_,9631)*1860)*
DYNX(X_,74);
-DYNX(W_,9658) = DYNX(W_,9651)-84437.5;
-DYNX(X_,75) = DYNX(W_,7803)*DYNX(W_,9658);
+DYNX(W_,9627) = DYNX(W_,9620)-84437.5;
+DYNX(X_,75) = DYNX(W_,7763)*DYNX(W_,9627);
DYNX(X_,15) = DYNX(DP_,362);
DYNX(X_,17) = DYNX(DP_,830);
DYNX(X_,18) = DYNX(DP_,832);
DYNX(X_,19) = DYNX(DP_,834);
-DYNX(X_,22) = DYNX(W_,3099);
-AssertModelica(DYNX(X_,22) >= -1E-05 AND DYNX(X_,22) <= 1.00001,"noEvent(hydraulic.generation.heatPump.port_a2.Xi_outflow[1] >= -1E-05) and noEvent(hydraulic.generation.heatPump.port_a2.Xi_outflow[1] <= 1.00001)",
- StringAdd(StringAdd(StringAdd("Mass fraction X[1] = ",Real2String2(
- DYNX(X_,22), true, 0))," of substance water"),"\nof medium \"AixLib.Media.Air\" is not in the range 0..1"));
-DYNX(W_,9170) = 1-DYNX(X_,22);
-DYNX(W_,9140) = 2481484.5*DYNX(X_,22)-10563.0*DYNX(W_,9170);
-DYNX(W_,9171) = DYNX(W_,9140)-84437.5;
-DYNX(X_,23) = DYNX(W_,3116)*DYNX(W_,9171);
-DYNX(X_,24) = DYNX(DP_,1071);
-DYNX(X_,26) = DYNX(DP_,1090);
-DYNX(X_,28) = DYNX(DP_,1101);
-DYNX(X_,29) = DYNX(DP_,1103);
-DYNX(X_,31) = DYNX(DP_,1118);
-DYNX(X_,32) = DYNX(DP_,1120);
-DYNX(X_,33) = DYNX(DP_,1122);
-DYNX(X_,34) = DYNX(DP_,1124);
-DYNX(X_,36) = DYNX(DP_,1164);
-DYNX(X_,37) = DYNX(DP_,1166);
-DYNX(X_,57) = DYNX(DP_,1263);
-DYNX(X_,58) = DYNX(DP_,1265);
-DYNX(X_,64) = DYNX(DP_,1303);
-DYNX(X_,69) = DYNX(W_,7240);
-DYNX(X_,73) = DYNX(W_,7619);
-DYNX(W_,8386) = DYNX(Aux_,312);
-DYNX(W_,8384) = DYNX(Aux_,313);
+DYNX(X_,24) = DYNX(DP_,1077);
+DYNX(X_,26) = DYNX(DP_,1096);
+DYNX(X_,28) = DYNX(DP_,1107);
+DYNX(X_,29) = DYNX(DP_,1109);
+DYNX(X_,31) = DYNX(DP_,1124);
+DYNX(X_,32) = DYNX(DP_,1126);
+DYNX(X_,33) = DYNX(DP_,1128);
+DYNX(X_,34) = DYNX(DP_,1130);
+DYNX(X_,36) = DYNX(DP_,1170);
+DYNX(X_,37) = DYNX(DP_,1172);
+DYNX(X_,57) = DYNX(DP_,1269);
+DYNX(X_,58) = DYNX(DP_,1271);
+DYNX(X_,64) = DYNX(DP_,1309);
+DYNX(X_,69) = DYNX(W_,7200);
+DYNX(X_,73) = DYNX(W_,7579);
+DYNX(W_,8349) = DYNX(Aux_,313);
+DYNX(W_,8347) = DYNX(Aux_,314);
InitialBoundSection
-DYNX(Aux_,326) = DYNX(DP_,1040);
+DYNX(Aux_,327) = DYNX(DP_,1046);
InitialSection2
-DYNX(W_,8348) = DYNX(Aux_,326);
-DYNX(W_,8385) = DYNX(Aux_,314);
+DYNX(W_,8310) = DYNX(Aux_,327);
+DYNX(W_,8348) = DYNX(Aux_,315);
InitialBoundSection
-DYNX(Aux_,306) = DYNX(DP_,1056);
+DYNX(Aux_,307) = DYNX(DP_,1062);
InitialSection2
-DYNX(W_,8388) = DYNX(Aux_,306);
+DYNX(W_,8351) = DYNX(Aux_,307);
InitialBoundSection
-DYNX(Aux_,328) = DYNX(W_,8311);
+DYNX(Aux_,329) = DYNX(W_,8271);
InitialSection2
-DYNX(W_,8302) = DYNX(Aux_,285);
+DYNX(W_,8262) = DYNX(Aux_,285);
InitialBoundSection
-DYNX(Aux_,286) = DYNX(DP_,1489);
-DYNX(Aux_,293) = DYNX(DP_,1185);
-DYNX(Aux_,297) = DYNX(DP_,1193);
-DYNX(Aux_,304) = DYNX(DP_,1057);
-DYNX(Aux_,317) = DYNX(W_,3340);
-DYNX(Aux_,319) = DYNX(W_,3339);
-DYNX(Aux_,320) = DYNX(DP_,1050);
-DYNX(Aux_,321) = DYNX(DP_,1048);
-DYNX(Aux_,322) = DYNX(DP_,1049);
-DYNX(Aux_,323) = DYNX(DP_,1044);
-DYNX(Aux_,324) = DYNX(DP_,1042);
-DYNX(Aux_,325) = DYNX(DP_,1043);
+DYNX(Aux_,286) = DYNX(DP_,1495);
+DYNX(Aux_,293) = DYNX(DP_,1191);
+DYNX(Aux_,297) = DYNX(DP_,1199);
+DYNX(Aux_,304) = DYNX(DP_,885);
+DYNX(Aux_,305) = DYNX(DP_,1063);
+DYNX(Aux_,318) = DYNX(W_,3311);
+DYNX(Aux_,320) = DYNX(W_,3310);
+DYNX(Aux_,321) = DYNX(DP_,1056);
+DYNX(Aux_,322) = DYNX(DP_,1054);
+DYNX(Aux_,323) = DYNX(DP_,1055);
+DYNX(Aux_,324) = DYNX(DP_,1050);
+DYNX(Aux_,325) = DYNX(DP_,1048);
+DYNX(Aux_,326) = DYNX(DP_,1049);
InitialSection2
-DYNX(W_,8283) = 294.15+(IF LessTime(DYNX(DP_,346), 0) OR DYNX(DP_,345) == 0 OR
- DYNX(DP_,345) > 0 AND DYNX(W_,8311) >= DYNX(DP_,345) THEN 0 ELSE IF LessTime(
- DYNX(W_,8310)+DYNX(W_,1062), 1) THEN DYNX(DP_,342) ELSE 0);
-DYNX(W_,9225) = DYNX(W_,4075)*DYNX(W_,8283)+DYNX(DP_,1137)*DYNX(W_,8507);
-DYNX(W_,9226) = DYNX(DP_,1138)*DYNX(W_,9225);
-DYNX(W_,9227) = DYNX(DP_,1139)*DYNX(W_,9226)+DYNX(DP_,1140)*DYNX(DP_,1142)+
- DYNX(DP_,1141)*DYNX(X_,35);
-DYNX(W_,9228) = DYNX(W_,4076)*DYNX(W_,9227);
-DYNX(W_,9229) = DYNX(DP_,1144)*DYNX(W_,9228)+DYNX(W_,4083)*DYNX(DP_,1143);
-DYNX(Y_,28) = homotopy(IF GreaterS(DYNX(W_,9229),"hydraulic.control.valCtrl.PI[1].limiter.u",
- 1.0,"1.0", 27) THEN 1.0 ELSE IF LessS(DYNX(W_,9229),"hydraulic.control.valCtrl.PI[1].limiter.u",
- DYNX(W_,4078),"hydraulic.control.valCtrl.PI[1].limiter.uMin", 28) THEN
- DYNX(W_,4078) ELSE DYNX(W_,9229), DYNX(W_,9229));
-DYNX(W_,9755) = modulusDymolaTimeEvent(1, 86400,"mod(time, 86400)", 0);
-DYNX(W_,8472) = DYNX(Aux_,286) AND Less(DYNX(W_,9755),"control.hys.u",
- DYNX(W_,8280)+DYNX(W_,8279)/(double)(2),"control.hys.reference+control.hys.bandwidth/2",
- 29) OR Less(DYNX(W_,9755),"control.hys.u", DYNX(W_,8280)-DYNX(W_,8279)/
+DYNX(W_,8243) = 294.15+(IF LessTime(DYNX(DP_,346), 0) OR DYNX(DP_,345) == 0 OR
+ DYNX(DP_,345) > 0 AND DYNX(W_,8271) >= DYNX(DP_,345) THEN 0 ELSE IF LessTime(
+ DYNX(W_,8270)+DYNX(W_,1062), 1) THEN DYNX(DP_,342) ELSE 0);
+DYNX(W_,9194) = DYNX(W_,4035)*DYNX(W_,8243)+DYNX(DP_,1143)*DYNX(W_,8470);
+DYNX(W_,9195) = DYNX(DP_,1144)*DYNX(W_,9194);
+DYNX(W_,9196) = DYNX(DP_,1145)*DYNX(W_,9195)+DYNX(DP_,1146)*DYNX(DP_,1148)+
+ DYNX(DP_,1147)*DYNX(X_,35);
+DYNX(W_,9197) = DYNX(W_,4036)*DYNX(W_,9196);
+DYNX(W_,9198) = DYNX(DP_,1150)*DYNX(W_,9197)+DYNX(W_,4043)*DYNX(DP_,1149);
+DYNX(Y_,28) = homotopy(IF GreaterS(DYNX(W_,9198),"hydraulic.control.valCtrl.PI[1].limiter.u",
+ 1.0,"1.0", 27) THEN 1.0 ELSE IF LessS(DYNX(W_,9198),"hydraulic.control.valCtrl.PI[1].limiter.u",
+ DYNX(W_,4038),"hydraulic.control.valCtrl.PI[1].limiter.uMin", 28) THEN
+ DYNX(W_,4038) ELSE DYNX(W_,9198), DYNX(W_,9198));
+DYNX(W_,9724) = modulusDymolaTimeEvent(1, 86400,"mod(time, 86400)", 0);
+DYNX(W_,8435) = DYNX(Aux_,286) AND Less(DYNX(W_,9724),"control.hys.u",
+ DYNX(W_,8240)+DYNX(W_,8239)/(double)(2),"control.hys.reference+control.hys.bandwidth/2",
+ 29) OR Less(DYNX(W_,9724),"control.hys.u", DYNX(W_,8240)-DYNX(W_,8239)/
(double)(2),"control.hys.reference-control.hys.bandwidth/2", 30);
-DYNX(W_,8440) = IF DYNX(W_,8472) THEN DYNX(W_,8282) ELSE 323.15;
-DYNX(W_,8435) = DYNX(DP_,1194)*DYNX(W_,4210)+DYNX(DP_,1195)*DYNX(W_,8440);
-DYNX(W_,8434) = RealBmin(floorEvent(divGuarded(DYNTime-DYNX(W_,8432),
- "time-hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y",DYNX(DP_,1190),
+DYNX(W_,8403) = IF DYNX(W_,8435) THEN DYNX(W_,8242) ELSE 323.15;
+DYNX(W_,8398) = DYNX(DP_,1200)*DYNX(W_,4170)+DYNX(DP_,1201)*DYNX(W_,8403);
+DYNX(W_,8397) = RealBmin(floorEvent(divGuarded(DYNTime-DYNX(W_,8395),
+ "time-hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y",DYNX(DP_,1196),
"hydraulic.control.buiAndDHWCtr.hysDHW.dtEleHea"),"(time-hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y)/hydraulic.control.buiAndDHWCtr.hysDHW.dtEleHea",
- 31)*DYNX(DP_,1191), 1);
-DYNX(W_,8436) = DYNX(Aux_,297) AND Less(323.15,"323.15", DYNX(W_,8435)+
- DYNX(W_,4209)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
- 32) OR Less(323.15,"323.15", DYNX(W_,8435)-DYNX(W_,4209)/(double)(2),
+ 31)*DYNX(DP_,1197), 1);
+DYNX(W_,8399) = DYNX(Aux_,297) AND Less(323.15,"323.15", DYNX(W_,8398)+
+ DYNX(W_,4169)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
+ 32) OR Less(323.15,"323.15", DYNX(W_,8398)-DYNX(W_,4169)/(double)(2),
"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
33);
-DYNX(W_,8433) = DYNX(W_,8436);
-DYNX(W_,8441) = IF DYNX(W_,8433) THEN DYNX(W_,8434) ELSE 0.0;
-DYNX(W_,8438) = Greater(DYNX(W_,8441),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.u",
- DYNX(DP_,1192),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.threshold", 34);
-DYNX(W_,8431) = Less(323.15,"323.15", DYNX(W_,8440)+DYNX(W_,4204)/(double)(2),
+DYNX(W_,8396) = DYNX(W_,8399);
+DYNX(W_,8404) = IF DYNX(W_,8396) THEN DYNX(W_,8397) ELSE 0.0;
+DYNX(W_,8401) = Greater(DYNX(W_,8404),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.u",
+ DYNX(DP_,1198),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.threshold", 34);
+DYNX(W_,8394) = Less(323.15,"323.15", DYNX(W_,8403)+DYNX(W_,4164)/(double)(2),
"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth/2",
- 35) OR Less(323.15,"323.15", DYNX(W_,8440)-DYNX(W_,4204)/(double)(2),
+ 35) OR Less(323.15,"323.15", DYNX(W_,8403)-DYNX(W_,4164)/(double)(2),
"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth/2",
36);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(37);
-DYNX(W_,8439) = DYNX(W_,8431);
-DYNX(W_,8447) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.orDHW.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8437), 1,
+DYNX(W_,8402) = DYNX(W_,8394);
+DYNX(W_,8410) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.orDHW.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8400), 1,
3)));
PopAllMarks();
-DYNX(W_,8448) = NOT DYNX(W_,8447);
-DYNX(W_,8464) = IF DYNX(W_,8448) THEN 1 ELSE 0;
-DYNX(W_,8457) = RealBmax(0.1*DYNX(W_,5528), homotopy((PushModelContext(1,
+DYNX(W_,8411) = NOT DYNX(W_,8410);
+DYNX(W_,8427) = IF DYNX(W_,8411) THEN 1 ELSE 0;
+DYNX(W_,8420) = RealBmax(0.1*DYNX(W_,5488), homotopy((PushModelContext(1,
"IBPSA.Fluid.Actuators.BaseClasses.equalPercentage(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.y_actual, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.l, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.delta0)")
- IBPSA_Fluid_Actuators_BaseClasses_equalPercentage(DYNX(W_,8464), DYNX(W_,5530),
- DYNX(W_,5528), DYNX(W_,5531))), DYNX(W_,5528)+DYNX(W_,8464)*(1-DYNX(W_,5528))));
+ IBPSA_Fluid_Actuators_BaseClasses_equalPercentage(DYNX(W_,8427), DYNX(W_,5490),
+ DYNX(W_,5488), DYNX(W_,5491))), DYNX(W_,5488)+DYNX(W_,8427)*(1-DYNX(W_,5488))));
PopModelContext();
-DYNX(W_,8458) = 0.010686434104164361*DYNX(W_,8457);
-DYNX(W_,8460) = 1.0-DYNX(W_,8464);
-DYNX(W_,8461) = RealBmax(0.1*DYNX(W_,5565), DYNX(W_,5565)+DYNX(W_,8460)*(1-
- DYNX(W_,5565)));
-DYNX(W_,8462) = 0.010686434104164361*DYNX(W_,8461);
-DYNX(W_,9431) = 273.15+0.0002390057361376673*DYNX(W_,9257);
-DYNX(W_,9250) = IF Less(DYNX(W_,8487),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda",
- DYNX(W_,8283),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax", 37)
+DYNX(W_,8421) = 0.010686434104164361*DYNX(W_,8420);
+DYNX(W_,8423) = 1.0-DYNX(W_,8427);
+DYNX(W_,8424) = RealBmax(0.1*DYNX(W_,5525), DYNX(W_,5525)+DYNX(W_,8423)*(1-
+ DYNX(W_,5525)));
+DYNX(W_,8425) = 0.010686434104164361*DYNX(W_,8424);
+DYNX(W_,9400) = 273.15+0.0002390057361376673*DYNX(W_,9226);
+DYNX(W_,9219) = IF Less(DYNX(W_,8450),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda",
+ DYNX(W_,8243),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax", 37)
THEN (PushModelContext(1,"hydraulic.control.buiAndDHWCtr.TSetBuiSup.heaCur_Unique34(hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda, hydraulic.control.buiAndDHWCtr.TSetBuiSup.THeaThr, hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax, 328.15, 318.15, 262.65, hydraulic.control.buiAndDHWCtr.TSetBuiSup.nHeaTra)")
- hydraulic_control_buiAndDHWCtr_TSetBuiSup_heaCurx_0Unique34(DYNX(W_,8487),
- DYNX(DP_,1189), DYNX(W_,8283), 328.15, 318.15, 262.65, DYNX(W_,4201)))+
- DYNX(DP_,1188) ELSE DYNX(W_,8283)+DYNX(DP_,1188);
+ hydraulic_control_buiAndDHWCtr_TSetBuiSup_heaCurx_0Unique34(DYNX(W_,8450),
+ DYNX(DP_,1195), DYNX(W_,8243), 328.15, 318.15, 262.65, DYNX(W_,4161)))+
+ DYNX(DP_,1194) ELSE DYNX(W_,8243)+DYNX(DP_,1194);
PopModelContext();
-DYNX(W_,9249) = DYNX(DP_,1186)*DYNX(W_,4196)+DYNX(DP_,1187)*DYNX(W_,9250);
-DYNX(W_,8429) = RealBmin(floorEvent(divGuarded(DYNTime-DYNX(W_,8427),
- "time-hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y",DYNX(DP_,1182),
+DYNX(W_,9218) = DYNX(DP_,1192)*DYNX(W_,4156)+DYNX(DP_,1193)*DYNX(W_,9219);
+DYNX(W_,8392) = RealBmin(floorEvent(divGuarded(DYNTime-DYNX(W_,8390),
+ "time-hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y",DYNX(DP_,1188),
"hydraulic.control.buiAndDHWCtr.hysBui.dtEleHea"),"(time-hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y)/hydraulic.control.buiAndDHWCtr.hysBui.dtEleHea",
- 38)*DYNX(DP_,1183), 1);
-DYNX(W_,8430) = DYNX(Aux_,293) AND Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
- DYNX(W_,9249)+DYNX(W_,4195)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
- 39) OR Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
- DYNX(W_,9249)-DYNX(W_,4195)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
+ 38)*DYNX(DP_,1189), 1);
+DYNX(W_,8393) = DYNX(Aux_,293) AND Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
+ DYNX(W_,9218)+DYNX(W_,4155)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
+ 39) OR Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
+ DYNX(W_,9218)-DYNX(W_,4155)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
40);
-DYNX(W_,8428) = DYNX(W_,8430);
-DYNX(W_,8425) = IF DYNX(W_,8428) THEN DYNX(W_,8429) ELSE 0.0;
-DYNX(W_,8443) = DYNX(W_,8438);
-DYNX(W_,8445) = Greater(DYNX(W_,8425),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.u",
- DYNX(DP_,1184),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.threshold", 41);
-DYNX(W_,8423) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.secGenOn.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8443), 1,
+DYNX(W_,8391) = DYNX(W_,8393);
+DYNX(W_,8388) = IF DYNX(W_,8391) THEN DYNX(W_,8392) ELSE 0.0;
+DYNX(W_,8406) = DYNX(W_,8401);
+DYNX(W_,8408) = Greater(DYNX(W_,8388),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.u",
+ DYNX(DP_,1190),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.threshold", 41);
+DYNX(W_,8386) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.secGenOn.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8406), 1,
3)));
PopAllMarks();
-DYNX(W_,8426) = Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_bot",
- DYNX(W_,9250)+DYNX(W_,4190)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
- 42) OR Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_top",
- DYNX(W_,9250)-DYNX(W_,4190)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
+DYNX(W_,8389) = Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_bot",
+ DYNX(W_,9219)+DYNX(W_,4150)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
+ 42) OR Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_top",
+ DYNX(W_,9219)-DYNX(W_,4150)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
43);
-DYNX(W_,8424) = DYNX(W_,8431) OR DYNX(W_,8426);
-DYNX(W_,8422) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.anyGenDevIsOn.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8423), 1,
+DYNX(W_,8387) = DYNX(W_,8394) OR DYNX(W_,8389);
+DYNX(W_,8385) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.anyGenDevIsOn.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8386), 1,
2)));
PopAllMarks();
-DYNX(W_,8394) = IF DYNX(W_,8422) THEN 1 ELSE 0;
+DYNX(W_,8357) = IF DYNX(W_,8385) THEN 1 ELSE 0;
if (DymolaHomotopyLambda==0){
- BreakSectionCallNew(38);
+ BreakSectionCallNew(37);
}
else {
/* Introducing 13 common subexpressions used in 13 expressions */
@@ -16730,94 +16695,94 @@ else {
const double nominal_[]={1000.0, 100000.0, 1000.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 3, 0, 0, 3, -2,
DYNX(DYNhelp,1032), 74, DYNX(did_->helpvari_vec,79), 25);
- SetInitVectorSimple(x__, 1, DYNX(W_,8466), 12, 0);
- SetInitVector(x__, 2, DYNX(W_,8337), DYNX(W_,3912));
- SetInitVectorSimple(x__, 3, DYNX(W_,8465), 14, 0);
+ SetInitVectorSimple(x__, 1, DYNX(W_,8429), 12, 0);
+ SetInitVector(x__, 2, DYNX(W_,8297), DYNX(W_,3872));
+ SetInitVectorSimple(x__, 3, DYNX(W_,8428), 14, 0);
Residues;
- DYNX(W_,8459) = DYNX(W_,8466)+DYNX(W_,3815)-DYNX(W_,8337);
- DYNX(W_,8452) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8459),
- DYNX(W_,8462), DYNX(W_,5550))), 0.00033793471834460447*DYNX(W_,8459));
+ DYNX(W_,8422) = DYNX(W_,8429)+DYNX(W_,3777)-DYNX(W_,8297);
+ DYNX(W_,8415) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8422),
+ DYNX(W_,8425), DYNX(W_,5510))), 0.00033793471834460447*DYNX(W_,8422));
PopModelContext();
- DYNX(W_,8456) = DYNX(W_,8465)+DYNX(W_,3815)-DYNX(W_,8337);
- DYNX(W_,8453) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8456),
- DYNX(W_,8458), DYNX(W_,5513))), 0.00033793471834460447*DYNX(W_,8456));
+ DYNX(W_,8419) = DYNX(W_,8428)+DYNX(W_,3777)-DYNX(W_,8297);
+ DYNX(W_,8416) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8419),
+ DYNX(W_,8421), DYNX(W_,5473))), 0.00033793471834460447*DYNX(W_,8419));
PopModelContext();
- DYNX(W_,8336) = DYNX(W_,8453)+DYNX(W_,8452);
- DYNX(W_,8396) = (-0.0010044335697769957)*DYNX(W_,8336);
- DYNX(DYNhelp,1106) = DYNX(W_,8396)-0.0006788659509969093;
+ DYNX(W_,8296) = DYNX(W_,8416)+DYNX(W_,8415);
+ DYNX(W_,8359) = (-0.0010044335697769957)*DYNX(W_,8296);
+ DYNX(DYNhelp,1106) = DYNX(W_,8359)-0.0006788659509969093;
DYNX(DYNhelp,1107) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0007128092485467548, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0007128092485467548,
- 1, RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
+ 1, RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
0.0009246622435992386, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4),
- (Integer)(DYNX(W_,3693)))))-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006449226534470638, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4),
+ (Integer)(DYNX(W_,3655)))))-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006449226534470638, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006449226534470638,
- 1, RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
+ 1, RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
0.0009246622435992386, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4),
- (Integer)(DYNX(W_,3693)))));
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4),
+ (Integer)(DYNX(W_,3655)))));
PopAllMarks();
- DYNX(W_,8397) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,8396),
- DYNX(W_,8394), RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
+ DYNX(W_,8360) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,8359),
+ DYNX(W_,8357), RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
0.0009246622435992386, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4),
- (Integer)(DYNX(W_,3693))))), DYNX(W_,8394)*((PushModelContext(1,
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4),
+ (Integer)(DYNX(W_,3655))))), DYNX(W_,8357)*((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006788659509969093, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006788659509969093,
- 1, RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
+ 1, RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
0.0009246622435992386, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4),
- (Integer)(DYNX(W_,3693)))))+14730.448603756127*DYNX(DYNhelp,1106)*
- DYNX(DYNhelp,1107)))-1579.6308437062728*DYNX(W_,8396);
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4),
+ (Integer)(DYNX(W_,3655)))))+14730.448603756127*DYNX(DYNhelp,1106)*
+ DYNX(DYNhelp,1107)))-1579.6308437062728*DYNX(W_,8359);
PopAllMarks();
- DYNX(W_,8339) = DYNX(W_,8397)+DYNX(W_,3815);
- DYNX(DYNhelp,1108) = -DYNX(W_,8336);
- DYNX(W_,8346) = homotopy((PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.generation.heatPump.port_a1.m_flow, 0.030225800087031233, 0.03379347183446045)")
+ DYNX(W_,8300) = DYNX(W_,8360)+DYNX(W_,3777);
+ DYNX(DYNhelp,1108) = -DYNX(W_,8296);
+ DYNX(W_,8308) = homotopy((PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.generation.heatPump.port_a1.m_flow, 0.030225800087031233, 0.03379347183446045)")
AixLib_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1108), 0.030225800087031233, 0.03379347183446045)), (
- -369.8939268871833)*DYNX(W_,8336));
+ -369.8939268871833)*DYNX(W_,8296));
PopModelContext();
- DYNX(W_,8340) = DYNX(W_,8339)-DYNX(W_,8346);
- DYNX(W_,8416) = homotopy((PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow( -hydraulic.generation.heatPump.port_b1.m_flow, 0.010686434104164361, 0.03379347183446045)")
+ DYNX(W_,8301) = DYNX(W_,8300)-DYNX(W_,8308);
+ DYNX(W_,8379) = homotopy((PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow( -hydraulic.generation.heatPump.port_b1.m_flow, 0.010686434104164361, 0.03379347183446045)")
AixLib_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1108), 0.010686434104164361, 0.03379347183446045)), (
- -2959.1514150974663)*DYNX(W_,8336));
+ -2959.1514150974663)*DYNX(W_,8296));
PopModelContext();
- DYNX(DYNhelp,1109) = -DYNX(W_,8453);
- DYNX(DYNhelp,1110) = -DYNX(W_,8452);
- SetVector(residue__, 1, DYNX(W_,8416)-DYNX(W_,8340)+DYNX(W_,8337));
- SetVector(residue__, 2, DYNX(W_,8465)-homotopy((PushModelContext(1,
+ DYNX(DYNhelp,1109) = -DYNX(W_,8416);
+ DYNX(DYNhelp,1110) = -DYNX(W_,8415);
+ SetVector(residue__, 1, DYNX(W_,8379)-DYNX(W_,8301)+DYNX(W_,8297));
+ SetVector(residue__, 2, DYNX(W_,8428)-homotopy((PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.distribution.stoBuf.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1109), 0.010686434104164361, 0.10138041550338134)), (
- -2959.1514150974663)*DYNX(W_,8453)));
+ -2959.1514150974663)*DYNX(W_,8416)));
PopModelContext();
- SetVector(residue__, 3, DYNX(W_,8466)-homotopy((PushModelContext(1,
+ SetVector(residue__, 3, DYNX(W_,8429)-homotopy((PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.distribution.stoDHW.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1110), 0.010686434104164361, 0.10138041550338134)), (
- -2959.1514150974663)*DYNX(W_,8452)));
+ -2959.1514150974663)*DYNX(W_,8415)));
PopModelContext();
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
DYNX(DYNhelp,1111) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(
- DYNX(W_,8459), DYNX(W_,8462), DYNX(W_,5550), 1.0)), 0.00033793471834460447);
+ DYNX(W_,8422), DYNX(W_,8425), DYNX(W_,5510), 1.0)), 0.00033793471834460447);
PopModelContext();
- DYNX(DYNhelp,1112) = 14730.448603756127*DYNX(W_,8394)*DYNX(DYNhelp,1107);
+ DYNX(DYNhelp,1112) = 14730.448603756127*DYNX(W_,8357)*DYNX(DYNhelp,1107);
DYNX(DYNhelp,1113) = 0.0010044335697769957*(homotopy((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2, \n1.0, \n0.0, \n{0.0, 0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \nV_flow = {0.0...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,8396),
- DYNX(W_,8394), RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,8359),
+ DYNX(W_,8357), RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
0.0009246622435992386, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(
- DYNX(W_,3693))), 1.0, 0.0, RealTemporaryDense( DymArrays110, 1, 4), 0.0, 0.0,
- DymStruc6_construct(RealTemporaryDense( DymArrays110, 1, 4),
- RealTemporaryDense( DymArrays110, 1, 4), 0))), DYNX(DYNhelp,1112))-
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(
+ DYNX(W_,3655))), 1.0, 0.0, RealTemporaryDense( DymArrays109, 1, 4), 0.0, 0.0,
+ DymStruc6_construct(RealTemporaryDense( DymArrays109, 1, 4),
+ RealTemporaryDense( DymArrays109, 1, 4), 0))), DYNX(DYNhelp,1112))-
1579.6308437062728)+homotopy((PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(hydraulic.generation.heatPump.port_a1.m_flow, 0.030225800087031233, 0.03379347183446045, -1.0)")
AixLib_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flowx_0der(
DYNX(DYNhelp,1108), 0.030225800087031233, 0.03379347183446045, -1.0)),
@@ -16829,7 +16794,7 @@ else {
DYNX(DYNhelp,1114) = DYNX(DYNhelp,1111)*DYNX(DYNhelp,1113);
DYNX(DYNhelp,1115) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(
- DYNX(W_,8456), DYNX(W_,8458), DYNX(W_,5513), 1.0)), 0.00033793471834460447);
+ DYNX(W_,8419), DYNX(W_,8421), DYNX(W_,5473), 1.0)), 0.00033793471834460447);
PopModelContext();
DYNX(DYNhelp,1116) = DYNX(DYNhelp,1115)*DYNX(DYNhelp,1113);
DYNX(DYNhelp,1117) = DYNX(DYNhelp,1115)*homotopy((PushModelContext(1,
@@ -16854,133 +16819,172 @@ else {
SetMatrixLeading(Jacobian__, 3, 2, 3, DYNX(DYNhelp,1118));
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[3]");
- DYNX(W_,8466) = GetVector(x__, 1);
- DYNX(W_,8337) = GetVector(x__, 2);
- DYNX(W_,8465) = GetVector(x__, 3);
+ DYNX(W_,8429) = GetVector(x__, 1);
+ DYNX(W_,8297) = GetVector(x__, 2);
+ DYNX(W_,8428) = GetVector(x__, 3);
EndNonLinearSystemOfEquationsInit(residue__, x__, 3);
/* End of Non-Linear Equation Block */ }
}
-AssertModelica(DYNX(W_,8340) >= 0.0,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,8301) >= 0.0,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8340), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9162), true, 0))," K)"));
-AssertModelica(DYNX(W_,8337) >= 0.0,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.p >= 0.0)",
+ DYNX(W_,8301), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9129), true, 0))," K)"));
+AssertModelica(DYNX(W_,8297) >= 0.0,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8337), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9214), true, 0))," K)"));
-AssertModelica(DYNX(W_,8337) >= 0.0,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.p >= 0.0)",
+ DYNX(W_,8297), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9183), true, 0))," K)"));
+AssertModelica(DYNX(W_,8297) >= 0.0,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8337), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9425), true, 0))," K)"));
-DYNX(W_,8404) = IF DYNX(W_,8397)*DYNX(W_,8396) > 0.0002701169579114276 THEN
- DYNX(W_,8397)*DYNX(W_,8396) ELSE IF DYNX(W_,8397)*DYNX(W_,8396) <
- -0.0002701169579114276 THEN 0 ELSE 0.5*DYNX(W_,8397)*DYNX(W_,8396)-
- 925.5250093627072*DYNX(W_,8397)*DYNX(W_,8396)*(sqr(3702.100037450829*
- DYNX(W_,8397)*DYNX(W_,8396))-3)*DYNX(W_,8397)*DYNX(W_,8396);
-DYNX(W_,8405) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.generation.pump.eff.powEu, \nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.powEuDer, \n0.05)")
+ DYNX(W_,8297), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9394), true, 0))," K)"));
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(38);
+DYNX(W_,8367) = IF DYNX(W_,8360)*DYNX(W_,8359) > 0.0002701169579114276 THEN
+ DYNX(W_,8360)*DYNX(W_,8359) ELSE IF DYNX(W_,8360)*DYNX(W_,8359) <
+ -0.0002701169579114276 THEN 0 ELSE 0.5*DYNX(W_,8360)*DYNX(W_,8359)-
+ 925.5250093627072*DYNX(W_,8360)*DYNX(W_,8359)*(sqr(3702.100037450829*
+ DYNX(W_,8360)*DYNX(W_,8359))-3)*DYNX(W_,8360)*DYNX(W_,8359);
+DYNX(W_,8368) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.generation.pump.eff.powEu, \nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,3770), 1, 11), RealTemporaryDense( &DYNX(W_,3759),
- 1, 11)), DYNX(W_,8396), DYNX(W_,8394), RealTemporaryDense( &DYNX(W_,3781), 1,
- 11), 0.05)), 1473.0448603756129*DYNX(W_,8396)*(PushModelContext(1,
+ RealTemporaryDense( &DYNX(W_,3732), 1, 11), RealTemporaryDense( &DYNX(W_,3721),
+ 1, 11)), DYNX(W_,8359), DYNX(W_,8357), RealTemporaryDense( &DYNX(W_,3743), 1,
+ 11), 0.05)), 1473.0448603756129*DYNX(W_,8359)*(PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.generation.pump.eff.powEu, \n0.0006788659509969093, \n1, \nhydraulic.generation.pump.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,3770), 1, 11), RealTemporaryDense( &DYNX(W_,3759),
- 1, 11)), 0.0006788659509969093, 1, RealTemporaryDense( &DYNX(W_,3781), 1, 11),
+ RealTemporaryDense( &DYNX(W_,3732), 1, 11), RealTemporaryDense( &DYNX(W_,3721),
+ 1, 11)), 0.0006788659509969093, 1, RealTemporaryDense( &DYNX(W_,3743), 1, 11),
0.05)));
PopAllMarks();
-DYNX(W_,8399) = divGuarded(DYNX(W_,8404),"hydraulic.generation.pump.eff.WFlo",
- IF DYNX(W_,8405)-0.0005402339158228551 > 0.0002701169579114276 THEN
- DYNX(W_,8405) ELSE IF DYNX(W_,8405)-0.0005402339158228551 < -0.0002701169579114276
+DYNX(W_,8362) = divGuarded(DYNX(W_,8367),"hydraulic.generation.pump.eff.WFlo",
+ IF DYNX(W_,8368)-0.0005402339158228551 > 0.0002701169579114276 THEN
+ DYNX(W_,8368) ELSE IF DYNX(W_,8368)-0.0005402339158228551 < -0.0002701169579114276
THEN 0.0005402339158228551 ELSE 0.0002701169579114276+925.5250093627072*(
- DYNX(W_,8405)-0.0005402339158228551)*(sqr(3702.100037450829*(DYNX(W_,8405)-
- 0.0005402339158228551))-3)*(0.0005402339158228551-DYNX(W_,8405))+0.5*
- DYNX(W_,8405),"smooth(1, smooth(1, (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 > 0.0002701169579114276) then hydraulic.generation.pump.eff.P_internal else (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 < -0.0002701169579114276) then 0.0005402339158228551 else 0.0002701169579114276+925.5250093627072*((hydraulic.generation.pump.eff.P_internal-0.00054023...");
-DYNX(W_,8407) = IF DYNX(W_,3655) THEN divGuarded(DYNX(W_,8405),"hydraulic.generation.pump.eff.WHyd",
- DYNX(W_,3636),"hydraulic.generation.pump.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,8400) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic, \nhydraulic.generation.pump.eff.yMot, \nhydraulic.generation.pump.eff.motDer_yMot_generic)")
+ DYNX(W_,8368)-0.0005402339158228551)*(sqr(3702.100037450829*(DYNX(W_,8368)-
+ 0.0005402339158228551))-3)*(0.0005402339158228551-DYNX(W_,8368))+0.5*
+ DYNX(W_,8368),"smooth(1, smooth(1, (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 > 0.0002701169579114276) then hydraulic.generation.pump.eff.P_internal else (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 < -0.0002701169579114276) then 0.0005402339158228551 else 0.0002701169579114276+925.5250093627072*((hydraulic.generation.pump.eff.P_internal-0.00054023...");
+DYNX(W_,8370) = IF DYNX(W_,3617) THEN divGuarded(DYNX(W_,8368),"hydraulic.generation.pump.eff.WHyd",
+ DYNX(W_,3598),"hydraulic.generation.pump.eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,8363) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic, \nhydraulic.generation.pump.eff.yMot, \nhydraulic.generation.pump.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,3646), 1, 9),
- RealTemporaryDense( &DYNX(W_,3637), 1, 9)), DYNX(W_,8407), RealTemporaryDense(
- &DYNX(W_,3673), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic, \n1, \nhydraulic.generation.pump.eff.motDer_yMot_generic)")
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,3608), 1, 9),
+ RealTemporaryDense( &DYNX(W_,3599), 1, 9)), DYNX(W_,8370), RealTemporaryDense(
+ &DYNX(W_,3635), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic, \n1, \nhydraulic.generation.pump.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,3646), 1, 9),
- RealTemporaryDense( &DYNX(W_,3637), 1, 9)), 1, RealTemporaryDense(
- &DYNX(W_,3673), 1, 9))));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,3608), 1, 9),
+ RealTemporaryDense( &DYNX(W_,3599), 1, 9)), 1, RealTemporaryDense(
+ &DYNX(W_,3635), 1, 9))));
PopAllMarks();
-DYNX(W_,8398) = DYNX(W_,8399)*DYNX(W_,8400);
-DYNX(W_,8395) = divGuarded(DYNX(W_,8404),"hydraulic.generation.pump.eff.WFlo",
- IF DYNX(W_,8398)-0.01 > 0.001 THEN DYNX(W_,8398) ELSE IF DYNX(W_,8398)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,8398)-0.01)*(sqr(1000.0*(
- DYNX(W_,8398)-0.01))-3)*(0.01-DYNX(W_,8398))+0.5*DYNX(W_,8398),
+DYNX(W_,8361) = DYNX(W_,8362)*DYNX(W_,8363);
+DYNX(W_,8358) = divGuarded(DYNX(W_,8367),"hydraulic.generation.pump.eff.WFlo",
+ IF DYNX(W_,8361)-0.01 > 0.001 THEN DYNX(W_,8361) ELSE IF DYNX(W_,8361)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,8361)-0.01)*(sqr(1000.0*(
+ DYNX(W_,8361)-0.01))-3)*(0.01-DYNX(W_,8361))+0.5*DYNX(W_,8361),
"smooth(1, smooth(1, (if noEvent(hydraulic.generation.pump.eff.eta-0.01 > 0.001) then hydraulic.generation.pump.eff.eta else (if noEvent(hydraulic.generation.pump.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((hydraulic.generation.pump.eff.eta-0.01)*((1000.0*(hydraulic.generation.pump.eff.eta-0.01))^2-3)*(0.01-hydraulic.generation.pump.eff.eta))+0.5*hydraulic.generation.pump.eff.eta))))");
-DYNX(W_,9167) = 273.15+0.0002390057361376673*DYNX(W_,9139);
-DYNX(W_,9202) = 1006.0*(DYNX(W_,8487)-273.15)*(1-DYNX(W_,3436))+(2501014.5+1860*
- (DYNX(W_,8487)-273.15))*DYNX(W_,3436);
-DYNX(W_,9197) = 273.15+divGuarded(DYNX(W_,9202)-2501014.5*DYNX(DP_,1067),
+DYNX(W_,9119) = 0.04841442749939482*DYNX(X_,20);
+DYNX(W_,9110) = 1.0-DYNX(W_,9119);
+DYNX(W_,9134) = 273.15+0.0002390057361376673*DYNX(W_,9102);
+DYNX(W_,9171) = 1006.0*(DYNX(W_,8450)-273.15)*(1-DYNX(W_,3398))+(2501014.5+1860*
+ (DYNX(W_,8450)-273.15))*DYNX(W_,3398);
+DYNX(W_,9164) = 273.15+divGuarded(DYNX(W_,9171)-2501014.5*DYNX(DP_,1073),
"hydraulic.generation.bouEva.ports[1].h_outflow-2501014.5*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]",1006
- *(1-DYNX(DP_,1067))+1860*DYNX(DP_,1067),"1006*(1-hydraulic.generation.bouEva.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]");
-DYNX(W_,9158) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u1, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u2)")
+ *(1-DYNX(DP_,1073))+1860*DYNX(DP_,1073),"1006*(1-hydraulic.generation.bouEva.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]");
+DYNX(W_,9125) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u1, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u2)")
Modelica_Blocks_Tables_Internal_getTable2DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2677))), DYNX(W_,9167), DYNX(W_,9197)));
+ (Integer)(DYNX(W_,2662))), DYNX(W_,9134), DYNX(W_,9164)));
+PopModelContext();
+DYNX(W_,9153) = DYNX(W_,3222)-DYNX(W_,9164);
+DYNX(W_,9154) = DYNX(W_,9164)-DYNX(W_,3223);
+DYNX(W_,9152) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u)")
+ Modelica_Blocks_Tables_Internal_getTable1DValueNoDer2_M(DymStruc0_construct(
+ (Integer)(DYNX(W_,3216))), 1, DYNX(W_,9164)));
PopModelContext();
-DYNX(W_,9186) = DYNX(W_,3249)-DYNX(W_,9197);
-DYNX(W_,9187) = DYNX(W_,9197)-DYNX(W_,3250);
-DYNX(W_,9185) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u)")
+DYNX(W_,9155) = DYNX(W_,9134)-DYNX(W_,9152);
+DYNX(W_,9149) = 273.15+divGuarded(DYNX(W_,9103)-2501014.5*DYNX(X_,22),
+ "hydraulic.generation.heatPump.eva.vol.hOut_internal-2501014.5*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]",1006
+ *(1-DYNX(X_,22))+1860*DYNX(X_,22),"1006*(1-hydraulic.generation.heatPump.port_a2.Xi_outflow[1])+1860*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]");
+DYNX(W_,9157) = DYNX(W_,3272)-DYNX(W_,9149);
+DYNX(W_,9158) = DYNX(W_,9149)-DYNX(W_,3273);
+DYNX(W_,9156) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u)")
Modelica_Blocks_Tables_Internal_getTable1DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3243))), 1, DYNX(W_,9197)));
+ (Integer)(DYNX(W_,3266))), 1, DYNX(W_,9149)));
PopModelContext();
-DYNX(W_,9188) = DYNX(W_,9167)-DYNX(W_,9185);
-DYNX(W_,8449) = DYNX(W_,4291)+DYNX(W_,8440);
-DYNX(W_,9251) = DYNX(W_,4290)+DYNX(W_,9250);
-DYNX(W_,9234) = IF DYNX(W_,8447) THEN DYNX(W_,8449) ELSE DYNX(W_,9251);
-DYNX(W_,9240) = DYNX(W_,9234)+DYNX(DP_,1168)*DYNX(X_,27);
-DYNX(W_,9241) = DYNX(DP_,1169)*DYNX(W_,9240);
-DYNX(W_,9242) = DYNX(DP_,1170)*DYNX(W_,9241);
-DYNX(W_,9243) = 0.3*DYNX(W_,9242);
-DYNX(W_,9244) = DYNX(DP_,1174)*DYNX(W_,9243)+DYNX(W_,4151)*DYNX(DP_,1173);
-DYNX(W_,9238) = IF GreaterS(DYNX(W_,9244),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
- DYNX(W_,4144),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMax", 44) THEN
- DYNX(W_,4144) ELSE IF LessS(DYNX(W_,9244),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
- DYNX(W_,4145),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMin", 45) THEN
- DYNX(W_,4145) ELSE DYNX(W_,9244);
-DYNX(W_,9233) = IF DYNX(W_,8424) THEN DYNX(W_,9238) ELSE DYNX(W_,4166);
-DYNX(W_,9183) = DYNX(W_,9233)*DYNX(W_,8386)+DYNX(W_,3356)*DYNX(W_,8384);
-DYNX(W_,8353) = NOT DYNX(Aux_,324) AND Greater(DYNX(W_,9186),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",
- 0,"0", 46) OR DYNX(Aux_,324) AND GreaterEqual(DYNX(W_,9186),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",
- -0.05,"-0.05", 47);
-DYNX(W_,8350) = DYNX(W_,8353);
-DYNX(W_,8354) = NOT DYNX(Aux_,325) AND Greater(DYNX(W_,9187),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",
- 0,"0", 48) OR DYNX(Aux_,325) AND GreaterEqual(DYNX(W_,9187),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",
+DYNX(W_,9173) = DYNX(W_,9172);
+DYNX(W_,9163) = 273.15+0.0002390057361376673*DYNX(W_,9173);
+DYNX(W_,9159) = DYNX(W_,9156)-DYNX(W_,9163);
+DYNX(W_,8412) = DYNX(W_,4251)+DYNX(W_,8403);
+DYNX(W_,9220) = DYNX(W_,4250)+DYNX(W_,9219);
+DYNX(W_,9203) = IF DYNX(W_,8410) THEN DYNX(W_,8412) ELSE DYNX(W_,9220);
+DYNX(W_,9209) = DYNX(W_,9203)+DYNX(DP_,1174)*DYNX(X_,27);
+DYNX(W_,9210) = DYNX(DP_,1175)*DYNX(W_,9209);
+DYNX(W_,9211) = DYNX(DP_,1176)*DYNX(W_,9210);
+DYNX(W_,9212) = 0.3*DYNX(W_,9211);
+DYNX(W_,9213) = DYNX(DP_,1180)*DYNX(W_,9212)+DYNX(W_,4111)*DYNX(DP_,1179);
+DYNX(W_,9207) = IF GreaterS(DYNX(W_,9213),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
+ DYNX(W_,4104),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMax", 44) THEN
+ DYNX(W_,4104) ELSE IF LessS(DYNX(W_,9213),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
+ DYNX(W_,4105),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMin", 45) THEN
+ DYNX(W_,4105) ELSE DYNX(W_,9213);
+DYNX(W_,9202) = IF DYNX(W_,8387) THEN DYNX(W_,9207) ELSE DYNX(W_,4126);
+DYNX(W_,9150) = DYNX(W_,9202)*DYNX(W_,8349)+DYNX(W_,3327)*DYNX(W_,8347);
+DYNX(W_,8299) = NOT DYNX(Aux_,304) AND Greater(DYNX(W_,9110),"hydraulic.generation.defCtrl.hys.u",
+ DYNX(DP_,884),"hydraulic.generation.defCtrl.hys.uHigh", 46) OR DYNX(Aux_,304)
+ AND GreaterEqual(DYNX(W_,9110),"hydraulic.generation.defCtrl.hys.u",
+ DYNX(W_,2550),"hydraulic.generation.defCtrl.hys.uLow", 47);
+DYNX(W_,8316) = NOT DYNX(Aux_,325) AND Greater(DYNX(W_,9153),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",
+ 0,"0", 48) OR DYNX(Aux_,325) AND GreaterEqual(DYNX(W_,9153),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",
-0.05,"-0.05", 49);
-DYNX(W_,8351) = DYNX(W_,8354);
-DYNX(W_,8355) = NOT DYNX(Aux_,323) AND Greater(DYNX(W_,9188),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u",
- 0,"0", 50) OR DYNX(Aux_,323) AND GreaterEqual(DYNX(W_,9188),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u",
- DYNX(W_,3257),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",
- 51);
-DYNX(W_,8352) = DYNX(W_,8355);
-DYNX(W_,8347) = NOT (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8350), 1,
+DYNX(W_,8313) = DYNX(W_,8316);
+DYNX(W_,8317) = NOT DYNX(Aux_,326) AND Greater(DYNX(W_,9154),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",
+ 0,"0", 50) OR DYNX(Aux_,326) AND GreaterEqual(DYNX(W_,9154),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",
+ -0.05,"-0.05", 51);
+DYNX(W_,8314) = DYNX(W_,8317);
+DYNX(W_,8318) = NOT DYNX(Aux_,324) AND Greater(DYNX(W_,9155),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u",
+ 0,"0", 52) OR DYNX(Aux_,324) AND GreaterEqual(DYNX(W_,9155),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u",
+ DYNX(W_,3230),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",
+ 53);
+DYNX(W_,8315) = DYNX(W_,8318);
+DYNX(W_,8312) = NOT (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8313), 1,
+ 3)));
+PopAllMarks();
+DYNX(W_,8323) = NOT DYNX(Aux_,322) AND Greater(DYNX(W_,9157),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u",
+ 0,"0", 54) OR DYNX(Aux_,322) AND GreaterEqual(DYNX(W_,9157),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u",
+ -0.05,"-0.05", 55);
+DYNX(W_,8320) = DYNX(W_,8323);
+DYNX(W_,8324) = NOT DYNX(Aux_,323) AND Greater(DYNX(W_,9158),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u",
+ 0,"0", 56) OR DYNX(Aux_,323) AND GreaterEqual(DYNX(W_,9158),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u",
+ -0.05,"-0.05", 57);
+DYNX(W_,8321) = DYNX(W_,8324);
+DYNX(W_,8325) = NOT DYNX(Aux_,321) AND Greater(DYNX(W_,9159),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u",
+ 0,"0", 58) OR DYNX(Aux_,321) AND GreaterEqual(DYNX(W_,9159),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u",
+ DYNX(W_,3280),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow",
+ 59);
+DYNX(W_,8322) = DYNX(W_,8325);
+DYNX(W_,8319) = NOT (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8320), 1,
3)));
PopAllMarks();
-DYNX(W_,9184) = IF DYNX(W_,8347) THEN DYNX(W_,9183) ELSE 0.0;
-DYNX(W_,8390) = Greater( -DYNX(W_,8336),"hydraulic.generation.heatPump.port_a1.m_flow",
- DYNX(W_,3372),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh",
- 52);
-DYNX(W_,8391) = DYNX(W_,3442) > DYNX(W_,3375);
-DYNX(W_,8387) = DYNX(W_,8390) AND DYNX(W_,8391);
-DYNX(W_,9195) = IF DYNX(W_,8387) THEN DYNX(W_,9184) ELSE 0.0;
-DYNX(W_,9160) = DYNX(W_,9195)*DYNX(W_,2736);
-DYNX(Y_,14) = DYNX(W_,9158)*DYNX(W_,9160);
-DYNX(W_,8446) = RealBmax(RealBmax(DYNX(W_,8425), DYNX(W_,8441)), 0.0);
-DYNX(W_,8451) = IF DYNX(W_,8423) THEN DYNX(W_,8446) ELSE 0.0;
-DYNX(Y_,19) = DYNX(W_,3970)*DYNX(W_,8451);
-DYNX(Y_,21) = DYNX(W_,3968)*DYNX(Y_,19);
-DYNX(W_,9131) = DYNX(DP_,1093)*DYNX(W_,8395)+DYNX(DP_,1094)*DYNX(Y_,14)+
- DYNX(DP_,1095)*DYNX(Y_,21);
-DYNX(W_,9598) = 1.1843079200592153E-05*DYNX(W_,9536);
+DYNX(W_,8309) = IF DYNX(W_,8299) THEN DYNX(W_,8312) ELSE DYNX(W_,8319);
+DYNX(W_,9151) = IF DYNX(W_,8309) THEN DYNX(W_,9150) ELSE 0.0;
+DYNX(W_,8353) = Greater( -DYNX(W_,8296),"hydraulic.generation.heatPump.port_a1.m_flow",
+ DYNX(W_,3342),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh",
+ 60);
+DYNX(W_,8354) = DYNX(W_,3404) > DYNX(W_,3345);
+DYNX(W_,8350) = DYNX(W_,8353) AND DYNX(W_,8354);
+DYNX(W_,9162) = IF DYNX(W_,8350) THEN DYNX(W_,9151) ELSE 0.0;
+DYNX(W_,9127) = DYNX(W_,9162)*DYNX(W_,2721);
+DYNX(W_,9109) = DYNX(W_,9125)*DYNX(W_,9127);
+DYNX(Y_,14) = IF DYNX(W_,8299) THEN DYNX(W_,9109) ELSE DYNX(W_,2845);
+DYNX(W_,8409) = RealBmax(RealBmax(DYNX(W_,8388), DYNX(W_,8404)), 0.0);
+DYNX(W_,8414) = IF DYNX(W_,8386) THEN DYNX(W_,8409) ELSE 0.0;
+DYNX(Y_,19) = DYNX(W_,3930)*DYNX(W_,8414);
+DYNX(Y_,21) = DYNX(W_,3928)*DYNX(Y_,19);
+DYNX(W_,9094) = DYNX(DP_,1099)*DYNX(W_,8358)+DYNX(DP_,1100)*DYNX(Y_,14)+
+ DYNX(DP_,1101)*DYNX(Y_,21);
+DYNX(W_,9567) = 1.1843079200592153E-05*DYNX(W_,9505);
if (DymolaHomotopyLambda==0){
BreakSectionCallNew(39);
}
@@ -16995,55 +16999,55 @@ else {
const double nominal_[]={100000.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 5, -2,
DYNX(DYNhelp,1158), 35, DYNX(did_->helpvari_vec,127), 23);
- SetInitVector(x__, 1, DYNX(W_,9533), DYNX(W_,6888));
+ SetInitVector(x__, 1, DYNX(W_,9502), DYNX(W_,6848));
Residues;
- DYNX(W_,9690) = DYNX(W_,9533)-DYNX(W_,8511);
- DYNX(W_,8510) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.distribution.resSup[1].dp, 0.010888888888888889, 0.03266666666666667)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9690),
+ DYNX(W_,9659) = DYNX(W_,9502)-DYNX(W_,8474);
+ DYNX(W_,8473) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.distribution.resSup[1].dp, 0.010888888888888889, 0.03266666666666667)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9659),
0.010888888888888889, 0.03266666666666667));
PopModelContext();
- DYNX(DYNhelp,1193) = divinvGuarded(DYNX(W_,9598),"ventilation.generation.fanFlow.eff.rho");
- DYNX(W_,9576) = DYNX(DYNhelp,1193)*DYNX(W_,8510);
- DYNX(DYNhelp,1194) = DYNX(W_,9576)-0.1814814814814815;
+ DYNX(DYNhelp,1193) = divinvGuarded(DYNX(W_,9567),"ventilation.generation.fanFlow.eff.rho");
+ DYNX(W_,9545) = DYNX(DYNhelp,1193)*DYNX(W_,8473);
+ DYNX(DYNhelp,1194) = DYNX(W_,9545)-0.1814814814814815;
DYNX(DYNhelp,1195) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1905555555555556,
- 1, RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121),
- 1, 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))))
+ 1, RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081),
+ 1, 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))))
-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1724074074074074, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1724074074074074,
- 1, RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121),
- 1, 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))));
+ 1, RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081),
+ 1, 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))));
PopAllMarks();
- DYNX(W_,9577) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9576),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7147), 1, 3),
+ DYNX(W_,9546) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9545),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7107), 1, 3),
224.00000000000003, 0.1814814814814815, DymStruc6_construct(
- RealTemporaryDense( &DYNX(W_,7121), 1, 3), RealTemporaryDense(
- &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120))))), DYNX(DP_,1371)*(
+ RealTemporaryDense( &DYNX(W_,7081), 1, 3), RealTemporaryDense(
+ &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080))))), DYNX(DP_,1377)*(
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1814814814814815,
- 1, RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121),
- 1, 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))))
+ 1, RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081),
+ 1, 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))))
+55.10204081632653*DYNX(DYNhelp,1194)*DYNX(DYNhelp,1195)))-
- 0.30857142857142866*DYNX(W_,9576);
+ 0.30857142857142866*DYNX(W_,9545);
PopAllMarks();
- SetVector(residue__, 1, DYNX(W_,9577)-DYNX(W_,9533)+DYNX(W_,9536));
+ SetVector(residue__, 1, DYNX(W_,9546)-DYNX(W_,9502)+DYNX(W_,9505));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
- DYNX(DYNhelp,1196) = DYNX(DP_,1371)*DYNX(DYNhelp,1195);
+ DYNX(DYNhelp,1196) = DYNX(DP_,1377)*DYNX(DYNhelp,1195);
SetMatrixLeading(Jacobian__, 1, 1, 1, DYNX(DYNhelp,1193)*(PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.distribution.resSup[1].dp, 0.010888888888888889, 0.03266666666666667, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(
- DYNX(W_,9690), 0.010888888888888889, 0.03266666666666667, 1.0))*(homotopy(
+ DYNX(W_,9659), 0.010888888888888889, 0.03266666666666667, 1.0))*(homotopy(
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1, \n1.0, \n0.0, \n{0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \n...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9576),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121),
- 1, 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120))),
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9545),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081),
+ 1, 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080))),
1.0, 0.0, RealTemporaryDense( DymArrays41, 1, 3), 0.0, 0.0,
DymStruc6_construct(RealTemporaryDense( DymArrays41, 1, 3), RealTemporaryDense(
DymArrays41, 1, 3), 0))), 55.10204081632653*DYNX(DYNhelp,1196))-
@@ -17051,55 +17055,55 @@ else {
PopAllMarks();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[4]");
- DYNX(W_,9533) = GetVector(x__, 1);
+ DYNX(W_,9502) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 5);
/* End of Non-Linear Equation Block */ }
}
-DYNX(W_,9600) = IF DYNX(W_,9577)*DYNX(W_,9576) > 0.0020325925925925932 THEN
- DYNX(W_,9577)*DYNX(W_,9576) ELSE IF DYNX(W_,9577)*DYNX(W_,9576) <
- -0.0020325925925925932 THEN 0 ELSE 0.5*DYNX(W_,9577)*DYNX(W_,9576)-
- 122.99562682215739*DYNX(W_,9577)*DYNX(W_,9576)*(sqr(491.98250728862956*
- DYNX(W_,9577)*DYNX(W_,9576))-3)*DYNX(W_,9577)*DYNX(W_,9576);
-DYNX(W_,9601) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanFlow.eff.powEu, \nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.powEuDer, \n0.05)")
+DYNX(W_,9569) = IF DYNX(W_,9546)*DYNX(W_,9545) > 0.0020325925925925932 THEN
+ DYNX(W_,9546)*DYNX(W_,9545) ELSE IF DYNX(W_,9546)*DYNX(W_,9545) <
+ -0.0020325925925925932 THEN 0 ELSE 0.5*DYNX(W_,9546)*DYNX(W_,9545)-
+ 122.99562682215739*DYNX(W_,9546)*DYNX(W_,9545)*(sqr(491.98250728862956*
+ DYNX(W_,9546)*DYNX(W_,9545))-3)*DYNX(W_,9546)*DYNX(W_,9545);
+DYNX(W_,9570) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanFlow.eff.powEu, \nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,7204), 1, 11), RealTemporaryDense( &DYNX(W_,7193),
- 1, 11)), DYNX(W_,9576), DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7215), 1,
- 11), 0.05)), 5.5102040816326525*DYNX(W_,9576)*(PushModelContext(1,
+ RealTemporaryDense( &DYNX(W_,7164), 1, 11), RealTemporaryDense( &DYNX(W_,7153),
+ 1, 11)), DYNX(W_,9545), DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7175), 1,
+ 11), 0.05)), 5.5102040816326525*DYNX(W_,9545)*(PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanFlow.eff.powEu, \n0.1814814814814815, \n1, \nventilation.generation.fanFlow.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,7204), 1, 11), RealTemporaryDense( &DYNX(W_,7193),
- 1, 11)), 0.1814814814814815, 1, RealTemporaryDense( &DYNX(W_,7215), 1, 11),
+ RealTemporaryDense( &DYNX(W_,7164), 1, 11), RealTemporaryDense( &DYNX(W_,7153),
+ 1, 11)), 0.1814814814814815, 1, RealTemporaryDense( &DYNX(W_,7175), 1, 11),
0.05)));
PopAllMarks();
-DYNX(W_,9579) = divGuarded(DYNX(W_,9600),"ventilation.generation.fanFlow.eff.WFlo",
- IF DYNX(W_,9601)-0.0040651851851851864 > 0.0020325925925925932 THEN
- DYNX(W_,9601) ELSE IF DYNX(W_,9601)-0.0040651851851851864 < -0.0020325925925925932
+DYNX(W_,9548) = divGuarded(DYNX(W_,9569),"ventilation.generation.fanFlow.eff.WFlo",
+ IF DYNX(W_,9570)-0.0040651851851851864 > 0.0020325925925925932 THEN
+ DYNX(W_,9570) ELSE IF DYNX(W_,9570)-0.0040651851851851864 < -0.0020325925925925932
THEN 0.0040651851851851864 ELSE 0.0020325925925925932+122.99562682215739*(
- DYNX(W_,9601)-0.0040651851851851864)*(sqr(491.98250728862956*(DYNX(W_,9601)-
- 0.0040651851851851864))-3)*(0.0040651851851851864-DYNX(W_,9601))+0.5*
- DYNX(W_,9601),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 > 0.0020325925925925932) then ventilation.generation.fanFlow.eff.P_internal else (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 < -0.0020325925925925932) then 0.0040651851851851864 else 0.0020325925925925932+122.99562682215739*((ventilation.generation.fanFlow.eff....");
-DYNX(W_,9603) = IF DYNX(W_,7090) THEN divGuarded(DYNX(W_,9601),"ventilation.generation.fanFlow.eff.WHyd",
- DYNX(W_,7071),"ventilation.generation.fanFlow.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9580) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanFlow.eff.yMot, \nventilation.generation.fanFlow.eff.motDer_yMot_generic)")
+ DYNX(W_,9570)-0.0040651851851851864)*(sqr(491.98250728862956*(DYNX(W_,9570)-
+ 0.0040651851851851864))-3)*(0.0040651851851851864-DYNX(W_,9570))+0.5*
+ DYNX(W_,9570),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 > 0.0020325925925925932) then ventilation.generation.fanFlow.eff.P_internal else (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 < -0.0020325925925925932) then 0.0040651851851851864 else 0.0020325925925925932+122.99562682215739*((ventilation.generation.fanFlow.eff....");
+DYNX(W_,9572) = IF DYNX(W_,7050) THEN divGuarded(DYNX(W_,9570),"ventilation.generation.fanFlow.eff.WHyd",
+ DYNX(W_,7031),"ventilation.generation.fanFlow.eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,9549) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanFlow.eff.yMot, \nventilation.generation.fanFlow.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7081), 1, 9),
- RealTemporaryDense( &DYNX(W_,7072), 1, 9)), DYNX(W_,9603), RealTemporaryDense(
- &DYNX(W_,7107), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic, \n1, \nventilation.generation.fanFlow.eff.motDer_yMot_generic)")
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7041), 1, 9),
+ RealTemporaryDense( &DYNX(W_,7032), 1, 9)), DYNX(W_,9572), RealTemporaryDense(
+ &DYNX(W_,7067), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic, \n1, \nventilation.generation.fanFlow.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7081), 1, 9),
- RealTemporaryDense( &DYNX(W_,7072), 1, 9)), 1, RealTemporaryDense(
- &DYNX(W_,7107), 1, 9))));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7041), 1, 9),
+ RealTemporaryDense( &DYNX(W_,7032), 1, 9)), 1, RealTemporaryDense(
+ &DYNX(W_,7067), 1, 9))));
PopAllMarks();
-DYNX(W_,9578) = DYNX(W_,9579)*DYNX(W_,9580);
-DYNX(Y_,34) = divGuarded(DYNX(W_,9600),"ventilation.generation.fanFlow.eff.WFlo",
- IF DYNX(W_,9578)-0.01 > 0.001 THEN DYNX(W_,9578) ELSE IF DYNX(W_,9578)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9578)-0.01)*(sqr(1000.0*(
- DYNX(W_,9578)-0.01))-3)*(0.01-DYNX(W_,9578))+0.5*DYNX(W_,9578),
+DYNX(W_,9547) = DYNX(W_,9548)*DYNX(W_,9549);
+DYNX(Y_,34) = divGuarded(DYNX(W_,9569),"ventilation.generation.fanFlow.eff.WFlo",
+ IF DYNX(W_,9547)-0.01 > 0.001 THEN DYNX(W_,9547) ELSE IF DYNX(W_,9547)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9547)-0.01)*(sqr(1000.0*(
+ DYNX(W_,9547)-0.01))-3)*(0.01-DYNX(W_,9547))+0.5*DYNX(W_,9547),
"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanFlow.eff.eta-0.01 > 0.001) then ventilation.generation.fanFlow.eff.eta else (if noEvent(ventilation.generation.fanFlow.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((ventilation.generation.fanFlow.eff.eta-0.01)*((1000.0*(ventilation.generation.fanFlow.eff.eta-0.01))^2-3)*(0.01-ventilation.generation.fanFlow.eff.eta))+0.5*ventilation...");
-DYNX(W_,9617) = DYNX(W_,9605)-DYNX(W_,9532);
+DYNX(W_,9586) = DYNX(W_,9574)-DYNX(W_,9501);
if (DymolaHomotopyLambda==0){
BreakSectionCallNew(40);
}
@@ -17113,32 +17117,32 @@ else {
const double nominal_[]={1.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 6, -2,
DYNX(DYNhelp,1198), 35, DYNX(did_->helpvari_vec,150), 23);
- SetInitVectorSimple(x__, 1, DYNX(W_,9616), 16, 0);
+ SetInitVectorSimple(x__, 1, DYNX(W_,9585), 16, 0);
Residues;
- DYNX(DYNhelp,1233) = DYNX(W_,9616)-0.1814814814814815;
+ DYNX(DYNhelp,1233) = DYNX(W_,9585)-0.1814814814814815;
PopAllMarks();
DYNX(DYNhelp,1234) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1905555555555556, 1,
- RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))))-
+ RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))))-
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1724074074074074, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1724074074074074, 1,
- RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))));
+ RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))));
PopAllMarks();
- SetVector(residue__, 1, 0.925714285714286*DYNX(W_,9616)+DYNX(W_,9617)-homotopy
+ SetVector(residue__, 1, 0.925714285714286*DYNX(W_,9585)+DYNX(W_,9586)-homotopy
((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9616),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499),
- 1, 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498))))),
- DYNX(DP_,1371)*((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9585),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459),
+ 1, 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458))))),
+ DYNX(DP_,1377)*((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1814814814814815, 1,
- RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))))+
+ RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))))+
55.10204081632653*DYNX(DYNhelp,1233)*DYNX(DYNhelp,1234))));
PopAllMarks();
@@ -17146,412 +17150,412 @@ else {
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, 0.925714285714286-homotopy(
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1, \n1.0, \n0.0, \n{0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \nV_flo...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9616),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499),
- 1, 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498))),
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9585),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459),
+ 1, 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458))),
1.0, 0.0, RealTemporaryDense( DymArrays41, 1, 3), 0.0, 0.0,
DymStruc6_construct(RealTemporaryDense( DymArrays41, 1, 3), RealTemporaryDense(
- DymArrays41, 1, 3), 0))), 55.10204081632653*DYNX(DP_,1371)*DYNX(DYNhelp,1234)));
+ DymArrays41, 1, 3), 0))), 55.10204081632653*DYNX(DP_,1377)*DYNX(DYNhelp,1234)));
PopAllMarks();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[5]");
- DYNX(W_,9616) = GetVector(x__, 1);
+ DYNX(W_,9585) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 6);
/* End of Non-Linear Equation Block */ }
}
-DYNX(W_,9640) = IF DYNX(W_,9617)*DYNX(W_,9616) > 0.00609777777777778 THEN
- DYNX(W_,9617)*DYNX(W_,9616) ELSE IF DYNX(W_,9617)*DYNX(W_,9616) <
- -0.00609777777777778 THEN 0 ELSE 0.5*DYNX(W_,9617)*DYNX(W_,9616)-
- 40.99854227405246*DYNX(W_,9617)*DYNX(W_,9616)*(sqr(163.99416909620984*
- DYNX(W_,9617)*DYNX(W_,9616))-3)*DYNX(W_,9617)*DYNX(W_,9616);
-DYNX(W_,9641) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanRet.eff.powEu, \nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.powEuDer, \n0.05)")
+DYNX(W_,9609) = IF DYNX(W_,9586)*DYNX(W_,9585) > 0.00609777777777778 THEN
+ DYNX(W_,9586)*DYNX(W_,9585) ELSE IF DYNX(W_,9586)*DYNX(W_,9585) <
+ -0.00609777777777778 THEN 0 ELSE 0.5*DYNX(W_,9586)*DYNX(W_,9585)-
+ 40.99854227405246*DYNX(W_,9586)*DYNX(W_,9585)*(sqr(163.99416909620984*
+ DYNX(W_,9586)*DYNX(W_,9585))-3)*DYNX(W_,9586)*DYNX(W_,9585);
+DYNX(W_,9610) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanRet.eff.powEu, \nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,7582), 1, 11), RealTemporaryDense( &DYNX(W_,7571),
- 1, 11)), DYNX(W_,9616), DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7593), 1,
- 11), 0.05)), 5.5102040816326525*DYNX(W_,9616)*(PushModelContext(1,
+ RealTemporaryDense( &DYNX(W_,7542), 1, 11), RealTemporaryDense( &DYNX(W_,7531),
+ 1, 11)), DYNX(W_,9585), DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7553), 1,
+ 11), 0.05)), 5.5102040816326525*DYNX(W_,9585)*(PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanRet.eff.powEu, \n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,7582), 1, 11), RealTemporaryDense( &DYNX(W_,7571),
- 1, 11)), 0.1814814814814815, 1, RealTemporaryDense( &DYNX(W_,7593), 1, 11),
+ RealTemporaryDense( &DYNX(W_,7542), 1, 11), RealTemporaryDense( &DYNX(W_,7531),
+ 1, 11)), 0.1814814814814815, 1, RealTemporaryDense( &DYNX(W_,7553), 1, 11),
0.05)));
PopAllMarks();
-DYNX(W_,9619) = divGuarded(DYNX(W_,9640),"ventilation.generation.fanRet.eff.WFlo",
- IF DYNX(W_,9641)-0.01219555555555556 > 0.00609777777777778 THEN DYNX(W_,9641)
- ELSE IF DYNX(W_,9641)-0.01219555555555556 < -0.00609777777777778 THEN
- 0.01219555555555556 ELSE 0.00609777777777778+40.99854227405246*(DYNX(W_,9641)-
- 0.01219555555555556)*(sqr(163.99416909620984*(DYNX(W_,9641)-0.01219555555555556))
- -3)*(0.01219555555555556-DYNX(W_,9641))+0.5*DYNX(W_,9641),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 > 0.00609777777777778) then ventilation.generation.fanRet.eff.P_internal else (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 < -0.00609777777777778) then 0.01219555555555556 else 0.00609777777777778+40.99854227405246*((ventilation.generation.fanRet.eff.P_internal-0.0121...");
-DYNX(W_,9643) = IF DYNX(W_,7468) THEN divGuarded(DYNX(W_,9641),"ventilation.generation.fanRet.eff.WHyd",
- DYNX(W_,7449),"ventilation.generation.fanRet.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9620) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanRet.eff.yMot, \nventilation.generation.fanRet.eff.motDer_yMot_generic)")
+DYNX(W_,9588) = divGuarded(DYNX(W_,9609),"ventilation.generation.fanRet.eff.WFlo",
+ IF DYNX(W_,9610)-0.01219555555555556 > 0.00609777777777778 THEN DYNX(W_,9610)
+ ELSE IF DYNX(W_,9610)-0.01219555555555556 < -0.00609777777777778 THEN
+ 0.01219555555555556 ELSE 0.00609777777777778+40.99854227405246*(DYNX(W_,9610)-
+ 0.01219555555555556)*(sqr(163.99416909620984*(DYNX(W_,9610)-0.01219555555555556))
+ -3)*(0.01219555555555556-DYNX(W_,9610))+0.5*DYNX(W_,9610),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 > 0.00609777777777778) then ventilation.generation.fanRet.eff.P_internal else (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 < -0.00609777777777778) then 0.01219555555555556 else 0.00609777777777778+40.99854227405246*((ventilation.generation.fanRet.eff.P_internal-0.0121...");
+DYNX(W_,9612) = IF DYNX(W_,7428) THEN divGuarded(DYNX(W_,9610),"ventilation.generation.fanRet.eff.WHyd",
+ DYNX(W_,7409),"ventilation.generation.fanRet.eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,9589) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanRet.eff.yMot, \nventilation.generation.fanRet.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7459), 1, 9),
- RealTemporaryDense( &DYNX(W_,7450), 1, 9)), DYNX(W_,9643), RealTemporaryDense(
- &DYNX(W_,7485), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic, \n1, \nventilation.generation.fanRet.eff.motDer_yMot_generic)")
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7419), 1, 9),
+ RealTemporaryDense( &DYNX(W_,7410), 1, 9)), DYNX(W_,9612), RealTemporaryDense(
+ &DYNX(W_,7445), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic, \n1, \nventilation.generation.fanRet.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7459), 1, 9),
- RealTemporaryDense( &DYNX(W_,7450), 1, 9)), 1, RealTemporaryDense(
- &DYNX(W_,7485), 1, 9))));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7419), 1, 9),
+ RealTemporaryDense( &DYNX(W_,7410), 1, 9)), 1, RealTemporaryDense(
+ &DYNX(W_,7445), 1, 9))));
PopAllMarks();
-DYNX(W_,9618) = DYNX(W_,9619)*DYNX(W_,9620);
-DYNX(Y_,35) = divGuarded(DYNX(W_,9640),"ventilation.generation.fanRet.eff.WFlo",
- IF DYNX(W_,9618)-0.01 > 0.001 THEN DYNX(W_,9618) ELSE IF DYNX(W_,9618)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9618)-0.01)*(sqr(1000.0*(
- DYNX(W_,9618)-0.01))-3)*(0.01-DYNX(W_,9618))+0.5*DYNX(W_,9618),
+DYNX(W_,9587) = DYNX(W_,9588)*DYNX(W_,9589);
+DYNX(Y_,35) = divGuarded(DYNX(W_,9609),"ventilation.generation.fanRet.eff.WFlo",
+ IF DYNX(W_,9587)-0.01 > 0.001 THEN DYNX(W_,9587) ELSE IF DYNX(W_,9587)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9587)-0.01)*(sqr(1000.0*(
+ DYNX(W_,9587)-0.01))-3)*(0.01-DYNX(W_,9587))+0.5*DYNX(W_,9587),
"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanRet.eff.eta-0.01 > 0.001) then ventilation.generation.fanRet.eff.eta else (if noEvent(ventilation.generation.fanRet.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((ventilation.generation.fanRet.eff.eta-0.01)*((1000.0*(ventilation.generation.fanRet.eff.eta-0.01))^2-3)*(0.01-ventilation.generation.fanRet.eff.eta))+0.5*ventilation.gener...");
-DYNX(W_,9132) = DYNX(DP_,1447)*DYNX(Y_,34)+DYNX(DP_,1448)*DYNX(Y_,35);
-DYNX(W_,8638) = -DYNX(W_,572)*DYNX(W_,8640);
-DYNX(W_,9006) = -(DYNX(W_,8638)+DYNX(W_,8639));
-DYNX(W_,8632) = -DYNX(W_,551)*DYNX(W_,8634);
-DYNX(W_,9007) = -(DYNX(W_,8633)+DYNX(W_,8632));
-DYNX(W_,9005) = DYNX(W_,9006)+DYNX(W_,9007);
-DYNX(W_,8509) = DYNX(W_,933)*DYNX(W_,9005);
-DYNX(W_,9125) = DYNX(W_,9131)+DYNX(W_,9132)+DYNX(W_,8509);
-DYNX(W_,8320) = IF DYNX(W_,2240) THEN DYNX(W_,8314)-DYNX(W_,8321)+DYNX(W_,2239)
- ELSE DYNX(W_,8314);
-DYNX(W_,8322) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8320)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.calTimAux)");
-DYNX(W_,9082) = IF DYNX(W_,2233) THEN DYNX(W_,9069)-DYNX(W_,8315)+DYNX(W_,2232)
- ELSE DYNX(W_,9069);
-DYNX(W_,9083) = DYNX(W_,9082)-470.5631344194285;
-DYNX(W_,8317) = IF DYNX(W_,2238) THEN DYNX(W_,8314)-DYNX(W_,8318)+DYNX(W_,2237)
- ELSE DYNX(W_,8314);
-DYNX(W_,8319) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8317)+86400)
+DYNX(W_,9095) = DYNX(DP_,1453)*DYNX(Y_,34)+DYNX(DP_,1454)*DYNX(Y_,35);
+DYNX(W_,8601) = -DYNX(W_,572)*DYNX(W_,8603);
+DYNX(W_,8969) = -(DYNX(W_,8601)+DYNX(W_,8602));
+DYNX(W_,8595) = -DYNX(W_,551)*DYNX(W_,8597);
+DYNX(W_,8970) = -(DYNX(W_,8596)+DYNX(W_,8595));
+DYNX(W_,8968) = DYNX(W_,8969)+DYNX(W_,8970);
+DYNX(W_,8472) = DYNX(W_,933)*DYNX(W_,8968);
+DYNX(W_,9088) = DYNX(W_,9094)+DYNX(W_,9095)+DYNX(W_,8472);
+DYNX(W_,8280) = IF DYNX(W_,2240) THEN DYNX(W_,8274)-DYNX(W_,8281)+DYNX(W_,2239)
+ ELSE DYNX(W_,8274);
+DYNX(W_,8282) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8280)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.calTimAux)");
+DYNX(W_,9045) = IF DYNX(W_,2233) THEN DYNX(W_,9032)-DYNX(W_,8275)+DYNX(W_,2232)
+ ELSE DYNX(W_,9032);
+DYNX(W_,9046) = DYNX(W_,9045)-470.5631344194285;
+DYNX(W_,8277) = IF DYNX(W_,2238) THEN DYNX(W_,8274)-DYNX(W_,8278)+DYNX(W_,2237)
+ ELSE DYNX(W_,8274);
+DYNX(W_,8279) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8277)+86400)
-81);
-DYNX(W_,8316) = 60*(9.87*sin(2*DYNX(W_,8319))-7.53*cos(DYNX(W_,8319))-1.5*sin(
- DYNX(W_,8319)));
-DYNX(W_,9080) = DYNX(W_,9083)+DYNX(W_,8316);
-DYNX(W_,9081) = 0.2617993877991494*(DYNX(W_,9080)/(double)(3600)-12);
-DYNX(W_,9087) = acosGuarded(0.6124088231015443*cos(DYNX(W_,8322))*cos(
- DYNX(W_,9081))+0.7905412281389133*sin(DYNX(W_,8322)),"0.6124088231015443*(cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)");
-DYNX(W_,9079) = IF LessEqual(DYNX(W_,9087),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.zen",
- 1.5707963267948966,"1.5707963267948966", 53) THEN DYNX(W_,9087) ELSE
+DYNX(W_,8276) = 60*(9.87*sin(2*DYNX(W_,8279))-7.53*cos(DYNX(W_,8279))-1.5*sin(
+ DYNX(W_,8279)));
+DYNX(W_,9043) = DYNX(W_,9046)+DYNX(W_,8276);
+DYNX(W_,9044) = 0.2617993877991494*(DYNX(W_,9043)/(double)(3600)-12);
+DYNX(W_,9050) = acosGuarded(0.6124088231015443*cos(DYNX(W_,8282))*cos(
+ DYNX(W_,9044))+0.7905412281389133*sin(DYNX(W_,8282)),"0.6124088231015443*(cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)");
+DYNX(W_,9042) = IF LessEqual(DYNX(W_,9050),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.zen",
+ 1.5707963267948966,"1.5707963267948966", 61) THEN DYNX(W_,9050) ELSE
1.5707963267948966;
-DYNX(W_,9073) = divinvGuarded(cos(DYNX(W_,9079))+0.5057*powGuarded(96.08-
- 0.3183098861837907*DYNX(W_,9079)*180,"96.08-0.3183098861837907*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen*180)",
+DYNX(W_,9036) = divinvGuarded(cos(DYNX(W_,9042))+0.5057*powGuarded(96.08-
+ 0.3183098861837907*DYNX(W_,9042)*180,"96.08-0.3183098861837907*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen*180)",
-1.634,"-1.634"),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)+0.5057*(96.08-0.3183098861837907*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen*180))^(-1.634)");
-DYNX(W_,9074) = IF LessEqual(DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(
- DYNX(W_,9073), 1)+DYNX(DP_,798)*sqr(DYNX(W_,9073))+DYNX(DP_,799)*powUnguarded(
- DYNX(W_,9073), 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9073), 4),
+DYNX(W_,9037) = IF LessEqual(DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(
+ DYNX(W_,9036), 1)+DYNX(DP_,798)*sqr(DYNX(W_,9036))+DYNX(DP_,799)*powUnguarded(
+ DYNX(W_,9036), 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9036), 4),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_0+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_1*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMas^1+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_2*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMas^2+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_3*electrica...",
- 0,"0", 54) THEN 0 ELSE DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(DYNX(W_,9073),
- 1)+DYNX(DP_,798)*sqr(DYNX(W_,9073))+DYNX(DP_,799)*powUnguarded(DYNX(W_,9073),
- 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9073), 4);
-DYNX(W_,9072) = IF DYNX(W_,8493) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
- divGuarded(DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
- DYNX(DP_,802)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8314))+
- 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8314))+0.000719*cos(
- 3.9847699817222125E-07*DYNX(W_,8314))+7.7E-05*sin(3.9847699817222125E-07*
- DYNX(W_,8314)))*cos(DYNX(W_,9087)),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
-DYNX(W_,9071) = IF LessEqual(DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
- 0.001,"0.001", 55) THEN 0 ELSE IF LessEqual(DYNX(W_,9072),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
- 0.22,"0.22", 56) THEN DYNX(W_,8493)*(1.0-0.09*DYNX(W_,9072)) ELSE IF Greater(
- DYNX(W_,9072),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
- 0.8,"0.8", 57) THEN 0.165*DYNX(W_,8493) ELSE DYNX(W_,8493)*(0.9511+4.388*sqr(
- DYNX(W_,9072))-0.1604*DYNX(W_,9072)-16.638*powUnguarded(DYNX(W_,9072), 3)+
- 12.336*powUnguarded(DYNX(W_,9072), 4));
-DYNX(W_,9070) = DYNX(W_,8493)-DYNX(W_,9071);
-DYNX(W_,8323) = cos(DYNX(W_,8322));
-DYNX(W_,9085) = cos(DYNX(W_,9081));
-DYNX(W_,8324) = sin(DYNX(W_,8322));
-DYNX(W_,9086) = sin(DYNX(W_,9081));
-DYNX(W_,9084) = acosGuarded(cos(DYNX(W_,2244))*(0.6124088231015443*DYNX(W_,8323)
- *DYNX(W_,9085)+0.7905412281389133*DYNX(W_,8324))+sin(DYNX(W_,2244))*(sin(
- DYNX(W_,2243))*DYNX(W_,8323)*DYNX(W_,9086)+cos(DYNX(W_,2243))*(
- 0.7905412281389133*DYNX(W_,8323)*DYNX(W_,9085)-0.6124088231015443*
- DYNX(W_,8324))),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.i...");
-DYNX(W_,9078) = IF DYNX(W_,9079) >= 1.5692255304681018 OR cos(DYNX(W_,9084)) >
- cos(DYNX(W_,9079))*4 THEN 4 ELSE divGuarded(cos(DYNX(W_,9084)),
+ 0,"0", 62) THEN 0 ELSE DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(DYNX(W_,9036),
+ 1)+DYNX(DP_,798)*sqr(DYNX(W_,9036))+DYNX(DP_,799)*powUnguarded(DYNX(W_,9036),
+ 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9036), 4);
+DYNX(W_,9035) = IF DYNX(W_,8456) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
+ divGuarded(DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
+ DYNX(DP_,802)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8274))+
+ 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8274))+0.000719*cos(
+ 3.9847699817222125E-07*DYNX(W_,8274))+7.7E-05*sin(3.9847699817222125E-07*
+ DYNX(W_,8274)))*cos(DYNX(W_,9050)),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
+DYNX(W_,9034) = IF LessEqual(DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
+ 0.001,"0.001", 63) THEN 0 ELSE IF LessEqual(DYNX(W_,9035),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
+ 0.22,"0.22", 64) THEN DYNX(W_,8456)*(1.0-0.09*DYNX(W_,9035)) ELSE IF Greater(
+ DYNX(W_,9035),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
+ 0.8,"0.8", 65) THEN 0.165*DYNX(W_,8456) ELSE DYNX(W_,8456)*(0.9511+4.388*sqr(
+ DYNX(W_,9035))-0.1604*DYNX(W_,9035)-16.638*powUnguarded(DYNX(W_,9035), 3)+
+ 12.336*powUnguarded(DYNX(W_,9035), 4));
+DYNX(W_,9033) = DYNX(W_,8456)-DYNX(W_,9034);
+DYNX(W_,8283) = cos(DYNX(W_,8282));
+DYNX(W_,9048) = cos(DYNX(W_,9044));
+DYNX(W_,8284) = sin(DYNX(W_,8282));
+DYNX(W_,9049) = sin(DYNX(W_,9044));
+DYNX(W_,9047) = acosGuarded(cos(DYNX(W_,2244))*(0.6124088231015443*DYNX(W_,8283)
+ *DYNX(W_,9048)+0.7905412281389133*DYNX(W_,8284))+sin(DYNX(W_,2244))*(sin(
+ DYNX(W_,2243))*DYNX(W_,8283)*DYNX(W_,9049)+cos(DYNX(W_,2243))*(
+ 0.7905412281389133*DYNX(W_,8283)*DYNX(W_,9048)-0.6124088231015443*
+ DYNX(W_,8284))),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.i...");
+DYNX(W_,9041) = IF DYNX(W_,9042) >= 1.5692255304681018 OR cos(DYNX(W_,9047)) >
+ cos(DYNX(W_,9042))*4 THEN 4 ELSE divGuarded(cos(DYNX(W_,9047)),
"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)",
- cos(DYNX(W_,9079)),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)");
-DYNX(W_,9076) = IF DYNX(W_,9084) >= 0.0001 AND DYNX(W_,9084) <= 1.5692255304681018
- THEN asinGuarded(divGuarded(sin(DYNX(W_,9084)),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)",
+ cos(DYNX(W_,9042)),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)");
+DYNX(W_,9039) = IF DYNX(W_,9047) >= 0.0001 AND DYNX(W_,9047) <= 1.5692255304681018
+ THEN asinGuarded(divGuarded(sin(DYNX(W_,9047)),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)",
DYNX(W_,2222),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refInd"),
"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)/electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refInd")
ELSE 0;
-DYNX(W_,9077) = IF DYNX(W_,9084) >= 0.0001 AND DYNX(W_,9084) <= 1.5692255304681018
- AND DYNX(W_,9076) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2220)*DYNX(W_,2221),
+DYNX(W_,9040) = IF DYNX(W_,9047) >= 0.0001 AND DYNX(W_,9047) <= 1.5692255304681018
+ AND DYNX(W_,9039) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2220)*DYNX(W_,2221),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.glaExtCoe*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.glaThi",
- cos(DYNX(W_,9076)),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng)"))
- *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9076)-DYNX(W_,9084))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(sin(DYNX(W_,9076)+DYNX(W_,9084))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")
- +divGuarded(sqr(tan(DYNX(W_,9076)-DYNX(W_,9084))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(tan(DYNX(W_,9076)+DYNX(W_,9084))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")))
+ cos(DYNX(W_,9039)),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng)"))
+ *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9039)-DYNX(W_,9047))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(sin(DYNX(W_,9039)+DYNX(W_,9047))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")
+ +divGuarded(sqr(tan(DYNX(W_,9039)-DYNX(W_,9047))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(tan(DYNX(W_,9039)+DYNX(W_,9047))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")))
ELSE 0;
-DYNX(W_,9075) = DYNX(DYNhelp,303)*DYNX(W_,9077);
-DYNX(W_,9057) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9074)*(
- DYNX(W_,9070)*DYNX(W_,9078)*DYNX(W_,9075)+DYNX(W_,9071)*DYNX(W_,2227)*(0.5+0.5
- *cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9071),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+DYNX(W_,9038) = DYNX(DYNhelp,303)*DYNX(W_,9040);
+DYNX(W_,9020) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9037)*(
+ DYNX(W_,9033)*DYNX(W_,9041)*DYNX(W_,9038)+DYNX(W_,9034)*DYNX(W_,2227)*(0.5+0.5
+ *cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9034),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2216)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9071),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9084)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
- DYNX(W_,8493)*DYNX(W_,2226)*(1-cos(DYNX(W_,2216)))),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[1].pVRadiationHorizontalTR...",
+ DYNX(W_,9034),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9047)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
+ DYNX(W_,8456)*DYNX(W_,2226)*(1-cos(DYNX(W_,2216)))),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[1].pVRadiationHorizontalTR...",
DYNX(DP_,801),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radTil0");
-DYNX(W_,9058) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE DYNX(W_,9070)*DYNX(W_,9078)+
- DYNX(W_,9071)*(0.5+0.5*cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9071),
+DYNX(W_,9021) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE DYNX(W_,9033)*DYNX(W_,9041)+
+ DYNX(W_,9034)*(0.5+0.5*cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9034),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2216)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9071),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9084)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
- DYNX(W_,8493)*(1-cos(DYNX(W_,2216)));
-DYNX(W_,9715) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n12, \nweaDat.datRea.u)")
+ DYNX(W_,9034),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9047)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
+ DYNX(W_,8456)*(1-cos(DYNX(W_,2216)));
+DYNX(W_,9684) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n12, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 12, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 12, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8497) = RealBmax(0, DYNX(W_,9715));
-DYNX(W_,9056) = IF DYNX(W_,9058) >= 1E-15 THEN DYNX(W_,9058)*exp((-2.81)-0.0455*
- DYNX(W_,8497))+DYNX(W_,8487) ELSE DYNX(W_,8487);
-DYNX(W_,9065) = 0.0033540164346805303*DYNX(W_,9056)*DYNX(W_,2187);
-DYNX(W_,9063) = IF Greater(DYNX(W_,9057),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
- 0,"0", 58) THEN DYNX(W_,9057)*(DYNX(W_,2183)+DYNX(W_,2177)*(DYNX(W_,9056)-
+DYNX(W_,8460) = RealBmax(0, DYNX(W_,9684));
+DYNX(W_,9019) = IF DYNX(W_,9021) >= 1E-15 THEN DYNX(W_,9021)*exp((-2.81)-0.0455*
+ DYNX(W_,8460))+DYNX(W_,8450) ELSE DYNX(W_,8450);
+DYNX(W_,9028) = 0.0033540164346805303*DYNX(W_,9019)*DYNX(W_,2187);
+DYNX(W_,9026) = IF Greater(DYNX(W_,9020),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
+ 0,"0", 66) THEN DYNX(W_,9020)*(DYNX(W_,2183)+DYNX(W_,2177)*(DYNX(W_,9019)-
298.15)) ELSE 0;
-DYNX(W_,9061) = (1-DYNX(DP_,795)*(DYNX(W_,9056)-298.15))*DYNX(DP_,794);
-DYNX(W_,9062) = powUnguarded(0.0033540164346805303*DYNX(W_,9056), 3)*exp(
+DYNX(W_,9024) = (1-DYNX(DP_,795)*(DYNX(W_,9019)-298.15))*DYNX(DP_,794);
+DYNX(W_,9025) = powUnguarded(0.0033540164346805303*DYNX(W_,9019), 3)*exp(
7.242963696165495E+22*(0.0033540164346805303*DYNX(DP_,794)-divGuarded(
- DYNX(W_,9061),"electrical.generation.pVSystem[1].iVCharacteristics.E_g",
- DYNX(W_,9056),"electrical.generation.pVSystem[1].iVCharacteristics.T_c")))*
+ DYNX(W_,9024),"electrical.generation.pVSystem[1].iVCharacteristics.E_g",
+ DYNX(W_,9019),"electrical.generation.pVSystem[1].iVCharacteristics.T_c")))*
DYNX(W_,2184);
-DYNX(W_,9068) = IF GreaterEqual(DYNX(W_,9063),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
- 0.01,"0.01", 59) THEN DYNX(W_,9065)*logGuarded(fabs(1+divGuarded(
- DYNX(W_,9063),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
- DYNX(W_,9062),"electrical.generation.pVSystem[1].iVCharacteristics.I_s")),
+DYNX(W_,9031) = IF GreaterEqual(DYNX(W_,9026),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
+ 0.01,"0.01", 67) THEN DYNX(W_,9028)*logGuarded(fabs(1+divGuarded(
+ DYNX(W_,9026),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
+ DYNX(W_,9025),"electrical.generation.pVSystem[1].iVCharacteristics.I_s")),
"abs(1+electrical.generation.pVSystem[1].iVCharacteristics.I_ph/electrical.generation.pVSystem[1].iVCharacteristics.I_s)")
ELSE 0;
-DYNX(W_,9067) = IF DYNX(W_,9068) >= 0.001 THEN logGuarded(exp(1+divGuarded(
- DYNX(W_,9068),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
- DYNX(W_,9065),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
+DYNX(W_,9030) = IF DYNX(W_,9031) >= 0.001 THEN logGuarded(exp(1+divGuarded(
+ DYNX(W_,9031),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
+ DYNX(W_,9028),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)")
- *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9068),
- "electrical.generation.pVSystem[1].iVCharacteristics.V_oc",DYNX(W_,9065),
+ *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9031),
+ "electrical.generation.pVSystem[1].iVCharacteristics.V_oc",DYNX(W_,9028),
"electrical.generation.pVSystem[1].iVCharacteristics.a")),"exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)"),
"log(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))"),
"log(log(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))",1
- +logGuarded(exp(1+divGuarded(DYNX(W_,9068),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
- DYNX(W_,9065),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
+ +logGuarded(exp(1+divGuarded(DYNX(W_,9031),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
+ DYNX(W_,9028),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)"),
"1+log(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))"))
ELSE 0;
-DYNX(W_,9064) = (IF DYNX(W_,9057) > 0.001 THEN divinvGuarded(DYNX(W_,9057),
+DYNX(W_,9027) = (IF DYNX(W_,9020) > 0.001 THEN divinvGuarded(DYNX(W_,9020),
"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat") ELSE 0)*
DYNX(W_,2186);
-DYNX(W_,9059) = IF DYNX(W_,9057) <= 0.0011 OR DYNX(W_,9067) <= 0.001 THEN 0
- ELSE DYNX(W_,9063)*(1-divinvGuarded(DYNX(W_,9067),"electrical.generation.pVSystem[1].iVCharacteristics.w"))
- -divGuarded(DYNX(W_,9065)*(DYNX(W_,9067)-1),"electrical.generation.pVSystem[1].iVCharacteristics.a*(electrical.generation.pVSystem[1].iVCharacteristics.w-1)",
- DYNX(W_,9064),"electrical.generation.pVSystem[1].iVCharacteristics.R_sh");
-DYNX(W_,9060) = IF LessEqual(DYNX(W_,9057),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
- 0,"0", 60) THEN 0 ELSE DYNX(W_,9065)*(DYNX(W_,9067)-1)-DYNX(W_,2185)*
- DYNX(W_,9059);
-DYNX(W_,9066) = DYNX(W_,9060)*DYNX(W_,9059);
-DYNX(W_,9123) = RealBmax(0, RealBmin(DYNX(W_,2176)*DYNX(W_,2167), DYNX(W_,9066)*
+DYNX(W_,9022) = IF DYNX(W_,9020) <= 0.0011 OR DYNX(W_,9030) <= 0.001 THEN 0
+ ELSE DYNX(W_,9026)*(1-divinvGuarded(DYNX(W_,9030),"electrical.generation.pVSystem[1].iVCharacteristics.w"))
+ -divGuarded(DYNX(W_,9028)*(DYNX(W_,9030)-1),"electrical.generation.pVSystem[1].iVCharacteristics.a*(electrical.generation.pVSystem[1].iVCharacteristics.w-1)",
+ DYNX(W_,9027),"electrical.generation.pVSystem[1].iVCharacteristics.R_sh");
+DYNX(W_,9023) = IF LessEqual(DYNX(W_,9020),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
+ 0,"0", 68) THEN 0 ELSE DYNX(W_,9028)*(DYNX(W_,9030)-1)-DYNX(W_,2185)*
+ DYNX(W_,9022);
+DYNX(W_,9029) = DYNX(W_,9023)*DYNX(W_,9022);
+DYNX(W_,9086) = RealBmax(0, RealBmin(DYNX(W_,2176)*DYNX(W_,2167), DYNX(W_,9029)*
DYNX(W_,2167)));
-DYNX(W_,8331) = IF DYNX(W_,2368) THEN DYNX(W_,8325)-DYNX(W_,8332)+DYNX(W_,2367)
- ELSE DYNX(W_,8325);
-DYNX(W_,8333) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
- 1.9910212776572317E-07*DYNX(W_,8331)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.calTimAux)");
-DYNX(W_,9116) = IF DYNX(W_,2361) THEN DYNX(W_,9103)-DYNX(W_,8326)+DYNX(W_,2360)
- ELSE DYNX(W_,9103);
-DYNX(W_,9117) = DYNX(W_,9116)-470.5631344194285;
-DYNX(W_,8328) = IF DYNX(W_,2366) THEN DYNX(W_,8325)-DYNX(W_,8329)+DYNX(W_,2365)
- ELSE DYNX(W_,8325);
-DYNX(W_,8330) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8328)+86400)
+DYNX(W_,8291) = IF DYNX(W_,2368) THEN DYNX(W_,8285)-DYNX(W_,8292)+DYNX(W_,2367)
+ ELSE DYNX(W_,8285);
+DYNX(W_,8293) = asinGuarded((-0.3979486313076103)*cos(0.17202423838958483+
+ 1.9910212776572317E-07*DYNX(W_,8291)),"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.calTimAux)");
+DYNX(W_,9079) = IF DYNX(W_,2361) THEN DYNX(W_,9066)-DYNX(W_,8286)+DYNX(W_,2360)
+ ELSE DYNX(W_,9066);
+DYNX(W_,9080) = DYNX(W_,9079)-470.5631344194285;
+DYNX(W_,8288) = IF DYNX(W_,2366) THEN DYNX(W_,8285)-DYNX(W_,8289)+DYNX(W_,2365)
+ ELSE DYNX(W_,8285);
+DYNX(W_,8290) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8288)+86400)
-81);
-DYNX(W_,8327) = 60*(9.87*sin(2*DYNX(W_,8330))-7.53*cos(DYNX(W_,8330))-1.5*sin(
- DYNX(W_,8330)));
-DYNX(W_,9114) = DYNX(W_,9117)+DYNX(W_,8327);
-DYNX(W_,9115) = 0.2617993877991494*(DYNX(W_,9114)/(double)(3600)-12);
-DYNX(W_,9121) = acosGuarded(0.6124088231015443*cos(DYNX(W_,8333))*cos(
- DYNX(W_,9115))+0.7905412281389133*sin(DYNX(W_,8333)),"0.6124088231015443*(cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)");
-DYNX(W_,9113) = IF LessEqual(DYNX(W_,9121),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.zen",
- 1.5707963267948966,"1.5707963267948966", 61) THEN DYNX(W_,9121) ELSE
+DYNX(W_,8287) = 60*(9.87*sin(2*DYNX(W_,8290))-7.53*cos(DYNX(W_,8290))-1.5*sin(
+ DYNX(W_,8290)));
+DYNX(W_,9077) = DYNX(W_,9080)+DYNX(W_,8287);
+DYNX(W_,9078) = 0.2617993877991494*(DYNX(W_,9077)/(double)(3600)-12);
+DYNX(W_,9084) = acosGuarded(0.6124088231015443*cos(DYNX(W_,8293))*cos(
+ DYNX(W_,9078))+0.7905412281389133*sin(DYNX(W_,8293)),"0.6124088231015443*(cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)");
+DYNX(W_,9076) = IF LessEqual(DYNX(W_,9084),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.zen",
+ 1.5707963267948966,"1.5707963267948966", 69) THEN DYNX(W_,9084) ELSE
1.5707963267948966;
-DYNX(W_,9107) = divinvGuarded(cos(DYNX(W_,9113))+0.5057*powGuarded(96.08-
- 0.3183098861837907*DYNX(W_,9113)*180,"96.08-0.3183098861837907*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen*180)",
+DYNX(W_,9070) = divinvGuarded(cos(DYNX(W_,9076))+0.5057*powGuarded(96.08-
+ 0.3183098861837907*DYNX(W_,9076)*180,"96.08-0.3183098861837907*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen*180)",
-1.634,"-1.634"),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)+0.5057*(96.08-0.3183098861837907*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen*180))^(-1.634)");
-DYNX(W_,9108) = IF LessEqual(DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(
- DYNX(W_,9107), 1)+DYNX(DP_,816)*sqr(DYNX(W_,9107))+DYNX(DP_,817)*powUnguarded(
- DYNX(W_,9107), 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9107), 4),
+DYNX(W_,9071) = IF LessEqual(DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(
+ DYNX(W_,9070), 1)+DYNX(DP_,816)*sqr(DYNX(W_,9070))+DYNX(DP_,817)*powUnguarded(
+ DYNX(W_,9070), 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9070), 4),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_0+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_1*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMas^1+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_2*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMas^2+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_3*electrica...",
- 0,"0", 62) THEN 0 ELSE DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(DYNX(W_,9107),
- 1)+DYNX(DP_,816)*sqr(DYNX(W_,9107))+DYNX(DP_,817)*powUnguarded(DYNX(W_,9107),
- 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9107), 4);
-DYNX(W_,9106) = IF DYNX(W_,8493) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
- divGuarded(DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
- DYNX(DP_,820)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8325))+
- 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8325))+0.000719*cos(
- 3.9847699817222125E-07*DYNX(W_,8325))+7.7E-05*sin(3.9847699817222125E-07*
- DYNX(W_,8325)))*cos(DYNX(W_,9121)),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
-DYNX(W_,9105) = IF LessEqual(DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
- 0.001,"0.001", 55) THEN 0 ELSE IF LessEqual(DYNX(W_,9106),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
- 0.22,"0.22", 63) THEN DYNX(W_,8493)*(1.0-0.09*DYNX(W_,9106)) ELSE IF Greater(
- DYNX(W_,9106),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
- 0.8,"0.8", 64) THEN 0.165*DYNX(W_,8493) ELSE DYNX(W_,8493)*(0.9511+4.388*sqr(
- DYNX(W_,9106))-0.1604*DYNX(W_,9106)-16.638*powUnguarded(DYNX(W_,9106), 3)+
- 12.336*powUnguarded(DYNX(W_,9106), 4));
-DYNX(W_,9104) = DYNX(W_,8493)-DYNX(W_,9105);
-DYNX(W_,8334) = cos(DYNX(W_,8333));
-DYNX(W_,9119) = cos(DYNX(W_,9115));
-DYNX(W_,8335) = sin(DYNX(W_,8333));
-DYNX(W_,9120) = sin(DYNX(W_,9115));
-DYNX(W_,9118) = acosGuarded(cos(DYNX(W_,2372))*(0.6124088231015443*DYNX(W_,8334)
- *DYNX(W_,9119)+0.7905412281389133*DYNX(W_,8335))+sin(DYNX(W_,2372))*(sin(
- DYNX(W_,2371))*DYNX(W_,8334)*DYNX(W_,9120)+cos(DYNX(W_,2371))*(
- 0.7905412281389133*DYNX(W_,8334)*DYNX(W_,9119)-0.6124088231015443*
- DYNX(W_,8335))),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.i...");
-DYNX(W_,9112) = IF DYNX(W_,9113) >= 1.5692255304681018 OR cos(DYNX(W_,9118)) >
- cos(DYNX(W_,9113))*4 THEN 4 ELSE divGuarded(cos(DYNX(W_,9118)),
+ 0,"0", 70) THEN 0 ELSE DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(DYNX(W_,9070),
+ 1)+DYNX(DP_,816)*sqr(DYNX(W_,9070))+DYNX(DP_,817)*powUnguarded(DYNX(W_,9070),
+ 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9070), 4);
+DYNX(W_,9069) = IF DYNX(W_,8456) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
+ divGuarded(DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
+ DYNX(DP_,820)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8285))+
+ 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8285))+0.000719*cos(
+ 3.9847699817222125E-07*DYNX(W_,8285))+7.7E-05*sin(3.9847699817222125E-07*
+ DYNX(W_,8285)))*cos(DYNX(W_,9084)),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
+DYNX(W_,9068) = IF LessEqual(DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
+ 0.001,"0.001", 63) THEN 0 ELSE IF LessEqual(DYNX(W_,9069),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
+ 0.22,"0.22", 71) THEN DYNX(W_,8456)*(1.0-0.09*DYNX(W_,9069)) ELSE IF Greater(
+ DYNX(W_,9069),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
+ 0.8,"0.8", 72) THEN 0.165*DYNX(W_,8456) ELSE DYNX(W_,8456)*(0.9511+4.388*sqr(
+ DYNX(W_,9069))-0.1604*DYNX(W_,9069)-16.638*powUnguarded(DYNX(W_,9069), 3)+
+ 12.336*powUnguarded(DYNX(W_,9069), 4));
+DYNX(W_,9067) = DYNX(W_,8456)-DYNX(W_,9068);
+DYNX(W_,8294) = cos(DYNX(W_,8293));
+DYNX(W_,9082) = cos(DYNX(W_,9078));
+DYNX(W_,8295) = sin(DYNX(W_,8293));
+DYNX(W_,9083) = sin(DYNX(W_,9078));
+DYNX(W_,9081) = acosGuarded(cos(DYNX(W_,2372))*(0.6124088231015443*DYNX(W_,8294)
+ *DYNX(W_,9082)+0.7905412281389133*DYNX(W_,8295))+sin(DYNX(W_,2372))*(sin(
+ DYNX(W_,2371))*DYNX(W_,8294)*DYNX(W_,9083)+cos(DYNX(W_,2371))*(
+ 0.7905412281389133*DYNX(W_,8294)*DYNX(W_,9082)-0.6124088231015443*
+ DYNX(W_,8295))),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.i...");
+DYNX(W_,9075) = IF DYNX(W_,9076) >= 1.5692255304681018 OR cos(DYNX(W_,9081)) >
+ cos(DYNX(W_,9076))*4 THEN 4 ELSE divGuarded(cos(DYNX(W_,9081)),
"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)",
- cos(DYNX(W_,9113)),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)");
-DYNX(W_,9110) = IF DYNX(W_,9118) >= 0.0001 AND DYNX(W_,9118) <= 1.5692255304681018
- THEN asinGuarded(divGuarded(sin(DYNX(W_,9118)),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)",
+ cos(DYNX(W_,9076)),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)");
+DYNX(W_,9073) = IF DYNX(W_,9081) >= 0.0001 AND DYNX(W_,9081) <= 1.5692255304681018
+ THEN asinGuarded(divGuarded(sin(DYNX(W_,9081)),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)",
DYNX(W_,2350),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refInd"),
"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)/electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refInd")
ELSE 0;
-DYNX(W_,9111) = IF DYNX(W_,9118) >= 0.0001 AND DYNX(W_,9118) <= 1.5692255304681018
- AND DYNX(W_,9110) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2348)*DYNX(W_,2349),
+DYNX(W_,9074) = IF DYNX(W_,9081) >= 0.0001 AND DYNX(W_,9081) <= 1.5692255304681018
+ AND DYNX(W_,9073) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2348)*DYNX(W_,2349),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.glaExtCoe*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.glaThi",
- cos(DYNX(W_,9110)),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng)"))
- *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9110)-DYNX(W_,9118))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(sin(DYNX(W_,9110)+DYNX(W_,9118))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")
- +divGuarded(sqr(tan(DYNX(W_,9110)-DYNX(W_,9118))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(tan(DYNX(W_,9110)+DYNX(W_,9118))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")))
+ cos(DYNX(W_,9073)),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng)"))
+ *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9073)-DYNX(W_,9081))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(sin(DYNX(W_,9073)+DYNX(W_,9081))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")
+ +divGuarded(sqr(tan(DYNX(W_,9073)-DYNX(W_,9081))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(tan(DYNX(W_,9073)+DYNX(W_,9081))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")))
ELSE 0;
-DYNX(W_,9109) = DYNX(DYNhelp,314)*DYNX(W_,9111);
-DYNX(W_,9091) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9108)*(
- DYNX(W_,9104)*DYNX(W_,9112)*DYNX(W_,9109)+DYNX(W_,9105)*DYNX(W_,2355)*(0.5+0.5
- *cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9105),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+DYNX(W_,9072) = DYNX(DYNhelp,314)*DYNX(W_,9074);
+DYNX(W_,9054) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9071)*(
+ DYNX(W_,9067)*DYNX(W_,9075)*DYNX(W_,9072)+DYNX(W_,9068)*DYNX(W_,2355)*(0.5+0.5
+ *cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9068),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2344)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9105),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9118)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
- DYNX(W_,8493)*DYNX(W_,2354)*(1-cos(DYNX(W_,2344)))),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[2].pVRadiationHorizontalTR...",
+ DYNX(W_,9068),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9081)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
+ DYNX(W_,8456)*DYNX(W_,2354)*(1-cos(DYNX(W_,2344)))),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[2].pVRadiationHorizontalTR...",
DYNX(DP_,819),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radTil0");
-DYNX(W_,9092) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE DYNX(W_,9104)*DYNX(W_,9112)+
- DYNX(W_,9105)*(0.5+0.5*cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9105),
+DYNX(W_,9055) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE DYNX(W_,9067)*DYNX(W_,9075)+
+ DYNX(W_,9068)*(0.5+0.5*cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9068),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2344)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9105),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9118)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
- DYNX(W_,8493)*(1-cos(DYNX(W_,2344)));
-DYNX(W_,9090) = IF DYNX(W_,9092) >= 1E-15 THEN DYNX(W_,9092)*exp((-2.81)-0.0455*
- DYNX(W_,8497))+DYNX(W_,8487) ELSE DYNX(W_,8487);
-DYNX(W_,9099) = 0.0033540164346805303*DYNX(W_,9090)*DYNX(W_,2315);
-DYNX(W_,9097) = IF Greater(DYNX(W_,9091),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
- 0,"0", 65) THEN DYNX(W_,9091)*(DYNX(W_,2311)+DYNX(W_,2305)*(DYNX(W_,9090)-
+ DYNX(W_,9068),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9081)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
+ DYNX(W_,8456)*(1-cos(DYNX(W_,2344)));
+DYNX(W_,9053) = IF DYNX(W_,9055) >= 1E-15 THEN DYNX(W_,9055)*exp((-2.81)-0.0455*
+ DYNX(W_,8460))+DYNX(W_,8450) ELSE DYNX(W_,8450);
+DYNX(W_,9062) = 0.0033540164346805303*DYNX(W_,9053)*DYNX(W_,2315);
+DYNX(W_,9060) = IF Greater(DYNX(W_,9054),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
+ 0,"0", 73) THEN DYNX(W_,9054)*(DYNX(W_,2311)+DYNX(W_,2305)*(DYNX(W_,9053)-
298.15)) ELSE 0;
-DYNX(W_,9095) = (1-DYNX(DP_,813)*(DYNX(W_,9090)-298.15))*DYNX(DP_,812);
-DYNX(W_,9096) = powUnguarded(0.0033540164346805303*DYNX(W_,9090), 3)*exp(
+DYNX(W_,9058) = (1-DYNX(DP_,813)*(DYNX(W_,9053)-298.15))*DYNX(DP_,812);
+DYNX(W_,9059) = powUnguarded(0.0033540164346805303*DYNX(W_,9053), 3)*exp(
7.242963696165495E+22*(0.0033540164346805303*DYNX(DP_,812)-divGuarded(
- DYNX(W_,9095),"electrical.generation.pVSystem[2].iVCharacteristics.E_g",
- DYNX(W_,9090),"electrical.generation.pVSystem[2].iVCharacteristics.T_c")))*
+ DYNX(W_,9058),"electrical.generation.pVSystem[2].iVCharacteristics.E_g",
+ DYNX(W_,9053),"electrical.generation.pVSystem[2].iVCharacteristics.T_c")))*
DYNX(W_,2312);
-DYNX(W_,9102) = IF GreaterEqual(DYNX(W_,9097),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
- 0.01,"0.01", 66) THEN DYNX(W_,9099)*logGuarded(fabs(1+divGuarded(
- DYNX(W_,9097),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
- DYNX(W_,9096),"electrical.generation.pVSystem[2].iVCharacteristics.I_s")),
+DYNX(W_,9065) = IF GreaterEqual(DYNX(W_,9060),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
+ 0.01,"0.01", 74) THEN DYNX(W_,9062)*logGuarded(fabs(1+divGuarded(
+ DYNX(W_,9060),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
+ DYNX(W_,9059),"electrical.generation.pVSystem[2].iVCharacteristics.I_s")),
"abs(1+electrical.generation.pVSystem[2].iVCharacteristics.I_ph/electrical.generation.pVSystem[2].iVCharacteristics.I_s)")
ELSE 0;
-DYNX(W_,9101) = IF DYNX(W_,9102) >= 0.001 THEN logGuarded(exp(1+divGuarded(
- DYNX(W_,9102),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
- DYNX(W_,9099),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
+DYNX(W_,9064) = IF DYNX(W_,9065) >= 0.001 THEN logGuarded(exp(1+divGuarded(
+ DYNX(W_,9065),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
+ DYNX(W_,9062),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)")
- *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9102),
- "electrical.generation.pVSystem[2].iVCharacteristics.V_oc",DYNX(W_,9099),
+ *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9065),
+ "electrical.generation.pVSystem[2].iVCharacteristics.V_oc",DYNX(W_,9062),
"electrical.generation.pVSystem[2].iVCharacteristics.a")),"exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)"),
"log(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))"),
"log(log(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))",1
- +logGuarded(exp(1+divGuarded(DYNX(W_,9102),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
- DYNX(W_,9099),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
+ +logGuarded(exp(1+divGuarded(DYNX(W_,9065),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
+ DYNX(W_,9062),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)"),
"1+log(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))"))
ELSE 0;
-DYNX(W_,9098) = (IF DYNX(W_,9091) > 0.001 THEN divinvGuarded(DYNX(W_,9091),
+DYNX(W_,9061) = (IF DYNX(W_,9054) > 0.001 THEN divinvGuarded(DYNX(W_,9054),
"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat") ELSE 0)*
DYNX(W_,2314);
-DYNX(W_,9093) = IF DYNX(W_,9091) <= 0.0011 OR DYNX(W_,9101) <= 0.001 THEN 0
- ELSE DYNX(W_,9097)*(1-divinvGuarded(DYNX(W_,9101),"electrical.generation.pVSystem[2].iVCharacteristics.w"))
- -divGuarded(DYNX(W_,9099)*(DYNX(W_,9101)-1),"electrical.generation.pVSystem[2].iVCharacteristics.a*(electrical.generation.pVSystem[2].iVCharacteristics.w-1)",
- DYNX(W_,9098),"electrical.generation.pVSystem[2].iVCharacteristics.R_sh");
-DYNX(W_,9094) = IF LessEqual(DYNX(W_,9091),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
- 0,"0", 67) THEN 0 ELSE DYNX(W_,9099)*(DYNX(W_,9101)-1)-DYNX(W_,2313)*
- DYNX(W_,9093);
-DYNX(W_,9100) = DYNX(W_,9094)*DYNX(W_,9093);
-DYNX(W_,9124) = RealBmax(0, RealBmin(DYNX(W_,2304)*DYNX(W_,2295), DYNX(W_,9100)*
+DYNX(W_,9056) = IF DYNX(W_,9054) <= 0.0011 OR DYNX(W_,9064) <= 0.001 THEN 0
+ ELSE DYNX(W_,9060)*(1-divinvGuarded(DYNX(W_,9064),"electrical.generation.pVSystem[2].iVCharacteristics.w"))
+ -divGuarded(DYNX(W_,9062)*(DYNX(W_,9064)-1),"electrical.generation.pVSystem[2].iVCharacteristics.a*(electrical.generation.pVSystem[2].iVCharacteristics.w-1)",
+ DYNX(W_,9061),"electrical.generation.pVSystem[2].iVCharacteristics.R_sh");
+DYNX(W_,9057) = IF LessEqual(DYNX(W_,9054),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
+ 0,"0", 75) THEN 0 ELSE DYNX(W_,9062)*(DYNX(W_,9064)-1)-DYNX(W_,2313)*
+ DYNX(W_,9056);
+DYNX(W_,9063) = DYNX(W_,9057)*DYNX(W_,9056);
+DYNX(W_,9087) = RealBmax(0, RealBmin(DYNX(W_,2304)*DYNX(W_,2295), DYNX(W_,9063)*
DYNX(W_,2295)));
-DYNX(Y_,40) = DYNX(DP_,827)*DYNX(W_,9123)+DYNX(DP_,828)*DYNX(W_,9124);
-DYNX(W_,9126) = DYNX(DP_,836)*DYNX(W_,9125)+DYNX(DP_,837)*DYNX(Y_,40);
-DYNX(Y_,42) = homotopy(IF GreaterS(DYNX(W_,9126),"electrical.distribution.limiter.u",
- DYNX(DP_,838),"electrical.distribution.limiter.uMax", 68) THEN DYNX(DP_,838)
- ELSE IF LessS(DYNX(W_,9126),"electrical.distribution.limiter.u",
- DYNX(DP_,839),"electrical.distribution.limiter.uMin", 69) THEN DYNX(DP_,839)
- ELSE DYNX(W_,9126), DYNX(W_,9126));
-DYNX(W_,9256) = (-0.317599972517237)*DYNX(Y_,28);
-DYNX(W_,8508) = 0.5*(DYNX(W_,8477)+DYNX(W_,8507));
-DYNX(W_,9452) = homotopy((1-DYNX(W_,5857))*DYNX(W_,5891)*(DYNX(W_,8507)-
- DYNX(W_,9462))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8507)-DYNX(W_,9462),
- DYNX(W_,5863)-1, 0.05)), (1-DYNX(W_,5857))*DYNX(W_,5891)*powGuarded(fabs(
- DYNX(W_,5886)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[1])",DYNX(W_,5863)
- -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8507)-DYNX(W_,9462)));
+DYNX(Y_,40) = DYNX(DP_,827)*DYNX(W_,9086)+DYNX(DP_,828)*DYNX(W_,9087);
+DYNX(W_,9089) = DYNX(DP_,836)*DYNX(W_,9088)+DYNX(DP_,837)*DYNX(Y_,40);
+DYNX(Y_,42) = homotopy(IF GreaterS(DYNX(W_,9089),"electrical.distribution.limiter.u",
+ DYNX(DP_,838),"electrical.distribution.limiter.uMax", 76) THEN DYNX(DP_,838)
+ ELSE IF LessS(DYNX(W_,9089),"electrical.distribution.limiter.u",
+ DYNX(DP_,839),"electrical.distribution.limiter.uMin", 77) THEN DYNX(DP_,839)
+ ELSE DYNX(W_,9089), DYNX(W_,9089));
+DYNX(W_,9225) = (-0.317599972517237)*DYNX(Y_,28);
+DYNX(W_,8471) = 0.5*(DYNX(W_,8440)+DYNX(W_,8470));
+DYNX(W_,9421) = homotopy((1-DYNX(W_,5817))*DYNX(W_,5851)*(DYNX(W_,8470)-
+ DYNX(W_,9431))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8470)-DYNX(W_,9431),
+ DYNX(W_,5823)-1, 0.05)), (1-DYNX(W_,5817))*DYNX(W_,5851)*powGuarded(fabs(
+ DYNX(W_,5846)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[1])",DYNX(W_,5823)
+ -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8470)-DYNX(W_,9431)));
PopModelContext();
-DYNX(W_,9453) = homotopy((1-DYNX(W_,5857))*DYNX(W_,5891)*(DYNX(W_,8507)-
- DYNX(W_,9470))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8507)-DYNX(W_,9470),
- DYNX(W_,5863)-1, 0.05)), (1-DYNX(W_,5857))*DYNX(W_,5891)*powGuarded(fabs(
- DYNX(W_,5887)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[2])",DYNX(W_,5863)
- -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8507)-DYNX(W_,9470)));
+DYNX(W_,9422) = homotopy((1-DYNX(W_,5817))*DYNX(W_,5851)*(DYNX(W_,8470)-
+ DYNX(W_,9439))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8470)-DYNX(W_,9439),
+ DYNX(W_,5823)-1, 0.05)), (1-DYNX(W_,5817))*DYNX(W_,5851)*powGuarded(fabs(
+ DYNX(W_,5847)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[2])",DYNX(W_,5823)
+ -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8470)-DYNX(W_,9439)));
PopModelContext();
-DYNX(W_,9454) = homotopy((1-DYNX(W_,5857))*DYNX(W_,5891)*(DYNX(W_,8507)-
- DYNX(W_,9478))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8507)-DYNX(W_,9478),
- DYNX(W_,5863)-1, 0.05)), (1-DYNX(W_,5857))*DYNX(W_,5891)*powGuarded(fabs(
- DYNX(W_,5888)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[3])",DYNX(W_,5863)
- -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8507)-DYNX(W_,9478)));
+DYNX(W_,9423) = homotopy((1-DYNX(W_,5817))*DYNX(W_,5851)*(DYNX(W_,8470)-
+ DYNX(W_,9447))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8470)-DYNX(W_,9447),
+ DYNX(W_,5823)-1, 0.05)), (1-DYNX(W_,5817))*DYNX(W_,5851)*powGuarded(fabs(
+ DYNX(W_,5848)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[3])",DYNX(W_,5823)
+ -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8470)-DYNX(W_,9447)));
PopModelContext();
-DYNX(W_,9455) = homotopy((1-DYNX(W_,5857))*DYNX(W_,5891)*(DYNX(W_,8507)-
- DYNX(W_,9486))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8507)-DYNX(W_,9486),
- DYNX(W_,5863)-1, 0.05)), (1-DYNX(W_,5857))*DYNX(W_,5891)*powGuarded(fabs(
- DYNX(W_,5889)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[4])",DYNX(W_,5863)
- -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8507)-DYNX(W_,9486)));
+DYNX(W_,9424) = homotopy((1-DYNX(W_,5817))*DYNX(W_,5851)*(DYNX(W_,8470)-
+ DYNX(W_,9455))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8470)-DYNX(W_,9455),
+ DYNX(W_,5823)-1, 0.05)), (1-DYNX(W_,5817))*DYNX(W_,5851)*powGuarded(fabs(
+ DYNX(W_,5849)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[4])",DYNX(W_,5823)
+ -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8470)-DYNX(W_,9455)));
PopModelContext();
-DYNX(W_,9456) = homotopy((1-DYNX(W_,5857))*DYNX(W_,5891)*(DYNX(W_,8507)-
- DYNX(W_,9493))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8507)-DYNX(W_,9493),
- DYNX(W_,5863)-1, 0.05)), (1-DYNX(W_,5857))*DYNX(W_,5891)*powGuarded(fabs(
- DYNX(W_,5890)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[5])",DYNX(W_,5863)
- -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8507)-DYNX(W_,9493)));
+DYNX(W_,9425) = homotopy((1-DYNX(W_,5817))*DYNX(W_,5851)*(DYNX(W_,8470)-
+ DYNX(W_,9462))*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(W_,8470)-DYNX(W_,9462),
+ DYNX(W_,5823)-1, 0.05)), (1-DYNX(W_,5817))*DYNX(W_,5851)*powGuarded(fabs(
+ DYNX(W_,5850)),"abs(hydraulic.transfer.rad[1].dTCon_nominal[5])",DYNX(W_,5823)
+ -1,"hydraulic.transfer.rad[1].n-1")*(DYNX(W_,8470)-DYNX(W_,9462)));
PopModelContext();
-DYNX(W_,9034) = DYNX(W_,1977)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n4, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled_.start)")
+DYNX(W_,8997) = DYNX(W_,1977)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n4, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled_.start)")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), 4, DYNX(W_,9054), DYNX(W_,8313), DYNX(Aux_,274)));
+ (Integer)(DYNX(W_,1978))), 4, DYNX(W_,9017), DYNX(W_,8273), DYNX(Aux_,274)));
PopModelContext();
-DYNX(W_,9027) = 273.15+DYNX(W_,9034);
-AssertModelica(GreaterEqual(DYNX(W_,9027),"DHW.calcmFlow.TSet", DYNX(W_,1086),
- "DHW.calcmFlow.TCold", 70),"DHW.calcmFlow.TSet >= DHW.calcmFlow.TCold",
+DYNX(W_,8990) = 273.15+DYNX(W_,8997);
+AssertModelica(GreaterEqual(DYNX(W_,8990),"DHW.calcmFlow.TSet", DYNX(W_,1086),
+ "DHW.calcmFlow.TCold", 78),"DHW.calcmFlow.TSet >= DHW.calcmFlow.TCold",
"Set temperature has to be higher than cold water temperature");
-DYNX(W_,9029) = DYNX(DP_,355)*DYNX(W_,9027)-DYNX(W_,1092);
-DYNX(W_,9030) = divGuarded(DYNX(W_,9029),"DHW.calcmFlow.division.u1",
+DYNX(W_,8992) = DYNX(DP_,355)*DYNX(W_,8990)-DYNX(W_,1092);
+DYNX(W_,8993) = divGuarded(DYNX(W_,8992),"DHW.calcmFlow.division.u1",
DYNX(W_,1090),"DHW.calcmFlow.division.u2");
-DYNX(W_,9031) = homotopy(IF GreaterS(DYNX(W_,9030),"DHW.calcmFlow.limiter.u",
- DYNX(DP_,357),"DHW.calcmFlow.limiter.uMax", 71) THEN DYNX(DP_,357) ELSE IF
- LessS(DYNX(W_,9030),"DHW.calcmFlow.limiter.u", DYNX(DP_,358),"DHW.calcmFlow.limiter.uMin",
- 72) THEN DYNX(DP_,358) ELSE DYNX(W_,9030), DYNX(W_,9030));
-DYNX(W_,9026) = DYNX(W_,1975)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n2, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled_.start)")
+DYNX(W_,8994) = homotopy(IF GreaterS(DYNX(W_,8993),"DHW.calcmFlow.limiter.u",
+ DYNX(DP_,357),"DHW.calcmFlow.limiter.uMax", 79) THEN DYNX(DP_,357) ELSE IF
+ LessS(DYNX(W_,8993),"DHW.calcmFlow.limiter.u", DYNX(DP_,358),"DHW.calcmFlow.limiter.uMin",
+ 80) THEN DYNX(DP_,358) ELSE DYNX(W_,8993), DYNX(W_,8993));
+DYNX(W_,8989) = DYNX(W_,1975)+(PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n2, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled_.start)")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), 2, DYNX(W_,9054), DYNX(W_,8313), DYNX(Aux_,274)));
+ (Integer)(DYNX(W_,1978))), 2, DYNX(W_,9017), DYNX(W_,8273), DYNX(Aux_,274)));
PopModelContext();
-DYNX(W_,9021) = DYNX(W_,9031)*DYNX(W_,9026);
+DYNX(W_,8984) = DYNX(W_,8994)*DYNX(W_,8989);
if (DymolaHomotopyLambda==0){
BreakSectionCallNew(41);
}
@@ -17563,31 +17567,31 @@ else {
const double nominal_[]={6000.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 8, -2,
DYNX(DYNhelp,1270), 35, DYNX(did_->helpvari_vec,196), 23);
- SetInitVectorSimple(x__, 1, DYNX(W_,9670), 17, 0);
+ SetInitVectorSimple(x__, 1, DYNX(W_,9639), 17, 0);
Residues;
- DYNX(W_,9649) = -homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9670),
- DYNX(W_,7865), DYNX(W_,7846))), 0.000362962962962963*DYNX(W_,9670));
+ DYNX(W_,9618) = -homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9639),
+ DYNX(W_,7825), DYNX(W_,7806))), 0.000362962962962963*DYNX(W_,9639));
PopModelContext();
- DYNX(W_,9652) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.threeWayValve_b.res1.m_flow, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent)")
+ DYNX(W_,9621) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.threeWayValve_b.res1.m_flow, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
- DYNX(W_,9649), DYNX(W_,7672), DYNX(W_,7653)));
+ DYNX(W_,9618), DYNX(W_,7632), DYNX(W_,7613)));
PopModelContext();
- SetVector(residue__, 1, DYNX(W_,9670)-(DYNX(W_,9652)+DYNX(W_,7258))+
- DYNX(W_,9605));
+ SetVector(residue__, 1, DYNX(W_,9639)-(DYNX(W_,9621)+DYNX(W_,7218))+
+ DYNX(W_,9574));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, 1.0+(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(ventilation.generation.threeWayValve_b.res1.m_flow, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flowx_0der(
- DYNX(W_,9649), DYNX(W_,7672), DYNX(W_,7653), 1.0))*homotopy((PushModelContext(1,
+ DYNX(W_,9618), DYNX(W_,7632), DYNX(W_,7613), 1.0))*homotopy((PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(
- DYNX(W_,9670), DYNX(W_,7865), DYNX(W_,7846), 1.0)), 0.000362962962962963));
+ DYNX(W_,9639), DYNX(W_,7825), DYNX(W_,7806), 1.0)), 0.000362962962962963));
PopModelContext();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[6]");
- DYNX(W_,9670) = GetVector(x__, 1);
+ DYNX(W_,9639) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 8);
/* End of Non-Linear Equation Block */ }
@@ -17608,107 +17612,105 @@ else {
const double nominal_[]={6000.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 9, -2,
DYNX(DYNhelp,1306), 35, DYNX(did_->helpvari_vec,219), 23);
- SetInitVectorSimple(x__, 1, DYNX(W_,9653), 18, 0);
+ SetInitVectorSimple(x__, 1, DYNX(W_,9622), 18, 0);
Residues;
- DYNX(DYNhelp,1341) = divinvGuarded(DYNX(W_,7697),"ventilation.generation.threeWayValve_b.res3.dp_nominal_pos");
- DYNX(W_,9538) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9653),
- DYNX(W_,7713), DYNX(W_,7694))), DYNX(DYNhelp,1341)*0.1088888888888889*
- DYNX(W_,9653));
+ DYNX(DYNhelp,1341) = divinvGuarded(DYNX(W_,7657),"ventilation.generation.threeWayValve_b.res3.dp_nominal_pos");
+ DYNX(W_,9507) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9622),
+ DYNX(W_,7673), DYNX(W_,7654))), DYNX(DYNhelp,1341)*0.1088888888888889*
+ DYNX(W_,9622));
PopModelContext();
- DYNX(W_,9560) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.hex.bal2.preDro.m_flow, 0.010888888888888889, 0.01088888888888889)")
+ DYNX(W_,9529) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.hex.bal2.preDro.m_flow, 0.010888888888888889, 0.01088888888888889)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
- DYNX(W_,9538), 0.010888888888888889, 0.01088888888888889)),
- 918.3673469387754*DYNX(W_,9538));
+ DYNX(W_,9507), 0.010888888888888889, 0.01088888888888889)),
+ 918.3673469387754*DYNX(W_,9507));
PopModelContext();
- DYNX(W_,9671) = DYNX(W_,9653)+DYNX(W_,9560)-DYNX(W_,9605)+DYNX(W_,7258);
- DYNX(DYNhelp,1342) = divinvGuarded(DYNX(W_,7887),"ventilation.generation.threeWayValve_a.res3.dp_nominal_pos");
- SetVector(residue__, 1, DYNX(W_,9538)+homotopy((PushModelContext(1,
+ DYNX(W_,9640) = DYNX(W_,9622)+DYNX(W_,9529)-DYNX(W_,9574)+DYNX(W_,7218);
+ DYNX(DYNhelp,1342) = divinvGuarded(DYNX(W_,7847),"ventilation.generation.threeWayValve_a.res3.dp_nominal_pos");
+ SetVector(residue__, 1, DYNX(W_,9507)+homotopy((PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res3.dp, ventilation.generation.threeWayValve_a.res3.k, ventilation.generation.threeWayValve_a.res3.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9671),
- DYNX(W_,7903), DYNX(W_,7884))), DYNX(DYNhelp,1342)*0.1088888888888889*
- DYNX(W_,9671)));
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9640),
+ DYNX(W_,7863), DYNX(W_,7844))), DYNX(DYNhelp,1342)*0.1088888888888889*
+ DYNX(W_,9640)));
PopModelContext();
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
DYNX(DYNhelp,1343) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_a.res3.dp, ventilation.generation.threeWayValve_a.res3.k, ventilation.generation.threeWayValve_a.res3.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(
- DYNX(W_,9671), DYNX(W_,7903), DYNX(W_,7884), 1.0)), DYNX(DYNhelp,1342)*
+ DYNX(W_,9640), DYNX(W_,7863), DYNX(W_,7844), 1.0)), DYNX(DYNhelp,1342)*
0.1088888888888889);
PopModelContext();
SetMatrixLeading(Jacobian__, 1, 1, 1, (1.0+homotopy((PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(ventilation.generation.hex.bal2.preDro.m_flow, 0.010888888888888889, 0.01088888888888889, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flowx_0der(
- DYNX(W_,9538), 0.010888888888888889, 0.01088888888888889, 1.0)),
+ DYNX(W_,9507), 0.010888888888888889, 0.01088888888888889, 1.0)),
918.3673469387754)*DYNX(DYNhelp,1343))*homotopy((PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(
- DYNX(W_,9653), DYNX(W_,7713), DYNX(W_,7694), 1.0)), DYNX(DYNhelp,1341)*
+ DYNX(W_,9622), DYNX(W_,7673), DYNX(W_,7654), 1.0)), DYNX(DYNhelp,1341)*
0.1088888888888889)+DYNX(DYNhelp,1343));
PopModelContext();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[7]");
- DYNX(W_,9653) = GetVector(x__, 1);
+ DYNX(W_,9622) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 9);
/* End of Non-Linear Equation Block */ }
}
-DYNX(W_,9009) = DYNX(W_,968)*DYNX(W_,8507)+DYNX(W_,969)*DYNX(W_,970);
-DYNX(F_,10) = homotopy(IF GreaterS(DYNX(W_,9009),"building.zonTem[1].comCool.lim.u",
- 1E+60,"1E+60", 73) THEN 1E+60 ELSE IF LessS(DYNX(W_,9009),"building.zonTem[1].comCool.lim.u",
- 0,"0", 74) THEN 0 ELSE DYNX(W_,9009), DYNX(W_,9009));
-DYNX(W_,9012) = DYNX(W_,1020)*DYNX(W_,8508)+DYNX(W_,1021)*DYNX(W_,1022);
-DYNX(F_,13) = homotopy(IF GreaterS(DYNX(W_,9012),"building.zonTemOpe[1].comCool.lim.u",
- 1E+60,"1E+60", 75) THEN 1E+60 ELSE IF LessS(DYNX(W_,9012),"building.zonTemOpe[1].comCool.lim.u",
- 0,"0", 76) THEN 0 ELSE DYNX(W_,9012), DYNX(W_,9012));
-DYNX(W_,9008) = DYNX(W_,953)*DYNX(W_,8507)+DYNX(W_,954)*DYNX(W_,955);
-DYNX(F_,9) = homotopy(IF GreaterS(DYNX(W_,9008),"building.zonTem[1].comHea.lim.u",
- 1E+60,"1E+60", 77) THEN 1E+60 ELSE IF LessS(DYNX(W_,9008),"building.zonTem[1].comHea.lim.u",
- 0,"0", 78) THEN 0 ELSE DYNX(W_,9008), DYNX(W_,9008));
-DYNX(W_,9011) = DYNX(W_,1005)*DYNX(W_,8508)+DYNX(W_,1006)*DYNX(W_,1007);
-DYNX(F_,12) = homotopy(IF GreaterS(DYNX(W_,9011),"building.zonTemOpe[1].comHea.lim.u",
- 1E+60,"1E+60", 79) THEN 1E+60 ELSE IF LessS(DYNX(W_,9011),"building.zonTemOpe[1].comHea.lim.u",
- 0,"0", 80) THEN 0 ELSE DYNX(W_,9011), DYNX(W_,9011));
-DYNX(W_,8306) = DYNX(DP_,327)*DYNX(W_,8283);
-DYNX(W_,9013) = DYNX(W_,8306)-DYNX(W_,8508);
-DYNX(F_,14) = homotopy(IF GreaterS(DYNX(W_,9013),"building.zonTemOpe[1].calCtrl.lim.u",
- 1E+60,"1E+60", 81) THEN 1E+60 ELSE IF LessS(DYNX(W_,9013),"building.zonTemOpe[1].calCtrl.lim.u",
- 0,"0", 82) THEN 0 ELSE DYNX(W_,9013), DYNX(W_,9013));
-DYNX(W_,8305) = DYNX(DP_,323)*DYNX(W_,8283);
-DYNX(W_,9010) = DYNX(W_,8305)-DYNX(W_,8507);
-DYNX(F_,11) = homotopy(IF GreaterS(DYNX(W_,9010),"building.zonTem[1].calCtrl.lim.u",
- 1E+60,"1E+60", 83) THEN 1E+60 ELSE IF LessS(DYNX(W_,9010),"building.zonTem[1].calCtrl.lim.u",
- 0,"0", 84) THEN 0 ELSE DYNX(W_,9010), DYNX(W_,9010));
-DYNX(W_,9501) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.transfer.res[1].m_flow, 0.002503975005737425, 0.09527999175517109)")
+DYNX(W_,8972) = DYNX(W_,968)*DYNX(W_,8470)+DYNX(W_,969)*DYNX(W_,970);
+DYNX(F_,10) = homotopy(IF GreaterS(DYNX(W_,8972),"building.zonTem[1].comCool.lim.u",
+ 1E+60,"1E+60", 81) THEN 1E+60 ELSE IF LessS(DYNX(W_,8972),"building.zonTem[1].comCool.lim.u",
+ 0,"0", 82) THEN 0 ELSE DYNX(W_,8972), DYNX(W_,8972));
+DYNX(W_,8975) = DYNX(W_,1020)*DYNX(W_,8471)+DYNX(W_,1021)*DYNX(W_,1022);
+DYNX(F_,13) = homotopy(IF GreaterS(DYNX(W_,8975),"building.zonTemOpe[1].comCool.lim.u",
+ 1E+60,"1E+60", 83) THEN 1E+60 ELSE IF LessS(DYNX(W_,8975),"building.zonTemOpe[1].comCool.lim.u",
+ 0,"0", 84) THEN 0 ELSE DYNX(W_,8975), DYNX(W_,8975));
+DYNX(W_,8971) = DYNX(W_,953)*DYNX(W_,8470)+DYNX(W_,954)*DYNX(W_,955);
+DYNX(F_,9) = homotopy(IF GreaterS(DYNX(W_,8971),"building.zonTem[1].comHea.lim.u",
+ 1E+60,"1E+60", 85) THEN 1E+60 ELSE IF LessS(DYNX(W_,8971),"building.zonTem[1].comHea.lim.u",
+ 0,"0", 86) THEN 0 ELSE DYNX(W_,8971), DYNX(W_,8971));
+DYNX(W_,8974) = DYNX(W_,1005)*DYNX(W_,8471)+DYNX(W_,1006)*DYNX(W_,1007);
+DYNX(F_,12) = homotopy(IF GreaterS(DYNX(W_,8974),"building.zonTemOpe[1].comHea.lim.u",
+ 1E+60,"1E+60", 87) THEN 1E+60 ELSE IF LessS(DYNX(W_,8974),"building.zonTemOpe[1].comHea.lim.u",
+ 0,"0", 88) THEN 0 ELSE DYNX(W_,8974), DYNX(W_,8974));
+DYNX(W_,8266) = DYNX(DP_,327)*DYNX(W_,8243);
+DYNX(W_,8976) = DYNX(W_,8266)-DYNX(W_,8471);
+DYNX(F_,14) = homotopy(IF GreaterS(DYNX(W_,8976),"building.zonTemOpe[1].calCtrl.lim.u",
+ 1E+60,"1E+60", 89) THEN 1E+60 ELSE IF LessS(DYNX(W_,8976),"building.zonTemOpe[1].calCtrl.lim.u",
+ 0,"0", 90) THEN 0 ELSE DYNX(W_,8976), DYNX(W_,8976));
+DYNX(W_,8265) = DYNX(DP_,323)*DYNX(W_,8243);
+DYNX(W_,8973) = DYNX(W_,8265)-DYNX(W_,8470);
+DYNX(F_,11) = homotopy(IF GreaterS(DYNX(W_,8973),"building.zonTem[1].calCtrl.lim.u",
+ 1E+60,"1E+60", 91) THEN 1E+60 ELSE IF LessS(DYNX(W_,8973),"building.zonTem[1].calCtrl.lim.u",
+ 0,"0", 92) THEN 0 ELSE DYNX(W_,8973), DYNX(W_,8973));
+DYNX(W_,9470) = homotopy((PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.transfer.res[1].m_flow, 0.002503975005737425, 0.09527999175517109)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow( -
- DYNX(W_,9256), 0.002503975005737425, 0.09527999175517109)), (-50654.78509292809)
- *DYNX(W_,9256));
+ DYNX(W_,9225), 0.002503975005737425, 0.09527999175517109)), (-50654.78509292809)
+ *DYNX(W_,9225));
PopModelContext();
-DYNX(W_,9500) = DYNX(W_,5781)-DYNX(W_,9501);
-AssertModelica(DYNX(W_,9500) >= 0.0,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p >= 0.0)",
+DYNX(W_,9469) = DYNX(W_,5741)-DYNX(W_,9470);
+AssertModelica(DYNX(W_,9469) >= 0.0,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9500), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9512), true, 0))," K)"));
-DYNX(W_,8626) = DYNX(W_,517)*DYNX(W_,8473);
-DYNX(W_,8622) = homotopy(IF GreaterS(DYNX(W_,8626),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
- 1E+60,"1E+60", 85) THEN 1E+60 ELSE IF LessS(DYNX(W_,8626),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
- 1E-15,"1E-15", 86) THEN 1E-15 ELSE DYNX(W_,8626), DYNX(W_,8626));
-DYNX(W_,8635) = DYNX(W_,545)*DYNX(W_,8474);
-DYNX(W_,8631) = homotopy(IF GreaterS(DYNX(W_,8635),"building.thermalZone[1].machinesSenHea.limiter.u",
- 1E+60,"1E+60", 87) THEN 1E+60 ELSE IF LessS(DYNX(W_,8635),"building.thermalZone[1].machinesSenHea.limiter.u",
- 1E-15,"1E-15", 88) THEN 1E-15 ELSE DYNX(W_,8635), DYNX(W_,8635));
-DYNX(W_,8641) = DYNX(W_,566)*DYNX(W_,8475);
-DYNX(W_,8637) = homotopy(IF GreaterS(DYNX(W_,8641),"building.thermalZone[1].lights.limiter.u",
- 1E+60,"1E+60", 89) THEN 1E+60 ELSE IF LessS(DYNX(W_,8641),"building.thermalZone[1].lights.limiter.u",
- 1E-15,"1E-15", 90) THEN 1E-15 ELSE DYNX(W_,8641), DYNX(W_,8641));
-DYNX(W_,9039) = 0.0010044335697769957*DYNX(W_,9021);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(43);
+ DYNX(W_,9469), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9481), true, 0))," K)"));
+DYNX(W_,8589) = DYNX(W_,517)*DYNX(W_,8436);
+DYNX(W_,8585) = homotopy(IF GreaterS(DYNX(W_,8589),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
+ 1E+60,"1E+60", 93) THEN 1E+60 ELSE IF LessS(DYNX(W_,8589),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
+ 1E-15,"1E-15", 94) THEN 1E-15 ELSE DYNX(W_,8589), DYNX(W_,8589));
+DYNX(W_,8598) = DYNX(W_,545)*DYNX(W_,8437);
+DYNX(W_,8594) = homotopy(IF GreaterS(DYNX(W_,8598),"building.thermalZone[1].machinesSenHea.limiter.u",
+ 1E+60,"1E+60", 95) THEN 1E+60 ELSE IF LessS(DYNX(W_,8598),"building.thermalZone[1].machinesSenHea.limiter.u",
+ 1E-15,"1E-15", 96) THEN 1E-15 ELSE DYNX(W_,8598), DYNX(W_,8598));
+DYNX(W_,8604) = DYNX(W_,566)*DYNX(W_,8438);
+DYNX(W_,8600) = homotopy(IF GreaterS(DYNX(W_,8604),"building.thermalZone[1].lights.limiter.u",
+ 1E+60,"1E+60", 97) THEN 1E+60 ELSE IF LessS(DYNX(W_,8604),"building.thermalZone[1].lights.limiter.u",
+ 1E-15,"1E-15", 98) THEN 1E-15 ELSE DYNX(W_,8604), DYNX(W_,8604));
+DYNX(W_,9002) = 0.0010044335697769957*DYNX(W_,8984);
if (DymolaHomotopyLambda==0){
- BreakSectionCallNew(44);
+ BreakSectionCallNew(43);
}
else {
/* Introducing 3 common subexpressions used in 1 expressions */
@@ -17720,9 +17722,9 @@ else {
const double nominal_[]={1.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 10, -2,
DYNX(DYNhelp,1344), 35, DYNX(did_->helpvari_vec,242), 23);
- SetInitVector(x__, 1, DYNX(W_,9036), 10.0*DYNX(DP_,378));
+ SetInitVector(x__, 1, DYNX(W_,8999), 10.0*DYNX(DP_,378));
Residues;
- DYNX(DYNhelp,1379) = DYNX(W_,9039)-0.00020088671395539914;
+ DYNX(DYNhelp,1379) = DYNX(W_,9002)-0.00020088671395539914;
PopAllMarks();
DYNX(DYNhelp,1380) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0002109310496531691, \n1, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0002109310496531691,
@@ -17743,63 +17745,63 @@ else {
&DYNX(W_,1356), 1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(
DYNX(W_,1355)))))+49779.299999999996*DYNX(DYNhelp,1379)*DYNX(DYNhelp,1380);
PopAllMarks();
- SetVector(residue__, 1, 104.15845936708862*DYNX(W_,9039)+DYNX(W_,1270)-
+ SetVector(residue__, 1, 104.15845936708862*DYNX(W_,9002)+DYNX(W_,1270)-
homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9039),
- DYNX(W_,9036), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9002),
+ DYNX(W_,8999), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
0.0002736215586633885, DymStruc6_construct(RealTemporaryDense(
&DYNX(W_,1356), 1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(
- DYNX(W_,1355))))), DYNX(W_,9036)*DYNX(DYNhelp,1381)));
+ DYNX(W_,1355))))), DYNX(W_,8999)*DYNX(DYNhelp,1381)));
PopAllMarks();
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, -homotopy((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2, \n0.0, \n1.0, \n{0.0, 0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \nV_flow = {0.0, 0.0, 0.0, 0.0}, \ndp = {0.0, 0.0, 0.0, 0.0}\n))")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9039),
- DYNX(W_,9036), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9002),
+ DYNX(W_,8999), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
0.0002736215586633885, DymStruc6_construct(RealTemporaryDense(
&DYNX(W_,1356), 1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(
- DYNX(W_,1355))), 0.0, 1.0, RealTemporaryDense( DymArrays110, 1, 4), 0.0, 0.0,
- DymStruc6_construct(RealTemporaryDense( DymArrays110, 1, 4),
- RealTemporaryDense( DymArrays110, 1, 4), 0))), DYNX(DYNhelp,1381)));
+ DYNX(W_,1355))), 0.0, 1.0, RealTemporaryDense( DymArrays109, 1, 4), 0.0, 0.0,
+ DymStruc6_construct(RealTemporaryDense( DymArrays109, 1, 4),
+ RealTemporaryDense( DymArrays109, 1, 4), 0))), DYNX(DYNhelp,1381)));
PopAllMarks();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[8]");
- DYNX(W_,9036) = GetVector(x__, 1);
+ DYNX(W_,8999) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 10);
/* End of Non-Linear Equation Block */ }
}
-DYNX(W_,9049) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nDHW.pump.eff.powEu, \nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.powEuDer, \n0.05)")
+DYNX(W_,9012) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nDHW.pump.eff.powEu, \nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
RealTemporaryDense( &DYNX(W_,1432), 1, 11), RealTemporaryDense( &DYNX(W_,1421),
- 1, 11)), DYNX(W_,9039), DYNX(W_,9036), RealTemporaryDense( &DYNX(W_,1443), 1,
- 11), 0.05)), 4977.929999999999*DYNX(W_,9039)*(PushModelContext(1,
+ 1, 11)), DYNX(W_,9002), DYNX(W_,8999), RealTemporaryDense( &DYNX(W_,1443), 1,
+ 11), 0.05)), 4977.929999999999*DYNX(W_,9002)*(PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nDHW.pump.eff.powEu, \n0.00020088671395539914, \n1, \nDHW.pump.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
RealTemporaryDense( &DYNX(W_,1432), 1, 11), RealTemporaryDense( &DYNX(W_,1421),
1, 11)), 0.00020088671395539914, 1, RealTemporaryDense( &DYNX(W_,1443), 1, 11),
0.05)));
PopAllMarks();
-DYNX(W_,9051) = IF DYNX(W_,1317) THEN divGuarded(DYNX(W_,9049),"DHW.pump.eff.WHyd",
+DYNX(W_,9014) = IF DYNX(W_,1317) THEN divGuarded(DYNX(W_,9012),"DHW.pump.eff.WHyd",
DYNX(W_,1298),"DHW.pump.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9042) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nDHW.pump.eff.per.motorEfficiency_yMot_generic, \nDHW.pump.eff.yMot, \nDHW.pump.eff.motDer_yMot_generic)")
+DYNX(W_,9005) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nDHW.pump.eff.per.motorEfficiency_yMot_generic, \nDHW.pump.eff.yMot, \nDHW.pump.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
DymStruc4_construct(RealTemporaryDense( &DYNX(W_,1308), 1, 9),
- RealTemporaryDense( &DYNX(W_,1299), 1, 9)), DYNX(W_,9051), RealTemporaryDense(
+ RealTemporaryDense( &DYNX(W_,1299), 1, 9)), DYNX(W_,9014), RealTemporaryDense(
&DYNX(W_,1335), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nDHW.pump.eff.per.motorEfficiency_yMot_generic, \n1, \nDHW.pump.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
DymStruc4_construct(RealTemporaryDense( &DYNX(W_,1308), 1, 9),
RealTemporaryDense( &DYNX(W_,1299), 1, 9)), 1, RealTemporaryDense(
&DYNX(W_,1335), 1, 9))));
PopAllMarks();
-DYNX(W_,9506) = (-0.0010044335697769957)*DYNX(W_,9256);
-DYNX(W_,9518) = DYNX(W_,5781)-DYNX(W_,9500);
+DYNX(W_,9475) = (-0.0010044335697769957)*DYNX(W_,9225);
+DYNX(W_,9487) = DYNX(W_,5741)-DYNX(W_,9469);
if (DymolaHomotopyLambda==0){
- BreakSectionCallNew(45);
+ BreakSectionCallNew(44);
}
else {
/* Introducing 3 common subexpressions used in 1 expressions */
@@ -17811,94 +17813,93 @@ else {
const double nominal_[]={1.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 11, -2,
DYNX(DYNhelp,1382), 35, DYNX(did_->helpvari_vec,265), 23);
- SetInitVectorSimple(x__, 1, DYNX(W_,9503), 20, 1.0);
+ SetInitVectorSimple(x__, 1, DYNX(W_,9472), 20, 1.0);
Residues;
- DYNX(DYNhelp,1417) = DYNX(W_,9506)-0.0006380161483131281;
+ DYNX(DYNhelp,1417) = DYNX(W_,9475)-0.0006380161483131281;
PopAllMarks();
DYNX(DYNhelp,1418) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006699169557287845, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006699169557287845,
- 1, RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
+ 1, RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
0.0008690219951161572, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- DYNX(W_,6513)))))-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006061153408974717, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ DYNX(W_,6473)))))-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006061153408974717, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006061153408974717,
- 1, RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
+ 1, RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
0.0008690219951161572, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- DYNX(W_,6513)))));
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ DYNX(W_,6473)))));
PopAllMarks();
DYNX(DYNhelp,1419) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006380161483131281, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006380161483131281,
- 1, RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
+ 1, RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
0.0008690219951161572, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- DYNX(W_,6513)))))+15673.584479702165*DYNX(DYNhelp,1417)*DYNX(DYNhelp,1418);
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ DYNX(W_,6473)))))+15673.584479702165*DYNX(DYNhelp,1417)*DYNX(DYNhelp,1418);
PopAllMarks();
- SetVector(residue__, 1, 5527.368392700377*DYNX(W_,9506)+DYNX(W_,9518)-homotopy
+ SetVector(residue__, 1, 5527.368392700377*DYNX(W_,9475)+DYNX(W_,9487)-homotopy
((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9506),
- DYNX(W_,9503), RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9475),
+ DYNX(W_,9472), RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
0.0008690219951161572, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- DYNX(W_,6513))))), DYNX(W_,9503)*DYNX(DYNhelp,1419)));
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ DYNX(W_,6473))))), DYNX(W_,9472)*DYNX(DYNhelp,1419)));
PopAllMarks();
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, -homotopy((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2, \n0.0, \n1.0, \n{0.0, 0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersIn...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9506),
- DYNX(W_,9503), RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9475),
+ DYNX(W_,9472), RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
0.0008690219951161572, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,6514), 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(
- DYNX(W_,6513))), 0.0, 1.0, RealTemporaryDense( DymArrays110, 1, 4), 0.0, 0.0,
- DymStruc6_construct(RealTemporaryDense( DymArrays110, 1, 4),
- RealTemporaryDense( DymArrays110, 1, 4), 0))), DYNX(DYNhelp,1419)));
+ &DYNX(W_,6474), 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(
+ DYNX(W_,6473))), 0.0, 1.0, RealTemporaryDense( DymArrays109, 1, 4), 0.0, 0.0,
+ DymStruc6_construct(RealTemporaryDense( DymArrays109, 1, 4),
+ RealTemporaryDense( DymArrays109, 1, 4), 0))), DYNX(DYNhelp,1419)));
PopAllMarks();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: initialization.nonlinear[9]");
- DYNX(W_,9503) = GetVector(x__, 1);
+ DYNX(W_,9472) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 11);
/* End of Non-Linear Equation Block */ }
}
-DYNX(W_,9520) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.transfer.pumFixMFlo[1].eff.powEu, \nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.powEuDer, \n0.05)")
+DYNX(W_,9489) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.transfer.pumFixMFlo[1].eff.powEu, \nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,6590), 1, 11), RealTemporaryDense( &DYNX(W_,6579),
- 1, 11)), DYNX(W_,9506), DYNX(W_,9503), RealTemporaryDense( &DYNX(W_,6601), 1,
- 11), 0.05)), 1567.3584479702167*DYNX(W_,9506)*(PushModelContext(1,
+ RealTemporaryDense( &DYNX(W_,6550), 1, 11), RealTemporaryDense( &DYNX(W_,6539),
+ 1, 11)), DYNX(W_,9475), DYNX(W_,9472), RealTemporaryDense( &DYNX(W_,6561), 1,
+ 11), 0.05)), 1567.3584479702167*DYNX(W_,9475)*(PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.transfer.pumFixMFlo[1].eff.powEu, \n0.0006380161483131281, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,6590), 1, 11), RealTemporaryDense( &DYNX(W_,6579),
- 1, 11)), 0.0006380161483131281, 1, RealTemporaryDense( &DYNX(W_,6601), 1, 11),
+ RealTemporaryDense( &DYNX(W_,6550), 1, 11), RealTemporaryDense( &DYNX(W_,6539),
+ 1, 11)), 0.0006380161483131281, 1, RealTemporaryDense( &DYNX(W_,6561), 1, 11),
0.05)));
PopAllMarks();
-DYNX(W_,9522) = IF DYNX(W_,6475) THEN divGuarded(DYNX(W_,9520),"hydraulic.transfer.pumFixMFlo[1].eff.WHyd",
- DYNX(W_,6456),"hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9510) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic, \nhydraulic.transfer.pumFixMFlo[1].eff.yMot, \nhydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic)")
+DYNX(W_,9491) = IF DYNX(W_,6435) THEN divGuarded(DYNX(W_,9489),"hydraulic.transfer.pumFixMFlo[1].eff.WHyd",
+ DYNX(W_,6416),"hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,9479) = homotopy((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic, \nhydraulic.transfer.pumFixMFlo[1].eff.yMot, \nhydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,6466), 1, 9),
- RealTemporaryDense( &DYNX(W_,6457), 1, 9)), DYNX(W_,9522), RealTemporaryDense(
- &DYNX(W_,6493), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic)")
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,6426), 1, 9),
+ RealTemporaryDense( &DYNX(W_,6417), 1, 9)), DYNX(W_,9491), RealTemporaryDense(
+ &DYNX(W_,6453), 1, 9))), (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,6466), 1, 9),
- RealTemporaryDense( &DYNX(W_,6457), 1, 9)), 1, RealTemporaryDense(
- &DYNX(W_,6493), 1, 9))));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,6426), 1, 9),
+ RealTemporaryDense( &DYNX(W_,6417), 1, 9)), 1, RealTemporaryDense(
+ &DYNX(W_,6453), 1, 9))));
PopAllMarks();
InitialSection
InitialSection2
-DYNX(W_,8417) = DYNX(Aux_,301);
-DYNX(W_,8393) = DYNX(Aux_,304);
-DYNX(W_,8392) = DYNX(Aux_,305);
-DYNX(W_,8380) = DYNX(Aux_,315);
-DYNX(W_,8378) = DYNX(Aux_,316);
-DYNX(W_,8365) = DYNX(Aux_,317);
-DYNX(W_,8363) = DYNX(Aux_,319);
-DYNX(W_,8362) = DYNX(Aux_,320);
-DYNX(W_,8360) = DYNX(Aux_,321);
-DYNX(W_,8361) = DYNX(Aux_,322);
+DYNX(W_,8380) = DYNX(Aux_,301);
+DYNX(W_,8356) = DYNX(Aux_,305);
+DYNX(W_,8355) = DYNX(Aux_,306);
+DYNX(W_,8343) = DYNX(Aux_,316);
+DYNX(W_,8341) = DYNX(Aux_,317);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(45);
+DYNX(W_,8328) = DYNX(Aux_,318);
+DYNX(W_,8326) = DYNX(Aux_,320);
InitialSection
InitialSectionB
Init_=false;InitializeData(2);Init_=true;
@@ -17915,54 +17916,54 @@ InitialSection2
1,DYNX(did_->helpvari_vec,292), 0);
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"SimpleLiquidWater\", {\"SimpleLiquidWater\"}, true, true, DHW.bou_sink.X_in_internal, \"Boundary_pT\")")
Modelica_Fluid_Utilities_checkBoundary("SimpleLiquidWater", StringTemporaryDense(
- DymArrays111, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,1465), 1, 1),
+ DymArrays110, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,1465), 1, 1),
"Boundary_pT"));
PopAllMarks();
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"SimpleLiquidWater\", {\"SimpleLiquidWater\"}, true, true, DHW.bouSou.X_in_internal, \"Boundary_pT\")")
Modelica_Fluid_Utilities_checkBoundary("SimpleLiquidWater", StringTemporaryDense(
- DymArrays111, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,1478), 1, 1),
+ DymArrays110, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,1478), 1, 1),
"Boundary_pT"));
PopAllMarks();
- AssertModelica4(DYNX(W_,2614) >= DYNX(W_,2843),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_nominal >= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_min",
+ AssertModelica4(DYNX(W_,2599) >= DYNX(W_,2828),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_nominal >= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_min",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.refCyc.refCycHeaPumHea: The nominal condenser mass flow rate (",
- Real2String2(DYNX(W_,2614), true, 0))," kg/s) is smaller than the \n minimal value ("),
- Real2String2(DYNX(W_,2843), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
+ Real2String2(DYNX(W_,2599), true, 0))," kg/s) is smaller than the \n minimal value ("),
+ Real2String2(DYNX(W_,2828), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
1,DYNX(did_->helpvari_vec,293), 1);
- AssertModelica4(DYNX(W_,2614) <= DYNX(W_,2844),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_nominal <= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_max",
+ AssertModelica4(DYNX(W_,2599) <= DYNX(W_,2829),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_nominal <= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_max",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.refCyc.refCycHeaPumHea: The nominal condenser mass flow rate (",
- Real2String2(DYNX(W_,2614), true, 0))," kg/s) is bigger than the \n maximal value ("),
- Real2String2(DYNX(W_,2844), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
+ Real2String2(DYNX(W_,2599), true, 0))," kg/s) is bigger than the \n maximal value ("),
+ Real2String2(DYNX(W_,2829), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
1,DYNX(did_->helpvari_vec,294), 1);
- AssertModelica4(DYNX(W_,2615) >= DYNX(W_,2841),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_nominal >= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_min",
+ AssertModelica4(DYNX(W_,2600) >= DYNX(W_,2826),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_nominal >= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_min",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.refCyc.refCycHeaPumHea: The nominal evaporator mass flow rate (",
- Real2String2(DYNX(W_,2615), true, 0))," kg/s) is smaller than the \n minimal value ("),
- Real2String2(DYNX(W_,2841), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
+ Real2String2(DYNX(W_,2600), true, 0))," kg/s) is smaller than the \n minimal value ("),
+ Real2String2(DYNX(W_,2826), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
1,DYNX(did_->helpvari_vec,295), 1);
- AssertModelica4(DYNX(W_,2615) <= DYNX(W_,2842),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_nominal <= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_max",
+ AssertModelica4(DYNX(W_,2600) <= DYNX(W_,2827),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_nominal <= hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_max",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.refCyc.refCycHeaPumHea: The nominal evaporator mass flow rate (",
- Real2String2(DYNX(W_,2615), true, 0))," kg/s) is bigger than the \n maximal value ("),
- Real2String2(DYNX(W_,2842), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
+ Real2String2(DYNX(W_,2600), true, 0))," kg/s) is bigger than the \n maximal value ("),
+ Real2String2(DYNX(W_,2827), true, 0))," kg/s) for the table data \n when assuming a temperature spread between 3 and 10 K, as in EN 14511."),
1,DYNX(did_->helpvari_vec,296), 1);
- if ( NOT DYNX(W_,2580)) {
- AssertModelica(false,"false", "In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.refCyc: Device identifiers devIde for reversible operation are not equal.\n Heating device identifier is 'Vitocal350AWI114' but cooling is 'NoCooling'. To allow this, set 'allowDifferentDeviceIdentifiers=true'.");
+ if ( NOT DYNX(W_,2569)) {
+ AssertModelica(false,"false", "In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.refCyc: Device identifiers devIde for reversible operation are not equal.\n Heating device identifier is 'Vitocal350AWI114' but cooling is 'DefrostEfficiency'. To allow this, set 'allowDifferentDeviceIdentifiers=true'.");
}
- AssertModelica(DYNX(W_,2946) > 1E-15,"hydraulic.generation.heatPump.con.tau > 1E-15",
+ AssertModelica(DYNX(W_,2921) > 1E-15,"hydraulic.generation.heatPump.con.tau > 1E-15",
StringAdd(StringAdd("The parameter tau, or the volume of the model from which tau may be derived, is unreasonably small.\n You need to set energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState to model steady-state.\n Received tau = ",
- Real2String2(DYNX(W_,2946), true, 0)),"\n"));
+ Real2String2(DYNX(W_,2921), true, 0)),"\n"));
AssertModelica4(true,"true", "In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.con: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
1,DYNX(did_->helpvari_vec,297), 0);
- AssertModelica(DYNX(W_,3054) > 1E-15,"hydraulic.generation.heatPump.eva.tau > 1E-15",
+ AssertModelica(DYNX(W_,3029) > 1E-15,"hydraulic.generation.heatPump.eva.tau > 1E-15",
StringAdd(StringAdd("The parameter tau, or the volume of the model from which tau may be derived, is unreasonably small.\n You need to set energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState to model steady-state.\n Received tau = ",
- Real2String2(DYNX(W_,3054), true, 0)),"\n"));
+ Real2String2(DYNX(W_,3029), true, 0)),"\n"));
AssertModelica4(true,"true", "In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.eva: The constant homotopyInitialization has been modified from its default value. This constant will be removed in future releases.",
1,DYNX(did_->helpvari_vec,298), 0);
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"Air\", {\"water\", \"air\"}, false, true, hydraulic.generation.bou_sinkAir.X_in_internal, \"Boundary_pT\")")
- Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays112,
- 1, 2), false, true, RealTemporaryDense( &DYNX(W_,3421), 1, 2), "Boundary_pT"));
+ Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays111,
+ 1, 2), false, true, RealTemporaryDense( &DYNX(W_,3383), 1, 2), "Boundary_pT"));
PopAllMarks();
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"Air\", {\"water\", \"air\"}, false, true, hydraulic.generation.bouEva.X_in_internal, \"Boundary_pT\")")
- Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays112,
- 1, 2), false, true, RealTemporaryDense( &DYNX(W_,3436), 1, 2), "Boundary_pT"));
+ Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays111,
+ 1, 2), false, true, RealTemporaryDense( &DYNX(W_,3398), 1, 2), "Boundary_pT"));
PopAllMarks();
AssertModelica4(true,"true", "*** Warning in HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump: Mover is flow or pressure controlled and uses default pressure curve.\nThis leads to an approximate power consumption.\nSet nominalValuesDefineDefaultPressureCurve=true to suppress this warning.",
1,DYNX(did_->helpvari_vec,299), 0);
@@ -17976,7 +17977,7 @@ PopAllMarks();
1,DYNX(did_->helpvari_vec,303), 0);
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"SimpleLiquidWater\", {\"SimpleLiquidWater\"}, true, true, hydraulic.generation.bouPum.X_in_internal, \"Boundary_pT\")")
Modelica_Fluid_Utilities_checkBoundary("SimpleLiquidWater", StringTemporaryDense(
- DymArrays111, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,3810), 1, 1),
+ DymArrays110, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,3772), 1, 1),
"Boundary_pT"));
PopAllMarks();
AssertModelica(true,"true", "The parameter tau, or the volume of the model from which tau may be derived, is unreasonably small.\n You need to set energyDynamics == Modelica.Fluid.Types.Dynamics.SteadyState to model steady-state.\n Received tau = 30\n");
@@ -17984,7 +17985,7 @@ PopAllMarks();
1,DYNX(did_->helpvari_vec,304), 0);
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"SimpleLiquidWater\", {\"SimpleLiquidWater\"}, true, true, hydraulic.distribution.bouPumBuf.X_in_internal, \"Boundary_pT\")")
Modelica_Fluid_Utilities_checkBoundary("SimpleLiquidWater", StringTemporaryDense(
- DymArrays111, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,5776), 1, 1),
+ DymArrays110, 1, 1), true, true, RealTemporaryDense( &DYNX(W_,5736), 1, 1),
"Boundary_pT"));
PopAllMarks();
AssertModelica4(true,"true", "*** Warning in HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1]: Mover is flow or pressure controlled and uses default pressure curve.\nThis leads to an approximate power consumption.\nSet nominalValuesDefineDefaultPressureCurve=true to suppress this warning.",
@@ -17998,8 +17999,8 @@ PopAllMarks();
AssertModelica4(true,"true", "*** Warning in HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1]: Mover has per.etaMotMet=.Efficiency_MotorPartLoadRatio or per.etaMotMet=.GenericCurve\nand provides information for total electric power instead of hydraulic power.\nThis forms an algebraic loop. If simulation fails to converge,\nsee the \"Motor efficiency\" section in the users guide for how to correct it.",
1,DYNX(did_->helpvari_vec,309), 0);
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"Air\", {\"water\", \"air\"}, false, true, ventilation.generation.bouSup.X_in_internal, \"Boundary_pT\")")
- Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays112,
- 1, 2), false, true, RealTemporaryDense( &DYNX(W_,6875), 1, 2), "Boundary_pT"));
+ Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays111,
+ 1, 2), false, true, RealTemporaryDense( &DYNX(W_,6835), 1, 2), "Boundary_pT"));
PopAllMarks();
AssertModelica4(true,"true", "*** Warning in HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow: Mover is flow or pressure controlled and uses default pressure curve.\nThis leads to an approximate power consumption.\nSet nominalValuesDefineDefaultPressureCurve=true to suppress this warning.",
1,DYNX(did_->helpvari_vec,310), 0);
@@ -18012,8 +18013,8 @@ PopAllMarks();
AssertModelica4(true,"true", "*** Warning in HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow: Mover has per.etaMotMet=.Efficiency_MotorPartLoadRatio or per.etaMotMet=.GenericCurve\nand provides information for total electric power instead of hydraulic power.\nThis forms an algebraic loop. If simulation fails to converge,\nsee the \"Motor efficiency\" section in the users guide for how to correct it.",
1,DYNX(did_->helpvari_vec,314), 0);
(PushModelContext(1,"Modelica.Fluid.Utilities.checkBoundary(\"Air\", {\"water\", \"air\"}, false, true, ventilation.generation.bouExh.X_in_internal, \"Boundary_pT\")")
- Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays112,
- 1, 2), false, true, RealTemporaryDense( &DYNX(W_,7252), 1, 2), "Boundary_pT"));
+ Modelica_Fluid_Utilities_checkBoundary("Air", StringTemporaryDense( DymArrays111,
+ 1, 2), false, true, RealTemporaryDense( &DYNX(W_,7212), 1, 2), "Boundary_pT"));
PopAllMarks();
AssertModelica4(true,"true", "*** Warning in HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet: Mover is flow or pressure controlled and uses default pressure curve.\nThis leads to an approximate power consumption.\nSet nominalValuesDefineDefaultPressureCurve=true to suppress this warning.",
1,DYNX(did_->helpvari_vec,315), 0);
@@ -18034,130 +18035,130 @@ AssertModelica((PushModelContext(1,"IBPSA.Utilities.Math.Functions.isMonotonic(D
RealTemporaryDense( &DYNX(W_,1272), 1, 3), "pressure.V_flow", 6, 6))));
PopAllMarks();
AssertModelica((PushModelContext(1,"IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.generation.pump.eff.per.pressure.V_flow, true)")
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,3610),
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,3572),
1, 3), true)),"IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.generation.pump.eff.per.pressure.V_flow, true)",
StringAdd("The fan pressure rise must be a strictly decreasing sequence with respect to the volume flow rate,\n with the first element for the fan pressure raise being non-zero.\nThe following performance data have been entered:\n",
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(hydraulic.generation.pump.eff.per.pressure.V_flow, \"pressure.V_flow\", 6, 6)")
IBPSA_Fluid_Movers_BaseClasses_FlowMachineInterface_getArrayAsString(
- RealTemporaryDense( &DYNX(W_,3610), 1, 3), "pressure.V_flow", 6, 6))));
+ RealTemporaryDense( &DYNX(W_,3572), 1, 3), "pressure.V_flow", 6, 6))));
PopAllMarks();
AssertModelica((PushModelContext(1,"IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow, true)")
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,6430),
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,6390),
1, 3), true)),"IBPSA.Utilities.Math.Functions.isMonotonic(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow, true)",
StringAdd("The fan pressure rise must be a strictly decreasing sequence with respect to the volume flow rate,\n with the first element for the fan pressure raise being non-zero.\nThe following performance data have been entered:\n",
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow, \"pressure.V_flow\", 6, 6)")
IBPSA_Fluid_Movers_BaseClasses_FlowMachineInterface_getArrayAsString(
- RealTemporaryDense( &DYNX(W_,6430), 1, 3), "pressure.V_flow", 6, 6))));
+ RealTemporaryDense( &DYNX(W_,6390), 1, 3), "pressure.V_flow", 6, 6))));
PopAllMarks();
AssertModelica((PushModelContext(1,"IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanFlow.eff.per.pressure.V_flow, true)")
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7045),
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7005),
1, 3), true)),"IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanFlow.eff.per.pressure.V_flow, true)",
StringAdd("The fan pressure rise must be a strictly decreasing sequence with respect to the volume flow rate,\n with the first element for the fan pressure raise being non-zero.\nThe following performance data have been entered:\n",
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(ventilation.generation.fanFlow.eff.per.pressure.V_flow, \"pressure.V_flow\", 6, 6)")
IBPSA_Fluid_Movers_BaseClasses_FlowMachineInterface_getArrayAsString(
- RealTemporaryDense( &DYNX(W_,7045), 1, 3), "pressure.V_flow", 6, 6))));
+ RealTemporaryDense( &DYNX(W_,7005), 1, 3), "pressure.V_flow", 6, 6))));
PopAllMarks();
AssertModelica((PushModelContext(1,"IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanRet.eff.per.pressure.V_flow, true)")
- IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7423),
+ IBPSA_Utilities_Math_Functions_isMonotonic(RealTemporaryDense( &DYNX(W_,7383),
1, 3), true)),"IBPSA.Utilities.Math.Functions.isMonotonic(ventilation.generation.fanRet.eff.per.pressure.V_flow, true)",
StringAdd("The fan pressure rise must be a strictly decreasing sequence with respect to the volume flow rate,\n with the first element for the fan pressure raise being non-zero.\nThe following performance data have been entered:\n",
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.FlowMachineInterface.getArrayAsString(ventilation.generation.fanRet.eff.per.pressure.V_flow, \"pressure.V_flow\", 6, 6)")
IBPSA_Fluid_Movers_BaseClasses_FlowMachineInterface_getArrayAsString(
- RealTemporaryDense( &DYNX(W_,7423), 1, 3), "pressure.V_flow", 6, 6))));
+ RealTemporaryDense( &DYNX(W_,7383), 1, 3), "pressure.V_flow", 6, 6))));
PopAllMarks();
EndInitialSection
AssertModelica(DYNX(W_,1483) >= 0.0,"DHW.pump.vol.dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1483), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9043), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.generation.pump.vol.dynBal.medium.p >= 0.0",
+ Real2String2(DYNX(W_,9006), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.generation.pump.vol.dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9206), true, 0))," K)"));
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9175), true, 0))," K)"));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9262), true, 0))," K)"));
+ Real2String2(DYNX(W_,9231), true, 0))," K)"));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9270), true, 0))," K)"));
+ Real2String2(DYNX(W_,9239), true, 0))," K)"));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9278), true, 0))," K)"));
+ Real2String2(DYNX(W_,9247), true, 0))," K)"));
AssertModelica(DYNX(W_,1470) >= 0.0,"hydraulic.distribution.stoDHW.layer[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
DYNX(W_,1470), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9284), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p >= 0.0",
+ Real2String2(DYNX(W_,9253), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9291), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9260), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9299), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9268), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9307), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9276), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9314), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9283), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9344), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9313), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9352), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9321), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9360), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9329), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9366), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9335), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9373), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9342), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9381), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9350), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9389), true, 0))," K)"));
-AssertModelica(DYNX(W_,3815) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9358), true, 0))," K)"));
+AssertModelica(DYNX(W_,3777) >= 0.0,"hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,3815), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9396), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[1].dynBal.medium.p >= 0.0",
+ DYNX(W_,3777), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9365), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[1].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9464), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[2].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9433), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[2].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9472), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[3].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9441), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[3].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9480), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[4].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9449), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[4].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9488), true, 0))," K)"));
-AssertModelica(DYNX(W_,5781) >= 0.0,"hydraulic.transfer.rad[1].vol[5].dynBal.medium.p >= 0.0",
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9457), true, 0))," K)"));
+AssertModelica(DYNX(W_,5741) >= 0.0,"hydraulic.transfer.rad[1].vol[5].dynBal.medium.p >= 0.0",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,5781), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9495), true, 0))," K)"));
+ DYNX(W_,5741), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9464), true, 0))," K)"));
OutputSection
AssertModelica(DYNX(X_,22) >= -1E-05 AND DYNX(X_,22) <= 1.00001,"noEvent(hydraulic.generation.heatPump.port_a2.Xi_outflow[1] >= -1E-05) and noEvent(hydraulic.generation.heatPump.port_a2.Xi_outflow[1] <= 1.00001)",
@@ -18186,171 +18187,171 @@ DYNX(DYNhelp,1421) = real2integer(DYNX(DYNhelp,1420)*(DYNTime-DYNX(DP_,346)));
whenModelica(real2integerEventMinor(divGuarded(DYNTime-DYNX(DP_,346),
"time-userProfiles.setBakTSetZone[1].startTime",DYNX(DP_,344),"userProfiles.setBakTSetZone[1].period"),
"(time-userProfiles.setBakTSetZone[1].startTime)/userProfiles.setBakTSetZone[1].period",
- 0) > PRE(DYNX(W_,8311), 39), 0)
- DYNX(W_,8311) = PRE(DYNX(W_,8311), 39)+1;
- DYNX(W_,8310) = DYNTime;
+ 0) > PRE(DYNX(W_,8271), 41), 0)
+ DYNX(W_,8271) = PRE(DYNX(W_,8271), 41)+1;
+ DYNX(W_,8270) = DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,8283) = 294.15+(IF LessTime(DYNX(DP_,346), 0) OR DYNX(DP_,345) == 0 OR
- DYNX(DP_,345) > 0 AND DYNX(W_,8311) >= DYNX(DP_,345) THEN 0 ELSE IF LessTime(
- DYNX(W_,8310)+DYNX(W_,1062), 1) THEN DYNX(DP_,342) ELSE 0);
+DYNX(W_,8243) = 294.15+(IF LessTime(DYNX(DP_,346), 0) OR DYNX(DP_,345) == 0 OR
+ DYNX(DP_,345) > 0 AND DYNX(W_,8271) >= DYNX(DP_,345) THEN 0 ELSE IF LessTime(
+ DYNX(W_,8270)+DYNX(W_,1062), 1) THEN DYNX(DP_,342) ELSE 0);
/* Linear system of equations to solve. */
-DYNX(W_,8529) = RememberSimple_(DYNX(W_,8529), 0);
+DYNX(W_,8492) = RememberSimple_(DYNX(W_,8492), 0);
SolveScalarLinear( -DYNX(X_,2)," -building.thermalZone[1].ROM.volAir.dynBal.m",
- -DYNX(X_,1)," -building.thermalZone[1].ROM.volAir.dynBal.U", DYNX(W_,8529),
+ -DYNX(X_,1)," -building.thermalZone[1].ROM.volAir.dynBal.U", DYNX(W_,8492),
"building.thermalZone[1].ROM.volAir.dynBal.medium.u");
/* End of Equation Block */
-DYNX(W_,8512) = 84437.5+DYNX(W_,8529);
-DYNX(W_,8507) = 273.15+divGuarded(DYNX(W_,8512)-2501014.5*DYNX(X_,0),
+DYNX(W_,8475) = 84437.5+DYNX(W_,8492);
+DYNX(W_,8470) = 273.15+divGuarded(DYNX(W_,8475)-2501014.5*DYNX(X_,0),
"building.thermalZone[1].ROM.volAir.hOut_internal-2501014.5*building.thermalZone[1].ports[1].Xi_outflow[1]",1006
*(1-DYNX(X_,0))+1860*DYNX(X_,0),"1006*(1-building.thermalZone[1].ports[1].Xi_outflow[1])+1860*building.thermalZone[1].ports[1].Xi_outflow[1]");
-DYNX(W_,9225) = DYNX(W_,4075)*DYNX(W_,8283)+DYNX(DP_,1137)*DYNX(W_,8507);
-DYNX(W_,9226) = DYNX(DP_,1138)*DYNX(W_,9225);
-DYNX(W_,9227) = DYNX(DP_,1139)*DYNX(W_,9226)+DYNX(DP_,1140)*DYNX(DP_,1142)+
- DYNX(DP_,1141)*DYNX(X_,35);
-DYNX(W_,9228) = DYNX(W_,4076)*DYNX(W_,9227);
-DYNX(W_,9229) = DYNX(DP_,1144)*DYNX(W_,9228)+DYNX(W_,4083)*DYNX(DP_,1143);
-DYNX(Y_,28) = IF GreaterS(DYNX(W_,9229),"hydraulic.control.valCtrl.PI[1].limiter.u",
- 1.0,"1.0", 27) THEN 1.0 ELSE IF LessS(DYNX(W_,9229),"hydraulic.control.valCtrl.PI[1].limiter.u",
- DYNX(W_,4078),"hydraulic.control.valCtrl.PI[1].limiter.uMin", 28) THEN
- DYNX(W_,4078) ELSE DYNX(W_,9229);
+DYNX(W_,9194) = DYNX(W_,4035)*DYNX(W_,8243)+DYNX(DP_,1143)*DYNX(W_,8470);
+DYNX(W_,9195) = DYNX(DP_,1144)*DYNX(W_,9194);
+DYNX(W_,9196) = DYNX(DP_,1145)*DYNX(W_,9195)+DYNX(DP_,1146)*DYNX(DP_,1148)+
+ DYNX(DP_,1147)*DYNX(X_,35);
+DYNX(W_,9197) = DYNX(W_,4036)*DYNX(W_,9196);
+DYNX(W_,9198) = DYNX(DP_,1150)*DYNX(W_,9197)+DYNX(W_,4043)*DYNX(DP_,1149);
+DYNX(Y_,28) = IF GreaterS(DYNX(W_,9198),"hydraulic.control.valCtrl.PI[1].limiter.u",
+ 1.0,"1.0", 27) THEN 1.0 ELSE IF LessS(DYNX(W_,9198),"hydraulic.control.valCtrl.PI[1].limiter.u",
+ DYNX(W_,4038),"hydraulic.control.valCtrl.PI[1].limiter.uMin", 28) THEN
+ DYNX(W_,4038) ELSE DYNX(W_,9198);
/* Linear system of equations to solve. */
-DYNX(W_,9526) = RememberSimple_(DYNX(W_,9526), 1);
-SolveScalarLinearParametric( -DYNX(W_,4633)," -hydraulic.distribution.stoDHW.layer[4].dynBal.m",
+DYNX(W_,9495) = RememberSimple_(DYNX(W_,9495), 1);
+SolveScalarLinearParametric( -DYNX(W_,4593)," -hydraulic.distribution.stoDHW.layer[4].dynBal.m",
-DYNX(X_,43)," -hydraulic.distribution.stoDHW.layer[4].dynBal.U",
- DYNX(W_,9526),"hydraulic.portDHW_out.h_outflow");
+ DYNX(W_,9495),"hydraulic.portDHW_out.h_outflow");
/* End of Equation Block */
-DYNX(W_,9430) = 273.15+0.0002390057361376673*DYNX(W_,9526);
-DYNX(W_,9755) = modulusDymolaTimeEvent(1, 86400,"mod(time, 86400)", 1);
-DYNX(W_,8472) = PRE(DYNX(W_,8472), 15) AND Less(DYNX(W_,9755),"control.hys.u",
- DYNX(W_,8280)+DYNX(W_,8279)/(double)(2),"control.hys.reference+control.hys.bandwidth/2",
- 29) OR Less(DYNX(W_,9755),"control.hys.u", DYNX(W_,8280)-DYNX(W_,8279)/
+DYNX(W_,9399) = 273.15+0.0002390057361376673*DYNX(W_,9495);
+DYNX(W_,9724) = modulusDymolaTimeEvent(1, 86400,"mod(time, 86400)", 1);
+DYNX(W_,8435) = PRE(DYNX(W_,8435), 15) AND Less(DYNX(W_,9724),"control.hys.u",
+ DYNX(W_,8240)+DYNX(W_,8239)/(double)(2),"control.hys.reference+control.hys.bandwidth/2",
+ 29) OR Less(DYNX(W_,9724),"control.hys.u", DYNX(W_,8240)-DYNX(W_,8239)/
(double)(2),"control.hys.reference-control.hys.bandwidth/2", 30);
-DYNX(W_,8440) = IF DYNX(W_,8472) THEN DYNX(W_,8282) ELSE 323.15;
-DYNX(W_,8435) = DYNX(DP_,1194)*DYNX(W_,4210)+DYNX(DP_,1195)*DYNX(W_,8440);
-DYNX(W_,8436) = PRE(DYNX(W_,8436), 46) AND Less(DYNX(W_,9430),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.u",
- DYNX(W_,8435)+DYNX(W_,4209)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
- 91) OR Less(DYNX(W_,9430),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.u",
- DYNX(W_,8435)-DYNX(W_,4209)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
- 92);
-DYNX(W_,8433) = DYNX(W_,8436);
-DYNX(W_,8432) = PRE(DYNX(W_,8432), 30);
+DYNX(W_,8403) = IF DYNX(W_,8435) THEN DYNX(W_,8242) ELSE 323.15;
+DYNX(W_,8398) = DYNX(DP_,1200)*DYNX(W_,4170)+DYNX(DP_,1201)*DYNX(W_,8403);
+DYNX(W_,8399) = PRE(DYNX(W_,8399), 48) AND Less(DYNX(W_,9399),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.u",
+ DYNX(W_,8398)+DYNX(W_,4169)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
+ 99) OR Less(DYNX(W_,9399),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.u",
+ DYNX(W_,8398)-DYNX(W_,4169)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth/2",
+ 100);
+DYNX(W_,8396) = DYNX(W_,8399);
+DYNX(W_,8395) = PRE(DYNX(W_,8395), 30);
beginwhenBlock
- whenModelica(( DYNX(W_,8433) AND NOT PRE(DYNX(W_,8433), 29) ), 1)
- DYNX(W_,8432) = DYNTime;
+ whenModelica(( DYNX(W_,8396) AND NOT PRE(DYNX(W_,8396), 29) ), 1)
+ DYNX(W_,8395) = DYNTime;
endwhenModelica()
endwhenBlock
if (NewParameters_) {
-DYNX(DYNhelp,1422) = divinvGuarded(DYNX(DP_,1190),"hydraulic.control.buiAndDHWCtr.hysDHW.dtEleHea");
+DYNX(DYNhelp,1422) = divinvGuarded(DYNX(DP_,1196),"hydraulic.control.buiAndDHWCtr.hysDHW.dtEleHea");
}
-DYNX(DYNhelp,1423) = floorEvent(DYNX(DYNhelp,1422)*(DYNTime-DYNX(W_,8432)),
+DYNX(DYNhelp,1423) = floorEvent(DYNX(DYNhelp,1422)*(DYNTime-DYNX(W_,8395)),
"(time-hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y)/hydraulic.control.buiAndDHWCtr.hysDHW.dtEleHea",
31);
-DYNX(W_,8434) = RealBmin(DYNX(DYNhelp,1423)*DYNX(DP_,1191), 1);
-DYNX(W_,8441) = IF DYNX(W_,8433) THEN DYNX(W_,8434) ELSE 0.0;
-DYNX(W_,8438) = Greater(DYNX(W_,8441),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.u",
- DYNX(DP_,1192),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.threshold", 34);
-DYNX(W_,8431) = PRE(DYNX(W_,8431), 47) AND Less(DYNX(W_,9430),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_bot",
- DYNX(W_,8440)+DYNX(W_,4204)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth/2",
- 93) OR Less(DYNX(W_,9430),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_top",
- DYNX(W_,8440)-DYNX(W_,4204)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth/2",
- 94);
-DYNX(W_,8439) = DYNX(W_,8431);
-DYNX(W_,8447) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.orDHW.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8437), 1,
+DYNX(W_,8397) = RealBmin(DYNX(DYNhelp,1423)*DYNX(DP_,1197), 1);
+DYNX(W_,8404) = IF DYNX(W_,8396) THEN DYNX(W_,8397) ELSE 0.0;
+DYNX(W_,8401) = Greater(DYNX(W_,8404),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.u",
+ DYNX(DP_,1198),"hydraulic.control.buiAndDHWCtr.hysDHW.greThr.threshold", 34);
+DYNX(W_,8394) = PRE(DYNX(W_,8394), 49) AND Less(DYNX(W_,9399),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_bot",
+ DYNX(W_,8403)+DYNX(W_,4164)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth/2",
+ 101) OR Less(DYNX(W_,9399),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_top",
+ DYNX(W_,8403)-DYNX(W_,4164)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth/2",
+ 102);
+DYNX(W_,8402) = DYNX(W_,8394);
+DYNX(W_,8410) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.orDHW.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8400), 1,
3)));
PopAllMarks();
-DYNX(W_,8448) = NOT DYNX(W_,8447);
-DYNX(W_,8464) = IF DYNX(W_,8448) THEN 1 ELSE 0;
+DYNX(W_,8411) = NOT DYNX(W_,8410);
+DYNX(W_,8427) = IF DYNX(W_,8411) THEN 1 ELSE 0;
DYNX(DYNhelp,1424) = (PushModelContext(1,"IBPSA.Fluid.Actuators.BaseClasses.equalPercentage(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.y_actual, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.l, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.delta0)")
- IBPSA_Fluid_Actuators_BaseClasses_equalPercentage(DYNX(W_,8464), DYNX(W_,5530),
- DYNX(W_,5528), DYNX(W_,5531)));
+ IBPSA_Fluid_Actuators_BaseClasses_equalPercentage(DYNX(W_,8427), DYNX(W_,5490),
+ DYNX(W_,5488), DYNX(W_,5491)));
PopModelContext();
-DYNX(W_,8457) = RealBmax(0.1*DYNX(W_,5528), DYNX(DYNhelp,1424));
-DYNX(W_,8458) = DYNX(W_,8457)*DYNX(W_,5523);
-DYNX(W_,8460) = 1.0-DYNX(W_,8464);
-DYNX(W_,8461) = RealBmax(0.1*DYNX(W_,5565), DYNX(W_,5565)+DYNX(W_,8460)*(1-
- DYNX(W_,5565)));
-DYNX(W_,8462) = DYNX(W_,8461)*DYNX(W_,5560);
-DYNX(W_,8443) = DYNX(W_,8438);
+DYNX(W_,8420) = RealBmax(0.1*DYNX(W_,5488), DYNX(DYNhelp,1424));
+DYNX(W_,8421) = DYNX(W_,8420)*DYNX(W_,5483);
+DYNX(W_,8423) = 1.0-DYNX(W_,8427);
+DYNX(W_,8424) = RealBmax(0.1*DYNX(W_,5525), DYNX(W_,5525)+DYNX(W_,8423)*(1-
+ DYNX(W_,5525)));
+DYNX(W_,8425) = DYNX(W_,8424)*DYNX(W_,5520);
+DYNX(W_,8406) = DYNX(W_,8401);
/* Linear system of equations to solve. */
-DYNX(W_,9257) = RememberSimple_(DYNX(W_,9257), 2);
-SolveScalarLinearParametric( -DYNX(W_,5172)," -hydraulic.distribution.stoBuf.layer[4].dynBal.m",
+DYNX(W_,9226) = RememberSimple_(DYNX(W_,9226), 2);
+SolveScalarLinearParametric( -DYNX(W_,5132)," -hydraulic.distribution.stoBuf.layer[4].dynBal.m",
-DYNX(X_,51)," -hydraulic.distribution.stoBuf.layer[4].dynBal.U",
- DYNX(W_,9257),"hydraulic.distribution.portBui_out[1].h_outflow");
+ DYNX(W_,9226),"hydraulic.distribution.portBui_out[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9431) = 273.15+0.0002390057361376673*DYNX(W_,9257);
-DYNX(W_,8506) = DYNTime;
+DYNX(W_,9400) = 273.15+0.0002390057361376673*DYNX(W_,9226);
+DYNX(W_,8469) = DYNTime;
beginwhenBlock
-whenModelica(DYNX(W_,8255) AND GreaterMinor(DYNX(W_,8506),"weaDat.conTim.modTimAux",
- PRE(DYNX(W_,8469), 41),"pre(weaDat.conTim.tNext)", 95), 2)
- DYNX(W_,8469) = IF DYNX(W_,8255) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"weaDat.conTim.modTimAux",DYNX(W_,8254),"weaDat.conTim.lenWea"),
- "weaDat.conTim.modTimAux/weaDat.conTim.lenWea", 1)*DYNX(W_,8254)+
- DYNX(W_,8254) ELSE DYNTime;
+whenModelica(DYNX(W_,8215) AND GreaterMinor(DYNX(W_,8469),"weaDat.conTim.modTimAux",
+ PRE(DYNX(W_,8432), 43),"pre(weaDat.conTim.tNext)", 103), 2)
+ DYNX(W_,8432) = IF DYNX(W_,8215) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"weaDat.conTim.modTimAux",DYNX(W_,8214),"weaDat.conTim.lenWea"),
+ "weaDat.conTim.modTimAux/weaDat.conTim.lenWea", 1)*DYNX(W_,8214)+
+ DYNX(W_,8214) ELSE DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9703) = IF DYNX(W_,8255) THEN DYNX(W_,8506)-DYNX(W_,8469)+DYNX(W_,8254)
- ELSE DYNX(W_,8506);
-DYNX(W_,9704) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n1, \nweaDat.datRea.u)")
+DYNX(W_,9672) = IF DYNX(W_,8215) THEN DYNX(W_,8469)-DYNX(W_,8432)+DYNX(W_,8214)
+ ELSE DYNX(W_,8469);
+DYNX(W_,9673) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n1, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 1, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 1, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8487) = 273.15+DYNX(W_,9704);
-DYNX(W_,9250) = IF Less(DYNX(W_,8487),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda",
- DYNX(W_,8283),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax", 37)
+DYNX(W_,8450) = 273.15+DYNX(W_,9673);
+DYNX(W_,9219) = IF Less(DYNX(W_,8450),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda",
+ DYNX(W_,8243),"hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax", 37)
THEN (PushModelContext(1,"hydraulic.control.buiAndDHWCtr.TSetBuiSup.heaCur_Unique34(hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda, hydraulic.control.buiAndDHWCtr.TSetBuiSup.THeaThr, hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax, 328.15, 318.15, 262.65, hydraulic.control.buiAndDHWCtr.TSetBuiSup.nHeaTra)")
- hydraulic_control_buiAndDHWCtr_TSetBuiSup_heaCurx_0Unique34(DYNX(W_,8487),
- DYNX(DP_,1189), DYNX(W_,8283), 328.15, 318.15, 262.65, DYNX(W_,4201)))+
- DYNX(DP_,1188) ELSE DYNX(W_,8283)+DYNX(DP_,1188);
+ hydraulic_control_buiAndDHWCtr_TSetBuiSup_heaCurx_0Unique34(DYNX(W_,8450),
+ DYNX(DP_,1195), DYNX(W_,8243), 328.15, 318.15, 262.65, DYNX(W_,4161)))+
+ DYNX(DP_,1194) ELSE DYNX(W_,8243)+DYNX(DP_,1194);
PopModelContext();
-DYNX(W_,9249) = DYNX(DP_,1186)*DYNX(W_,4196)+DYNX(DP_,1187)*DYNX(W_,9250);
-DYNX(W_,8430) = PRE(DYNX(W_,8430), 48) AND Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
- DYNX(W_,9249)+DYNX(W_,4195)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
- 39) OR Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
- DYNX(W_,9249)-DYNX(W_,4195)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
+DYNX(W_,9218) = DYNX(DP_,1192)*DYNX(W_,4156)+DYNX(DP_,1193)*DYNX(W_,9219);
+DYNX(W_,8393) = PRE(DYNX(W_,8393), 50) AND Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
+ DYNX(W_,9218)+DYNX(W_,4155)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference+hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
+ 39) OR Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u",
+ DYNX(W_,9218)-DYNX(W_,4155)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference-hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth/2",
40);
-DYNX(W_,8428) = DYNX(W_,8430);
-DYNX(W_,8427) = PRE(DYNX(W_,8427), 28);
+DYNX(W_,8391) = DYNX(W_,8393);
+DYNX(W_,8390) = PRE(DYNX(W_,8390), 28);
beginwhenBlock
- whenModelica(( DYNX(W_,8428) AND NOT PRE(DYNX(W_,8428), 27) ), 3)
- DYNX(W_,8427) = DYNTime;
+ whenModelica(( DYNX(W_,8391) AND NOT PRE(DYNX(W_,8391), 27) ), 3)
+ DYNX(W_,8390) = DYNTime;
endwhenModelica()
endwhenBlock
if (NewParameters_) {
-DYNX(DYNhelp,1425) = divinvGuarded(DYNX(DP_,1182),"hydraulic.control.buiAndDHWCtr.hysBui.dtEleHea");
+DYNX(DYNhelp,1425) = divinvGuarded(DYNX(DP_,1188),"hydraulic.control.buiAndDHWCtr.hysBui.dtEleHea");
}
-DYNX(DYNhelp,1426) = floorEvent(DYNX(DYNhelp,1425)*(DYNTime-DYNX(W_,8427)),
+DYNX(DYNhelp,1426) = floorEvent(DYNX(DYNhelp,1425)*(DYNTime-DYNX(W_,8390)),
"(time-hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y)/hydraulic.control.buiAndDHWCtr.hysBui.dtEleHea",
38);
-DYNX(W_,8429) = RealBmin(DYNX(DYNhelp,1426)*DYNX(DP_,1183), 1);
-DYNX(W_,8425) = IF DYNX(W_,8428) THEN DYNX(W_,8429) ELSE 0.0;
-DYNX(W_,8445) = Greater(DYNX(W_,8425),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.u",
- DYNX(DP_,1184),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.threshold", 41);
-DYNX(W_,8423) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.secGenOn.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8443), 1,
+DYNX(W_,8392) = RealBmin(DYNX(DYNhelp,1426)*DYNX(DP_,1189), 1);
+DYNX(W_,8388) = IF DYNX(W_,8391) THEN DYNX(W_,8392) ELSE 0.0;
+DYNX(W_,8408) = Greater(DYNX(W_,8388),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.u",
+ DYNX(DP_,1190),"hydraulic.control.buiAndDHWCtr.hysBui.greThr.threshold", 41);
+DYNX(W_,8386) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.buiAndDHWCtr.secGenOn.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8406), 1,
3)));
PopAllMarks();
-DYNX(W_,8426) = PRE(DYNX(W_,8426), 49) AND Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_bot",
- DYNX(W_,9250)+DYNX(W_,4190)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
- 42) OR Less(DYNX(W_,9431),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_top",
- DYNX(W_,9250)-DYNX(W_,4190)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
+DYNX(W_,8389) = PRE(DYNX(W_,8389), 51) AND Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_bot",
+ DYNX(W_,9219)+DYNX(W_,4150)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set+hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
+ 42) OR Less(DYNX(W_,9400),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_top",
+ DYNX(W_,9219)-DYNX(W_,4150)/(double)(2),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set-hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth/2",
43);
-DYNX(W_,8424) = DYNX(W_,8431) OR DYNX(W_,8426);
-DYNX(W_,8422) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.anyGenDevIsOn.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8423), 1,
+DYNX(W_,8387) = DYNX(W_,8394) OR DYNX(W_,8389);
+DYNX(W_,8385) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.control.anyGenDevIsOn.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8386), 1,
2)));
PopAllMarks();
-DYNX(W_,8394) = IF DYNX(W_,8422) THEN 1 ELSE 0;
+DYNX(W_,8357) = IF DYNX(W_,8385) THEN 1 ELSE 0;
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[1] */
@@ -18363,67 +18364,67 @@ const char*const varnames_[]={"hydraulic.distribution.threeWayValveWithFlowRetur
const double nominal_[]={6000.0, 6000.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 2, 0, 0, 12, 78, 3,
DYNX(DYNhelp,1427), 59, DYNX(did_->helpvari_vec,320), 24);
-NonLinearSystemSave(DYNX(W_,8458), 0);
-NonLinearSystemSave(DYNX(W_,8462), 1);
-NonLinearSystemSave(DYNX(W_,8394), 2);
-SetInitVectorNH(x__, 1, DYNX(W_,8456), Remember_(DYNX(W_,8456), 3));
-SetInitVectorNH(x__, 2, DYNX(W_,8459), Remember_(DYNX(W_,8459), 4));
+NonLinearSystemSave(DYNX(W_,8421), 0);
+NonLinearSystemSave(DYNX(W_,8425), 1);
+NonLinearSystemSave(DYNX(W_,8357), 2);
+SetInitVectorNH(x__, 1, DYNX(W_,8419), Remember_(DYNX(W_,8419), 3));
+SetInitVectorNH(x__, 2, DYNX(W_,8422), Remember_(DYNX(W_,8422), 4));
Residues;
- DYNX(W_,8453) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8456),
- DYNX(W_,8458), DYNX(W_,5513)));
+ DYNX(W_,8416) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8419),
+ DYNX(W_,8421), DYNX(W_,5473)));
PopModelContext();
- DYNX(W_,8452) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8459),
- DYNX(W_,8462), DYNX(W_,5550)));
+ DYNX(W_,8415) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,8422),
+ DYNX(W_,8425), DYNX(W_,5510)));
PopModelContext();
- DYNX(W_,8336) = DYNX(W_,8453)+DYNX(W_,8452);
- DYNX(W_,8396) = (-0.0010044335697769957)*DYNX(W_,8336);
+ DYNX(W_,8296) = DYNX(W_,8416)+DYNX(W_,8415);
+ DYNX(W_,8359) = (-0.0010044335697769957)*DYNX(W_,8296);
DYNX(DYNhelp,1486) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,8396),
- DYNX(W_,8394), RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,8359),
+ DYNX(W_,8357), RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
0.0009246622435992386, DymStruc6_construct(RealTemporaryDense(
- &DYNX(W_,3694), 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(
- DYNX(W_,3693)))));
+ &DYNX(W_,3656), 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(
+ DYNX(W_,3655)))));
PopAllMarks();
- DYNX(W_,8397) = DYNX(DYNhelp,1486)-1579.6308437062728*DYNX(W_,8396);
- DYNX(W_,8339) = DYNX(W_,8397)+DYNX(W_,3815);
- DYNX(DYNhelp,1487) = -DYNX(W_,8336);
- DYNX(W_,8346) = (PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.generation.heatPump.port_a1.m_flow, 0.030225800087031233, 0.03379347183446045)")
+ DYNX(W_,8360) = DYNX(DYNhelp,1486)-1579.6308437062728*DYNX(W_,8359);
+ DYNX(W_,8300) = DYNX(W_,8360)+DYNX(W_,3777);
+ DYNX(DYNhelp,1487) = -DYNX(W_,8296);
+ DYNX(W_,8308) = (PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.generation.heatPump.port_a1.m_flow, 0.030225800087031233, 0.03379347183446045)")
AixLib_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1487), 0.030225800087031233, 0.03379347183446045));
PopModelContext();
- DYNX(W_,8340) = DYNX(W_,8339)-DYNX(W_,8346);
- DYNX(DYNhelp,1488) = -DYNX(W_,8453);
- DYNX(W_,8465) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.distribution.stoBuf.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134)")
+ DYNX(W_,8301) = DYNX(W_,8300)-DYNX(W_,8308);
+ DYNX(DYNhelp,1488) = -DYNX(W_,8416);
+ DYNX(W_,8428) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.distribution.stoBuf.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1488), 0.010686434104164361, 0.10138041550338134));
PopModelContext();
- DYNX(W_,8416) = (PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow( -hydraulic.generation.heatPump.port_b1.m_flow, 0.010686434104164361, 0.03379347183446045)")
+ DYNX(W_,8379) = (PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow( -hydraulic.generation.heatPump.port_b1.m_flow, 0.010686434104164361, 0.03379347183446045)")
AixLib_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1487), 0.010686434104164361, 0.03379347183446045));
PopModelContext();
- DYNX(W_,8337) = DYNX(W_,8340)-DYNX(W_,8416);
- DYNX(DYNhelp,1489) = -DYNX(W_,8452);
- DYNX(W_,8466) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.distribution.stoDHW.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134)")
+ DYNX(W_,8297) = DYNX(W_,8301)-DYNX(W_,8379);
+ DYNX(DYNhelp,1489) = -DYNX(W_,8415);
+ DYNX(W_,8429) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.distribution.stoDHW.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
DYNX(DYNhelp,1489), 0.010686434104164361, 0.10138041550338134));
PopModelContext();
-SetVector(residue__, 1, DYNX(W_,8456)-(DYNX(W_,8465)+DYNX(W_,3815))+
- DYNX(W_,8337));
-SetVector(residue__, 2, DYNX(W_,8459)-(DYNX(W_,8466)+DYNX(W_,3815))+
- DYNX(W_,8337));
+SetVector(residue__, 1, DYNX(W_,8419)-(DYNX(W_,8428)+DYNX(W_,3777))+
+ DYNX(W_,8297));
+SetVector(residue__, 2, DYNX(W_,8422)-(DYNX(W_,8429)+DYNX(W_,3777))+
+ DYNX(W_,8297));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
DYNX(DYNhelp,1490) = (-0.0010044335697769957)*((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2, \n1.0, \n0.0, \n{0.0, 0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \nV_flow = {0.0...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,8396),
- DYNX(W_,8394), RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
- 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3694),
- 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(DYNX(W_,3693))),
- 1.0, 0.0, RealTemporaryDense( DymArrays110, 1, 4), 0.0, 0.0, DymStruc6_construct(
- RealTemporaryDense( DymArrays110, 1, 4), RealTemporaryDense( DymArrays110, 1, 4),
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,8359),
+ DYNX(W_,8357), RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
+ 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3656),
+ 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(DYNX(W_,3655))),
+ 1.0, 0.0, RealTemporaryDense( DymArrays109, 1, 4), 0.0, 0.0, DymStruc6_construct(
+ RealTemporaryDense( DymArrays109, 1, 4), RealTemporaryDense( DymArrays109, 1, 4),
0)))-1579.6308437062728);
PopAllMarks();
DYNX(DYNhelp,1491) = DYNX(DYNhelp,1490)-(PushModelContext(1,"AixLib.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(hydraulic.generation.heatPump.port_a1.m_flow, 0.030225800087031233, 0.03379347183446045, -1.0)")
@@ -18434,12 +18435,12 @@ DYNX(DYNhelp,1491) = DYNX(DYNhelp,1490)-(PushModelContext(1,"AixLib.Fluid.BaseCl
DYNX(DYNhelp,1487), 0.010686434104164361, 0.03379347183446045, -1.0));
PopModelContext();
DYNX(DYNhelp,1492) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,8456),
- DYNX(W_,8458), DYNX(W_,5513), 1.0));
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,8419),
+ DYNX(W_,8421), DYNX(W_,5473), 1.0));
PopModelContext();
DYNX(DYNhelp,1493) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k, hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,8459),
- DYNX(W_,8462), DYNX(W_,5550), 1.0));
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,8422),
+ DYNX(W_,8425), DYNX(W_,5510), 1.0));
PopModelContext();
SetMatrixLeading(Jacobian__, 1, 1, 2, 1.0+(DYNX(DYNhelp,1491)-(PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(hydraulic.distribution.stoBuf.port_a_heatGenerator.m_flow, 0.010686434104164361, 0.10138041550338134, -1.0)")
@@ -18458,240 +18459,297 @@ PopModelContext();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 12,
"Tag: simulation.nonlinear[1]");
-DYNX(W_,8456) = GetVector(x__, 1);
-DYNX(W_,8459) = GetVector(x__, 2);
+DYNX(W_,8419) = GetVector(x__, 1);
+DYNX(W_,8422) = GetVector(x__, 2);
EndNonLinearSystemOfEquationsNH(residue__, x__, 12);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,8454) = DYNX(W_,8466)+DYNX(W_,3815);
-DYNX(W_,8455) = DYNX(W_,8465)+DYNX(W_,3815);
-DYNX(W_,8404) = IF DYNX(W_,8397)*DYNX(W_,8396) > 0.0002701169579114276 THEN
- DYNX(W_,8397)*DYNX(W_,8396) ELSE IF DYNX(W_,8397)*DYNX(W_,8396) <
- -0.0002701169579114276 THEN 0 ELSE 0.5*DYNX(W_,8397)*DYNX(W_,8396)-
- 925.5250093627072*DYNX(W_,8397)*DYNX(W_,8396)*(sqr(3702.100037450829*
- DYNX(W_,8397)*DYNX(W_,8396))-3)*DYNX(W_,8397)*DYNX(W_,8396);
-DYNX(W_,8405) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.generation.pump.eff.powEu, \nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.powEuDer, \n0.05)")
+DYNX(W_,8417) = DYNX(W_,8429)+DYNX(W_,3777);
+DYNX(W_,8418) = DYNX(W_,8428)+DYNX(W_,3777);
+DYNX(W_,8367) = IF DYNX(W_,8360)*DYNX(W_,8359) > 0.0002701169579114276 THEN
+ DYNX(W_,8360)*DYNX(W_,8359) ELSE IF DYNX(W_,8360)*DYNX(W_,8359) <
+ -0.0002701169579114276 THEN 0 ELSE 0.5*DYNX(W_,8360)*DYNX(W_,8359)-
+ 925.5250093627072*DYNX(W_,8360)*DYNX(W_,8359)*(sqr(3702.100037450829*
+ DYNX(W_,8360)*DYNX(W_,8359))-3)*DYNX(W_,8360)*DYNX(W_,8359);
+DYNX(W_,8368) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.generation.pump.eff.powEu, \nhydraulic.generation.pump.eff.V_flow, \nhydraulic.generation.pump.eff.r_N, \nhydraulic.generation.pump.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,3770), 1, 11), RealTemporaryDense( &DYNX(W_,3759),
- 1, 11)), DYNX(W_,8396), DYNX(W_,8394), RealTemporaryDense( &DYNX(W_,3781), 1,
+ RealTemporaryDense( &DYNX(W_,3732), 1, 11), RealTemporaryDense( &DYNX(W_,3721),
+ 1, 11)), DYNX(W_,8359), DYNX(W_,8357), RealTemporaryDense( &DYNX(W_,3743), 1,
11), 0.05));
PopAllMarks();
-DYNX(W_,8399) = divGuarded(DYNX(W_,8404),"hydraulic.generation.pump.eff.WFlo",
- IF DYNX(W_,8405)-0.0005402339158228551 > 0.0002701169579114276 THEN
- DYNX(W_,8405) ELSE IF DYNX(W_,8405)-0.0005402339158228551 < -0.0002701169579114276
+DYNX(W_,8362) = divGuarded(DYNX(W_,8367),"hydraulic.generation.pump.eff.WFlo",
+ IF DYNX(W_,8368)-0.0005402339158228551 > 0.0002701169579114276 THEN
+ DYNX(W_,8368) ELSE IF DYNX(W_,8368)-0.0005402339158228551 < -0.0002701169579114276
THEN 0.0005402339158228551 ELSE 0.0002701169579114276+925.5250093627072*(
- DYNX(W_,8405)-0.0005402339158228551)*(sqr(3702.100037450829*(DYNX(W_,8405)-
- 0.0005402339158228551))-3)*(0.0005402339158228551-DYNX(W_,8405))+0.5*
- DYNX(W_,8405),"smooth(1, smooth(1, (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 > 0.0002701169579114276) then hydraulic.generation.pump.eff.P_internal else (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 < -0.0002701169579114276) then 0.0005402339158228551 else 0.0002701169579114276+925.5250093627072*((hydraulic.generation.pump.eff.P_internal-0.00054023...");
-DYNX(W_,8407) = IF DYNX(W_,3655) THEN divGuarded(DYNX(W_,8405),"hydraulic.generation.pump.eff.WHyd",
- DYNX(W_,3636),"hydraulic.generation.pump.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,8400) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic, \nhydraulic.generation.pump.eff.yMot, \nhydraulic.generation.pump.eff.motDer_yMot_generic)")
+ DYNX(W_,8368)-0.0005402339158228551)*(sqr(3702.100037450829*(DYNX(W_,8368)-
+ 0.0005402339158228551))-3)*(0.0005402339158228551-DYNX(W_,8368))+0.5*
+ DYNX(W_,8368),"smooth(1, smooth(1, (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 > 0.0002701169579114276) then hydraulic.generation.pump.eff.P_internal else (if noEvent(hydraulic.generation.pump.eff.P_internal-0.0005402339158228551 < -0.0002701169579114276) then 0.0005402339158228551 else 0.0002701169579114276+925.5250093627072*((hydraulic.generation.pump.eff.P_internal-0.00054023...");
+DYNX(W_,8370) = IF DYNX(W_,3617) THEN divGuarded(DYNX(W_,8368),"hydraulic.generation.pump.eff.WHyd",
+ DYNX(W_,3598),"hydraulic.generation.pump.eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,8363) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic, \nhydraulic.generation.pump.eff.yMot, \nhydraulic.generation.pump.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,3646), 1, 9),
- RealTemporaryDense( &DYNX(W_,3637), 1, 9)), DYNX(W_,8407), RealTemporaryDense(
- &DYNX(W_,3673), 1, 9)));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,3608), 1, 9),
+ RealTemporaryDense( &DYNX(W_,3599), 1, 9)), DYNX(W_,8370), RealTemporaryDense(
+ &DYNX(W_,3635), 1, 9)));
PopAllMarks();
-DYNX(W_,8398) = DYNX(W_,8399)*DYNX(W_,8400);
-DYNX(W_,8395) = divGuarded(DYNX(W_,8404),"hydraulic.generation.pump.eff.WFlo",
- IF DYNX(W_,8398)-0.01 > 0.001 THEN DYNX(W_,8398) ELSE IF DYNX(W_,8398)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,8398)-0.01)*(sqr(1000.0*(
- DYNX(W_,8398)-0.01))-3)*(0.01-DYNX(W_,8398))+0.5*DYNX(W_,8398),
+DYNX(W_,8361) = DYNX(W_,8362)*DYNX(W_,8363);
+DYNX(W_,8358) = divGuarded(DYNX(W_,8367),"hydraulic.generation.pump.eff.WFlo",
+ IF DYNX(W_,8361)-0.01 > 0.001 THEN DYNX(W_,8361) ELSE IF DYNX(W_,8361)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,8361)-0.01)*(sqr(1000.0*(
+ DYNX(W_,8361)-0.01))-3)*(0.01-DYNX(W_,8361))+0.5*DYNX(W_,8361),
"smooth(1, smooth(1, (if noEvent(hydraulic.generation.pump.eff.eta-0.01 > 0.001) then hydraulic.generation.pump.eff.eta else (if noEvent(hydraulic.generation.pump.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((hydraulic.generation.pump.eff.eta-0.01)*((1000.0*(hydraulic.generation.pump.eff.eta-0.01))^2-3)*(0.01-hydraulic.generation.pump.eff.eta))+0.5*hydraulic.generation.pump.eff.eta))))");
+DYNX(W_,9119) = 0.04841442749939482*DYNX(X_,20);
+DYNX(W_,9110) = 1.0-DYNX(W_,9119);
+DYNX(W_,8299) = NOT PRE(DYNX(W_,8299), 32) AND Greater(DYNX(W_,9110),
+ "hydraulic.generation.defCtrl.hys.u", DYNX(DP_,884),"hydraulic.generation.defCtrl.hys.uHigh",
+ 46) OR PRE(DYNX(W_,8299), 32) AND GreaterEqual(DYNX(W_,9110),"hydraulic.generation.defCtrl.hys.u",
+ DYNX(W_,2550),"hydraulic.generation.defCtrl.hys.uLow", 47);
/* Linear system of equations to solve. */
-DYNX(W_,9139) = RememberSimple_(DYNX(W_,9139), 5);
-SolveScalarLinearParametric( -DYNX(W_,2996)," -hydraulic.generation.heatPump.con.vol.dynBal.m",
+DYNX(W_,9102) = RememberSimple_(DYNX(W_,9102), 5);
+SolveScalarLinearParametric( -DYNX(W_,2971)," -hydraulic.generation.heatPump.con.vol.dynBal.m",
-DYNX(X_,21)," -hydraulic.generation.heatPump.con.vol.dynBal.U",
- DYNX(W_,9139),"hydraulic.generation.heatPump.port_a1.h_outflow");
+ DYNX(W_,9102),"hydraulic.generation.heatPump.port_a1.h_outflow");
/* End of Equation Block */
-DYNX(W_,9167) = 273.15+0.0002390057361376673*DYNX(W_,9139);
-DYNX(W_,9202) = 1006.0*(DYNX(W_,8487)-273.15)*(1-DYNX(W_,3436))+(2501014.5+1860*
- (DYNX(W_,8487)-273.15))*DYNX(W_,3436);
-DYNX(W_,9197) = 273.15+divGuarded(DYNX(W_,9202)-2501014.5*DYNX(DP_,1067),
+DYNX(W_,9134) = 273.15+0.0002390057361376673*DYNX(W_,9102);
+DYNX(W_,9171) = 1006.0*(DYNX(W_,8450)-273.15)*(1-DYNX(W_,3398))+(2501014.5+1860*
+ (DYNX(W_,8450)-273.15))*DYNX(W_,3398);
+DYNX(W_,9164) = 273.15+divGuarded(DYNX(W_,9171)-2501014.5*DYNX(DP_,1073),
"hydraulic.generation.bouEva.ports[1].h_outflow-2501014.5*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]",1006
- *(1-DYNX(DP_,1067))+1860*DYNX(DP_,1067),"1006*(1-hydraulic.generation.bouEva.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]");
-DYNX(W_,9158) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u1, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u2)")
+ *(1-DYNX(DP_,1073))+1860*DYNX(DP_,1073),"1006*(1-hydraulic.generation.bouEva.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]");
+DYNX(W_,9125) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u1, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u2)")
Modelica_Blocks_Tables_Internal_getTable2DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2677))), DYNX(W_,9167), DYNX(W_,9197)));
+ (Integer)(DYNX(W_,2662))), DYNX(W_,9134), DYNX(W_,9164)));
PopModelContext();
-DYNX(W_,8390) = NOT PRE(DYNX(W_,8390), 50) AND Greater( -DYNX(W_,8336),
- "hydraulic.generation.heatPump.port_a1.m_flow", DYNX(W_,3372),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh",
- 52) OR PRE(DYNX(W_,8390), 50) AND GreaterEqual( -DYNX(W_,8336),
- "hydraulic.generation.heatPump.port_a1.m_flow", DYNX(W_,3371),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uLow",
- 96);
-DYNX(W_,8391) = NOT PRE(DYNX(W_,8391), 51) AND DYNX(W_,3442) > DYNX(W_,3375)
- OR PRE(DYNX(W_,8391), 51) AND DYNX(W_,3442) >= DYNX(W_,3374);
-DYNX(W_,8387) = DYNX(W_,8390) AND DYNX(W_,8391);
-DYNX(W_,9186) = DYNX(W_,3249)-DYNX(W_,9197);
-DYNX(W_,8353) = NOT PRE(DYNX(W_,8353), 52) AND Greater(DYNX(W_,9186),
- "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u", 0,"0", 46)
- OR PRE(DYNX(W_,8353), 52) AND GreaterEqual(DYNX(W_,9186),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",
- -0.05,"-0.05", 47);
-DYNX(W_,8350) = DYNX(W_,8353);
-DYNX(W_,9187) = DYNX(W_,9197)-DYNX(W_,3250);
-DYNX(W_,8354) = NOT PRE(DYNX(W_,8354), 53) AND Greater(DYNX(W_,9187),
- "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u", 0,"0", 48)
- OR PRE(DYNX(W_,8354), 53) AND GreaterEqual(DYNX(W_,9187),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",
+DYNX(W_,8353) = NOT PRE(DYNX(W_,8353), 52) AND Greater( -DYNX(W_,8296),
+ "hydraulic.generation.heatPump.port_a1.m_flow", DYNX(W_,3342),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh",
+ 60) OR PRE(DYNX(W_,8353), 52) AND GreaterEqual( -DYNX(W_,8296),
+ "hydraulic.generation.heatPump.port_a1.m_flow", DYNX(W_,3341),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uLow",
+ 104);
+DYNX(W_,8354) = NOT PRE(DYNX(W_,8354), 53) AND DYNX(W_,3404) > DYNX(W_,3345)
+ OR PRE(DYNX(W_,8354), 53) AND DYNX(W_,3404) >= DYNX(W_,3344);
+DYNX(W_,8350) = DYNX(W_,8353) AND DYNX(W_,8354);
+DYNX(W_,9153) = DYNX(W_,3222)-DYNX(W_,9164);
+DYNX(W_,8316) = NOT PRE(DYNX(W_,8316), 54) AND Greater(DYNX(W_,9153),
+ "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u", 0,"0", 48)
+ OR PRE(DYNX(W_,8316), 54) AND GreaterEqual(DYNX(W_,9153),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",
-0.05,"-0.05", 49);
-DYNX(W_,8351) = DYNX(W_,8354);
-DYNX(W_,9185) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u)")
+DYNX(W_,8313) = DYNX(W_,8316);
+DYNX(W_,9154) = DYNX(W_,9164)-DYNX(W_,3223);
+DYNX(W_,8317) = NOT PRE(DYNX(W_,8317), 55) AND Greater(DYNX(W_,9154),
+ "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u", 0,"0", 50)
+ OR PRE(DYNX(W_,8317), 55) AND GreaterEqual(DYNX(W_,9154),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",
+ -0.05,"-0.05", 51);
+DYNX(W_,8314) = DYNX(W_,8317);
+DYNX(W_,9152) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u)")
Modelica_Blocks_Tables_Internal_getTable1DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3243))), 1, DYNX(W_,9197)));
+ (Integer)(DYNX(W_,3216))), 1, DYNX(W_,9164)));
PopModelContext();
-DYNX(W_,9188) = DYNX(W_,9167)-DYNX(W_,9185);
-DYNX(W_,8355) = NOT PRE(DYNX(W_,8355), 54) AND Greater(DYNX(W_,9188),
- "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u", 0,"0", 50)
- OR PRE(DYNX(W_,8355), 54) AND GreaterEqual(DYNX(W_,9188),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u",
- DYNX(W_,3257),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",
- 51);
-DYNX(W_,8352) = DYNX(W_,8355);
+DYNX(W_,9155) = DYNX(W_,9134)-DYNX(W_,9152);
+DYNX(W_,8318) = NOT PRE(DYNX(W_,8318), 56) AND Greater(DYNX(W_,9155),
+ "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u", 0,"0", 52)
+ OR PRE(DYNX(W_,8318), 56) AND GreaterEqual(DYNX(W_,9155),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u",
+ DYNX(W_,3230),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",
+ 53);
+DYNX(W_,8315) = DYNX(W_,8318);
DYNX(DYNhelp,1494) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8350), 1,
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8313), 1,
+ 3)));
+PopAllMarks();
+DYNX(W_,8312) = NOT DYNX(DYNhelp,1494);
+ /* Linear system of equations to solve. */
+DYNX(W_,9138) = RememberSimple_(DYNX(W_,9138), 6);
+SolveScalarLinearParametric( -DYNX(W_,3091)," -hydraulic.generation.heatPump.eva.vol.dynBal.m",
+ -DYNX(X_,23)," -hydraulic.generation.heatPump.eva.vol.dynBal.U",
+ DYNX(W_,9138),"hydraulic.generation.heatPump.eva.vol.dynBal.medium.u");
+ /* End of Equation Block */
+
+DYNX(W_,9103) = 84437.5+DYNX(W_,9138);
+DYNX(W_,9149) = 273.15+divGuarded(DYNX(W_,9103)-2501014.5*DYNX(X_,22),
+ "hydraulic.generation.heatPump.eva.vol.hOut_internal-2501014.5*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]",1006
+ *(1-DYNX(X_,22))+1860*DYNX(X_,22),"1006*(1-hydraulic.generation.heatPump.port_a2.Xi_outflow[1])+1860*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]");
+DYNX(W_,9157) = DYNX(W_,3272)-DYNX(W_,9149);
+DYNX(W_,8323) = NOT PRE(DYNX(W_,8323), 57) AND Greater(DYNX(W_,9157),
+ "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u", 0,"0", 54)
+ OR PRE(DYNX(W_,8323), 57) AND GreaterEqual(DYNX(W_,9157),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u",
+ -0.05,"-0.05", 55);
+DYNX(W_,8320) = DYNX(W_,8323);
+DYNX(W_,9158) = DYNX(W_,9149)-DYNX(W_,3273);
+DYNX(W_,8324) = NOT PRE(DYNX(W_,8324), 58) AND Greater(DYNX(W_,9158),
+ "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u", 0,"0", 56)
+ OR PRE(DYNX(W_,8324), 58) AND GreaterEqual(DYNX(W_,9158),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u",
+ -0.05,"-0.05", 57);
+DYNX(W_,8321) = DYNX(W_,8324);
+DYNX(W_,9156) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u)")
+ Modelica_Blocks_Tables_Internal_getTable1DValueNoDer2_M(DymStruc0_construct(
+ (Integer)(DYNX(W_,3266))), 1, DYNX(W_,9149)));
+PopModelContext();
+ /* Linear system of equations to solve. */
+DYNX(W_,9172) = RememberSimple_(DYNX(W_,9172), 7);
+SolveScalarLinearParametric( -DYNX(W_,3542)," -hydraulic.generation.pump.vol.dynBal.m",
+ -DYNX(X_,25)," -hydraulic.generation.pump.vol.dynBal.U", DYNX(W_,9172),
+ "hydraulic.generation.pump.port_a.h_outflow");
+ /* End of Equation Block */
+
+DYNX(W_,9173) = DYNX(W_,9172);
+DYNX(W_,9163) = 273.15+0.0002390057361376673*DYNX(W_,9173);
+DYNX(W_,9159) = DYNX(W_,9156)-DYNX(W_,9163);
+DYNX(W_,8325) = NOT PRE(DYNX(W_,8325), 59) AND Greater(DYNX(W_,9159),
+ "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u", 0,"0", 58)
+ OR PRE(DYNX(W_,8325), 59) AND GreaterEqual(DYNX(W_,9159),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u",
+ DYNX(W_,3280),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow",
+ 59);
+DYNX(W_,8322) = DYNX(W_,8325);
+DYNX(DYNhelp,1495) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.u)")
+ Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8320), 1,
3)));
PopAllMarks();
-DYNX(W_,8347) = NOT DYNX(DYNhelp,1494);
-DYNX(W_,8449) = DYNX(W_,4291)+DYNX(W_,8440);
-DYNX(W_,9251) = DYNX(W_,4290)+DYNX(W_,9250);
-DYNX(W_,9234) = IF DYNX(W_,8447) THEN DYNX(W_,8449) ELSE DYNX(W_,9251);
-DYNX(W_,9240) = DYNX(W_,9234)+DYNX(DP_,1168)*DYNX(X_,27);
-DYNX(W_,9241) = DYNX(DP_,1169)*DYNX(W_,9240);
-DYNX(W_,9242) = DYNX(DP_,1170)*DYNX(W_,9241)+DYNX(DP_,1172)*DYNX(X_,38);
-DYNX(W_,9243) = 0.3*DYNX(W_,9242);
-DYNX(W_,9244) = DYNX(DP_,1174)*DYNX(W_,9243)+DYNX(W_,4151)*DYNX(DP_,1173);
-DYNX(W_,9238) = IF GreaterS(DYNX(W_,9244),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
- DYNX(W_,4144),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMax", 44) THEN
- DYNX(W_,4144) ELSE IF LessS(DYNX(W_,9244),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
- DYNX(W_,4145),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMin", 45) THEN
- DYNX(W_,4145) ELSE DYNX(W_,9244);
-DYNX(W_,9233) = IF DYNX(W_,8424) THEN DYNX(W_,9238) ELSE DYNX(W_,4166);
-DYNX(W_,8366) = PRE(DYNX(W_,8365), 55);
-DYNX(W_,8372) = NOT DYNX(W_,8366);
-DYNX(W_,8363) = NOT PRE(DYNX(W_,8363), 56) AND Greater(DYNX(W_,9233),
- "hydraulic.control.supCtrNSet.y", DYNX(W_,3338),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uHigh",
- 97) OR PRE(DYNX(W_,8363), 56) AND GreaterEqual(DYNX(W_,9233),"hydraulic.control.supCtrNSet.y",
- DYNX(W_,3337),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uLow", 98);
-DYNX(W_,8378) = DYNX(W_,8372) AND DYNX(W_,8363);
+DYNX(W_,8319) = NOT DYNX(DYNhelp,1495);
+DYNX(W_,8309) = IF DYNX(W_,8299) THEN DYNX(W_,8312) ELSE DYNX(W_,8319);
+DYNX(W_,8412) = DYNX(W_,4251)+DYNX(W_,8403);
+DYNX(W_,9220) = DYNX(W_,4250)+DYNX(W_,9219);
+DYNX(W_,9203) = IF DYNX(W_,8410) THEN DYNX(W_,8412) ELSE DYNX(W_,9220);
+DYNX(W_,9209) = DYNX(W_,9203)+DYNX(DP_,1174)*DYNX(X_,27);
+DYNX(W_,9210) = DYNX(DP_,1175)*DYNX(W_,9209);
+DYNX(W_,9211) = DYNX(DP_,1176)*DYNX(W_,9210)+DYNX(DP_,1178)*DYNX(X_,38);
+DYNX(W_,9212) = 0.3*DYNX(W_,9211);
+DYNX(W_,9213) = DYNX(DP_,1180)*DYNX(W_,9212)+DYNX(W_,4111)*DYNX(DP_,1179);
+DYNX(W_,9207) = IF GreaterS(DYNX(W_,9213),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
+ DYNX(W_,4104),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMax", 44) THEN
+ DYNX(W_,4104) ELSE IF LessS(DYNX(W_,9213),"hydraulic.control.priGenPIDCtrl.PID.limiter.u",
+ DYNX(W_,4105),"hydraulic.control.priGenPIDCtrl.PID.limiter.uMin", 45) THEN
+ DYNX(W_,4105) ELSE DYNX(W_,9213);
+DYNX(W_,9202) = IF DYNX(W_,8387) THEN DYNX(W_,9207) ELSE DYNX(W_,4126);
+DYNX(W_,8329) = PRE(DYNX(W_,8328), 60);
+DYNX(W_,8335) = NOT DYNX(W_,8329);
+DYNX(W_,8326) = NOT PRE(DYNX(W_,8326), 61) AND Greater(DYNX(W_,9202),
+ "hydraulic.control.supCtrNSet.y", DYNX(W_,3309),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uHigh",
+ 105) OR PRE(DYNX(W_,8326), 61) AND GreaterEqual(DYNX(W_,9202),
+ "hydraulic.control.supCtrNSet.y", DYNX(W_,3308),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uLow",
+ 106);
+DYNX(W_,8341) = DYNX(W_,8335) AND DYNX(W_,8326);
beginwhenBlock
-whenModelica(DYNX(W_,8372), 4)
- DYNX(W_,8371) = DYNTime;
+whenModelica(DYNX(W_,8335), 4)
+ DYNX(W_,8334) = DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9193) = IF DYNX(W_,8372) THEN DYNTime-DYNX(W_,8371) ELSE 0.0;
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(46);
-DYNX(W_,8374) = GreaterEqual(DYNX(W_,9193),"hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.u",
- DYNX(W_,3353),"hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.threshold",
- 99);
+DYNX(W_,9160) = IF DYNX(W_,8335) THEN DYNTime-DYNX(W_,8334) ELSE 0.0;
+DYNX(W_,8337) = GreaterEqual(DYNX(W_,9160),"hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.u",
+ DYNX(W_,3324),"hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.threshold",
+ 107);
beginwhenBlock
-whenModelica(DYNX(W_,8366), 5)
- DYNX(W_,8368) = 1+PRE(DYNX(W_,8368), 57);
+whenModelica(DYNX(W_,8329), 5)
+ DYNX(W_,8331) = 1+PRE(DYNX(W_,8331), 62);
endwhenModelica()
endwhenBlock
-DYNX(W_,8369) = DYNX(W_,8368);
-DYNX(W_,8370) = DYNdelayDC(PRE(DYNX(W_,8369), 58), 3600.0, 0, 100)
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(46);
+DYNX(W_,8332) = DYNX(W_,8331);
+DYNX(W_,8333) = DYNdelayDC(PRE(DYNX(W_,8332), 63), 3600.0, 0, 108)
;
-DYNX(W_,8367) = DYNX(DP_,1054)*DYNX(W_,8369)+DYNX(DP_,1055)*DYNX(W_,8370);
-DYNX(W_,8375) = Less(DYNX(W_,8367),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u",
- DYNX(W_,3343),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.threshold",
- 101);
-DYNX(W_,8379) = DYNX(W_,8374) AND DYNX(W_,8375);
-DYNX(W_,8377) = NOT DYNX(W_,8363);
-DYNX(W_,8380) = DYNX(W_,8366) AND DYNX(W_,8377);
+DYNX(W_,8330) = DYNX(DP_,1060)*DYNX(W_,8332)+DYNX(DP_,1061)*DYNX(W_,8333);
+DYNX(W_,8338) = Less(DYNX(W_,8330),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u",
+ DYNX(W_,3314),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.threshold",
+ 109);
+DYNX(W_,8342) = DYNX(W_,8337) AND DYNX(W_,8338);
+DYNX(W_,8340) = NOT DYNX(W_,8326);
+DYNX(W_,8343) = DYNX(W_,8329) AND DYNX(W_,8340);
beginwhenBlock
-whenModelica(DYNX(W_,8366), 6)
- DYNX(W_,8373) = DYNTime;
+whenModelica(DYNX(W_,8329), 6)
+ DYNX(W_,8336) = DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9194) = IF DYNX(W_,8366) THEN DYNTime-DYNX(W_,8373) ELSE 0.0;
-DYNX(W_,8381) = GreaterEqual(DYNX(W_,9194),"hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.u",
- DYNX(W_,3355),"hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.threshold",
- 102);
-DYNX(W_,8382) = DYNX(W_,8372) AND DYNX(W_,8377);
-DYNX(W_,8383) = DYNX(W_,8363) AND DYNX(W_,8366);
-DYNX(W_,8386) = PRE(DYNX(W_,8386), 35);
+DYNX(W_,9161) = IF DYNX(W_,8329) THEN DYNTime-DYNX(W_,8336) ELSE 0.0;
+DYNX(W_,8344) = GreaterEqual(DYNX(W_,9161),"hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.u",
+ DYNX(W_,3326),"hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.threshold",
+ 110);
+DYNX(W_,8345) = DYNX(W_,8335) AND DYNX(W_,8340);
+DYNX(W_,8346) = DYNX(W_,8326) AND DYNX(W_,8329);
+DYNX(W_,8349) = PRE(DYNX(W_,8349), 37);
beginwhenBlock
- whenModelica(( DYNX(W_,8378) AND NOT PRE(DYNX(W_,8378), 59) ), 7)
- DYNX(W_,8386) = IF DYNX(W_,8379) THEN 1 ELSE 0;
+ whenModelica(( DYNX(W_,8341) AND NOT PRE(DYNX(W_,8341), 64) ), 7)
+ DYNX(W_,8349) = IF DYNX(W_,8342) THEN 1 ELSE 0;
endwhenModelica()
- whenModelica(( DYNX(W_,8380) AND NOT PRE(DYNX(W_,8380), 60) ), 8)
- DYNX(W_,8386) = IF DYNX(W_,8381) THEN 1 ELSE 0;
+ whenModelica(( DYNX(W_,8343) AND NOT PRE(DYNX(W_,8343), 65) ), 8)
+ DYNX(W_,8349) = IF DYNX(W_,8344) THEN 1 ELSE 0;
endwhenModelica()
- whenModelica(DYNX(W_,8379) AND DYNX(W_,8378), 9)
- DYNX(W_,8386) = 1;
+ whenModelica(DYNX(W_,8342) AND DYNX(W_,8341), 9)
+ DYNX(W_,8349) = 1;
endwhenModelica()
- whenModelica(DYNX(W_,8381) AND DYNX(W_,8380), 10)
- DYNX(W_,8386) = 1;
+ whenModelica(DYNX(W_,8344) AND DYNX(W_,8343), 10)
+ DYNX(W_,8349) = 1;
endwhenModelica()
- whenModelica(DYNX(W_,8382), 11)
- DYNX(W_,8386) = 1;
+ whenModelica(DYNX(W_,8345), 11)
+ DYNX(W_,8349) = 1;
endwhenModelica()
- whenModelica(DYNX(W_,8383), 12)
- DYNX(W_,8386) = 1;
+ whenModelica(DYNX(W_,8346), 12)
+ DYNX(W_,8349) = 1;
endwhenModelica()
endwhenBlock
-DYNX(W_,8384) = PRE(DYNX(W_,8384), 36);
+DYNX(W_,8347) = PRE(DYNX(W_,8347), 38);
beginwhenBlock
- whenModelica(( DYNX(W_,8378) AND NOT PRE(DYNX(W_,8378), 59) ), 13)
- DYNX(W_,8384) = 0;
+ whenModelica(( DYNX(W_,8341) AND NOT PRE(DYNX(W_,8341), 64) ), 13)
+ DYNX(W_,8347) = 0;
endwhenModelica()
- whenModelica(( DYNX(W_,8380) AND NOT PRE(DYNX(W_,8380), 60) ), 14)
- DYNX(W_,8384) = IF DYNX(W_,8381) THEN 0 ELSE 1;
+ whenModelica(( DYNX(W_,8343) AND NOT PRE(DYNX(W_,8343), 65) ), 14)
+ DYNX(W_,8347) = IF DYNX(W_,8344) THEN 0 ELSE 1;
endwhenModelica()
- whenModelica(DYNX(W_,8379) AND DYNX(W_,8378), 15)
- DYNX(W_,8384) = 0;
+ whenModelica(DYNX(W_,8342) AND DYNX(W_,8341), 15)
+ DYNX(W_,8347) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8381) AND DYNX(W_,8380), 16)
- DYNX(W_,8384) = 0;
+ whenModelica(DYNX(W_,8344) AND DYNX(W_,8343), 16)
+ DYNX(W_,8347) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8382), 17)
- DYNX(W_,8384) = 0;
+ whenModelica(DYNX(W_,8345), 17)
+ DYNX(W_,8347) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8383), 18)
- DYNX(W_,8384) = 0;
+ whenModelica(DYNX(W_,8346), 18)
+ DYNX(W_,8347) = 0;
endwhenModelica()
endwhenBlock
-DYNX(W_,9183) = DYNX(W_,9233)*DYNX(W_,8386)+DYNX(W_,3356)*DYNX(W_,8384);
-DYNX(W_,9184) = IF DYNX(W_,8347) THEN DYNX(W_,9183) ELSE 0.0;
-DYNX(W_,9195) = IF DYNX(W_,8387) THEN DYNX(W_,9184) ELSE 0.0;
-DYNX(W_,9160) = DYNX(W_,9195)*DYNX(W_,2736);
-DYNX(Y_,14) = DYNX(W_,9158)*DYNX(W_,9160);
-DYNX(DYNhelp,1495) = RealBmax(DYNX(W_,8425), DYNX(W_,8441));
-DYNX(W_,8446) = RealBmax(DYNX(DYNhelp,1495), 0.0);
-DYNX(W_,8451) = IF DYNX(W_,8423) THEN DYNX(W_,8446) ELSE 0.0;
-DYNX(Y_,19) = DYNX(W_,3970)*DYNX(W_,8451);
-DYNX(Y_,21) = DYNX(W_,3968)*DYNX(Y_,19);
-DYNX(W_,9131) = DYNX(DP_,1093)*DYNX(W_,8395)+DYNX(DP_,1094)*DYNX(Y_,14)+
- DYNX(DP_,1095)*DYNX(Y_,21);
+DYNX(W_,9150) = DYNX(W_,9202)*DYNX(W_,8349)+DYNX(W_,3327)*DYNX(W_,8347);
+DYNX(W_,9151) = IF DYNX(W_,8309) THEN DYNX(W_,9150) ELSE 0.0;
+DYNX(W_,9162) = IF DYNX(W_,8350) THEN DYNX(W_,9151) ELSE 0.0;
+DYNX(W_,9127) = DYNX(W_,9162)*DYNX(W_,2721);
+DYNX(W_,9109) = DYNX(W_,9125)*DYNX(W_,9127);
+DYNX(Y_,14) = IF DYNX(W_,8299) THEN DYNX(W_,9109) ELSE DYNX(W_,2845);
+DYNX(DYNhelp,1496) = RealBmax(DYNX(W_,8388), DYNX(W_,8404));
+DYNX(W_,8409) = RealBmax(DYNX(DYNhelp,1496), 0.0);
+DYNX(W_,8414) = IF DYNX(W_,8386) THEN DYNX(W_,8409) ELSE 0.0;
+DYNX(Y_,19) = DYNX(W_,3930)*DYNX(W_,8414);
+DYNX(Y_,21) = DYNX(W_,3928)*DYNX(Y_,19);
+DYNX(W_,9094) = DYNX(DP_,1099)*DYNX(W_,8358)+DYNX(DP_,1100)*DYNX(Y_,14)+
+ DYNX(DP_,1101)*DYNX(Y_,21);
/* Linear system of equations to solve. */
-DYNX(W_,9536) = RememberSimple_(DYNX(W_,9536), 6);
-SolveScalarLinearParametric((-1.1843079200592153E-05)*DYNX(W_,7014),
+DYNX(W_,9505) = RememberSimple_(DYNX(W_,9505), 8);
+SolveScalarLinearParametric((-1.1843079200592153E-05)*DYNX(W_,6974),
"(-1.1843079200592153E-05)*ventilation.generation.fanFlow.vol.dynBal.fluidVolume",
- -DYNX(X_,68)," -ventilation.generation.fanFlow.vol.dynBal.m", DYNX(W_,9536),
+ -DYNX(X_,68)," -ventilation.generation.fanFlow.vol.dynBal.m", DYNX(W_,9505),
"ventilation.generation.hex.port_b1.p");
/* End of Equation Block */
-DYNX(W_,9598) = 1.1843079200592153E-05*DYNX(W_,9536);
-DYNX(W_,8511) = 131.93359375*DYNX(X_,2);
+DYNX(W_,9567) = 1.1843079200592153E-05*DYNX(W_,9505);
+DYNX(W_,8474) = 131.93359375*DYNX(X_,2);
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[2] */
@@ -18702,101 +18760,101 @@ DYNX(W_,8511) = 131.93359375*DYNX(X_,2);
const char*const varnames_[]={"building.thermalZone[1].ports[1].m_flow"};
const double nominal_[]={0.1088888888888889};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 13, 80, 3,
- DYNX(DYNhelp,1496), 41, DYNX(did_->helpvari_vec,344), 23);
-NonLinearSystemSave(DYNX(W_,8511), 0);
-NonLinearSystemSave(DYNX(W_,9598), 1);
-NonLinearSystemSave(DYNX(W_,9536), 2);
-SetInitVectorNH(x__, 1, DYNX(W_,8510), Remember_(DYNX(W_,8510), 7));
+ DYNX(DYNhelp,1497), 41, DYNX(did_->helpvari_vec,344), 23);
+NonLinearSystemSave(DYNX(W_,8474), 0);
+NonLinearSystemSave(DYNX(W_,9567), 1);
+NonLinearSystemSave(DYNX(W_,9505), 2);
+SetInitVectorNH(x__, 1, DYNX(W_,8473), Remember_(DYNX(W_,8473), 9));
Residues;
- DYNX(DYNhelp,1537) = divinvGuarded(DYNX(W_,9598),"ventilation.generation.fanFlow.eff.rho");
- DYNX(W_,9576) = DYNX(DYNhelp,1537)*DYNX(W_,8510);
- DYNX(W_,9690) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.distribution.resSup[1].m_flow, 0.010888888888888889, 0.03266666666666667)")
+ DYNX(DYNhelp,1538) = divinvGuarded(DYNX(W_,9567),"ventilation.generation.fanFlow.eff.rho");
+ DYNX(W_,9545) = DYNX(DYNhelp,1538)*DYNX(W_,8473);
+ DYNX(W_,9659) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.distribution.resSup[1].m_flow, 0.010888888888888889, 0.03266666666666667)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
- DYNX(W_,8510), 0.010888888888888889, 0.03266666666666667));
+ DYNX(W_,8473), 0.010888888888888889, 0.03266666666666667));
PopModelContext();
- DYNX(W_,9533) = DYNX(W_,9690)+DYNX(W_,8511);
- DYNX(W_,9577) = DYNX(W_,9533)-DYNX(W_,9536);
-DYNX(DYNhelp,1538) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9576),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121), 1,
- 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))));
+ DYNX(W_,9502) = DYNX(W_,9659)+DYNX(W_,8474);
+ DYNX(W_,9546) = DYNX(W_,9502)-DYNX(W_,9505);
+DYNX(DYNhelp,1539) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9545),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))));
PopAllMarks();
-SetVector(residue__, 1, 0.30857142857142866*DYNX(W_,9576)+DYNX(W_,9577)-
- DYNX(DYNhelp,1538));
+SetVector(residue__, 1, 0.30857142857142866*DYNX(W_,9545)+DYNX(W_,9546)-
+ DYNX(DYNhelp,1539));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-SetMatrixLeading(Jacobian__, 1, 1, 1, DYNX(DYNhelp,1537)*(0.30857142857142866-
+SetMatrixLeading(Jacobian__, 1, 1, 1, DYNX(DYNhelp,1538)*(0.30857142857142866-
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1, \n1.0, \n0.0, \n{0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \n...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9576),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121), 1,
- 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120))), 1.0,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9545),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080))), 1.0,
0.0, RealTemporaryDense( DymArrays41, 1, 3), 0.0, 0.0, DymStruc6_construct(
RealTemporaryDense( DymArrays41, 1, 3), RealTemporaryDense( DymArrays41, 1, 3),
0))))+(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(ventilation.distribution.resSup[1].m_flow, 0.010888888888888889, 0.03266666666666667, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flowx_0der(
- DYNX(W_,8510), 0.010888888888888889, 0.03266666666666667, 1.0)));
+ DYNX(W_,8473), 0.010888888888888889, 0.03266666666666667, 1.0)));
PopAllMarks();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 13,
"Tag: simulation.nonlinear[2]");
-DYNX(W_,8510) = GetVector(x__, 1);
+DYNX(W_,8473) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 13);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9600) = IF DYNX(W_,9577)*DYNX(W_,9576) > 0.0020325925925925932 THEN
- DYNX(W_,9577)*DYNX(W_,9576) ELSE IF DYNX(W_,9577)*DYNX(W_,9576) <
- -0.0020325925925925932 THEN 0 ELSE 0.5*DYNX(W_,9577)*DYNX(W_,9576)-
- 122.99562682215739*DYNX(W_,9577)*DYNX(W_,9576)*(sqr(491.98250728862956*
- DYNX(W_,9577)*DYNX(W_,9576))-3)*DYNX(W_,9577)*DYNX(W_,9576);
-DYNX(W_,9601) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanFlow.eff.powEu, \nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.powEuDer, \n0.05)")
+DYNX(W_,9569) = IF DYNX(W_,9546)*DYNX(W_,9545) > 0.0020325925925925932 THEN
+ DYNX(W_,9546)*DYNX(W_,9545) ELSE IF DYNX(W_,9546)*DYNX(W_,9545) <
+ -0.0020325925925925932 THEN 0 ELSE 0.5*DYNX(W_,9546)*DYNX(W_,9545)-
+ 122.99562682215739*DYNX(W_,9546)*DYNX(W_,9545)*(sqr(491.98250728862956*
+ DYNX(W_,9546)*DYNX(W_,9545))-3)*DYNX(W_,9546)*DYNX(W_,9545);
+DYNX(W_,9570) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanFlow.eff.powEu, \nventilation.generation.fanFlow.eff.V_flow, \nventilation.generation.fanFlow.eff.r_N, \nventilation.generation.fanFlow.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,7204), 1, 11), RealTemporaryDense( &DYNX(W_,7193),
- 1, 11)), DYNX(W_,9576), DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7215), 1,
+ RealTemporaryDense( &DYNX(W_,7164), 1, 11), RealTemporaryDense( &DYNX(W_,7153),
+ 1, 11)), DYNX(W_,9545), DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7175), 1,
11), 0.05));
PopAllMarks();
-DYNX(W_,9579) = divGuarded(DYNX(W_,9600),"ventilation.generation.fanFlow.eff.WFlo",
- IF DYNX(W_,9601)-0.0040651851851851864 > 0.0020325925925925932 THEN
- DYNX(W_,9601) ELSE IF DYNX(W_,9601)-0.0040651851851851864 < -0.0020325925925925932
+DYNX(W_,9548) = divGuarded(DYNX(W_,9569),"ventilation.generation.fanFlow.eff.WFlo",
+ IF DYNX(W_,9570)-0.0040651851851851864 > 0.0020325925925925932 THEN
+ DYNX(W_,9570) ELSE IF DYNX(W_,9570)-0.0040651851851851864 < -0.0020325925925925932
THEN 0.0040651851851851864 ELSE 0.0020325925925925932+122.99562682215739*(
- DYNX(W_,9601)-0.0040651851851851864)*(sqr(491.98250728862956*(DYNX(W_,9601)-
- 0.0040651851851851864))-3)*(0.0040651851851851864-DYNX(W_,9601))+0.5*
- DYNX(W_,9601),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 > 0.0020325925925925932) then ventilation.generation.fanFlow.eff.P_internal else (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 < -0.0020325925925925932) then 0.0040651851851851864 else 0.0020325925925925932+122.99562682215739*((ventilation.generation.fanFlow.eff....");
-DYNX(W_,9603) = IF DYNX(W_,7090) THEN divGuarded(DYNX(W_,9601),"ventilation.generation.fanFlow.eff.WHyd",
- DYNX(W_,7071),"ventilation.generation.fanFlow.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9580) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanFlow.eff.yMot, \nventilation.generation.fanFlow.eff.motDer_yMot_generic)")
+ DYNX(W_,9570)-0.0040651851851851864)*(sqr(491.98250728862956*(DYNX(W_,9570)-
+ 0.0040651851851851864))-3)*(0.0040651851851851864-DYNX(W_,9570))+0.5*
+ DYNX(W_,9570),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 > 0.0020325925925925932) then ventilation.generation.fanFlow.eff.P_internal else (if noEvent(ventilation.generation.fanFlow.eff.P_internal-0.0040651851851851864 < -0.0020325925925925932) then 0.0040651851851851864 else 0.0020325925925925932+122.99562682215739*((ventilation.generation.fanFlow.eff....");
+DYNX(W_,9572) = IF DYNX(W_,7050) THEN divGuarded(DYNX(W_,9570),"ventilation.generation.fanFlow.eff.WHyd",
+ DYNX(W_,7031),"ventilation.generation.fanFlow.eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,9549) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanFlow.eff.yMot, \nventilation.generation.fanFlow.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7081), 1, 9),
- RealTemporaryDense( &DYNX(W_,7072), 1, 9)), DYNX(W_,9603), RealTemporaryDense(
- &DYNX(W_,7107), 1, 9)));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7041), 1, 9),
+ RealTemporaryDense( &DYNX(W_,7032), 1, 9)), DYNX(W_,9572), RealTemporaryDense(
+ &DYNX(W_,7067), 1, 9)));
PopAllMarks();
-DYNX(W_,9578) = DYNX(W_,9579)*DYNX(W_,9580);
-DYNX(Y_,34) = divGuarded(DYNX(W_,9600),"ventilation.generation.fanFlow.eff.WFlo",
- IF DYNX(W_,9578)-0.01 > 0.001 THEN DYNX(W_,9578) ELSE IF DYNX(W_,9578)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9578)-0.01)*(sqr(1000.0*(
- DYNX(W_,9578)-0.01))-3)*(0.01-DYNX(W_,9578))+0.5*DYNX(W_,9578),
+DYNX(W_,9547) = DYNX(W_,9548)*DYNX(W_,9549);
+DYNX(Y_,34) = divGuarded(DYNX(W_,9569),"ventilation.generation.fanFlow.eff.WFlo",
+ IF DYNX(W_,9547)-0.01 > 0.001 THEN DYNX(W_,9547) ELSE IF DYNX(W_,9547)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9547)-0.01)*(sqr(1000.0*(
+ DYNX(W_,9547)-0.01))-3)*(0.01-DYNX(W_,9547))+0.5*DYNX(W_,9547),
"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanFlow.eff.eta-0.01 > 0.001) then ventilation.generation.fanFlow.eff.eta else (if noEvent(ventilation.generation.fanFlow.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((ventilation.generation.fanFlow.eff.eta-0.01)*((1000.0*(ventilation.generation.fanFlow.eff.eta-0.01))^2-3)*(0.01-ventilation.generation.fanFlow.eff.eta))+0.5*ventilation...");
/* Linear system of equations to solve. */
-DYNX(W_,9605) = RememberSimple_(DYNX(W_,9605), 8);
-SolveScalarLinearParametric((-1.1843079200592153E-05)*DYNX(W_,7982),
+DYNX(W_,9574) = RememberSimple_(DYNX(W_,9574), 10);
+SolveScalarLinearParametric((-1.1843079200592153E-05)*DYNX(W_,7942),
"(-1.1843079200592153E-05)*ventilation.generation.threeWayValve_a.vol.dynBal.fluidVolume",
-DYNX(X_,78)," -ventilation.generation.threeWayValve_a.vol.dynBal.m",
- DYNX(W_,9605),"ventilation.generation.TExhIn.port_a.p");
+ DYNX(W_,9574),"ventilation.generation.TExhIn.port_a.p");
/* End of Equation Block */
/* Linear system of equations to solve. */
-DYNX(W_,9532) = RememberSimple_(DYNX(W_,9532), 9);
-SolveScalarLinearParametric((-1.1843079200592153E-05)*DYNX(W_,7392),
+DYNX(W_,9501) = RememberSimple_(DYNX(W_,9501), 11);
+SolveScalarLinearParametric((-1.1843079200592153E-05)*DYNX(W_,7352),
"(-1.1843079200592153E-05)*ventilation.generation.fanRet.vol.dynBal.fluidVolume",
- -DYNX(X_,72)," -ventilation.generation.fanRet.vol.dynBal.m", DYNX(W_,9532),
+ -DYNX(X_,72)," -ventilation.generation.fanRet.vol.dynBal.m", DYNX(W_,9501),
"ventilation.generation.portVent_out[1].p");
/* End of Equation Block */
-DYNX(W_,9617) = DYNX(W_,9605)-DYNX(W_,9532);
+DYNX(W_,9586) = DYNX(W_,9574)-DYNX(W_,9501);
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[3] */
/* Introducing 1 common subexpressions used in 0 expressions */
@@ -18805,27 +18863,27 @@ DYNX(W_,9617) = DYNX(W_,9605)-DYNX(W_,9532);
const char*const varnames_[]={"ventilation.generation.fanRet.VMachine_flow"};
const double nominal_[]={1.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 14, 81, 1,
- DYNX(DYNhelp,1539), 37, DYNX(did_->helpvari_vec,367), 23);
-NonLinearSystemSave(DYNX(W_,9617), 0);
-SetInitVectorNH(x__, 1, DYNX(W_,9616), Remember_(DYNX(W_,9616), 10));
+ DYNX(DYNhelp,1540), 37, DYNX(did_->helpvari_vec,367), 23);
+NonLinearSystemSave(DYNX(W_,9586), 0);
+SetInitVectorNH(x__, 1, DYNX(W_,9585), Remember_(DYNX(W_,9585), 12));
Residues;
-DYNX(DYNhelp,1576) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9616),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))));
+DYNX(DYNhelp,1577) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9585),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))));
PopAllMarks();
-SetVector(residue__, 1, 0.925714285714286*DYNX(W_,9616)+DYNX(W_,9617)-
- DYNX(DYNhelp,1576));
+SetVector(residue__, 1, 0.925714285714286*DYNX(W_,9585)+DYNX(W_,9586)-
+ DYNX(DYNhelp,1577));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, 0.925714285714286-(PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1, \n1.0, \n0.0, \n{0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \nV_flo...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9616),
- DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498))), 1.0,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9585),
+ DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458))), 1.0,
0.0, RealTemporaryDense( DymArrays41, 1, 3), 0.0, 0.0, DymStruc6_construct(
RealTemporaryDense( DymArrays41, 1, 3), RealTemporaryDense( DymArrays41, 1, 3),
0))));
@@ -18833,108 +18891,108 @@ PopAllMarks();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 14,
"Tag: simulation.nonlinear[3]");
-DYNX(W_,9616) = GetVector(x__, 1);
+DYNX(W_,9585) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 14);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9640) = IF DYNX(W_,9617)*DYNX(W_,9616) > 0.00609777777777778 THEN
- DYNX(W_,9617)*DYNX(W_,9616) ELSE IF DYNX(W_,9617)*DYNX(W_,9616) <
- -0.00609777777777778 THEN 0 ELSE 0.5*DYNX(W_,9617)*DYNX(W_,9616)-
- 40.99854227405246*DYNX(W_,9617)*DYNX(W_,9616)*(sqr(163.99416909620984*
- DYNX(W_,9617)*DYNX(W_,9616))-3)*DYNX(W_,9617)*DYNX(W_,9616);
-DYNX(W_,9641) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanRet.eff.powEu, \nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.powEuDer, \n0.05)")
+DYNX(W_,9609) = IF DYNX(W_,9586)*DYNX(W_,9585) > 0.00609777777777778 THEN
+ DYNX(W_,9586)*DYNX(W_,9585) ELSE IF DYNX(W_,9586)*DYNX(W_,9585) <
+ -0.00609777777777778 THEN 0 ELSE 0.5*DYNX(W_,9586)*DYNX(W_,9585)-
+ 40.99854227405246*DYNX(W_,9586)*DYNX(W_,9585)*(sqr(163.99416909620984*
+ DYNX(W_,9586)*DYNX(W_,9585))-3)*DYNX(W_,9586)*DYNX(W_,9585);
+DYNX(W_,9610) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nventilation.generation.fanRet.eff.powEu, \nventilation.generation.fanRet.eff.V_flow, \nventilation.generation.fanRet.eff.r_N, \nventilation.generation.fanRet.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,7582), 1, 11), RealTemporaryDense( &DYNX(W_,7571),
- 1, 11)), DYNX(W_,9616), DYNX(DP_,1371), RealTemporaryDense( &DYNX(W_,7593), 1,
+ RealTemporaryDense( &DYNX(W_,7542), 1, 11), RealTemporaryDense( &DYNX(W_,7531),
+ 1, 11)), DYNX(W_,9585), DYNX(DP_,1377), RealTemporaryDense( &DYNX(W_,7553), 1,
11), 0.05));
PopAllMarks();
-DYNX(W_,9619) = divGuarded(DYNX(W_,9640),"ventilation.generation.fanRet.eff.WFlo",
- IF DYNX(W_,9641)-0.01219555555555556 > 0.00609777777777778 THEN DYNX(W_,9641)
- ELSE IF DYNX(W_,9641)-0.01219555555555556 < -0.00609777777777778 THEN
- 0.01219555555555556 ELSE 0.00609777777777778+40.99854227405246*(DYNX(W_,9641)-
- 0.01219555555555556)*(sqr(163.99416909620984*(DYNX(W_,9641)-0.01219555555555556))
- -3)*(0.01219555555555556-DYNX(W_,9641))+0.5*DYNX(W_,9641),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 > 0.00609777777777778) then ventilation.generation.fanRet.eff.P_internal else (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 < -0.00609777777777778) then 0.01219555555555556 else 0.00609777777777778+40.99854227405246*((ventilation.generation.fanRet.eff.P_internal-0.0121...");
-DYNX(W_,9643) = IF DYNX(W_,7468) THEN divGuarded(DYNX(W_,9641),"ventilation.generation.fanRet.eff.WHyd",
- DYNX(W_,7449),"ventilation.generation.fanRet.eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9620) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanRet.eff.yMot, \nventilation.generation.fanRet.eff.motDer_yMot_generic)")
+DYNX(W_,9588) = divGuarded(DYNX(W_,9609),"ventilation.generation.fanRet.eff.WFlo",
+ IF DYNX(W_,9610)-0.01219555555555556 > 0.00609777777777778 THEN DYNX(W_,9610)
+ ELSE IF DYNX(W_,9610)-0.01219555555555556 < -0.00609777777777778 THEN
+ 0.01219555555555556 ELSE 0.00609777777777778+40.99854227405246*(DYNX(W_,9610)-
+ 0.01219555555555556)*(sqr(163.99416909620984*(DYNX(W_,9610)-0.01219555555555556))
+ -3)*(0.01219555555555556-DYNX(W_,9610))+0.5*DYNX(W_,9610),"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 > 0.00609777777777778) then ventilation.generation.fanRet.eff.P_internal else (if noEvent(ventilation.generation.fanRet.eff.P_internal-0.01219555555555556 < -0.00609777777777778) then 0.01219555555555556 else 0.00609777777777778+40.99854227405246*((ventilation.generation.fanRet.eff.P_internal-0.0121...");
+DYNX(W_,9612) = IF DYNX(W_,7428) THEN divGuarded(DYNX(W_,9610),"ventilation.generation.fanRet.eff.WHyd",
+ DYNX(W_,7409),"ventilation.generation.fanRet.eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,9589) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic, \nventilation.generation.fanRet.eff.yMot, \nventilation.generation.fanRet.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7459), 1, 9),
- RealTemporaryDense( &DYNX(W_,7450), 1, 9)), DYNX(W_,9643), RealTemporaryDense(
- &DYNX(W_,7485), 1, 9)));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,7419), 1, 9),
+ RealTemporaryDense( &DYNX(W_,7410), 1, 9)), DYNX(W_,9612), RealTemporaryDense(
+ &DYNX(W_,7445), 1, 9)));
PopAllMarks();
-DYNX(W_,9618) = DYNX(W_,9619)*DYNX(W_,9620);
-DYNX(Y_,35) = divGuarded(DYNX(W_,9640),"ventilation.generation.fanRet.eff.WFlo",
- IF DYNX(W_,9618)-0.01 > 0.001 THEN DYNX(W_,9618) ELSE IF DYNX(W_,9618)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9618)-0.01)*(sqr(1000.0*(
- DYNX(W_,9618)-0.01))-3)*(0.01-DYNX(W_,9618))+0.5*DYNX(W_,9618),
+DYNX(W_,9587) = DYNX(W_,9588)*DYNX(W_,9589);
+DYNX(Y_,35) = divGuarded(DYNX(W_,9609),"ventilation.generation.fanRet.eff.WFlo",
+ IF DYNX(W_,9587)-0.01 > 0.001 THEN DYNX(W_,9587) ELSE IF DYNX(W_,9587)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9587)-0.01)*(sqr(1000.0*(
+ DYNX(W_,9587)-0.01))-3)*(0.01-DYNX(W_,9587))+0.5*DYNX(W_,9587),
"smooth(1, smooth(1, (if noEvent(ventilation.generation.fanRet.eff.eta-0.01 > 0.001) then ventilation.generation.fanRet.eff.eta else (if noEvent(ventilation.generation.fanRet.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((ventilation.generation.fanRet.eff.eta-0.01)*((1000.0*(ventilation.generation.fanRet.eff.eta-0.01))^2-3)*(0.01-ventilation.generation.fanRet.eff.eta))+0.5*ventilation.gener...");
-DYNX(W_,9132) = DYNX(DP_,1447)*DYNX(Y_,34)+DYNX(DP_,1448)*DYNX(Y_,35);
-DYNX(W_,9020) = DYNTime;
+DYNX(W_,9095) = DYNX(DP_,1453)*DYNX(Y_,34)+DYNX(DP_,1454)*DYNX(Y_,35);
+DYNX(W_,8983) = DYNTime;
beginwhenBlock
-whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8308), 61), 2), 19)
- DYNX(W_,8309) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nuserProfiles.tabIntGai.tableID, \nuserProfiles.tabIntGai.timeScaled)")
+whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8268), 66), 2), 19)
+ DYNX(W_,8269) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nuserProfiles.tabIntGai.tableID, \nuserProfiles.tabIntGai.timeScaled)")
Modelica_Blocks_Tables_Internal_getNextTimeEvent_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), DYNX(W_,9020)));
+ (Integer)(DYNX(W_,1057))), DYNX(W_,8983)));
PopModelContext();
endwhenModelica()
endwhenBlock
-DYNX(DYNhelp,1577) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n3, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \npre(userProfiles.tabIntGai.nextTimeEventScaled))")
+DYNX(DYNhelp,1578) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n3, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \npre(userProfiles.tabIntGai.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), 3, DYNX(W_,9020), DYNX(W_,8309), PRE(DYNX(W_,8309),
- 40)));
+ (Integer)(DYNX(W_,1057))), 3, DYNX(W_,8983), DYNX(W_,8269), PRE(DYNX(W_,8269),
+ 42)));
PopModelContext();
-DYNX(W_,9019) = DYNX(W_,1056)+DYNX(DYNhelp,1577);
-DYNX(W_,8475) = DYNX(W_,1060)*DYNX(W_,9019);
-DYNX(W_,8640) = DYNX(W_,565)*DYNX(W_,8475);
-DYNX(W_,8638) = -DYNX(W_,572)*DYNX(W_,8640);
-DYNX(W_,8639) = -DYNX(W_,573)*DYNX(W_,8640);
-DYNX(W_,9006) = -(DYNX(W_,8638)+DYNX(W_,8639));
-DYNX(DYNhelp,1578) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n2, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \npre(userProfiles.tabIntGai.nextTimeEventScaled))")
+DYNX(W_,8982) = DYNX(W_,1056)+DYNX(DYNhelp,1578);
+DYNX(W_,8438) = DYNX(W_,1060)*DYNX(W_,8982);
+DYNX(W_,8603) = DYNX(W_,565)*DYNX(W_,8438);
+DYNX(W_,8601) = -DYNX(W_,572)*DYNX(W_,8603);
+DYNX(W_,8602) = -DYNX(W_,573)*DYNX(W_,8603);
+DYNX(W_,8969) = -(DYNX(W_,8601)+DYNX(W_,8602));
+DYNX(DYNhelp,1579) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n2, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \npre(userProfiles.tabIntGai.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), 2, DYNX(W_,9020), DYNX(W_,8309), PRE(DYNX(W_,8309),
- 40)));
+ (Integer)(DYNX(W_,1057))), 2, DYNX(W_,8983), DYNX(W_,8269), PRE(DYNX(W_,8269),
+ 42)));
PopModelContext();
-DYNX(W_,9018) = DYNX(W_,1055)+DYNX(DYNhelp,1578);
-DYNX(W_,8474) = DYNX(W_,1059)*DYNX(W_,9018);
-DYNX(W_,8634) = DYNX(W_,544)*DYNX(W_,8474);
-DYNX(W_,8633) = -DYNX(W_,552)*DYNX(W_,8634);
-DYNX(W_,8632) = -DYNX(W_,551)*DYNX(W_,8634);
-DYNX(W_,9007) = -(DYNX(W_,8633)+DYNX(W_,8632));
-DYNX(W_,9005) = DYNX(W_,9006)+DYNX(W_,9007);
-DYNX(W_,8509) = DYNX(W_,933)*DYNX(W_,9005);
-DYNX(W_,9125) = DYNX(W_,9131)+DYNX(W_,9132)+DYNX(W_,8509);
-DYNX(W_,9740) = 1800.0*DYNX(DP_,1478)+DYNX(DP_,1479)*DYNX(W_,8506);
+DYNX(W_,8981) = DYNX(W_,1055)+DYNX(DYNhelp,1579);
+DYNX(W_,8437) = DYNX(W_,1059)*DYNX(W_,8981);
+DYNX(W_,8597) = DYNX(W_,544)*DYNX(W_,8437);
+DYNX(W_,8596) = -DYNX(W_,552)*DYNX(W_,8597);
+DYNX(W_,8595) = -DYNX(W_,551)*DYNX(W_,8597);
+DYNX(W_,8970) = -(DYNX(W_,8596)+DYNX(W_,8595));
+DYNX(W_,8968) = DYNX(W_,8969)+DYNX(W_,8970);
+DYNX(W_,8472) = DYNX(W_,933)*DYNX(W_,8968);
+DYNX(W_,9088) = DYNX(W_,9094)+DYNX(W_,9095)+DYNX(W_,8472);
+DYNX(W_,9709) = 1800.0*DYNX(DP_,1484)+DYNX(DP_,1485)*DYNX(W_,8469);
beginwhenBlock
-whenModelica(DYNX(W_,8250) AND GreaterMinor(DYNX(W_,9740),"weaDat.conTimMin.modTimAux",
- PRE(DYNX(W_,8468), 42),"pre(weaDat.conTimMin.tNext)", 103), 20)
- DYNX(W_,8468) = IF DYNX(W_,8250) THEN real2integerEvent(divGuarded(
- DYNX(W_,9740),"weaDat.conTimMin.modTimAux",DYNX(W_,8249),"weaDat.conTimMin.lenWea"),
- "weaDat.conTimMin.modTimAux/weaDat.conTimMin.lenWea", 2)*DYNX(W_,8249)+
- DYNX(W_,8249) ELSE DYNTime;
+whenModelica(DYNX(W_,8210) AND GreaterMinor(DYNX(W_,9709),"weaDat.conTimMin.modTimAux",
+ PRE(DYNX(W_,8431), 44),"pre(weaDat.conTimMin.tNext)", 111), 20)
+ DYNX(W_,8431) = IF DYNX(W_,8210) THEN real2integerEvent(divGuarded(
+ DYNX(W_,9709),"weaDat.conTimMin.modTimAux",DYNX(W_,8209),"weaDat.conTimMin.lenWea"),
+ "weaDat.conTimMin.modTimAux/weaDat.conTimMin.lenWea", 2)*DYNX(W_,8209)+
+ DYNX(W_,8209) ELSE DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9743) = IF DYNX(W_,8250) THEN DYNX(W_,9740)-DYNX(W_,8468)+DYNX(W_,8249)
- ELSE DYNX(W_,9740);
-DYNX(W_,9734) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n1, \nweaDat.datRea30Min.u)")
+DYNX(W_,9712) = IF DYNX(W_,8210) THEN DYNX(W_,9709)-DYNX(W_,8431)+DYNX(W_,8209)
+ ELSE DYNX(W_,9709);
+DYNX(W_,9703) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n1, \nweaDat.datRea30Min.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246))), 1, DYNX(W_,9743)));
+ (Integer)(DYNX(W_,8206))), 1, DYNX(W_,9712)));
PopModelContext();
-DYNX(W_,8493) = RealBmax(0, DYNX(W_,9734));
-DYNX(W_,9088) = DYNTime;
-DYNX(DYNhelp,1579) = floorEvent(DYNX(W_,9088)/(double)(86400),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.modTim.y/86400",
+DYNX(W_,8456) = RealBmax(0, DYNX(W_,9703));
+DYNX(W_,9051) = DYNTime;
+DYNX(DYNhelp,1580) = floorEvent(DYNX(W_,9051)/(double)(86400),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.modTim.y/86400",
3);
-DYNX(W_,8314) = 86400*DYNX(DYNhelp,1579);
+DYNX(W_,8274) = 86400*DYNX(DYNhelp,1580);
beginwhenBlock
-whenModelica(DYNX(W_,2240) AND GreaterMinor(DYNX(W_,8314),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.modTimAux",
- PRE(DYNX(W_,8321), 16),"pre(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.tNext)",
- 104), 21)
- DYNX(W_,8321) = IF DYNX(W_,2240) THEN real2integer(divGuarded(DYNX(W_,8314),
+whenModelica(DYNX(W_,2240) AND GreaterMinor(DYNX(W_,8274),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.modTimAux",
+ PRE(DYNX(W_,8281), 16),"pre(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.tNext)",
+ 112), 21)
+ DYNX(W_,8281) = IF DYNX(W_,2240) THEN real2integer(divGuarded(DYNX(W_,8274),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.modTimAux",
DYNX(W_,2239),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.lenWea"))
*DYNX(W_,2239)+DYNX(W_,2239) ELSE DYNTime;
@@ -18942,19 +19000,19 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8320) = IF DYNX(W_,2240) THEN DYNX(W_,8314)-DYNX(W_,8321)+DYNX(W_,2239)
- ELSE DYNX(W_,8314);
-DYNX(DYNhelp,1580) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8320));
-DYNX(W_,8322) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1580),
+DYNX(W_,8280) = IF DYNX(W_,2240) THEN DYNX(W_,8274)-DYNX(W_,8281)+DYNX(W_,2239)
+ ELSE DYNX(W_,8274);
+DYNX(DYNhelp,1581) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8280));
+DYNX(W_,8282) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1581),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.calTimAux)");
-DYNX(W_,9069) = DYNX(W_,9088)-DYNX(W_,8314);
+DYNX(W_,9032) = DYNX(W_,9051)-DYNX(W_,8274);
beginwhenBlock
-whenModelica(DYNX(W_,2233) AND GreaterMinor(DYNX(W_,9069),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux",
- PRE(DYNX(W_,8315), 18),"pre(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.tNext)",
- 105), 22)
- DYNX(W_,8315) = IF DYNX(W_,2233) THEN real2integerEvent(divGuarded(
- DYNX(W_,9069),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux",
+whenModelica(DYNX(W_,2233) AND GreaterMinor(DYNX(W_,9032),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux",
+ PRE(DYNX(W_,8275), 18),"pre(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.tNext)",
+ 113), 22)
+ DYNX(W_,8275) = IF DYNX(W_,2233) THEN real2integerEvent(divGuarded(
+ DYNX(W_,9032),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux",
DYNX(W_,2232),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.lenWea"),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux/electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.lenWea",
4)*DYNX(W_,2232)+DYNX(W_,2232) ELSE DYNTime;
@@ -18962,14 +19020,14 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,9082) = IF DYNX(W_,2233) THEN DYNX(W_,9069)-DYNX(W_,8315)+DYNX(W_,2232)
- ELSE DYNX(W_,9069);
-DYNX(W_,9083) = DYNX(W_,9082)-470.5631344194285;
+DYNX(W_,9045) = IF DYNX(W_,2233) THEN DYNX(W_,9032)-DYNX(W_,8275)+DYNX(W_,2232)
+ ELSE DYNX(W_,9032);
+DYNX(W_,9046) = DYNX(W_,9045)-470.5631344194285;
beginwhenBlock
-whenModelica(DYNX(W_,2238) AND GreaterMinor(DYNX(W_,8314),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.modTimAux",
- PRE(DYNX(W_,8318), 17),"pre(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.tNext)",
- 106), 23)
- DYNX(W_,8318) = IF DYNX(W_,2238) THEN real2integer(divGuarded(DYNX(W_,8314),
+whenModelica(DYNX(W_,2238) AND GreaterMinor(DYNX(W_,8274),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.modTimAux",
+ PRE(DYNX(W_,8278), 17),"pre(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.tNext)",
+ 114), 23)
+ DYNX(W_,8278) = IF DYNX(W_,2238) THEN real2integer(divGuarded(DYNX(W_,8274),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.modTimAux",
DYNX(W_,2237),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.lenWea"))
*DYNX(W_,2237)+DYNX(W_,2237) ELSE DYNTime;
@@ -18977,176 +19035,176 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8317) = IF DYNX(W_,2238) THEN DYNX(W_,8314)-DYNX(W_,8318)+DYNX(W_,2237)
- ELSE DYNX(W_,8314);
-DYNX(W_,8319) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8317)+86400)
+DYNX(W_,8277) = IF DYNX(W_,2238) THEN DYNX(W_,8274)-DYNX(W_,8278)+DYNX(W_,2237)
+ ELSE DYNX(W_,8274);
+DYNX(W_,8279) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8277)+86400)
-81);
-DYNX(DYNhelp,1581) = sin(2*DYNX(W_,8319));
-DYNX(DYNhelp,1582) = cos(DYNX(W_,8319));
-DYNX(DYNhelp,1583) = sin(DYNX(W_,8319));
-DYNX(W_,8316) = 60*(9.87*DYNX(DYNhelp,1581)-7.53*DYNX(DYNhelp,1582)-1.5*
- DYNX(DYNhelp,1583));
-DYNX(W_,9080) = DYNX(W_,9083)+DYNX(W_,8316);
-DYNX(W_,9081) = 0.2617993877991494*(DYNX(W_,9080)/(double)(3600)-12);
-DYNX(DYNhelp,1584) = cos(DYNX(W_,8322));
-DYNX(DYNhelp,1585) = cos(DYNX(W_,9081));
-DYNX(DYNhelp,1586) = sin(DYNX(W_,8322));
-DYNX(W_,9087) = acosGuarded(0.6124088231015443*DYNX(DYNhelp,1584)*
- DYNX(DYNhelp,1585)+0.7905412281389133*DYNX(DYNhelp,1586),"0.6124088231015443*(cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)");
-DYNX(W_,9079) = IF LessEqual(DYNX(W_,9087),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.zen",
- 1.5707963267948966,"1.5707963267948966", 53) THEN DYNX(W_,9087) ELSE
+DYNX(DYNhelp,1582) = sin(2*DYNX(W_,8279));
+DYNX(DYNhelp,1583) = cos(DYNX(W_,8279));
+DYNX(DYNhelp,1584) = sin(DYNX(W_,8279));
+DYNX(W_,8276) = 60*(9.87*DYNX(DYNhelp,1582)-7.53*DYNX(DYNhelp,1583)-1.5*
+ DYNX(DYNhelp,1584));
+DYNX(W_,9043) = DYNX(W_,9046)+DYNX(W_,8276);
+DYNX(W_,9044) = 0.2617993877991494*(DYNX(W_,9043)/(double)(3600)-12);
+DYNX(DYNhelp,1585) = cos(DYNX(W_,8282));
+DYNX(DYNhelp,1586) = cos(DYNX(W_,9044));
+DYNX(DYNhelp,1587) = sin(DYNX(W_,8282));
+DYNX(W_,9050) = acosGuarded(0.6124088231015443*DYNX(DYNhelp,1585)*
+ DYNX(DYNhelp,1586)+0.7905412281389133*DYNX(DYNhelp,1587),"0.6124088231015443*(cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng)");
+DYNX(W_,9042) = IF LessEqual(DYNX(W_,9050),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.zen",
+ 1.5707963267948966,"1.5707963267948966", 61) THEN DYNX(W_,9050) ELSE
1.5707963267948966;
-DYNX(DYNhelp,1587) = cos(DYNX(W_,9079));
-DYNX(DYNhelp,1588) = 0.3183098861837907*DYNX(W_,9079)*180;
-DYNX(DYNhelp,1589) = DYNX(DYNhelp,1587)+0.5057*powGuarded(96.08-DYNX(DYNhelp,1588),
+DYNX(DYNhelp,1588) = cos(DYNX(W_,9042));
+DYNX(DYNhelp,1589) = 0.3183098861837907*DYNX(W_,9042)*180;
+DYNX(DYNhelp,1590) = DYNX(DYNhelp,1588)+0.5057*powGuarded(96.08-DYNX(DYNhelp,1589),
"96.08-0.3183098861837907*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen*180)",
-1.634,"-1.634");
-DYNX(DYNhelp,1590) = divinvGuarded(DYNX(DYNhelp,1589),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)+0.5057*(96.08-0.3183098861837907*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen*180))^(-1.634)");
-DYNX(W_,9073) = DYNX(DYNhelp,1590);
-DYNX(W_,9074) = IF LessEqual(DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(
- DYNX(W_,9073), 1)+DYNX(DP_,798)*sqr(DYNX(W_,9073))+DYNX(DP_,799)*powUnguarded(
- DYNX(W_,9073), 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9073), 4),
+DYNX(DYNhelp,1591) = divinvGuarded(DYNX(DYNhelp,1590),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)+0.5057*(96.08-0.3183098861837907*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen*180))^(-1.634)");
+DYNX(W_,9036) = DYNX(DYNhelp,1591);
+DYNX(W_,9037) = IF LessEqual(DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(
+ DYNX(W_,9036), 1)+DYNX(DP_,798)*sqr(DYNX(W_,9036))+DYNX(DP_,799)*powUnguarded(
+ DYNX(W_,9036), 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9036), 4),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_0+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_1*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMas^1+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_2*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMas^2+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.b_3*electrica...",
- 0,"0", 54) THEN 0 ELSE DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(DYNX(W_,9073),
- 1)+DYNX(DP_,798)*sqr(DYNX(W_,9073))+DYNX(DP_,799)*powUnguarded(DYNX(W_,9073),
- 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9073), 4);
-DYNX(W_,9072) = IF DYNX(W_,8493) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
- divGuarded(DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
- DYNX(DP_,802)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8314))+
- 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8314))+0.000719*cos(
- 3.9847699817222125E-07*DYNX(W_,8314))+7.7E-05*sin(3.9847699817222125E-07*
- DYNX(W_,8314)))*cos(DYNX(W_,9087)),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
-DYNX(W_,9071) = IF LessEqual(DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
- 0.001,"0.001", 55) THEN 0 ELSE IF LessEqual(DYNX(W_,9072),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
- 0.22,"0.22", 56) THEN DYNX(W_,8493)*(1.0-0.09*DYNX(W_,9072)) ELSE IF Greater(
- DYNX(W_,9072),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
- 0.8,"0.8", 57) THEN 0.165*DYNX(W_,8493) ELSE DYNX(W_,8493)*(0.9511+4.388*sqr(
- DYNX(W_,9072))-0.1604*DYNX(W_,9072)-16.638*powUnguarded(DYNX(W_,9072), 3)+
- 12.336*powUnguarded(DYNX(W_,9072), 4));
-DYNX(W_,9070) = DYNX(W_,8493)-DYNX(W_,9071);
-DYNX(W_,8323) = DYNX(DYNhelp,1584);
-DYNX(W_,9085) = DYNX(DYNhelp,1585);
-DYNX(W_,8324) = DYNX(DYNhelp,1586);
-DYNX(W_,9086) = sin(DYNX(W_,9081));
+ 0,"0", 62) THEN 0 ELSE DYNX(DP_,796)+DYNX(DP_,797)*powUnguarded(DYNX(W_,9036),
+ 1)+DYNX(DP_,798)*sqr(DYNX(W_,9036))+DYNX(DP_,799)*powUnguarded(DYNX(W_,9036),
+ 3)+DYNX(DP_,800)*powUnguarded(DYNX(W_,9036), 4);
+DYNX(W_,9035) = IF DYNX(W_,8456) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
+ divGuarded(DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
+ DYNX(DP_,802)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8274))+
+ 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8274))+0.000719*cos(
+ 3.9847699817222125E-07*DYNX(W_,8274))+7.7E-05*sin(3.9847699817222125E-07*
+ DYNX(W_,8274)))*cos(DYNX(W_,9050)),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
+DYNX(W_,9034) = IF LessEqual(DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",
+ 0.001,"0.001", 63) THEN 0 ELSE IF LessEqual(DYNX(W_,9035),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
+ 0.22,"0.22", 64) THEN DYNX(W_,8456)*(1.0-0.09*DYNX(W_,9035)) ELSE IF Greater(
+ DYNX(W_,9035),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",
+ 0.8,"0.8", 65) THEN 0.165*DYNX(W_,8456) ELSE DYNX(W_,8456)*(0.9511+4.388*sqr(
+ DYNX(W_,9035))-0.1604*DYNX(W_,9035)-16.638*powUnguarded(DYNX(W_,9035), 3)+
+ 12.336*powUnguarded(DYNX(W_,9035), 4));
+DYNX(W_,9033) = DYNX(W_,8456)-DYNX(W_,9034);
+DYNX(W_,8283) = DYNX(DYNhelp,1585);
+DYNX(W_,9048) = DYNX(DYNhelp,1586);
+DYNX(W_,8284) = DYNX(DYNhelp,1587);
+DYNX(W_,9049) = sin(DYNX(W_,9044));
if (NewParameters_) {
-DYNX(DYNhelp,1591) = cos(DYNX(W_,2244));
+DYNX(DYNhelp,1592) = cos(DYNX(W_,2244));
}
-DYNX(DYNhelp,1592) = DYNX(W_,8323)*DYNX(W_,9085);
+DYNX(DYNhelp,1593) = DYNX(W_,8283)*DYNX(W_,9048);
if (NewParameters_) {
-DYNX(DYNhelp,1593) = sin(DYNX(W_,2244));
+DYNX(DYNhelp,1594) = sin(DYNX(W_,2244));
}
if (NewParameters_) {
-DYNX(DYNhelp,1594) = sin(DYNX(W_,2243));
+DYNX(DYNhelp,1595) = sin(DYNX(W_,2243));
}
if (NewParameters_) {
-DYNX(DYNhelp,1595) = cos(DYNX(W_,2243));
+DYNX(DYNhelp,1596) = cos(DYNX(W_,2243));
}
-DYNX(DYNhelp,1596) = 0.7905412281389133*DYNX(DYNhelp,1592);
-DYNX(DYNhelp,1597) = 0.6124088231015443*DYNX(W_,8324);
-DYNX(W_,9084) = acosGuarded(DYNX(DYNhelp,1591)*(0.6124088231015443*
- DYNX(DYNhelp,1592)+0.7905412281389133*DYNX(W_,8324))+DYNX(DYNhelp,1593)*(
- DYNX(DYNhelp,1594)*DYNX(W_,8323)*DYNX(W_,9086)+DYNX(DYNhelp,1595)*(
- DYNX(DYNhelp,1596)-DYNX(DYNhelp,1597))),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.i...");
-DYNX(DYNhelp,1598) = cos(DYNX(W_,9084));
-DYNX(W_,9078) = IF DYNX(W_,9079) >= 1.5692255304681018 OR DYNX(DYNhelp,1598) >
- DYNX(DYNhelp,1587)*4 THEN 4 ELSE divGuarded(DYNX(DYNhelp,1598),
+DYNX(DYNhelp,1597) = 0.7905412281389133*DYNX(DYNhelp,1593);
+DYNX(DYNhelp,1598) = 0.6124088231015443*DYNX(W_,8284);
+DYNX(W_,9047) = acosGuarded(DYNX(DYNhelp,1592)*(0.6124088231015443*
+ DYNX(DYNhelp,1593)+0.7905412281389133*DYNX(W_,8284))+DYNX(DYNhelp,1594)*(
+ DYNX(DYNhelp,1595)*DYNX(W_,8283)*DYNX(W_,9049)+DYNX(DYNhelp,1596)*(
+ DYNX(DYNhelp,1597)-DYNX(DYNhelp,1598))),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.i...");
+DYNX(DYNhelp,1599) = cos(DYNX(W_,9047));
+DYNX(W_,9041) = IF DYNX(W_,9042) >= 1.5692255304681018 OR DYNX(DYNhelp,1599) >
+ DYNX(DYNhelp,1588)*4 THEN 4 ELSE divGuarded(DYNX(DYNhelp,1599),
"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)",
- DYNX(DYNhelp,1587),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)");
-DYNX(W_,9076) = IF DYNX(W_,9084) >= 0.0001 AND DYNX(W_,9084) <= 1.5692255304681018
- THEN asinGuarded(divGuarded(sin(DYNX(W_,9084)),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)",
+ DYNX(DYNhelp,1588),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen)");
+DYNX(W_,9039) = IF DYNX(W_,9047) >= 0.0001 AND DYNX(W_,9047) <= 1.5692255304681018
+ THEN asinGuarded(divGuarded(sin(DYNX(W_,9047)),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)",
DYNX(W_,2222),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refInd"),
"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)/electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refInd")
ELSE 0;
-DYNX(W_,9077) = IF DYNX(W_,9084) >= 0.0001 AND DYNX(W_,9084) <= 1.5692255304681018
- AND DYNX(W_,9076) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2220)*DYNX(W_,2221),
+DYNX(W_,9040) = IF DYNX(W_,9047) >= 0.0001 AND DYNX(W_,9047) <= 1.5692255304681018
+ AND DYNX(W_,9039) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2220)*DYNX(W_,2221),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.glaExtCoe*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.glaThi",
- cos(DYNX(W_,9076)),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng)"))
- *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9076)-DYNX(W_,9084))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(sin(DYNX(W_,9076)+DYNX(W_,9084))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")
- +divGuarded(sqr(tan(DYNX(W_,9076)-DYNX(W_,9084))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(tan(DYNX(W_,9076)+DYNX(W_,9084))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")))
+ cos(DYNX(W_,9039)),"cos(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng)"))
+ *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9039)-DYNX(W_,9047))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(sin(DYNX(W_,9039)+DYNX(W_,9047))),"sin(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")
+ +divGuarded(sqr(tan(DYNX(W_,9039)-DYNX(W_,9047))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(tan(DYNX(W_,9039)+DYNX(W_,9047))),"tan(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng)^2")))
ELSE 0;
-DYNX(W_,9075) = DYNX(DYNhelp,303)*DYNX(W_,9077);
-DYNX(W_,9057) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9074)*(
- DYNX(W_,9070)*DYNX(W_,9078)*DYNX(W_,9075)+DYNX(W_,9071)*DYNX(W_,2227)*(0.5+0.5
- *cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9071),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+DYNX(W_,9038) = DYNX(DYNhelp,303)*DYNX(W_,9040);
+DYNX(W_,9020) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9037)*(
+ DYNX(W_,9033)*DYNX(W_,9041)*DYNX(W_,9038)+DYNX(W_,9034)*DYNX(W_,2227)*(0.5+0.5
+ *cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9034),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2216)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9071),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9084)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
- DYNX(W_,8493)*DYNX(W_,2226)*(1-cos(DYNX(W_,2216)))),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[1].pVRadiationHorizontalTR...",
+ DYNX(W_,9034),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9047)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
+ DYNX(W_,8456)*DYNX(W_,2226)*(1-cos(DYNX(W_,2216)))),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[1].pVRadiationHorizontalTR...",
DYNX(DP_,801),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radTil0");
-DYNX(W_,9058) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE DYNX(W_,9070)*DYNX(W_,9078)+
- DYNX(W_,9071)*(0.5+0.5*cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9071),
+DYNX(W_,9021) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE DYNX(W_,9033)*DYNX(W_,9041)+
+ DYNX(W_,9034)*(0.5+0.5*cos(DYNX(W_,2216))*(1+(1-sqr(divGuarded(DYNX(W_,9034),
"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2216)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9071),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9084)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
- DYNX(W_,8493)*(1-cos(DYNX(W_,2216)));
-DYNX(W_,9715) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n12, \nweaDat.datRea.u)")
+ DYNX(W_,9034),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9047)))*powUnguarded(cos(DYNX(W_,2216)), 3)))+0.1*
+ DYNX(W_,8456)*(1-cos(DYNX(W_,2216)));
+DYNX(W_,9684) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n12, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 12, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 12, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8497) = RealBmax(0, DYNX(W_,9715));
-DYNX(W_,9056) = IF DYNX(W_,9058) >= 1E-15 THEN DYNX(W_,9058)*exp((-2.81)-0.0455*
- DYNX(W_,8497))+DYNX(W_,8487) ELSE DYNX(W_,8487);
-DYNX(W_,9065) = 0.0033540164346805303*DYNX(W_,9056)*DYNX(W_,2187);
-DYNX(W_,9063) = IF Greater(DYNX(W_,9057),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
- 0,"0", 58) THEN DYNX(W_,9057)*(DYNX(W_,2183)+DYNX(W_,2177)*(DYNX(W_,9056)-
+DYNX(W_,8460) = RealBmax(0, DYNX(W_,9684));
+DYNX(W_,9019) = IF DYNX(W_,9021) >= 1E-15 THEN DYNX(W_,9021)*exp((-2.81)-0.0455*
+ DYNX(W_,8460))+DYNX(W_,8450) ELSE DYNX(W_,8450);
+DYNX(W_,9028) = 0.0033540164346805303*DYNX(W_,9019)*DYNX(W_,2187);
+DYNX(W_,9026) = IF Greater(DYNX(W_,9020),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
+ 0,"0", 66) THEN DYNX(W_,9020)*(DYNX(W_,2183)+DYNX(W_,2177)*(DYNX(W_,9019)-
298.15)) ELSE 0;
-DYNX(W_,9061) = (1-DYNX(DP_,795)*(DYNX(W_,9056)-298.15))*DYNX(DP_,794);
-DYNX(DYNhelp,1599) = divGuarded(DYNX(W_,9061),"electrical.generation.pVSystem[1].iVCharacteristics.E_g",
- DYNX(W_,9056),"electrical.generation.pVSystem[1].iVCharacteristics.T_c");
-DYNX(DYNhelp,1600) = exp(7.242963696165495E+22*(0.0033540164346805303*
- DYNX(DP_,794)-DYNX(DYNhelp,1599)));
-DYNX(W_,9062) = powUnguarded(0.0033540164346805303*DYNX(W_,9056), 3)*
- DYNX(DYNhelp,1600)*DYNX(W_,2184);
-DYNX(W_,9068) = IF GreaterEqual(DYNX(W_,9063),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
- 0.01,"0.01", 59) THEN DYNX(W_,9065)*logGuarded(fabs(1+divGuarded(
- DYNX(W_,9063),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
- DYNX(W_,9062),"electrical.generation.pVSystem[1].iVCharacteristics.I_s")),
+DYNX(W_,9024) = (1-DYNX(DP_,795)*(DYNX(W_,9019)-298.15))*DYNX(DP_,794);
+DYNX(DYNhelp,1600) = divGuarded(DYNX(W_,9024),"electrical.generation.pVSystem[1].iVCharacteristics.E_g",
+ DYNX(W_,9019),"electrical.generation.pVSystem[1].iVCharacteristics.T_c");
+DYNX(DYNhelp,1601) = exp(7.242963696165495E+22*(0.0033540164346805303*
+ DYNX(DP_,794)-DYNX(DYNhelp,1600)));
+DYNX(W_,9025) = powUnguarded(0.0033540164346805303*DYNX(W_,9019), 3)*
+ DYNX(DYNhelp,1601)*DYNX(W_,2184);
+DYNX(W_,9031) = IF GreaterEqual(DYNX(W_,9026),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
+ 0.01,"0.01", 67) THEN DYNX(W_,9028)*logGuarded(fabs(1+divGuarded(
+ DYNX(W_,9026),"electrical.generation.pVSystem[1].iVCharacteristics.I_ph",
+ DYNX(W_,9025),"electrical.generation.pVSystem[1].iVCharacteristics.I_s")),
"abs(1+electrical.generation.pVSystem[1].iVCharacteristics.I_ph/electrical.generation.pVSystem[1].iVCharacteristics.I_s)")
ELSE 0;
-DYNX(W_,9067) = IF DYNX(W_,9068) >= 0.001 THEN logGuarded(exp(1+divGuarded(
- DYNX(W_,9068),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
- DYNX(W_,9065),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
+DYNX(W_,9030) = IF DYNX(W_,9031) >= 0.001 THEN logGuarded(exp(1+divGuarded(
+ DYNX(W_,9031),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
+ DYNX(W_,9028),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)")
- *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9068),
- "electrical.generation.pVSystem[1].iVCharacteristics.V_oc",DYNX(W_,9065),
+ *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9031),
+ "electrical.generation.pVSystem[1].iVCharacteristics.V_oc",DYNX(W_,9028),
"electrical.generation.pVSystem[1].iVCharacteristics.a")),"exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)"),
"log(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))"),
"log(log(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))",1
- +logGuarded(exp(1+divGuarded(DYNX(W_,9068),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
- DYNX(W_,9065),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
+ +logGuarded(exp(1+divGuarded(DYNX(W_,9031),"electrical.generation.pVSystem[1].iVCharacteristics.V_oc",
+ DYNX(W_,9028),"electrical.generation.pVSystem[1].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a)"),
"1+log(exp(1+electrical.generation.pVSystem[1].iVCharacteristics.V_oc/electrical.generation.pVSystem[1].iVCharacteristics.a))"))
ELSE 0;
-DYNX(W_,9064) = (IF DYNX(W_,9057) > 0.001 THEN divinvGuarded(DYNX(W_,9057),
+DYNX(W_,9027) = (IF DYNX(W_,9020) > 0.001 THEN divinvGuarded(DYNX(W_,9020),
"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat") ELSE 0)*
DYNX(W_,2186);
-DYNX(W_,9059) = IF DYNX(W_,9057) <= 0.0011 OR DYNX(W_,9067) <= 0.001 THEN 0
- ELSE DYNX(W_,9063)*(1-divinvGuarded(DYNX(W_,9067),"electrical.generation.pVSystem[1].iVCharacteristics.w"))
- -divGuarded(DYNX(W_,9065)*(DYNX(W_,9067)-1),"electrical.generation.pVSystem[1].iVCharacteristics.a*(electrical.generation.pVSystem[1].iVCharacteristics.w-1)",
- DYNX(W_,9064),"electrical.generation.pVSystem[1].iVCharacteristics.R_sh");
-DYNX(W_,9060) = IF LessEqual(DYNX(W_,9057),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
- 0,"0", 60) THEN 0 ELSE DYNX(W_,9065)*(DYNX(W_,9067)-1)-DYNX(W_,2185)*
- DYNX(W_,9059);
-DYNX(W_,9066) = DYNX(W_,9060)*DYNX(W_,9059);
-DYNX(DYNhelp,1601) = RealBmin(DYNX(W_,2176)*DYNX(W_,2167), DYNX(W_,9066)*
+DYNX(W_,9022) = IF DYNX(W_,9020) <= 0.0011 OR DYNX(W_,9030) <= 0.001 THEN 0
+ ELSE DYNX(W_,9026)*(1-divinvGuarded(DYNX(W_,9030),"electrical.generation.pVSystem[1].iVCharacteristics.w"))
+ -divGuarded(DYNX(W_,9028)*(DYNX(W_,9030)-1),"electrical.generation.pVSystem[1].iVCharacteristics.a*(electrical.generation.pVSystem[1].iVCharacteristics.w-1)",
+ DYNX(W_,9027),"electrical.generation.pVSystem[1].iVCharacteristics.R_sh");
+DYNX(W_,9023) = IF LessEqual(DYNX(W_,9020),"electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",
+ 0,"0", 68) THEN 0 ELSE DYNX(W_,9028)*(DYNX(W_,9030)-1)-DYNX(W_,2185)*
+ DYNX(W_,9022);
+DYNX(W_,9029) = DYNX(W_,9023)*DYNX(W_,9022);
+DYNX(DYNhelp,1602) = RealBmin(DYNX(W_,2176)*DYNX(W_,2167), DYNX(W_,9029)*
DYNX(W_,2167));
-DYNX(W_,9123) = RealBmax(0, DYNX(DYNhelp,1601));
-DYNX(W_,9122) = DYNTime;
-DYNX(DYNhelp,1602) = floorEvent(DYNX(W_,9122)/(double)(86400),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.modTim.y/86400",
+DYNX(W_,9086) = RealBmax(0, DYNX(DYNhelp,1602));
+DYNX(W_,9085) = DYNTime;
+DYNX(DYNhelp,1603) = floorEvent(DYNX(W_,9085)/(double)(86400),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.modTim.y/86400",
5);
-DYNX(W_,8325) = 86400*DYNX(DYNhelp,1602);
+DYNX(W_,8285) = 86400*DYNX(DYNhelp,1603);
beginwhenBlock
-whenModelica(DYNX(W_,2368) AND GreaterMinor(DYNX(W_,8325),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.modTimAux",
- PRE(DYNX(W_,8332), 19),"pre(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.tNext)",
- 107), 24)
- DYNX(W_,8332) = IF DYNX(W_,2368) THEN real2integer(divGuarded(DYNX(W_,8325),
+whenModelica(DYNX(W_,2368) AND GreaterMinor(DYNX(W_,8285),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.modTimAux",
+ PRE(DYNX(W_,8292), 19),"pre(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.tNext)",
+ 115), 24)
+ DYNX(W_,8292) = IF DYNX(W_,2368) THEN real2integer(divGuarded(DYNX(W_,8285),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.modTimAux",
DYNX(W_,2367),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.lenWea"))
*DYNX(W_,2367)+DYNX(W_,2367) ELSE DYNTime;
@@ -19154,19 +19212,19 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8331) = IF DYNX(W_,2368) THEN DYNX(W_,8325)-DYNX(W_,8332)+DYNX(W_,2367)
- ELSE DYNX(W_,8325);
-DYNX(DYNhelp,1603) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8331));
-DYNX(W_,8333) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1603),
+DYNX(W_,8291) = IF DYNX(W_,2368) THEN DYNX(W_,8285)-DYNX(W_,8292)+DYNX(W_,2367)
+ ELSE DYNX(W_,8285);
+DYNX(DYNhelp,1604) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8291));
+DYNX(W_,8293) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1604),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.calTimAux)");
-DYNX(W_,9103) = DYNX(W_,9122)-DYNX(W_,8325);
+DYNX(W_,9066) = DYNX(W_,9085)-DYNX(W_,8285);
beginwhenBlock
-whenModelica(DYNX(W_,2361) AND GreaterMinor(DYNX(W_,9103),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux",
- PRE(DYNX(W_,8326), 21),"pre(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.tNext)",
- 108), 25)
- DYNX(W_,8326) = IF DYNX(W_,2361) THEN real2integerEvent(divGuarded(
- DYNX(W_,9103),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux",
+whenModelica(DYNX(W_,2361) AND GreaterMinor(DYNX(W_,9066),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux",
+ PRE(DYNX(W_,8286), 21),"pre(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.tNext)",
+ 116), 25)
+ DYNX(W_,8286) = IF DYNX(W_,2361) THEN real2integerEvent(divGuarded(
+ DYNX(W_,9066),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux",
DYNX(W_,2360),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.lenWea"),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux/electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.lenWea",
6)*DYNX(W_,2360)+DYNX(W_,2360) ELSE DYNTime;
@@ -19174,14 +19232,14 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,9116) = IF DYNX(W_,2361) THEN DYNX(W_,9103)-DYNX(W_,8326)+DYNX(W_,2360)
- ELSE DYNX(W_,9103);
-DYNX(W_,9117) = DYNX(W_,9116)-470.5631344194285;
+DYNX(W_,9079) = IF DYNX(W_,2361) THEN DYNX(W_,9066)-DYNX(W_,8286)+DYNX(W_,2360)
+ ELSE DYNX(W_,9066);
+DYNX(W_,9080) = DYNX(W_,9079)-470.5631344194285;
beginwhenBlock
-whenModelica(DYNX(W_,2366) AND GreaterMinor(DYNX(W_,8325),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.modTimAux",
- PRE(DYNX(W_,8329), 20),"pre(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.tNext)",
- 109), 26)
- DYNX(W_,8329) = IF DYNX(W_,2366) THEN real2integer(divGuarded(DYNX(W_,8325),
+whenModelica(DYNX(W_,2366) AND GreaterMinor(DYNX(W_,8285),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.modTimAux",
+ PRE(DYNX(W_,8289), 20),"pre(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.tNext)",
+ 117), 26)
+ DYNX(W_,8289) = IF DYNX(W_,2366) THEN real2integer(divGuarded(DYNX(W_,8285),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.modTimAux",
DYNX(W_,2365),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.lenWea"))
*DYNX(W_,2365)+DYNX(W_,2365) ELSE DYNTime;
@@ -19189,307 +19247,307 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8328) = IF DYNX(W_,2366) THEN DYNX(W_,8325)-DYNX(W_,8329)+DYNX(W_,2365)
- ELSE DYNX(W_,8325);
-DYNX(W_,8330) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8328)+86400)
+DYNX(W_,8288) = IF DYNX(W_,2366) THEN DYNX(W_,8285)-DYNX(W_,8289)+DYNX(W_,2365)
+ ELSE DYNX(W_,8285);
+DYNX(W_,8290) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,8288)+86400)
-81);
-DYNX(DYNhelp,1604) = sin(2*DYNX(W_,8330));
-DYNX(DYNhelp,1605) = cos(DYNX(W_,8330));
-DYNX(DYNhelp,1606) = sin(DYNX(W_,8330));
-DYNX(W_,8327) = 60*(9.87*DYNX(DYNhelp,1604)-7.53*DYNX(DYNhelp,1605)-1.5*
- DYNX(DYNhelp,1606));
-DYNX(W_,9114) = DYNX(W_,9117)+DYNX(W_,8327);
-DYNX(W_,9115) = 0.2617993877991494*(DYNX(W_,9114)/(double)(3600)-12);
-DYNX(DYNhelp,1607) = cos(DYNX(W_,8333));
-DYNX(DYNhelp,1608) = cos(DYNX(W_,9115));
-DYNX(DYNhelp,1609) = sin(DYNX(W_,8333));
-DYNX(W_,9121) = acosGuarded(0.6124088231015443*DYNX(DYNhelp,1607)*
- DYNX(DYNhelp,1608)+0.7905412281389133*DYNX(DYNhelp,1609),"0.6124088231015443*(cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)");
-DYNX(W_,9113) = IF LessEqual(DYNX(W_,9121),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.zen",
- 1.5707963267948966,"1.5707963267948966", 61) THEN DYNX(W_,9121) ELSE
+DYNX(DYNhelp,1605) = sin(2*DYNX(W_,8290));
+DYNX(DYNhelp,1606) = cos(DYNX(W_,8290));
+DYNX(DYNhelp,1607) = sin(DYNX(W_,8290));
+DYNX(W_,8287) = 60*(9.87*DYNX(DYNhelp,1605)-7.53*DYNX(DYNhelp,1606)-1.5*
+ DYNX(DYNhelp,1607));
+DYNX(W_,9077) = DYNX(W_,9080)+DYNX(W_,8287);
+DYNX(W_,9078) = 0.2617993877991494*(DYNX(W_,9077)/(double)(3600)-12);
+DYNX(DYNhelp,1608) = cos(DYNX(W_,8293));
+DYNX(DYNhelp,1609) = cos(DYNX(W_,9078));
+DYNX(DYNhelp,1610) = sin(DYNX(W_,8293));
+DYNX(W_,9084) = acosGuarded(0.6124088231015443*DYNX(DYNhelp,1608)*
+ DYNX(DYNhelp,1609)+0.7905412281389133*DYNX(DYNhelp,1610),"0.6124088231015443*(cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)*cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.solHouAng))+0.7905412281389133*sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng)");
+DYNX(W_,9076) = IF LessEqual(DYNX(W_,9084),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.zen",
+ 1.5707963267948966,"1.5707963267948966", 69) THEN DYNX(W_,9084) ELSE
1.5707963267948966;
-DYNX(DYNhelp,1610) = cos(DYNX(W_,9113));
-DYNX(DYNhelp,1611) = 0.3183098861837907*DYNX(W_,9113)*180;
-DYNX(DYNhelp,1612) = DYNX(DYNhelp,1610)+0.5057*powGuarded(96.08-DYNX(DYNhelp,1611),
+DYNX(DYNhelp,1611) = cos(DYNX(W_,9076));
+DYNX(DYNhelp,1612) = 0.3183098861837907*DYNX(W_,9076)*180;
+DYNX(DYNhelp,1613) = DYNX(DYNhelp,1611)+0.5057*powGuarded(96.08-DYNX(DYNhelp,1612),
"96.08-0.3183098861837907*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen*180)",
-1.634,"-1.634");
-DYNX(DYNhelp,1613) = divinvGuarded(DYNX(DYNhelp,1612),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)+0.5057*(96.08-0.3183098861837907*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen*180))^(-1.634)");
-DYNX(W_,9107) = DYNX(DYNhelp,1613);
-DYNX(W_,9108) = IF LessEqual(DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(
- DYNX(W_,9107), 1)+DYNX(DP_,816)*sqr(DYNX(W_,9107))+DYNX(DP_,817)*powUnguarded(
- DYNX(W_,9107), 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9107), 4),
+DYNX(DYNhelp,1614) = divinvGuarded(DYNX(DYNhelp,1613),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)+0.5057*(96.08-0.3183098861837907*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen*180))^(-1.634)");
+DYNX(W_,9070) = DYNX(DYNhelp,1614);
+DYNX(W_,9071) = IF LessEqual(DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(
+ DYNX(W_,9070), 1)+DYNX(DP_,816)*sqr(DYNX(W_,9070))+DYNX(DP_,817)*powUnguarded(
+ DYNX(W_,9070), 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9070), 4),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_0+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_1*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMas^1+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_2*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMas^2+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.b_3*electrica...",
- 0,"0", 62) THEN 0 ELSE DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(DYNX(W_,9107),
- 1)+DYNX(DP_,816)*sqr(DYNX(W_,9107))+DYNX(DP_,817)*powUnguarded(DYNX(W_,9107),
- 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9107), 4);
-DYNX(W_,9106) = IF DYNX(W_,8493) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
- divGuarded(DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
- DYNX(DP_,820)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8325))+
- 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8325))+0.000719*cos(
- 3.9847699817222125E-07*DYNX(W_,8325))+7.7E-05*sin(3.9847699817222125E-07*
- DYNX(W_,8325)))*cos(DYNX(W_,9121)),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
-DYNX(W_,9105) = IF LessEqual(DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
- 0.001,"0.001", 55) THEN 0 ELSE IF LessEqual(DYNX(W_,9106),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
- 0.22,"0.22", 63) THEN DYNX(W_,8493)*(1.0-0.09*DYNX(W_,9106)) ELSE IF Greater(
- DYNX(W_,9106),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
- 0.8,"0.8", 64) THEN 0.165*DYNX(W_,8493) ELSE DYNX(W_,8493)*(0.9511+4.388*sqr(
- DYNX(W_,9106))-0.1604*DYNX(W_,9106)-16.638*powUnguarded(DYNX(W_,9106), 3)+
- 12.336*powUnguarded(DYNX(W_,9106), 4));
-DYNX(W_,9104) = DYNX(W_,8493)-DYNX(W_,9105);
-DYNX(W_,8334) = DYNX(DYNhelp,1607);
-DYNX(W_,9119) = DYNX(DYNhelp,1608);
-DYNX(W_,8335) = DYNX(DYNhelp,1609);
-DYNX(W_,9120) = sin(DYNX(W_,9115));
+ 0,"0", 70) THEN 0 ELSE DYNX(DP_,814)+DYNX(DP_,815)*powUnguarded(DYNX(W_,9070),
+ 1)+DYNX(DP_,816)*sqr(DYNX(W_,9070))+DYNX(DP_,817)*powUnguarded(DYNX(W_,9070),
+ 3)+DYNX(DP_,818)*powUnguarded(DYNX(W_,9070), 4);
+DYNX(W_,9069) = IF DYNX(W_,8456) <= 0.001 THEN 0 ELSE RealBmin(1, RealBmax(0,
+ divGuarded(DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
+ DYNX(DP_,820)*(1.00011+0.034221*cos(1.9923849908611062E-07*DYNX(W_,8285))+
+ 0.00128*sin(1.9923849908611062E-07*DYNX(W_,8285))+0.000719*cos(
+ 3.9847699817222125E-07*DYNX(W_,8285))+7.7E-05*sin(3.9847699817222125E-07*
+ DYNX(W_,8285)))*cos(DYNX(W_,9084)),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.G_sc*(1.00011+0.034221*cos(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.00128*sin(1.9923849908611062E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+0.000719*cos(3.9847699817222125E-07*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay)+7.7E-05*sin(3.98476998...")));
+DYNX(W_,9068) = IF LessEqual(DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",
+ 0.001,"0.001", 63) THEN 0 ELSE IF LessEqual(DYNX(W_,9069),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
+ 0.22,"0.22", 71) THEN DYNX(W_,8456)*(1.0-0.09*DYNX(W_,9069)) ELSE IF Greater(
+ DYNX(W_,9069),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",
+ 0.8,"0.8", 72) THEN 0.165*DYNX(W_,8456) ELSE DYNX(W_,8456)*(0.9511+4.388*sqr(
+ DYNX(W_,9069))-0.1604*DYNX(W_,9069)-16.638*powUnguarded(DYNX(W_,9069), 3)+
+ 12.336*powUnguarded(DYNX(W_,9069), 4));
+DYNX(W_,9067) = DYNX(W_,8456)-DYNX(W_,9068);
+DYNX(W_,8294) = DYNX(DYNhelp,1608);
+DYNX(W_,9082) = DYNX(DYNhelp,1609);
+DYNX(W_,8295) = DYNX(DYNhelp,1610);
+DYNX(W_,9083) = sin(DYNX(W_,9078));
if (NewParameters_) {
-DYNX(DYNhelp,1614) = cos(DYNX(W_,2372));
+DYNX(DYNhelp,1615) = cos(DYNX(W_,2372));
}
-DYNX(DYNhelp,1615) = DYNX(W_,8334)*DYNX(W_,9119);
+DYNX(DYNhelp,1616) = DYNX(W_,8294)*DYNX(W_,9082);
if (NewParameters_) {
-DYNX(DYNhelp,1616) = sin(DYNX(W_,2372));
+DYNX(DYNhelp,1617) = sin(DYNX(W_,2372));
}
if (NewParameters_) {
-DYNX(DYNhelp,1617) = sin(DYNX(W_,2371));
+DYNX(DYNhelp,1618) = sin(DYNX(W_,2371));
}
if (NewParameters_) {
-DYNX(DYNhelp,1618) = cos(DYNX(W_,2371));
+DYNX(DYNhelp,1619) = cos(DYNX(W_,2371));
}
-DYNX(DYNhelp,1619) = 0.7905412281389133*DYNX(DYNhelp,1615);
-DYNX(DYNhelp,1620) = 0.6124088231015443*DYNX(W_,8335);
-DYNX(W_,9118) = acosGuarded(DYNX(DYNhelp,1614)*(0.6124088231015443*
- DYNX(DYNhelp,1615)+0.7905412281389133*DYNX(W_,8335))+DYNX(DYNhelp,1616)*(
- DYNX(DYNhelp,1617)*DYNX(W_,8334)*DYNX(W_,9120)+DYNX(DYNhelp,1618)*(
- DYNX(DYNhelp,1619)-DYNX(DYNhelp,1620))),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.i...");
-DYNX(DYNhelp,1621) = cos(DYNX(W_,9118));
-DYNX(W_,9112) = IF DYNX(W_,9113) >= 1.5692255304681018 OR DYNX(DYNhelp,1621) >
- DYNX(DYNhelp,1610)*4 THEN 4 ELSE divGuarded(DYNX(DYNhelp,1621),
+DYNX(DYNhelp,1620) = 0.7905412281389133*DYNX(DYNhelp,1616);
+DYNX(DYNhelp,1621) = 0.6124088231015443*DYNX(W_,8295);
+DYNX(W_,9081) = acosGuarded(DYNX(DYNhelp,1615)*(0.6124088231015443*
+ DYNX(DYNhelp,1616)+0.7905412281389133*DYNX(W_,8295))+DYNX(DYNhelp,1617)*(
+ DYNX(DYNhelp,1618)*DYNX(W_,8294)*DYNX(W_,9083)+DYNX(DYNhelp,1619)*(
+ DYNX(DYNhelp,1620)-DYNX(DYNhelp,1621))),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.til)*(0.6124088231015443*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_c*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.sol_c)+0.7905412281389133*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_s)+sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.i...");
+DYNX(DYNhelp,1622) = cos(DYNX(W_,9081));
+DYNX(W_,9075) = IF DYNX(W_,9076) >= 1.5692255304681018 OR DYNX(DYNhelp,1622) >
+ DYNX(DYNhelp,1611)*4 THEN 4 ELSE divGuarded(DYNX(DYNhelp,1622),
"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)",
- DYNX(DYNhelp,1610),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)");
-DYNX(W_,9110) = IF DYNX(W_,9118) >= 0.0001 AND DYNX(W_,9118) <= 1.5692255304681018
- THEN asinGuarded(divGuarded(sin(DYNX(W_,9118)),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)",
+ DYNX(DYNhelp,1611),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen)");
+DYNX(W_,9073) = IF DYNX(W_,9081) >= 0.0001 AND DYNX(W_,9081) <= 1.5692255304681018
+ THEN asinGuarded(divGuarded(sin(DYNX(W_,9081)),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)",
DYNX(W_,2350),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refInd"),
"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)/electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refInd")
ELSE 0;
-DYNX(W_,9111) = IF DYNX(W_,9118) >= 0.0001 AND DYNX(W_,9118) <= 1.5692255304681018
- AND DYNX(W_,9110) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2348)*DYNX(W_,2349),
+DYNX(W_,9074) = IF DYNX(W_,9081) >= 0.0001 AND DYNX(W_,9081) <= 1.5692255304681018
+ AND DYNX(W_,9073) >= 0.0001 THEN exp( -divGuarded(DYNX(W_,2348)*DYNX(W_,2349),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.glaExtCoe*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.glaThi",
- cos(DYNX(W_,9110)),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng)"))
- *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9110)-DYNX(W_,9118))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(sin(DYNX(W_,9110)+DYNX(W_,9118))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")
- +divGuarded(sqr(tan(DYNX(W_,9110)-DYNX(W_,9118))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
- sqr(tan(DYNX(W_,9110)+DYNX(W_,9118))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")))
+ cos(DYNX(W_,9073)),"cos(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng)"))
+ *(1-0.5*(divGuarded(sqr(sin(DYNX(W_,9073)-DYNX(W_,9081))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(sin(DYNX(W_,9073)+DYNX(W_,9081))),"sin(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")
+ +divGuarded(sqr(tan(DYNX(W_,9073)-DYNX(W_,9081))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng-electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2",
+ sqr(tan(DYNX(W_,9073)+DYNX(W_,9081))),"tan(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng)^2")))
ELSE 0;
-DYNX(W_,9109) = DYNX(DYNhelp,314)*DYNX(W_,9111);
-DYNX(W_,9091) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9108)*(
- DYNX(W_,9104)*DYNX(W_,9112)*DYNX(W_,9109)+DYNX(W_,9105)*DYNX(W_,2355)*(0.5+0.5
- *cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9105),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+DYNX(W_,9072) = DYNX(DYNhelp,314)*DYNX(W_,9074);
+DYNX(W_,9054) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE divGuarded(DYNX(W_,9071)*(
+ DYNX(W_,9067)*DYNX(W_,9075)*DYNX(W_,9072)+DYNX(W_,9068)*DYNX(W_,2355)*(0.5+0.5
+ *cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9068),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2344)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9105),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9118)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
- DYNX(W_,8493)*DYNX(W_,2354)*(1-cos(DYNX(W_,2344)))),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[2].pVRadiationHorizontalTR...",
+ DYNX(W_,9068),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9081)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
+ DYNX(W_,8456)*DYNX(W_,2354)*(1-cos(DYNX(W_,2344)))),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMasMod*(electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorBea*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.R_b*electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngMod+electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif*electrical.generation.pVSystem[2].pVRadiationHorizontalTR...",
DYNX(DP_,819),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radTil0");
-DYNX(W_,9092) = IF DYNX(W_,8493) <= 0.1 THEN 0 ELSE DYNX(W_,9104)*DYNX(W_,9112)+
- DYNX(W_,9105)*(0.5+0.5*cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9105),
+DYNX(W_,9055) = IF DYNX(W_,8456) <= 0.1 THEN 0 ELSE DYNX(W_,9067)*DYNX(W_,9075)+
+ DYNX(W_,9068)*(0.5+0.5*cos(DYNX(W_,2344))*(1+(1-sqr(divGuarded(DYNX(W_,9068),
"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
*powUnguarded(sin(DYNX(W_,2344)/(double)(2)), 3))*(1+(1-sqr(divGuarded(
- DYNX(W_,9105),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
- DYNX(W_,8493),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
- *sqr(cos(DYNX(W_,9118)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
- DYNX(W_,8493)*(1-cos(DYNX(W_,2344)));
-DYNX(W_,9090) = IF DYNX(W_,9092) >= 1E-15 THEN DYNX(W_,9092)*exp((-2.81)-0.0455*
- DYNX(W_,8497))+DYNX(W_,8487) ELSE DYNX(W_,8487);
-DYNX(W_,9099) = 0.0033540164346805303*DYNX(W_,9090)*DYNX(W_,2315);
-DYNX(W_,9097) = IF Greater(DYNX(W_,9091),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
- 0,"0", 65) THEN DYNX(W_,9091)*(DYNX(W_,2311)+DYNX(W_,2305)*(DYNX(W_,9090)-
+ DYNX(W_,9068),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",
+ DYNX(W_,8456),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor")))
+ *sqr(cos(DYNX(W_,9081)))*powUnguarded(cos(DYNX(W_,2344)), 3)))+0.1*
+ DYNX(W_,8456)*(1-cos(DYNX(W_,2344)));
+DYNX(W_,9053) = IF DYNX(W_,9055) >= 1E-15 THEN DYNX(W_,9055)*exp((-2.81)-0.0455*
+ DYNX(W_,8460))+DYNX(W_,8450) ELSE DYNX(W_,8450);
+DYNX(W_,9062) = 0.0033540164346805303*DYNX(W_,9053)*DYNX(W_,2315);
+DYNX(W_,9060) = IF Greater(DYNX(W_,9054),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
+ 0,"0", 73) THEN DYNX(W_,9054)*(DYNX(W_,2311)+DYNX(W_,2305)*(DYNX(W_,9053)-
298.15)) ELSE 0;
-DYNX(W_,9095) = (1-DYNX(DP_,813)*(DYNX(W_,9090)-298.15))*DYNX(DP_,812);
-DYNX(DYNhelp,1622) = divGuarded(DYNX(W_,9095),"electrical.generation.pVSystem[2].iVCharacteristics.E_g",
- DYNX(W_,9090),"electrical.generation.pVSystem[2].iVCharacteristics.T_c");
-DYNX(DYNhelp,1623) = exp(7.242963696165495E+22*(0.0033540164346805303*
- DYNX(DP_,812)-DYNX(DYNhelp,1622)));
-DYNX(W_,9096) = powUnguarded(0.0033540164346805303*DYNX(W_,9090), 3)*
- DYNX(DYNhelp,1623)*DYNX(W_,2312);
-DYNX(W_,9102) = IF GreaterEqual(DYNX(W_,9097),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
- 0.01,"0.01", 66) THEN DYNX(W_,9099)*logGuarded(fabs(1+divGuarded(
- DYNX(W_,9097),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
- DYNX(W_,9096),"electrical.generation.pVSystem[2].iVCharacteristics.I_s")),
+DYNX(W_,9058) = (1-DYNX(DP_,813)*(DYNX(W_,9053)-298.15))*DYNX(DP_,812);
+DYNX(DYNhelp,1623) = divGuarded(DYNX(W_,9058),"electrical.generation.pVSystem[2].iVCharacteristics.E_g",
+ DYNX(W_,9053),"electrical.generation.pVSystem[2].iVCharacteristics.T_c");
+DYNX(DYNhelp,1624) = exp(7.242963696165495E+22*(0.0033540164346805303*
+ DYNX(DP_,812)-DYNX(DYNhelp,1623)));
+DYNX(W_,9059) = powUnguarded(0.0033540164346805303*DYNX(W_,9053), 3)*
+ DYNX(DYNhelp,1624)*DYNX(W_,2312);
+DYNX(W_,9065) = IF GreaterEqual(DYNX(W_,9060),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
+ 0.01,"0.01", 74) THEN DYNX(W_,9062)*logGuarded(fabs(1+divGuarded(
+ DYNX(W_,9060),"electrical.generation.pVSystem[2].iVCharacteristics.I_ph",
+ DYNX(W_,9059),"electrical.generation.pVSystem[2].iVCharacteristics.I_s")),
"abs(1+electrical.generation.pVSystem[2].iVCharacteristics.I_ph/electrical.generation.pVSystem[2].iVCharacteristics.I_s)")
ELSE 0;
-DYNX(W_,9101) = IF DYNX(W_,9102) >= 0.001 THEN logGuarded(exp(1+divGuarded(
- DYNX(W_,9102),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
- DYNX(W_,9099),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
+DYNX(W_,9064) = IF DYNX(W_,9065) >= 0.001 THEN logGuarded(exp(1+divGuarded(
+ DYNX(W_,9065),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
+ DYNX(W_,9062),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)")
- *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9102),
- "electrical.generation.pVSystem[2].iVCharacteristics.V_oc",DYNX(W_,9099),
+ *(1-divGuarded(logGuarded(logGuarded(exp(1+divGuarded(DYNX(W_,9065),
+ "electrical.generation.pVSystem[2].iVCharacteristics.V_oc",DYNX(W_,9062),
"electrical.generation.pVSystem[2].iVCharacteristics.a")),"exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)"),
"log(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))"),
"log(log(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)))\nAixLib.Electrical.PVSystem.BaseClasses.Wsimple(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))",1
- +logGuarded(exp(1+divGuarded(DYNX(W_,9102),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
- DYNX(W_,9099),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
+ +logGuarded(exp(1+divGuarded(DYNX(W_,9065),"electrical.generation.pVSystem[2].iVCharacteristics.V_oc",
+ DYNX(W_,9062),"electrical.generation.pVSystem[2].iVCharacteristics.a")),
"exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a)"),
"1+log(exp(1+electrical.generation.pVSystem[2].iVCharacteristics.V_oc/electrical.generation.pVSystem[2].iVCharacteristics.a))"))
ELSE 0;
-DYNX(W_,9098) = (IF DYNX(W_,9091) > 0.001 THEN divinvGuarded(DYNX(W_,9091),
+DYNX(W_,9061) = (IF DYNX(W_,9054) > 0.001 THEN divinvGuarded(DYNX(W_,9054),
"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat") ELSE 0)*
DYNX(W_,2314);
-DYNX(W_,9093) = IF DYNX(W_,9091) <= 0.0011 OR DYNX(W_,9101) <= 0.001 THEN 0
- ELSE DYNX(W_,9097)*(1-divinvGuarded(DYNX(W_,9101),"electrical.generation.pVSystem[2].iVCharacteristics.w"))
- -divGuarded(DYNX(W_,9099)*(DYNX(W_,9101)-1),"electrical.generation.pVSystem[2].iVCharacteristics.a*(electrical.generation.pVSystem[2].iVCharacteristics.w-1)",
- DYNX(W_,9098),"electrical.generation.pVSystem[2].iVCharacteristics.R_sh");
-DYNX(W_,9094) = IF LessEqual(DYNX(W_,9091),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
- 0,"0", 67) THEN 0 ELSE DYNX(W_,9099)*(DYNX(W_,9101)-1)-DYNX(W_,2313)*
- DYNX(W_,9093);
-DYNX(W_,9100) = DYNX(W_,9094)*DYNX(W_,9093);
-DYNX(DYNhelp,1624) = RealBmin(DYNX(W_,2304)*DYNX(W_,2295), DYNX(W_,9100)*
+DYNX(W_,9056) = IF DYNX(W_,9054) <= 0.0011 OR DYNX(W_,9064) <= 0.001 THEN 0
+ ELSE DYNX(W_,9060)*(1-divinvGuarded(DYNX(W_,9064),"electrical.generation.pVSystem[2].iVCharacteristics.w"))
+ -divGuarded(DYNX(W_,9062)*(DYNX(W_,9064)-1),"electrical.generation.pVSystem[2].iVCharacteristics.a*(electrical.generation.pVSystem[2].iVCharacteristics.w-1)",
+ DYNX(W_,9061),"electrical.generation.pVSystem[2].iVCharacteristics.R_sh");
+DYNX(W_,9057) = IF LessEqual(DYNX(W_,9054),"electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",
+ 0,"0", 75) THEN 0 ELSE DYNX(W_,9062)*(DYNX(W_,9064)-1)-DYNX(W_,2313)*
+ DYNX(W_,9056);
+DYNX(W_,9063) = DYNX(W_,9057)*DYNX(W_,9056);
+DYNX(DYNhelp,1625) = RealBmin(DYNX(W_,2304)*DYNX(W_,2295), DYNX(W_,9063)*
DYNX(W_,2295));
-DYNX(W_,9124) = RealBmax(0, DYNX(DYNhelp,1624));
-DYNX(Y_,40) = DYNX(DP_,827)*DYNX(W_,9123)+DYNX(DP_,828)*DYNX(W_,9124);
-DYNX(W_,9126) = DYNX(DP_,836)*DYNX(W_,9125)+DYNX(DP_,837)*DYNX(Y_,40);
-DYNX(Y_,42) = IF GreaterS(DYNX(W_,9126),"electrical.distribution.limiter.u",
- DYNX(DP_,838),"electrical.distribution.limiter.uMax", 68) THEN DYNX(DP_,838)
- ELSE IF LessS(DYNX(W_,9126),"electrical.distribution.limiter.u",
- DYNX(DP_,839),"electrical.distribution.limiter.uMin", 69) THEN DYNX(DP_,839)
- ELSE DYNX(W_,9126);
-DYNX(Y_,43) = DYNX(DP_,840)*DYNX(Y_,42)+DYNX(DP_,841)*DYNX(W_,9126);
-DYNX(Y_,29) = 273.15+0.0002390057361376673*DYNX(W_,9257);
-DYNX(W_,9256) = (-0.317599972517237)*DYNX(Y_,28);
-DYNX(DYNhelp,1625) = RealBmax(DYNX(W_,9256), 0.0);
+DYNX(W_,9087) = RealBmax(0, DYNX(DYNhelp,1625));
+DYNX(Y_,40) = DYNX(DP_,827)*DYNX(W_,9086)+DYNX(DP_,828)*DYNX(W_,9087);
+DYNX(W_,9089) = DYNX(DP_,836)*DYNX(W_,9088)+DYNX(DP_,837)*DYNX(Y_,40);
+DYNX(Y_,42) = IF GreaterS(DYNX(W_,9089),"electrical.distribution.limiter.u",
+ DYNX(DP_,838),"electrical.distribution.limiter.uMax", 76) THEN DYNX(DP_,838)
+ ELSE IF LessS(DYNX(W_,9089),"electrical.distribution.limiter.u",
+ DYNX(DP_,839),"electrical.distribution.limiter.uMin", 77) THEN DYNX(DP_,839)
+ ELSE DYNX(W_,9089);
+DYNX(Y_,43) = DYNX(DP_,840)*DYNX(Y_,42)+DYNX(DP_,841)*DYNX(W_,9089);
+DYNX(Y_,29) = 273.15+0.0002390057361376673*DYNX(W_,9226);
+DYNX(W_,9225) = (-0.317599972517237)*DYNX(Y_,28);
+DYNX(DYNhelp,1626) = RealBmax(DYNX(W_,9225), 0.0);
if (Init_) {
-DYNX(DYNhelp,1626) = RealBmax( -DYNX(W_,5773), 0.0);
+DYNX(DYNhelp,1627) = RealBmax( -DYNX(W_,5733), 0.0);
}
-DYNX(Aux_,227) = DYNX(DYNhelp,1625)+DYNX(DYNhelp,1626);
+DYNX(Aux_,227) = DYNX(DYNhelp,1626)+DYNX(DYNhelp,1627);
DYNX(Aux_,228) = IF DYNX(Aux_,227) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,227) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,227))*(3.0-20000000000.0*DYNX(Aux_,227))
ELSE 0.0;
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(47);
/* Linear system of equations to solve. */
-DYNX(W_,9340) = RememberSimple_(DYNX(W_,9340), 11);
-SolveScalarLinearParametric( -DYNX(W_,4995)," -hydraulic.distribution.stoBuf.layer[1].dynBal.m",
+DYNX(W_,9309) = RememberSimple_(DYNX(W_,9309), 13);
+SolveScalarLinearParametric( -DYNX(W_,4955)," -hydraulic.distribution.stoBuf.layer[1].dynBal.m",
-DYNX(X_,48)," -hydraulic.distribution.stoBuf.layer[1].dynBal.U",
- DYNX(W_,9340),"hydraulic.distribution.stoBuf.port_a_consumer.h_outflow");
+ DYNX(W_,9309),"hydraulic.distribution.stoBuf.port_a_consumer.h_outflow");
/* End of Equation Block */
-DYNX(DYNhelp,1627) = 1.0-DYNX(Aux_,228);
-DYNX(DYNhelp,1628) = 1E-10*DYNX(DYNhelp,1627);
-DYNX(DYNhelp,1629) = DYNX(Aux_,228)*DYNX(DYNhelp,1625)+DYNX(DYNhelp,1628);
-DYNX(DYNhelp,1630) = DYNX(Aux_,228)*DYNX(DYNhelp,1626)+DYNX(DYNhelp,1628);
-DYNX(DYNhelp,1631) = DYNX(DYNhelp,1629)+DYNX(DYNhelp,1630);
-DYNX(W_,9258) = divGuarded(DYNX(DYNhelp,1629)*DYNX(W_,9340)+DYNX(DYNhelp,1630)*
- DYNX(W_,5774),"(stream_alpha1*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha1))*hydraulic.distribution.stoBuf.port_a_consumer.h_outflow+(stream_alpha1*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha1))*hydraulic.distribution.bouPumBuf.ports[1].h_outflow",
- DYNX(DYNhelp,1631),"stream_alpha1*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha1)+stream_alpha1*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha1)");
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(47);
+DYNX(DYNhelp,1628) = 1.0-DYNX(Aux_,228);
+DYNX(DYNhelp,1629) = 1E-10*DYNX(DYNhelp,1628);
+DYNX(DYNhelp,1630) = DYNX(Aux_,228)*DYNX(DYNhelp,1626)+DYNX(DYNhelp,1629);
+DYNX(DYNhelp,1631) = DYNX(Aux_,228)*DYNX(DYNhelp,1627)+DYNX(DYNhelp,1629);
+DYNX(DYNhelp,1632) = DYNX(DYNhelp,1630)+DYNX(DYNhelp,1631);
+DYNX(W_,9227) = divGuarded(DYNX(DYNhelp,1630)*DYNX(W_,9309)+DYNX(DYNhelp,1631)*
+ DYNX(W_,5734),"(stream_alpha1*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha1))*hydraulic.distribution.stoBuf.port_a_consumer.h_outflow+(stream_alpha1*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha1))*hydraulic.distribution.bouPumBuf.ports[1].h_outflow",
+ DYNX(DYNhelp,1632),"stream_alpha1*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha1)+stream_alpha1*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha1)");
/* Linear system of equations to solve. */
/* Tag: simulation.linear[1] */
-DYNX(W_,9495) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,63));
+DYNX(W_,9464) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,63));
-DYNX(W_,9434) = 4184*(DYNX(W_,9495)-273.15);
+DYNX(W_,9403) = 4184*(DYNX(W_,9464)-273.15);
/* End of Equation Block */
-AssertModelica(DYNX(W_,9495) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T >= 272.15)",
+AssertModelica(DYNX(W_,9464) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[5].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9495), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9464), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9495) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9464) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[5].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[5].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9495), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9464), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(Y_,30) = 273.15+0.0002390057361376673*(IF Greater(DYNX(W_,9256),
- " -hydraulic.distribution.portBui_in[1].m_flow", 0.0,"0.0", 110) THEN
- DYNX(W_,9258) ELSE DYNX(W_,9434));
-DYNX(Y_,0) = DYNX(W_,8507);
+DYNX(Y_,30) = 273.15+0.0002390057361376673*(IF Greater(DYNX(W_,9225),
+ " -hydraulic.distribution.portBui_in[1].m_flow", 0.0,"0.0", 118) THEN
+ DYNX(W_,9227) ELSE DYNX(W_,9403));
+DYNX(Y_,0) = DYNX(W_,8470);
/* Linear system of equations to solve. */
/* Tag: simulation.linear[2] */
-DYNX(W_,9464) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,59));
+DYNX(W_,9433) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,59));
-DYNX(W_,9440) = 4184*(DYNX(W_,9464)-273.15);
+DYNX(W_,9409) = 4184*(DYNX(W_,9433)-273.15);
/* End of Equation Block */
-AssertModelica(DYNX(W_,9464) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T >= 272.15)",
+AssertModelica(DYNX(W_,9433) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9464), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9433), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9464) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9433) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9464), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9433), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9462) = 273.15+0.0002390057361376673*DYNX(W_,9440);
+DYNX(W_,9431) = 273.15+0.0002390057361376673*DYNX(W_,9409);
/* Linear system of equations to solve. */
/* Tag: simulation.linear[3] */
-DYNX(W_,9472) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,60));
+DYNX(W_,9441) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,60));
-DYNX(W_,9469) = 4184*(DYNX(W_,9472)-273.15);
+DYNX(W_,9438) = 4184*(DYNX(W_,9441)-273.15);
/* End of Equation Block */
-AssertModelica(DYNX(W_,9472) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T >= 272.15)",
+AssertModelica(DYNX(W_,9441) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9472), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9441), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9472) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9441) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9472), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9441), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9470) = 273.15+0.0002390057361376673*DYNX(W_,9469);
+DYNX(W_,9439) = 273.15+0.0002390057361376673*DYNX(W_,9438);
/* Linear system of equations to solve. */
/* Tag: simulation.linear[4] */
-DYNX(W_,9480) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,61));
+DYNX(W_,9449) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,61));
-DYNX(W_,9477) = 4184*(DYNX(W_,9480)-273.15);
+DYNX(W_,9446) = 4184*(DYNX(W_,9449)-273.15);
/* End of Equation Block */
-AssertModelica(DYNX(W_,9480) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T >= 272.15)",
+AssertModelica(DYNX(W_,9449) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9480), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9449), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9480) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9449) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9480), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9449), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9478) = 273.15+0.0002390057361376673*DYNX(W_,9477);
+DYNX(W_,9447) = 273.15+0.0002390057361376673*DYNX(W_,9446);
/* Linear system of equations to solve. */
/* Tag: simulation.linear[5] */
-DYNX(W_,9488) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,62));
+DYNX(W_,9457) = (-1.0084900988311584E-05)*((-27085045.288652934)-DYNX(X_,62));
-DYNX(W_,9485) = 4184*(DYNX(W_,9488)-273.15);
+DYNX(W_,9454) = 4184*(DYNX(W_,9457)-273.15);
/* End of Equation Block */
-AssertModelica(DYNX(W_,9488) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T >= 272.15)",
+AssertModelica(DYNX(W_,9457) >= 272.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9488), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9457), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9488) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9457) <= 403.15,"noEvent(hydraulic.transfer.rad[1].vol[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.rad[1].vol[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9488), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9457), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9486) = 273.15+0.0002390057361376673*DYNX(W_,9485);
-DYNX(W_,9493) = 273.15+0.0002390057361376673*DYNX(W_,9434);
-DYNX(DYNhelp,1632) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n1, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \npre(userProfiles.tabIntGai.nextTimeEventScaled))")
+DYNX(W_,9455) = 273.15+0.0002390057361376673*DYNX(W_,9454);
+DYNX(W_,9462) = 273.15+0.0002390057361376673*DYNX(W_,9403);
+DYNX(DYNhelp,1633) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer2(\nuserProfiles.tabIntGai.tableID, \n1, \nuserProfiles.tabIntGai.timeScaled, \nuserProfiles.tabIntGai.nextTimeEventScaled, \npre(userProfiles.tabIntGai.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1057))), 1, DYNX(W_,9020), DYNX(W_,8309), PRE(DYNX(W_,8309),
- 40)));
+ (Integer)(DYNX(W_,1057))), 1, DYNX(W_,8983), DYNX(W_,8269), PRE(DYNX(W_,8269),
+ 42)));
PopModelContext();
-DYNX(W_,9017) = DYNX(W_,1054)+DYNX(DYNhelp,1632);
-DYNX(W_,8473) = DYNX(W_,1058)*DYNX(W_,9017);
-AssertModelica(Less(DYNX(W_,8473),"building.thermalZone[1].ventCont.relOccupation",
+DYNX(W_,8980) = DYNX(W_,1054)+DYNX(DYNhelp,1633);
+DYNX(W_,8436) = DYNX(W_,1058)*DYNX(W_,8980);
+AssertModelica(Less(DYNX(W_,8436),"building.thermalZone[1].ventCont.relOccupation",
1.01,"1.01", 22),"building.thermalZone[1].ventCont.relOccupation < 1.01",
"Error in ventilation model. Relative occupation must not exceed 1.0!");
-DYNX(W_,8625) = DYNX(W_,516)*DYNX(W_,8473);
-DYNX(W_,8629) = DYNX(W_,8507)-273.15;
-DYNX(W_,8627) = RealBmax(0, 35+104.4*(0.865-0.025*DYNX(W_,8629))*DYNX(W_,531));
-DYNX(W_,8628) = DYNX(W_,8625)*DYNX(W_,8627);
-DYNX(W_,8624) = -DYNX(W_,524)*DYNX(W_,8628);
+DYNX(W_,8588) = DYNX(W_,516)*DYNX(W_,8436);
+DYNX(W_,8592) = DYNX(W_,8470)-273.15;
+DYNX(W_,8590) = RealBmax(0, 35+104.4*(0.865-0.025*DYNX(W_,8592))*DYNX(W_,531));
+DYNX(W_,8591) = DYNX(W_,8588)*DYNX(W_,8590);
+DYNX(W_,8587) = -DYNX(W_,524)*DYNX(W_,8591);
beginwhenBlock
-whenModelica(DYNX(W_,753) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8292), 7),"pre(building.thermalZone[1].HDirTilWall[1].incAng.decAng.tNext)",
- 111), 27)
- DYNX(W_,8292) = IF DYNX(W_,753) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,753) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8252), 7),"pre(building.thermalZone[1].HDirTilWall[1].incAng.decAng.tNext)",
+ 119), 27)
+ DYNX(W_,8252) = IF DYNX(W_,753) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux",
DYNX(W_,752),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[1].incAng.decAng.lenWea",
7)*DYNX(W_,752)+DYNX(W_,752) ELSE DYNTime;
@@ -19497,231 +19555,231 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8893) = IF DYNX(W_,753) THEN DYNX(W_,8506)-DYNX(W_,8292)+DYNX(W_,752)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1633) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8893));
-DYNX(W_,8894) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1633),
+DYNX(W_,8856) = IF DYNX(W_,753) THEN DYNX(W_,8469)-DYNX(W_,8252)+DYNX(W_,752)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1634) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8856));
+DYNX(W_,8857) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1634),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[1].incAng.decAng.calTimAux)");
-DYNX(W_,8896) = cos(DYNX(W_,8894));
+DYNX(W_,8859) = cos(DYNX(W_,8857));
beginwhenBlock
-whenModelica(DYNX(W_,8232) AND GreaterMinor(DYNX(W_,8506),"weaDat.locTim.modTimAux",
- PRE(DYNX(W_,8467), 45),"pre(weaDat.locTim.tNext)", 112), 28)
- DYNX(W_,8467) = IF DYNX(W_,8232) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"weaDat.locTim.modTimAux",DYNX(W_,8231),"weaDat.locTim.lenWea"),
- "weaDat.locTim.modTimAux/weaDat.locTim.lenWea", 8)*DYNX(W_,8231)+
- DYNX(W_,8231) ELSE DYNTime;
+whenModelica(DYNX(W_,8192) AND GreaterMinor(DYNX(W_,8469),"weaDat.locTim.modTimAux",
+ PRE(DYNX(W_,8430), 47),"pre(weaDat.locTim.tNext)", 120), 28)
+ DYNX(W_,8430) = IF DYNX(W_,8192) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"weaDat.locTim.modTimAux",DYNX(W_,8191),"weaDat.locTim.lenWea"),
+ "weaDat.locTim.modTimAux/weaDat.locTim.lenWea", 8)*DYNX(W_,8191)+
+ DYNX(W_,8191) ELSE DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9741) = IF DYNX(W_,8232) THEN DYNX(W_,8506)-DYNX(W_,8467)+DYNX(W_,8231)
- ELSE DYNX(W_,8506);
-DYNX(W_,9742) = DYNX(W_,9741)-470.5631344194285;
+DYNX(W_,9710) = IF DYNX(W_,8192) THEN DYNX(W_,8469)-DYNX(W_,8430)+DYNX(W_,8191)
+ ELSE DYNX(W_,8469);
+DYNX(W_,9711) = DYNX(W_,9710)-470.5631344194285;
beginwhenBlock
-whenModelica(DYNX(W_,8258) AND GreaterMinor(DYNX(W_,8506),"weaDat.eqnTim.modTimAux",
- PRE(DYNX(W_,8470), 44),"pre(weaDat.eqnTim.tNext)", 113), 29)
- DYNX(W_,8470) = IF DYNX(W_,8258) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"weaDat.eqnTim.modTimAux",DYNX(W_,8257),"weaDat.eqnTim.lenWea"),
- "weaDat.eqnTim.modTimAux/weaDat.eqnTim.lenWea", 9)*DYNX(W_,8257)+
- DYNX(W_,8257) ELSE DYNTime;
+whenModelica(DYNX(W_,8218) AND GreaterMinor(DYNX(W_,8469),"weaDat.eqnTim.modTimAux",
+ PRE(DYNX(W_,8433), 46),"pre(weaDat.eqnTim.tNext)", 121), 29)
+ DYNX(W_,8433) = IF DYNX(W_,8218) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"weaDat.eqnTim.modTimAux",DYNX(W_,8217),"weaDat.eqnTim.lenWea"),
+ "weaDat.eqnTim.modTimAux/weaDat.eqnTim.lenWea", 9)*DYNX(W_,8217)+
+ DYNX(W_,8217) ELSE DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9744) = IF DYNX(W_,8258) THEN DYNX(W_,8506)-DYNX(W_,8470)+DYNX(W_,8257)
- ELSE DYNX(W_,8506);
-DYNX(W_,9746) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,9744)+86400)
+DYNX(W_,9713) = IF DYNX(W_,8218) THEN DYNX(W_,8469)-DYNX(W_,8433)+DYNX(W_,8217)
+ ELSE DYNX(W_,8469);
+DYNX(W_,9715) = 0.017261498096647215*(1.1574074074074073E-05*(DYNX(W_,9713)+86400)
-81);
-DYNX(DYNhelp,1634) = sin(2*DYNX(W_,9746));
-DYNX(DYNhelp,1635) = cos(DYNX(W_,9746));
-DYNX(DYNhelp,1636) = sin(DYNX(W_,9746));
-DYNX(W_,9745) = 60*(9.87*DYNX(DYNhelp,1634)-7.53*DYNX(DYNhelp,1635)-1.5*
- DYNX(DYNhelp,1636));
-DYNX(W_,8505) = DYNX(W_,9742)+DYNX(W_,9745);
-DYNX(W_,8895) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8898) = cos(DYNX(W_,8895));
-DYNX(W_,8897) = sin(DYNX(W_,8894));
-DYNX(W_,8899) = sin(DYNX(W_,8895));
+DYNX(DYNhelp,1635) = sin(2*DYNX(W_,9715));
+DYNX(DYNhelp,1636) = cos(DYNX(W_,9715));
+DYNX(DYNhelp,1637) = sin(DYNX(W_,9715));
+DYNX(W_,9714) = 60*(9.87*DYNX(DYNhelp,1635)-7.53*DYNX(DYNhelp,1636)-1.5*
+ DYNX(DYNhelp,1637));
+DYNX(W_,8468) = DYNX(W_,9711)+DYNX(W_,9714);
+DYNX(W_,8858) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8861) = cos(DYNX(W_,8858));
+DYNX(W_,8860) = sin(DYNX(W_,8857));
+DYNX(W_,8862) = sin(DYNX(W_,8858));
if (NewParameters_) {
-DYNX(DYNhelp,1637) = cos(DYNX(W_,757));
+DYNX(DYNhelp,1638) = cos(DYNX(W_,757));
}
-DYNX(DYNhelp,1638) = DYNX(W_,8896)*DYNX(W_,8898);
+DYNX(DYNhelp,1639) = DYNX(W_,8859)*DYNX(W_,8861);
if (NewParameters_) {
-DYNX(DYNhelp,1639) = sin(DYNX(W_,757));
+DYNX(DYNhelp,1640) = sin(DYNX(W_,757));
}
if (NewParameters_) {
-DYNX(DYNhelp,1640) = sin(DYNX(W_,756));
+DYNX(DYNhelp,1641) = sin(DYNX(W_,756));
}
if (NewParameters_) {
-DYNX(DYNhelp,1641) = cos(DYNX(W_,756));
+DYNX(DYNhelp,1642) = cos(DYNX(W_,756));
}
-DYNX(DYNhelp,1642) = 0.7905412281389133*DYNX(DYNhelp,1638);
-DYNX(DYNhelp,1643) = 0.6124088231015443*DYNX(W_,8897);
-DYNX(W_,8892) = acosGuarded(DYNX(DYNhelp,1637)*(0.6124088231015443*
- DYNX(DYNhelp,1638)+0.7905412281389133*DYNX(W_,8897))+DYNX(DYNhelp,1639)*(
- DYNX(DYNhelp,1640)*DYNX(W_,8896)*DYNX(W_,8899)+DYNX(DYNhelp,1641)*(
- DYNX(DYNhelp,1642)-DYNX(DYNhelp,1643))),"cos(building.thermalZone[1].HDirTilWall[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[1].incAng.inc...");
-DYNX(W_,9736) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n2, \nweaDat.datRea30Min.u)")
+DYNX(DYNhelp,1643) = 0.7905412281389133*DYNX(DYNhelp,1639);
+DYNX(DYNhelp,1644) = 0.6124088231015443*DYNX(W_,8860);
+DYNX(W_,8855) = acosGuarded(DYNX(DYNhelp,1638)*(0.6124088231015443*
+ DYNX(DYNhelp,1639)+0.7905412281389133*DYNX(W_,8860))+DYNX(DYNhelp,1640)*(
+ DYNX(DYNhelp,1641)*DYNX(W_,8859)*DYNX(W_,8862)+DYNX(DYNhelp,1642)*(
+ DYNX(DYNhelp,1643)-DYNX(DYNhelp,1644))),"cos(building.thermalZone[1].HDirTilWall[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[1].incAng.inc...");
+DYNX(W_,9705) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n2, \nweaDat.datRea30Min.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246))), 2, DYNX(W_,9743)));
+ (Integer)(DYNX(W_,8206))), 2, DYNX(W_,9712)));
PopModelContext();
-DYNX(W_,8492) = RealBmax(0, DYNX(W_,9736));
-DYNX(DYNhelp,1644) = cos(DYNX(W_,8892));
-DYNX(W_,8891) = RealBmax(0, DYNX(DYNhelp,1644)*DYNX(W_,8492));
-DYNX(W_,8646) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(W_,8455) = RealBmax(0, DYNX(W_,9705));
+DYNX(DYNhelp,1645) = cos(DYNX(W_,8855));
+DYNX(W_,8854) = RealBmax(0, DYNX(DYNhelp,1645)*DYNX(W_,8455));
+DYNX(W_,8609) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8892)+DYNX(DP_,251))*DYNX(W_,8892)+DYNX(DP_,250))*DYNX(W_,8892)+
- DYNX(DP_,249))*DYNX(W_,8892)+DYNX(DP_,248))*DYNX(W_,8892)+DYNX(DP_,247))*
- DYNX(W_,8892)+DYNX(DP_,246);
-DYNX(DYNhelp,1645) = sin(DYNX(W_,8892));
-DYNX(DYNhelp,1646) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1645)),
+ DYNX(W_,8855)+DYNX(DP_,251))*DYNX(W_,8855)+DYNX(DP_,250))*DYNX(W_,8855)+
+ DYNX(DP_,249))*DYNX(W_,8855)+DYNX(DP_,248))*DYNX(W_,8855)+DYNX(DP_,247))*
+ DYNX(W_,8855)+DYNX(DP_,246);
+DYNX(DYNhelp,1646) = sin(DYNX(W_,8855));
+DYNX(DYNhelp,1647) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1646)),
"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2");
-DYNX(DYNhelp,1647) = divinvGuarded(DYNX(DYNhelp,1646),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2)");
-DYNX(W_,8650) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1647),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2)");
-DYNX(W_,8654) = DYNX(W_,8646)*DYNX(W_,8650);
-DYNX(W_,8658) = 1-DYNX(W_,8646);
-DYNX(W_,8662) = divGuarded(DYNX(W_,8658),"building.thermalZone[1].corGMod.rho_T1_dir[1]",2
- -DYNX(W_,8658),"2-building.thermalZone[1].corGMod.rho_T1_dir[1]");
-DYNX(W_,8666) = DYNX(W_,8662)+divGuarded(sqr((1-DYNX(W_,8662))*DYNX(W_,8650))*
- DYNX(W_,8662),"((1-building.thermalZone[1].corGMod.rho_11_dir[1])*building.thermalZone[1].corGMod.Tai_dir[1])^2*building.thermalZone[1].corGMod.rho_11_dir[1]",1
- -sqr(DYNX(W_,8662)*DYNX(W_,8650)),"1-(building.thermalZone[1].corGMod.rho_11_dir[1]*building.thermalZone[1].corGMod.Tai_dir[1])^2");
-DYNX(W_,8670) = 1.0-sqr(DYNX(W_,8666));
-DYNX(W_,8674) = divGuarded(sqr(DYNX(W_,8654)),"building.thermalZone[1].corGMod.Ta1_dir[1]^2",
- DYNX(W_,8670),"building.thermalZone[1].corGMod.XN2_dir[1]");
-DYNX(W_,8678) = 1-(DYNX(W_,8654)+DYNX(W_,8666));
-DYNX(W_,8682) = 0.04*DYNX(W_,8678)*(1+divGuarded(DYNX(W_,8654)*DYNX(W_,8666),
+DYNX(DYNhelp,1648) = divinvGuarded(DYNX(DYNhelp,1647),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2)");
+DYNX(W_,8613) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1648),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[1]))^2)");
+DYNX(W_,8617) = DYNX(W_,8609)*DYNX(W_,8613);
+DYNX(W_,8621) = 1-DYNX(W_,8609);
+DYNX(W_,8625) = divGuarded(DYNX(W_,8621),"building.thermalZone[1].corGMod.rho_T1_dir[1]",2
+ -DYNX(W_,8621),"2-building.thermalZone[1].corGMod.rho_T1_dir[1]");
+DYNX(W_,8629) = DYNX(W_,8625)+divGuarded(sqr((1-DYNX(W_,8625))*DYNX(W_,8613))*
+ DYNX(W_,8625),"((1-building.thermalZone[1].corGMod.rho_11_dir[1])*building.thermalZone[1].corGMod.Tai_dir[1])^2*building.thermalZone[1].corGMod.rho_11_dir[1]",1
+ -sqr(DYNX(W_,8625)*DYNX(W_,8613)),"1-(building.thermalZone[1].corGMod.rho_11_dir[1]*building.thermalZone[1].corGMod.Tai_dir[1])^2");
+DYNX(W_,8633) = 1.0-sqr(DYNX(W_,8629));
+DYNX(W_,8637) = divGuarded(sqr(DYNX(W_,8617)),"building.thermalZone[1].corGMod.Ta1_dir[1]^2",
+ DYNX(W_,8633),"building.thermalZone[1].corGMod.XN2_dir[1]");
+DYNX(W_,8641) = 1-(DYNX(W_,8617)+DYNX(W_,8629));
+DYNX(W_,8645) = 0.04*DYNX(W_,8641)*(1+divGuarded(DYNX(W_,8617)*DYNX(W_,8629),
"building.thermalZone[1].corGMod.Ta1_dir[1]*building.thermalZone[1].corGMod.rho_1_dir[1]",
- DYNX(W_,8670),"building.thermalZone[1].corGMod.XN2_dir[1]"))*DYNX(W_,578);
-DYNX(W_,8686) = divGuarded(DYNX(W_,8678)*DYNX(W_,8654)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8633),"building.thermalZone[1].corGMod.XN2_dir[1]"))*DYNX(W_,578);
+DYNX(W_,8649) = divGuarded(DYNX(W_,8641)*DYNX(W_,8617)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[1]*building.thermalZone[1].corGMod.Ta1_dir[1]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8670),"building.thermalZone[1].corGMod.XN2_dir[1]");
-DYNX(W_,8690) = DYNX(W_,8682)+DYNX(W_,8686);
-DYNX(W_,8694) = DYNX(DYNhelp,4)*(DYNX(W_,8674)+DYNX(W_,8690));
-DYNX(W_,9735) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n3, \nweaDat.datRea30Min.u)")
+ DYNX(W_,8633),"building.thermalZone[1].corGMod.XN2_dir[1]");
+DYNX(W_,8653) = DYNX(W_,8645)+DYNX(W_,8649);
+DYNX(W_,8657) = DYNX(DYNhelp,4)*(DYNX(W_,8637)+DYNX(W_,8653));
+DYNX(W_,9704) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea30Min.tableID, \n3, \nweaDat.datRea30Min.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8246))), 3, DYNX(W_,9743)));
+ (Integer)(DYNX(W_,8206))), 3, DYNX(W_,9712)));
PopModelContext();
-DYNX(W_,8494) = RealBmax(0, DYNX(W_,9735));
-DYNX(W_,8729) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
+DYNX(W_,8457) = RealBmax(0, DYNX(W_,9704));
+DYNX(W_,8692) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
beginwhenBlock
-whenModelica(DYNX(W_,8261) AND GreaterMinor(DYNX(W_,8506),"weaDat.decAng.modTimAux",
- PRE(DYNX(W_,8471), 43),"pre(weaDat.decAng.tNext)", 114), 30)
- DYNX(W_,8471) = IF DYNX(W_,8261) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"weaDat.decAng.modTimAux",DYNX(W_,8260),"weaDat.decAng.lenWea"),
- "weaDat.decAng.modTimAux/weaDat.decAng.lenWea", 10)*DYNX(W_,8260)+
- DYNX(W_,8260) ELSE DYNTime;
+whenModelica(DYNX(W_,8221) AND GreaterMinor(DYNX(W_,8469),"weaDat.decAng.modTimAux",
+ PRE(DYNX(W_,8434), 45),"pre(weaDat.decAng.tNext)", 122), 30)
+ DYNX(W_,8434) = IF DYNX(W_,8221) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"weaDat.decAng.modTimAux",DYNX(W_,8220),"weaDat.decAng.lenWea"),
+ "weaDat.decAng.modTimAux/weaDat.decAng.lenWea", 10)*DYNX(W_,8220)+
+ DYNX(W_,8220) ELSE DYNTime;
endwhenModelica()
endwhenBlock
-DYNX(W_,9747) = IF DYNX(W_,8261) THEN DYNX(W_,8506)-DYNX(W_,8471)+DYNX(W_,8260)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1648) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,9747));
-DYNX(W_,8502) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1648),
+DYNX(W_,9716) = IF DYNX(W_,8221) THEN DYNX(W_,8469)-DYNX(W_,8434)+DYNX(W_,8220)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1649) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,9716));
+DYNX(W_,8465) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1649),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*weaDat.decAng.calTimAux)");
-DYNX(W_,8503) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(DYNhelp,1649) = cos(DYNX(W_,8502));
-DYNX(DYNhelp,1650) = cos(DYNX(W_,8503));
-DYNX(DYNhelp,1651) = sin(DYNX(W_,8502));
-DYNX(W_,8504) = acosGuarded(0.6124088231015443*DYNX(DYNhelp,1649)*
- DYNX(DYNhelp,1650)+0.7905412281389133*DYNX(DYNhelp,1651),"0.6124088231015443*(cos(weaDat.zenAng.decAng)*cos(weaDat.zenAng.solHouAng))+0.7905412281389133*sin(weaDat.zenAng.decAng)");
-DYNX(W_,8728) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(DYNhelp,1652) = 1+DYNX(W_,8728);
-DYNX(W_,8727) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1), 1, 8, 0.01)")
+DYNX(W_,8466) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(DYNhelp,1650) = cos(DYNX(W_,8465));
+DYNX(DYNhelp,1651) = cos(DYNX(W_,8466));
+DYNX(DYNhelp,1652) = sin(DYNX(W_,8465));
+DYNX(W_,8467) = acosGuarded(0.6124088231015443*DYNX(DYNhelp,1650)*
+ DYNX(DYNhelp,1651)+0.7905412281389133*DYNX(DYNhelp,1652),"0.6124088231015443*(cos(weaDat.zenAng.decAng)*cos(weaDat.zenAng.solHouAng))+0.7905412281389133*sin(weaDat.zenAng.decAng)");
+DYNX(W_,8691) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(DYNhelp,1653) = 1+DYNX(W_,8691);
+DYNX(W_,8690) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8729),"building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou",
- DYNX(W_,8729),"building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou")+
- DYNX(W_,8728),"(building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1",
- DYNX(DYNhelp,1652),"1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1"), 1,
+ DYNX(W_,8455)+DYNX(W_,8692),"building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou",
+ DYNX(W_,8692),"building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou")+
+ DYNX(W_,8691),"(building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1",
+ DYNX(DYNhelp,1653),"1+building.thermalZone[1].HDifTilWall[1].skyCle.tmp1"), 1,
8, 0.01));
PopModelContext();
-DYNX(W_,8745) = IF 1.23-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8727)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8727))*(sqr(100.0*(1.23-
- DYNX(W_,8727)))-3);
-DYNX(W_,8737) = IF 1.065-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8727)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8727))*(sqr(100.0*(1.065-
- DYNX(W_,8727)))-3);
-DYNX(W_,8738) = DYNX(W_,8745)-DYNX(W_,8737);
-DYNX(W_,8746) = IF 1.5-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8727))*(sqr(100.0*(1.5-DYNX(W_,8727)))
+DYNX(W_,8708) = IF 1.23-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8690)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8690))*(sqr(100.0*(1.23-
+ DYNX(W_,8690)))-3);
+DYNX(W_,8700) = IF 1.065-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8690)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8690))*(sqr(100.0*(1.065-
+ DYNX(W_,8690)))-3);
+DYNX(W_,8701) = DYNX(W_,8708)-DYNX(W_,8700);
+DYNX(W_,8709) = IF 1.5-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8690))*(sqr(100.0*(1.5-DYNX(W_,8690)))
-3);
-DYNX(W_,8739) = DYNX(W_,8746)-DYNX(W_,8745);
-DYNX(W_,8747) = IF 1.95-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8727)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8727))*(sqr(100.0*(1.95-
- DYNX(W_,8727)))-3);
-DYNX(W_,8740) = DYNX(W_,8747)-DYNX(W_,8746);
-DYNX(W_,8748) = IF 2.8-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8727))*(sqr(100.0*(2.8-DYNX(W_,8727)))
+DYNX(W_,8702) = DYNX(W_,8709)-DYNX(W_,8708);
+DYNX(W_,8710) = IF 1.95-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8690)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8690))*(sqr(100.0*(1.95-
+ DYNX(W_,8690)))-3);
+DYNX(W_,8703) = DYNX(W_,8710)-DYNX(W_,8709);
+DYNX(W_,8711) = IF 2.8-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8690))*(sqr(100.0*(2.8-DYNX(W_,8690)))
-3);
-DYNX(W_,8741) = DYNX(W_,8748)-DYNX(W_,8747);
-DYNX(W_,8749) = IF 4.5-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8727))*(sqr(100.0*(4.5-DYNX(W_,8727)))
+DYNX(W_,8704) = DYNX(W_,8711)-DYNX(W_,8710);
+DYNX(W_,8712) = IF 4.5-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8690))*(sqr(100.0*(4.5-DYNX(W_,8690)))
-3);
-DYNX(W_,8742) = DYNX(W_,8749)-DYNX(W_,8748);
-DYNX(W_,8750) = IF 6.2-DYNX(W_,8727) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8727) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8727))*(sqr(100.0*(6.2-DYNX(W_,8727)))
+DYNX(W_,8705) = DYNX(W_,8712)-DYNX(W_,8711);
+DYNX(W_,8713) = IF 6.2-DYNX(W_,8690) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8690) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8690))*(sqr(100.0*(6.2-DYNX(W_,8690)))
-3);
-DYNX(W_,8743) = DYNX(W_,8750)-DYNX(W_,8749);
-DYNX(W_,8744) = IF DYNX(W_,8727)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8727)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8727)-6.2)*(sqr(100.0*(DYNX(W_,8727)-6.2))
+DYNX(W_,8706) = DYNX(W_,8713)-DYNX(W_,8712);
+DYNX(W_,8707) = IF DYNX(W_,8690)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8690)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8690)-6.2)*(sqr(100.0*(DYNX(W_,8690)-6.2))
-3);
-DYNX(W_,8731) = 0.1299457*DYNX(W_,8738)-0.0083117*DYNX(W_,8737)+0.3296958*
- DYNX(W_,8739)+0.5682053*DYNX(W_,8740)+0.873028*DYNX(W_,8741)+1.1326077*
- DYNX(W_,8742)+1.0601591*DYNX(W_,8743)+0.677747*DYNX(W_,8744);
-DYNX(W_,8732) = 0.5877285*DYNX(W_,8737)+0.6825954*DYNX(W_,8738)+0.4868735*
- DYNX(W_,8739)+0.1874525*DYNX(W_,8740)-0.3920403*DYNX(W_,8741)-1.2367284*
- DYNX(W_,8742)-1.5999137*DYNX(W_,8743)-0.3272588*DYNX(W_,8744);
-DYNX(W_,8752) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8753) = 0.3183098861837907*DYNX(W_,8752)*180;
-DYNX(DYNhelp,1653) = cos(DYNX(W_,8752));
-DYNX(DYNhelp,1654) = DYNX(DYNhelp,1653)+0.15*powGuarded(93.9-DYNX(W_,8753),
+DYNX(W_,8694) = 0.1299457*DYNX(W_,8701)-0.0083117*DYNX(W_,8700)+0.3296958*
+ DYNX(W_,8702)+0.5682053*DYNX(W_,8703)+0.873028*DYNX(W_,8704)+1.1326077*
+ DYNX(W_,8705)+1.0601591*DYNX(W_,8706)+0.677747*DYNX(W_,8707);
+DYNX(W_,8695) = 0.5877285*DYNX(W_,8700)+0.6825954*DYNX(W_,8701)+0.4868735*
+ DYNX(W_,8702)+0.1874525*DYNX(W_,8703)-0.3920403*DYNX(W_,8704)-1.2367284*
+ DYNX(W_,8705)-1.5999137*DYNX(W_,8706)-0.3272588*DYNX(W_,8707);
+DYNX(W_,8715) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8716) = 0.3183098861837907*DYNX(W_,8715)*180;
+DYNX(DYNhelp,1654) = cos(DYNX(W_,8715));
+DYNX(DYNhelp,1655) = DYNX(DYNhelp,1654)+0.15*powGuarded(93.9-DYNX(W_,8716),
"93.9-building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg",-1.253,"-1.253");
-DYNX(DYNhelp,1655) = divinvGuarded(DYNX(DYNhelp,1654),"cos(building.thermalZone[1].HDifTilWall[1].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8751) = DYNX(DYNhelp,1655);
-DYNX(DYNhelp,1656) = cos(0.01721420632103996+1.9923849908611068E-07*
- DYNX(W_,8505));
-DYNX(W_,8754) = 1+0.033*DYNX(DYNhelp,1656);
-DYNX(W_,8730) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),
+DYNX(DYNhelp,1656) = divinvGuarded(DYNX(DYNhelp,1655),"cos(building.thermalZone[1].HDifTilWall[1].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg)^(-1.253)");
+DYNX(W_,8714) = DYNX(DYNhelp,1656);
+DYNX(DYNhelp,1657) = cos(0.01721420632103996+1.9923849908611068E-07*
+ DYNX(W_,8468));
+DYNX(W_,8717) = 1+0.033*DYNX(DYNhelp,1657);
+DYNX(W_,8693) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),
"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8751),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8751),"0.5*(building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8754),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor");
-DYNX(W_,8733) = (-0.0620636)*DYNX(W_,8737)-0.1513725*DYNX(W_,8738)-0.2210958*
- DYNX(W_,8739)-0.295129*DYNX(W_,8740)-0.3616149*DYNX(W_,8741)-0.4118494*
- DYNX(W_,8742)-0.3589221*DYNX(W_,8743)-0.2504286*DYNX(W_,8744);
-DYNX(W_,8720) = IF -(DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8731)+DYNX(W_,8732)*
- DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8731)+
- DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8731)+DYNX(W_,8732)*DYNX(W_,8730)+DYNX(W_,8733)*DYNX(W_,8504));
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8714),"building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8714),"0.5*(building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8717),"1366.1*building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor");
+DYNX(W_,8696) = (-0.0620636)*DYNX(W_,8700)-0.1513725*DYNX(W_,8701)-0.2210958*
+ DYNX(W_,8702)-0.295129*DYNX(W_,8703)-0.3616149*DYNX(W_,8704)-0.4118494*
+ DYNX(W_,8705)-0.3589221*DYNX(W_,8706)-0.2504286*DYNX(W_,8707);
+DYNX(W_,8683) = IF -(DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8694)+DYNX(W_,8695)*
+ DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8694)+
+ DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8694)+DYNX(W_,8695)*DYNX(W_,8693)+DYNX(W_,8696)*DYNX(W_,8467));
beginwhenBlock
-whenModelica(DYNX(W_,647) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8288), 2),"pre(building.thermalZone[1].HDifTilWall[1].incAng.decAng.tNext)",
- 115), 31)
- DYNX(W_,8288) = IF DYNX(W_,647) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,647) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8248), 2),"pre(building.thermalZone[1].HDifTilWall[1].incAng.decAng.tNext)",
+ 123), 31)
+ DYNX(W_,8248) = IF DYNX(W_,647) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux",
DYNX(W_,646),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[1].incAng.decAng.lenWea",
11)*DYNX(W_,646)+DYNX(W_,646) ELSE DYNTime;
@@ -19729,84 +19787,84 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8755) = IF DYNX(W_,647) THEN DYNX(W_,8506)-DYNX(W_,8288)+DYNX(W_,646)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1657) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8755));
-DYNX(W_,8756) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1657),
+DYNX(W_,8718) = IF DYNX(W_,647) THEN DYNX(W_,8469)-DYNX(W_,8248)+DYNX(W_,646)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1658) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8718));
+DYNX(W_,8719) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1658),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[1].incAng.decAng.calTimAux)");
-DYNX(W_,8758) = cos(DYNX(W_,8756));
-DYNX(W_,8757) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8760) = cos(DYNX(W_,8757));
-DYNX(W_,8759) = sin(DYNX(W_,8756));
-DYNX(W_,8761) = sin(DYNX(W_,8757));
+DYNX(W_,8721) = cos(DYNX(W_,8719));
+DYNX(W_,8720) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8723) = cos(DYNX(W_,8720));
+DYNX(W_,8722) = sin(DYNX(W_,8719));
+DYNX(W_,8724) = sin(DYNX(W_,8720));
if (NewParameters_) {
-DYNX(DYNhelp,1658) = cos(DYNX(W_,651));
+DYNX(DYNhelp,1659) = cos(DYNX(W_,651));
}
-DYNX(DYNhelp,1659) = DYNX(W_,8758)*DYNX(W_,8760);
+DYNX(DYNhelp,1660) = DYNX(W_,8721)*DYNX(W_,8723);
if (NewParameters_) {
-DYNX(DYNhelp,1660) = sin(DYNX(W_,651));
+DYNX(DYNhelp,1661) = sin(DYNX(W_,651));
}
if (NewParameters_) {
-DYNX(DYNhelp,1661) = sin(DYNX(W_,650));
+DYNX(DYNhelp,1662) = sin(DYNX(W_,650));
}
if (NewParameters_) {
-DYNX(DYNhelp,1662) = cos(DYNX(W_,650));
+DYNX(DYNhelp,1663) = cos(DYNX(W_,650));
}
-DYNX(DYNhelp,1663) = 0.7905412281389133*DYNX(DYNhelp,1659);
-DYNX(DYNhelp,1664) = 0.6124088231015443*DYNX(W_,8759);
-DYNX(W_,8722) = acosGuarded(DYNX(DYNhelp,1658)*(0.6124088231015443*
- DYNX(DYNhelp,1659)+0.7905412281389133*DYNX(W_,8759))+DYNX(DYNhelp,1660)*(
- DYNX(DYNhelp,1661)*DYNX(W_,8758)*DYNX(W_,8761)+DYNX(DYNhelp,1662)*(
- DYNX(DYNhelp,1663)-DYNX(DYNhelp,1664))),"cos(building.thermalZone[1].HDifTilWall[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[1].incAng.inc...");
-DYNX(W_,8725) = IF -cos(DYNX(W_,8722)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8722)) < -0.01 THEN cos(DYNX(W_,8722)) ELSE 0.5*cos(DYNX(W_,8722))-
- 25.0*cos(DYNX(W_,8722))*(sqr((-100.0)*cos(DYNX(W_,8722)))-3)*cos(DYNX(W_,8722));
-DYNX(W_,8726) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8734) = (-0.0596012)*DYNX(W_,8737)-0.0189325*DYNX(W_,8738)+0.055414*
- DYNX(W_,8739)+0.1088631*DYNX(W_,8740)+0.2255647*DYNX(W_,8741)+0.2877813*
- DYNX(W_,8742)+0.2642124*DYNX(W_,8743)+0.1561313*DYNX(W_,8744);
-DYNX(W_,8735) = 0.0721249*DYNX(W_,8737)+0.065965*DYNX(W_,8738)-0.0639588*
- DYNX(W_,8739)-0.1519229*DYNX(W_,8740)-0.4620442*DYNX(W_,8741)-0.8230357*
- DYNX(W_,8742)-1.127234*DYNX(W_,8743)-1.3765031*DYNX(W_,8744);
-DYNX(W_,8736) = (-0.0220216)*DYNX(W_,8737)-0.0288748*DYNX(W_,8738)-0.0260542*
- DYNX(W_,8739)-0.0139754*DYNX(W_,8740)+0.0012448*DYNX(W_,8741)+0.0558651*
- DYNX(W_,8742)+0.1310694*DYNX(W_,8743)+0.2506212*DYNX(W_,8744);
-DYNX(W_,8721) = DYNX(W_,8734)+DYNX(W_,8735)*DYNX(W_,8730)+DYNX(W_,8736)*
- DYNX(W_,8504);
-DYNX(DYNhelp,1665) = 1-DYNX(W_,8720);
+DYNX(DYNhelp,1664) = 0.7905412281389133*DYNX(DYNhelp,1660);
+DYNX(DYNhelp,1665) = 0.6124088231015443*DYNX(W_,8722);
+DYNX(W_,8685) = acosGuarded(DYNX(DYNhelp,1659)*(0.6124088231015443*
+ DYNX(DYNhelp,1660)+0.7905412281389133*DYNX(W_,8722))+DYNX(DYNhelp,1661)*(
+ DYNX(DYNhelp,1662)*DYNX(W_,8721)*DYNX(W_,8724)+DYNX(DYNhelp,1663)*(
+ DYNX(DYNhelp,1664)-DYNX(DYNhelp,1665))),"cos(building.thermalZone[1].HDifTilWall[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[1].incAng.inc...");
+DYNX(W_,8688) = IF -cos(DYNX(W_,8685)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8685)) < -0.01 THEN cos(DYNX(W_,8685)) ELSE 0.5*cos(DYNX(W_,8685))-
+ 25.0*cos(DYNX(W_,8685))*(sqr((-100.0)*cos(DYNX(W_,8685)))-3)*cos(DYNX(W_,8685));
+DYNX(W_,8689) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8697) = (-0.0596012)*DYNX(W_,8700)-0.0189325*DYNX(W_,8701)+0.055414*
+ DYNX(W_,8702)+0.1088631*DYNX(W_,8703)+0.2255647*DYNX(W_,8704)+0.2877813*
+ DYNX(W_,8705)+0.2642124*DYNX(W_,8706)+0.1561313*DYNX(W_,8707);
+DYNX(W_,8698) = 0.0721249*DYNX(W_,8700)+0.065965*DYNX(W_,8701)-0.0639588*
+ DYNX(W_,8702)-0.1519229*DYNX(W_,8703)-0.4620442*DYNX(W_,8704)-0.8230357*
+ DYNX(W_,8705)-1.127234*DYNX(W_,8706)-1.3765031*DYNX(W_,8707);
+DYNX(W_,8699) = (-0.0220216)*DYNX(W_,8700)-0.0288748*DYNX(W_,8701)-0.0260542*
+ DYNX(W_,8702)-0.0139754*DYNX(W_,8703)+0.0012448*DYNX(W_,8704)+0.0558651*
+ DYNX(W_,8705)+0.1310694*DYNX(W_,8706)+0.2506212*DYNX(W_,8707);
+DYNX(W_,8684) = DYNX(W_,8697)+DYNX(W_,8698)*DYNX(W_,8693)+DYNX(W_,8699)*
+ DYNX(W_,8467);
+DYNX(DYNhelp,1666) = 1-DYNX(W_,8683);
if (NewParameters_) {
-DYNX(DYNhelp,1666) = cos(DYNX(W_,634));
+DYNX(DYNhelp,1667) = cos(DYNX(W_,634));
}
-DYNX(DYNhelp,1667) = 1+DYNX(DYNhelp,1666);
+DYNX(DYNhelp,1668) = 1+DYNX(DYNhelp,1667);
if (NewParameters_) {
-DYNX(DYNhelp,1668) = sin(DYNX(W_,634));
+DYNX(DYNhelp,1669) = sin(DYNX(W_,634));
}
-DYNX(W_,8724) = DYNX(W_,8494)*(0.5*DYNX(DYNhelp,1665)*DYNX(DYNhelp,1667)+
- divGuarded(DYNX(W_,8720)*DYNX(W_,8725),"building.thermalZone[1].HDifTilWall[1].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[1].HDifTil.a",
- DYNX(W_,8726),"building.thermalZone[1].HDifTilWall[1].HDifTil.b")+
- DYNX(W_,8721)*DYNX(DYNhelp,1668));
-DYNX(W_,8723) = 0.5*DYNX(W_,8493)*DYNX(W_,633)*(1-DYNX(DYNhelp,1666));
-DYNX(W_,8642) = DYNX(W_,8891)*DYNX(W_,8694)+DYNX(W_,8724)*DYNX(W_,589)+
- DYNX(W_,8723)*DYNX(W_,590);
-DYNX(W_,8719) = DYNX(DP_,262)*DYNX(W_,8724)+DYNX(DP_,263)*DYNX(W_,8723);
-DYNX(W_,9001) = DYNX(DP_,309)*DYNX(W_,8891)+DYNX(DP_,310)*DYNX(W_,8719);
-DYNX(W_,8297) = Greater(DYNX(W_,9001),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].u",
+DYNX(W_,8687) = DYNX(W_,8457)*(0.5*DYNX(DYNhelp,1666)*DYNX(DYNhelp,1668)+
+ divGuarded(DYNX(W_,8683)*DYNX(W_,8688),"building.thermalZone[1].HDifTilWall[1].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[1].HDifTil.a",
+ DYNX(W_,8689),"building.thermalZone[1].HDifTilWall[1].HDifTil.b")+
+ DYNX(W_,8684)*DYNX(DYNhelp,1669));
+DYNX(W_,8686) = 0.5*DYNX(W_,8456)*DYNX(W_,633)*(1-DYNX(DYNhelp,1667));
+DYNX(W_,8605) = DYNX(W_,8854)*DYNX(W_,8657)+DYNX(W_,8687)*DYNX(W_,589)+
+ DYNX(W_,8686)*DYNX(W_,590);
+DYNX(W_,8682) = DYNX(DP_,262)*DYNX(W_,8687)+DYNX(DP_,263)*DYNX(W_,8686);
+DYNX(W_,8964) = DYNX(DP_,309)*DYNX(W_,8854)+DYNX(DP_,310)*DYNX(W_,8682);
+DYNX(W_,8257) = Greater(DYNX(W_,8964),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].u",
DYNX(W_,846),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].threshold",
23);
-DYNX(W_,8284) = IF DYNX(W_,8297) THEN DYNX(W_,850) ELSE DYNX(DP_,289);
-DYNX(W_,8514) = DYNX(W_,8642)*DYNX(W_,8284);
-DYNX(W_,8554) = DYNX(W_,442)*DYNX(W_,8514);
+DYNX(W_,8244) = IF DYNX(W_,8257) THEN DYNX(W_,850) ELSE DYNX(DP_,289);
+DYNX(W_,8477) = DYNX(W_,8605)*DYNX(W_,8244);
+DYNX(W_,8517) = DYNX(W_,442)*DYNX(W_,8477);
beginwhenBlock
-whenModelica(DYNX(W_,772) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8293), 8),"pre(building.thermalZone[1].HDirTilWall[2].incAng.decAng.tNext)",
- 116), 32)
- DYNX(W_,8293) = IF DYNX(W_,772) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,772) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8253), 8),"pre(building.thermalZone[1].HDirTilWall[2].incAng.decAng.tNext)",
+ 124), 32)
+ DYNX(W_,8253) = IF DYNX(W_,772) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux",
DYNX(W_,771),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[2].incAng.decAng.lenWea",
12)*DYNX(W_,771)+DYNX(W_,771) ELSE DYNTime;
@@ -19814,161 +19872,161 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8902) = IF DYNX(W_,772) THEN DYNX(W_,8506)-DYNX(W_,8293)+DYNX(W_,771)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1669) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8902));
-DYNX(W_,8903) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1669),
+DYNX(W_,8865) = IF DYNX(W_,772) THEN DYNX(W_,8469)-DYNX(W_,8253)+DYNX(W_,771)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1670) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8865));
+DYNX(W_,8866) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1670),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[2].incAng.decAng.calTimAux)");
-DYNX(W_,8905) = cos(DYNX(W_,8903));
-DYNX(W_,8904) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8907) = cos(DYNX(W_,8904));
-DYNX(W_,8906) = sin(DYNX(W_,8903));
-DYNX(W_,8908) = sin(DYNX(W_,8904));
+DYNX(W_,8868) = cos(DYNX(W_,8866));
+DYNX(W_,8867) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8870) = cos(DYNX(W_,8867));
+DYNX(W_,8869) = sin(DYNX(W_,8866));
+DYNX(W_,8871) = sin(DYNX(W_,8867));
if (NewParameters_) {
-DYNX(DYNhelp,1670) = cos(DYNX(W_,776));
+DYNX(DYNhelp,1671) = cos(DYNX(W_,776));
}
-DYNX(DYNhelp,1671) = DYNX(W_,8905)*DYNX(W_,8907);
+DYNX(DYNhelp,1672) = DYNX(W_,8868)*DYNX(W_,8870);
if (NewParameters_) {
-DYNX(DYNhelp,1672) = sin(DYNX(W_,776));
+DYNX(DYNhelp,1673) = sin(DYNX(W_,776));
}
if (NewParameters_) {
-DYNX(DYNhelp,1673) = sin(DYNX(W_,775));
+DYNX(DYNhelp,1674) = sin(DYNX(W_,775));
}
if (NewParameters_) {
-DYNX(DYNhelp,1674) = cos(DYNX(W_,775));
+DYNX(DYNhelp,1675) = cos(DYNX(W_,775));
}
-DYNX(DYNhelp,1675) = 0.7905412281389133*DYNX(DYNhelp,1671);
-DYNX(DYNhelp,1676) = 0.6124088231015443*DYNX(W_,8906);
-DYNX(W_,8901) = acosGuarded(DYNX(DYNhelp,1670)*(0.6124088231015443*
- DYNX(DYNhelp,1671)+0.7905412281389133*DYNX(W_,8906))+DYNX(DYNhelp,1672)*(
- DYNX(DYNhelp,1673)*DYNX(W_,8905)*DYNX(W_,8908)+DYNX(DYNhelp,1674)*(
- DYNX(DYNhelp,1675)-DYNX(DYNhelp,1676))),"cos(building.thermalZone[1].HDirTilWall[2].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[2].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[2].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[2].incAng.inc...");
-DYNX(DYNhelp,1677) = cos(DYNX(W_,8901));
-DYNX(W_,8900) = RealBmax(0, DYNX(DYNhelp,1677)*DYNX(W_,8492));
-DYNX(W_,8647) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(DYNhelp,1676) = 0.7905412281389133*DYNX(DYNhelp,1672);
+DYNX(DYNhelp,1677) = 0.6124088231015443*DYNX(W_,8869);
+DYNX(W_,8864) = acosGuarded(DYNX(DYNhelp,1671)*(0.6124088231015443*
+ DYNX(DYNhelp,1672)+0.7905412281389133*DYNX(W_,8869))+DYNX(DYNhelp,1673)*(
+ DYNX(DYNhelp,1674)*DYNX(W_,8868)*DYNX(W_,8871)+DYNX(DYNhelp,1675)*(
+ DYNX(DYNhelp,1676)-DYNX(DYNhelp,1677))),"cos(building.thermalZone[1].HDirTilWall[2].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[2].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[2].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[2].incAng.inc...");
+DYNX(DYNhelp,1678) = cos(DYNX(W_,8864));
+DYNX(W_,8863) = RealBmax(0, DYNX(DYNhelp,1678)*DYNX(W_,8455));
+DYNX(W_,8610) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8901)+DYNX(DP_,251))*DYNX(W_,8901)+DYNX(DP_,250))*DYNX(W_,8901)+
- DYNX(DP_,249))*DYNX(W_,8901)+DYNX(DP_,248))*DYNX(W_,8901)+DYNX(DP_,247))*
- DYNX(W_,8901)+DYNX(DP_,246);
-DYNX(DYNhelp,1678) = sin(DYNX(W_,8901));
-DYNX(DYNhelp,1679) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1678)),
+ DYNX(W_,8864)+DYNX(DP_,251))*DYNX(W_,8864)+DYNX(DP_,250))*DYNX(W_,8864)+
+ DYNX(DP_,249))*DYNX(W_,8864)+DYNX(DP_,248))*DYNX(W_,8864)+DYNX(DP_,247))*
+ DYNX(W_,8864)+DYNX(DP_,246);
+DYNX(DYNhelp,1679) = sin(DYNX(W_,8864));
+DYNX(DYNhelp,1680) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1679)),
"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2");
-DYNX(DYNhelp,1680) = divinvGuarded(DYNX(DYNhelp,1679),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2)");
-DYNX(W_,8651) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1680),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2)");
-DYNX(W_,8655) = DYNX(W_,8647)*DYNX(W_,8651);
-DYNX(W_,8659) = 1-DYNX(W_,8647);
-DYNX(W_,8663) = divGuarded(DYNX(W_,8659),"building.thermalZone[1].corGMod.rho_T1_dir[2]",2
- -DYNX(W_,8659),"2-building.thermalZone[1].corGMod.rho_T1_dir[2]");
-DYNX(W_,8667) = DYNX(W_,8663)+divGuarded(sqr((1-DYNX(W_,8663))*DYNX(W_,8651))*
- DYNX(W_,8663),"((1-building.thermalZone[1].corGMod.rho_11_dir[2])*building.thermalZone[1].corGMod.Tai_dir[2])^2*building.thermalZone[1].corGMod.rho_11_dir[2]",1
- -sqr(DYNX(W_,8663)*DYNX(W_,8651)),"1-(building.thermalZone[1].corGMod.rho_11_dir[2]*building.thermalZone[1].corGMod.Tai_dir[2])^2");
-DYNX(W_,8671) = 1.0-sqr(DYNX(W_,8667));
-DYNX(W_,8675) = divGuarded(sqr(DYNX(W_,8655)),"building.thermalZone[1].corGMod.Ta1_dir[2]^2",
- DYNX(W_,8671),"building.thermalZone[1].corGMod.XN2_dir[2]");
-DYNX(W_,8679) = 1-(DYNX(W_,8655)+DYNX(W_,8667));
-DYNX(W_,8683) = 0.04*DYNX(W_,8679)*(1+divGuarded(DYNX(W_,8655)*DYNX(W_,8667),
+DYNX(DYNhelp,1681) = divinvGuarded(DYNX(DYNhelp,1680),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2)");
+DYNX(W_,8614) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1681),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[2]))^2)");
+DYNX(W_,8618) = DYNX(W_,8610)*DYNX(W_,8614);
+DYNX(W_,8622) = 1-DYNX(W_,8610);
+DYNX(W_,8626) = divGuarded(DYNX(W_,8622),"building.thermalZone[1].corGMod.rho_T1_dir[2]",2
+ -DYNX(W_,8622),"2-building.thermalZone[1].corGMod.rho_T1_dir[2]");
+DYNX(W_,8630) = DYNX(W_,8626)+divGuarded(sqr((1-DYNX(W_,8626))*DYNX(W_,8614))*
+ DYNX(W_,8626),"((1-building.thermalZone[1].corGMod.rho_11_dir[2])*building.thermalZone[1].corGMod.Tai_dir[2])^2*building.thermalZone[1].corGMod.rho_11_dir[2]",1
+ -sqr(DYNX(W_,8626)*DYNX(W_,8614)),"1-(building.thermalZone[1].corGMod.rho_11_dir[2]*building.thermalZone[1].corGMod.Tai_dir[2])^2");
+DYNX(W_,8634) = 1.0-sqr(DYNX(W_,8630));
+DYNX(W_,8638) = divGuarded(sqr(DYNX(W_,8618)),"building.thermalZone[1].corGMod.Ta1_dir[2]^2",
+ DYNX(W_,8634),"building.thermalZone[1].corGMod.XN2_dir[2]");
+DYNX(W_,8642) = 1-(DYNX(W_,8618)+DYNX(W_,8630));
+DYNX(W_,8646) = 0.04*DYNX(W_,8642)*(1+divGuarded(DYNX(W_,8618)*DYNX(W_,8630),
"building.thermalZone[1].corGMod.Ta1_dir[2]*building.thermalZone[1].corGMod.rho_1_dir[2]",
- DYNX(W_,8671),"building.thermalZone[1].corGMod.XN2_dir[2]"))*DYNX(W_,578);
-DYNX(W_,8687) = divGuarded(DYNX(W_,8679)*DYNX(W_,8655)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8634),"building.thermalZone[1].corGMod.XN2_dir[2]"))*DYNX(W_,578);
+DYNX(W_,8650) = divGuarded(DYNX(W_,8642)*DYNX(W_,8618)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[2]*building.thermalZone[1].corGMod.Ta1_dir[2]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8671),"building.thermalZone[1].corGMod.XN2_dir[2]");
-DYNX(W_,8691) = DYNX(W_,8683)+DYNX(W_,8687);
-DYNX(W_,8695) = DYNX(DYNhelp,4)*(DYNX(W_,8675)+DYNX(W_,8691));
-DYNX(W_,8772) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8771) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(DYNhelp,1681) = 1+DYNX(W_,8771);
-DYNX(W_,8770) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1), 1, 8, 0.01)")
+ DYNX(W_,8634),"building.thermalZone[1].corGMod.XN2_dir[2]");
+DYNX(W_,8654) = DYNX(W_,8646)+DYNX(W_,8650);
+DYNX(W_,8658) = DYNX(DYNhelp,4)*(DYNX(W_,8638)+DYNX(W_,8654));
+DYNX(W_,8735) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8734) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(DYNhelp,1682) = 1+DYNX(W_,8734);
+DYNX(W_,8733) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8772),"building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou",
- DYNX(W_,8772),"building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou")+
- DYNX(W_,8771),"(building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1",
- DYNX(DYNhelp,1681),"1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1"), 1,
+ DYNX(W_,8455)+DYNX(W_,8735),"building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou",
+ DYNX(W_,8735),"building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou")+
+ DYNX(W_,8734),"(building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1",
+ DYNX(DYNhelp,1682),"1+building.thermalZone[1].HDifTilWall[2].skyCle.tmp1"), 1,
8, 0.01));
PopModelContext();
-DYNX(W_,8788) = IF 1.23-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8770)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8770))*(sqr(100.0*(1.23-
- DYNX(W_,8770)))-3);
-DYNX(W_,8780) = IF 1.065-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8770)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8770))*(sqr(100.0*(1.065-
- DYNX(W_,8770)))-3);
-DYNX(W_,8781) = DYNX(W_,8788)-DYNX(W_,8780);
-DYNX(W_,8789) = IF 1.5-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8770))*(sqr(100.0*(1.5-DYNX(W_,8770)))
+DYNX(W_,8751) = IF 1.23-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8733)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8733))*(sqr(100.0*(1.23-
+ DYNX(W_,8733)))-3);
+DYNX(W_,8743) = IF 1.065-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8733)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8733))*(sqr(100.0*(1.065-
+ DYNX(W_,8733)))-3);
+DYNX(W_,8744) = DYNX(W_,8751)-DYNX(W_,8743);
+DYNX(W_,8752) = IF 1.5-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8733))*(sqr(100.0*(1.5-DYNX(W_,8733)))
-3);
-DYNX(W_,8782) = DYNX(W_,8789)-DYNX(W_,8788);
-DYNX(W_,8790) = IF 1.95-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8770)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8770))*(sqr(100.0*(1.95-
- DYNX(W_,8770)))-3);
-DYNX(W_,8783) = DYNX(W_,8790)-DYNX(W_,8789);
-DYNX(W_,8791) = IF 2.8-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8770))*(sqr(100.0*(2.8-DYNX(W_,8770)))
+DYNX(W_,8745) = DYNX(W_,8752)-DYNX(W_,8751);
+DYNX(W_,8753) = IF 1.95-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8733)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8733))*(sqr(100.0*(1.95-
+ DYNX(W_,8733)))-3);
+DYNX(W_,8746) = DYNX(W_,8753)-DYNX(W_,8752);
+DYNX(W_,8754) = IF 2.8-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8733))*(sqr(100.0*(2.8-DYNX(W_,8733)))
-3);
-DYNX(W_,8784) = DYNX(W_,8791)-DYNX(W_,8790);
-DYNX(W_,8792) = IF 4.5-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8770))*(sqr(100.0*(4.5-DYNX(W_,8770)))
+DYNX(W_,8747) = DYNX(W_,8754)-DYNX(W_,8753);
+DYNX(W_,8755) = IF 4.5-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8733))*(sqr(100.0*(4.5-DYNX(W_,8733)))
-3);
-DYNX(W_,8785) = DYNX(W_,8792)-DYNX(W_,8791);
-DYNX(W_,8793) = IF 6.2-DYNX(W_,8770) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8770) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8770))*(sqr(100.0*(6.2-DYNX(W_,8770)))
+DYNX(W_,8748) = DYNX(W_,8755)-DYNX(W_,8754);
+DYNX(W_,8756) = IF 6.2-DYNX(W_,8733) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8733) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8733))*(sqr(100.0*(6.2-DYNX(W_,8733)))
-3);
-DYNX(W_,8786) = DYNX(W_,8793)-DYNX(W_,8792);
-DYNX(W_,8787) = IF DYNX(W_,8770)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8770)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8770)-6.2)*(sqr(100.0*(DYNX(W_,8770)-6.2))
+DYNX(W_,8749) = DYNX(W_,8756)-DYNX(W_,8755);
+DYNX(W_,8750) = IF DYNX(W_,8733)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8733)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8733)-6.2)*(sqr(100.0*(DYNX(W_,8733)-6.2))
-3);
-DYNX(W_,8774) = 0.1299457*DYNX(W_,8781)-0.0083117*DYNX(W_,8780)+0.3296958*
- DYNX(W_,8782)+0.5682053*DYNX(W_,8783)+0.873028*DYNX(W_,8784)+1.1326077*
- DYNX(W_,8785)+1.0601591*DYNX(W_,8786)+0.677747*DYNX(W_,8787);
-DYNX(W_,8775) = 0.5877285*DYNX(W_,8780)+0.6825954*DYNX(W_,8781)+0.4868735*
- DYNX(W_,8782)+0.1874525*DYNX(W_,8783)-0.3920403*DYNX(W_,8784)-1.2367284*
- DYNX(W_,8785)-1.5999137*DYNX(W_,8786)-0.3272588*DYNX(W_,8787);
-DYNX(W_,8795) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8796) = 0.3183098861837907*DYNX(W_,8795)*180;
-DYNX(DYNhelp,1682) = cos(DYNX(W_,8795));
-DYNX(DYNhelp,1683) = DYNX(DYNhelp,1682)+0.15*powGuarded(93.9-DYNX(W_,8796),
+DYNX(W_,8737) = 0.1299457*DYNX(W_,8744)-0.0083117*DYNX(W_,8743)+0.3296958*
+ DYNX(W_,8745)+0.5682053*DYNX(W_,8746)+0.873028*DYNX(W_,8747)+1.1326077*
+ DYNX(W_,8748)+1.0601591*DYNX(W_,8749)+0.677747*DYNX(W_,8750);
+DYNX(W_,8738) = 0.5877285*DYNX(W_,8743)+0.6825954*DYNX(W_,8744)+0.4868735*
+ DYNX(W_,8745)+0.1874525*DYNX(W_,8746)-0.3920403*DYNX(W_,8747)-1.2367284*
+ DYNX(W_,8748)-1.5999137*DYNX(W_,8749)-0.3272588*DYNX(W_,8750);
+DYNX(W_,8758) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8759) = 0.3183098861837907*DYNX(W_,8758)*180;
+DYNX(DYNhelp,1683) = cos(DYNX(W_,8758));
+DYNX(DYNhelp,1684) = DYNX(DYNhelp,1683)+0.15*powGuarded(93.9-DYNX(W_,8759),
"93.9-building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg",-1.253,"-1.253");
-DYNX(DYNhelp,1684) = divinvGuarded(DYNX(DYNhelp,1683),"cos(building.thermalZone[1].HDifTilWall[2].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8794) = DYNX(DYNhelp,1684);
-DYNX(W_,8797) = 1+0.033*DYNX(DYNhelp,1656);
-DYNX(W_,8773) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),
+DYNX(DYNhelp,1685) = divinvGuarded(DYNX(DYNhelp,1684),"cos(building.thermalZone[1].HDifTilWall[2].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg)^(-1.253)");
+DYNX(W_,8757) = DYNX(DYNhelp,1685);
+DYNX(W_,8760) = 1+0.033*DYNX(DYNhelp,1657);
+DYNX(W_,8736) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),
"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8794),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8794),"0.5*(building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8797),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor");
-DYNX(W_,8776) = (-0.0620636)*DYNX(W_,8780)-0.1513725*DYNX(W_,8781)-0.2210958*
- DYNX(W_,8782)-0.295129*DYNX(W_,8783)-0.3616149*DYNX(W_,8784)-0.4118494*
- DYNX(W_,8785)-0.3589221*DYNX(W_,8786)-0.2504286*DYNX(W_,8787);
-DYNX(W_,8763) = IF -(DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8774)+DYNX(W_,8775)*
- DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8774)+
- DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8774)+DYNX(W_,8775)*DYNX(W_,8773)+DYNX(W_,8776)*DYNX(W_,8504));
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8757),"building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8757),"0.5*(building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8760),"1366.1*building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor");
+DYNX(W_,8739) = (-0.0620636)*DYNX(W_,8743)-0.1513725*DYNX(W_,8744)-0.2210958*
+ DYNX(W_,8745)-0.295129*DYNX(W_,8746)-0.3616149*DYNX(W_,8747)-0.4118494*
+ DYNX(W_,8748)-0.3589221*DYNX(W_,8749)-0.2504286*DYNX(W_,8750);
+DYNX(W_,8726) = IF -(DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8737)+DYNX(W_,8738)*
+ DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8737)+
+ DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8737)+DYNX(W_,8738)*DYNX(W_,8736)+DYNX(W_,8739)*DYNX(W_,8467));
beginwhenBlock
-whenModelica(DYNX(W_,676) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8289), 3),"pre(building.thermalZone[1].HDifTilWall[2].incAng.decAng.tNext)",
- 117), 33)
- DYNX(W_,8289) = IF DYNX(W_,676) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,676) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8249), 3),"pre(building.thermalZone[1].HDifTilWall[2].incAng.decAng.tNext)",
+ 125), 33)
+ DYNX(W_,8249) = IF DYNX(W_,676) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux",
DYNX(W_,675),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[2].incAng.decAng.lenWea",
13)*DYNX(W_,675)+DYNX(W_,675) ELSE DYNTime;
@@ -19976,86 +20034,86 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8798) = IF DYNX(W_,676) THEN DYNX(W_,8506)-DYNX(W_,8289)+DYNX(W_,675)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1685) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8798));
-DYNX(W_,8799) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1685),
+DYNX(W_,8761) = IF DYNX(W_,676) THEN DYNX(W_,8469)-DYNX(W_,8249)+DYNX(W_,675)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1686) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8761));
+DYNX(W_,8762) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1686),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[2].incAng.decAng.calTimAux)");
-DYNX(W_,8801) = cos(DYNX(W_,8799));
-DYNX(W_,8800) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8803) = cos(DYNX(W_,8800));
-DYNX(W_,8802) = sin(DYNX(W_,8799));
-DYNX(W_,8804) = sin(DYNX(W_,8800));
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(48);
+DYNX(W_,8764) = cos(DYNX(W_,8762));
+DYNX(W_,8763) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8766) = cos(DYNX(W_,8763));
+DYNX(W_,8765) = sin(DYNX(W_,8762));
+DYNX(W_,8767) = sin(DYNX(W_,8763));
if (NewParameters_) {
-DYNX(DYNhelp,1686) = cos(DYNX(W_,680));
+DYNX(DYNhelp,1687) = cos(DYNX(W_,680));
}
-DYNX(DYNhelp,1687) = DYNX(W_,8801)*DYNX(W_,8803);
+DYNX(DYNhelp,1688) = DYNX(W_,8764)*DYNX(W_,8766);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(48);
if (NewParameters_) {
-DYNX(DYNhelp,1688) = sin(DYNX(W_,680));
+DYNX(DYNhelp,1689) = sin(DYNX(W_,680));
}
if (NewParameters_) {
-DYNX(DYNhelp,1689) = sin(DYNX(W_,679));
+DYNX(DYNhelp,1690) = sin(DYNX(W_,679));
}
if (NewParameters_) {
-DYNX(DYNhelp,1690) = cos(DYNX(W_,679));
+DYNX(DYNhelp,1691) = cos(DYNX(W_,679));
}
-DYNX(DYNhelp,1691) = 0.7905412281389133*DYNX(DYNhelp,1687);
-DYNX(DYNhelp,1692) = 0.6124088231015443*DYNX(W_,8802);
-DYNX(W_,8765) = acosGuarded(DYNX(DYNhelp,1686)*(0.6124088231015443*
- DYNX(DYNhelp,1687)+0.7905412281389133*DYNX(W_,8802))+DYNX(DYNhelp,1688)*(
- DYNX(DYNhelp,1689)*DYNX(W_,8801)*DYNX(W_,8804)+DYNX(DYNhelp,1690)*(
- DYNX(DYNhelp,1691)-DYNX(DYNhelp,1692))),"cos(building.thermalZone[1].HDifTilWall[2].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[2].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[2].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[2].incAng.inc...");
-DYNX(W_,8768) = IF -cos(DYNX(W_,8765)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8765)) < -0.01 THEN cos(DYNX(W_,8765)) ELSE 0.5*cos(DYNX(W_,8765))-
- 25.0*cos(DYNX(W_,8765))*(sqr((-100.0)*cos(DYNX(W_,8765)))-3)*cos(DYNX(W_,8765));
-DYNX(W_,8769) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8777) = (-0.0596012)*DYNX(W_,8780)-0.0189325*DYNX(W_,8781)+0.055414*
- DYNX(W_,8782)+0.1088631*DYNX(W_,8783)+0.2255647*DYNX(W_,8784)+0.2877813*
- DYNX(W_,8785)+0.2642124*DYNX(W_,8786)+0.1561313*DYNX(W_,8787);
-DYNX(W_,8778) = 0.0721249*DYNX(W_,8780)+0.065965*DYNX(W_,8781)-0.0639588*
- DYNX(W_,8782)-0.1519229*DYNX(W_,8783)-0.4620442*DYNX(W_,8784)-0.8230357*
- DYNX(W_,8785)-1.127234*DYNX(W_,8786)-1.3765031*DYNX(W_,8787);
-DYNX(W_,8779) = (-0.0220216)*DYNX(W_,8780)-0.0288748*DYNX(W_,8781)-0.0260542*
- DYNX(W_,8782)-0.0139754*DYNX(W_,8783)+0.0012448*DYNX(W_,8784)+0.0558651*
- DYNX(W_,8785)+0.1310694*DYNX(W_,8786)+0.2506212*DYNX(W_,8787);
-DYNX(W_,8764) = DYNX(W_,8777)+DYNX(W_,8778)*DYNX(W_,8773)+DYNX(W_,8779)*
- DYNX(W_,8504);
-DYNX(DYNhelp,1693) = 1-DYNX(W_,8763);
+DYNX(DYNhelp,1692) = 0.7905412281389133*DYNX(DYNhelp,1688);
+DYNX(DYNhelp,1693) = 0.6124088231015443*DYNX(W_,8765);
+DYNX(W_,8728) = acosGuarded(DYNX(DYNhelp,1687)*(0.6124088231015443*
+ DYNX(DYNhelp,1688)+0.7905412281389133*DYNX(W_,8765))+DYNX(DYNhelp,1689)*(
+ DYNX(DYNhelp,1690)*DYNX(W_,8764)*DYNX(W_,8767)+DYNX(DYNhelp,1691)*(
+ DYNX(DYNhelp,1692)-DYNX(DYNhelp,1693))),"cos(building.thermalZone[1].HDifTilWall[2].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[2].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[2].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[2].incAng.inc...");
+DYNX(W_,8731) = IF -cos(DYNX(W_,8728)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8728)) < -0.01 THEN cos(DYNX(W_,8728)) ELSE 0.5*cos(DYNX(W_,8728))-
+ 25.0*cos(DYNX(W_,8728))*(sqr((-100.0)*cos(DYNX(W_,8728)))-3)*cos(DYNX(W_,8728));
+DYNX(W_,8732) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8740) = (-0.0596012)*DYNX(W_,8743)-0.0189325*DYNX(W_,8744)+0.055414*
+ DYNX(W_,8745)+0.1088631*DYNX(W_,8746)+0.2255647*DYNX(W_,8747)+0.2877813*
+ DYNX(W_,8748)+0.2642124*DYNX(W_,8749)+0.1561313*DYNX(W_,8750);
+DYNX(W_,8741) = 0.0721249*DYNX(W_,8743)+0.065965*DYNX(W_,8744)-0.0639588*
+ DYNX(W_,8745)-0.1519229*DYNX(W_,8746)-0.4620442*DYNX(W_,8747)-0.8230357*
+ DYNX(W_,8748)-1.127234*DYNX(W_,8749)-1.3765031*DYNX(W_,8750);
+DYNX(W_,8742) = (-0.0220216)*DYNX(W_,8743)-0.0288748*DYNX(W_,8744)-0.0260542*
+ DYNX(W_,8745)-0.0139754*DYNX(W_,8746)+0.0012448*DYNX(W_,8747)+0.0558651*
+ DYNX(W_,8748)+0.1310694*DYNX(W_,8749)+0.2506212*DYNX(W_,8750);
+DYNX(W_,8727) = DYNX(W_,8740)+DYNX(W_,8741)*DYNX(W_,8736)+DYNX(W_,8742)*
+ DYNX(W_,8467);
+DYNX(DYNhelp,1694) = 1-DYNX(W_,8726);
if (NewParameters_) {
-DYNX(DYNhelp,1694) = cos(DYNX(W_,663));
+DYNX(DYNhelp,1695) = cos(DYNX(W_,663));
}
-DYNX(DYNhelp,1695) = 1+DYNX(DYNhelp,1694);
+DYNX(DYNhelp,1696) = 1+DYNX(DYNhelp,1695);
if (NewParameters_) {
-DYNX(DYNhelp,1696) = sin(DYNX(W_,663));
+DYNX(DYNhelp,1697) = sin(DYNX(W_,663));
}
-DYNX(W_,8767) = DYNX(W_,8494)*(0.5*DYNX(DYNhelp,1693)*DYNX(DYNhelp,1695)+
- divGuarded(DYNX(W_,8763)*DYNX(W_,8768),"building.thermalZone[1].HDifTilWall[2].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[2].HDifTil.a",
- DYNX(W_,8769),"building.thermalZone[1].HDifTilWall[2].HDifTil.b")+
- DYNX(W_,8764)*DYNX(DYNhelp,1696));
-DYNX(W_,8766) = 0.5*DYNX(W_,8493)*DYNX(W_,662)*(1-DYNX(DYNhelp,1694));
-DYNX(W_,8643) = DYNX(W_,8900)*DYNX(W_,8695)+DYNX(W_,8767)*DYNX(W_,589)+
- DYNX(W_,8766)*DYNX(W_,590);
-DYNX(W_,8762) = DYNX(DP_,267)*DYNX(W_,8767)+DYNX(DP_,268)*DYNX(W_,8766);
-DYNX(W_,9002) = DYNX(DP_,311)*DYNX(W_,8900)+DYNX(DP_,312)*DYNX(W_,8762);
-DYNX(W_,8298) = Greater(DYNX(W_,9002),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].u",
+DYNX(W_,8730) = DYNX(W_,8457)*(0.5*DYNX(DYNhelp,1694)*DYNX(DYNhelp,1696)+
+ divGuarded(DYNX(W_,8726)*DYNX(W_,8731),"building.thermalZone[1].HDifTilWall[2].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[2].HDifTil.a",
+ DYNX(W_,8732),"building.thermalZone[1].HDifTilWall[2].HDifTil.b")+
+ DYNX(W_,8727)*DYNX(DYNhelp,1697));
+DYNX(W_,8729) = 0.5*DYNX(W_,8456)*DYNX(W_,662)*(1-DYNX(DYNhelp,1695));
+DYNX(W_,8606) = DYNX(W_,8863)*DYNX(W_,8658)+DYNX(W_,8730)*DYNX(W_,589)+
+ DYNX(W_,8729)*DYNX(W_,590);
+DYNX(W_,8725) = DYNX(DP_,267)*DYNX(W_,8730)+DYNX(DP_,268)*DYNX(W_,8729);
+DYNX(W_,8965) = DYNX(DP_,311)*DYNX(W_,8863)+DYNX(DP_,312)*DYNX(W_,8725);
+DYNX(W_,8258) = Greater(DYNX(W_,8965),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].u",
DYNX(W_,847),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].threshold",
24);
-DYNX(W_,8285) = IF DYNX(W_,8298) THEN DYNX(W_,851) ELSE DYNX(DP_,290);
-DYNX(W_,8515) = DYNX(W_,8643)*DYNX(W_,8285);
-DYNX(W_,8556) = DYNX(W_,443)*DYNX(W_,8515);
+DYNX(W_,8245) = IF DYNX(W_,8258) THEN DYNX(W_,851) ELSE DYNX(DP_,290);
+DYNX(W_,8478) = DYNX(W_,8606)*DYNX(W_,8245);
+DYNX(W_,8519) = DYNX(W_,443)*DYNX(W_,8478);
beginwhenBlock
-whenModelica(DYNX(W_,791) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8294), 9),"pre(building.thermalZone[1].HDirTilWall[3].incAng.decAng.tNext)",
- 118), 34)
- DYNX(W_,8294) = IF DYNX(W_,791) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,791) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8254), 9),"pre(building.thermalZone[1].HDirTilWall[3].incAng.decAng.tNext)",
+ 126), 34)
+ DYNX(W_,8254) = IF DYNX(W_,791) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux",
DYNX(W_,790),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[3].incAng.decAng.lenWea",
14)*DYNX(W_,790)+DYNX(W_,790) ELSE DYNTime;
@@ -20063,161 +20121,161 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8911) = IF DYNX(W_,791) THEN DYNX(W_,8506)-DYNX(W_,8294)+DYNX(W_,790)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1697) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8911));
-DYNX(W_,8912) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1697),
+DYNX(W_,8874) = IF DYNX(W_,791) THEN DYNX(W_,8469)-DYNX(W_,8254)+DYNX(W_,790)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1698) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8874));
+DYNX(W_,8875) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1698),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[3].incAng.decAng.calTimAux)");
-DYNX(W_,8914) = cos(DYNX(W_,8912));
-DYNX(W_,8913) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8916) = cos(DYNX(W_,8913));
-DYNX(W_,8915) = sin(DYNX(W_,8912));
-DYNX(W_,8917) = sin(DYNX(W_,8913));
+DYNX(W_,8877) = cos(DYNX(W_,8875));
+DYNX(W_,8876) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8879) = cos(DYNX(W_,8876));
+DYNX(W_,8878) = sin(DYNX(W_,8875));
+DYNX(W_,8880) = sin(DYNX(W_,8876));
if (NewParameters_) {
-DYNX(DYNhelp,1698) = cos(DYNX(W_,795));
+DYNX(DYNhelp,1699) = cos(DYNX(W_,795));
}
-DYNX(DYNhelp,1699) = DYNX(W_,8914)*DYNX(W_,8916);
+DYNX(DYNhelp,1700) = DYNX(W_,8877)*DYNX(W_,8879);
if (NewParameters_) {
-DYNX(DYNhelp,1700) = sin(DYNX(W_,795));
+DYNX(DYNhelp,1701) = sin(DYNX(W_,795));
}
if (NewParameters_) {
-DYNX(DYNhelp,1701) = sin(DYNX(W_,794));
+DYNX(DYNhelp,1702) = sin(DYNX(W_,794));
}
if (NewParameters_) {
-DYNX(DYNhelp,1702) = cos(DYNX(W_,794));
+DYNX(DYNhelp,1703) = cos(DYNX(W_,794));
}
-DYNX(DYNhelp,1703) = 0.7905412281389133*DYNX(DYNhelp,1699);
-DYNX(DYNhelp,1704) = 0.6124088231015443*DYNX(W_,8915);
-DYNX(W_,8910) = acosGuarded(DYNX(DYNhelp,1698)*(0.6124088231015443*
- DYNX(DYNhelp,1699)+0.7905412281389133*DYNX(W_,8915))+DYNX(DYNhelp,1700)*(
- DYNX(DYNhelp,1701)*DYNX(W_,8914)*DYNX(W_,8917)+DYNX(DYNhelp,1702)*(
- DYNX(DYNhelp,1703)-DYNX(DYNhelp,1704))),"cos(building.thermalZone[1].HDirTilWall[3].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[3].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[3].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[3].incAng.inc...");
-DYNX(DYNhelp,1705) = cos(DYNX(W_,8910));
-DYNX(W_,8909) = RealBmax(0, DYNX(DYNhelp,1705)*DYNX(W_,8492));
-DYNX(W_,8648) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(DYNhelp,1704) = 0.7905412281389133*DYNX(DYNhelp,1700);
+DYNX(DYNhelp,1705) = 0.6124088231015443*DYNX(W_,8878);
+DYNX(W_,8873) = acosGuarded(DYNX(DYNhelp,1699)*(0.6124088231015443*
+ DYNX(DYNhelp,1700)+0.7905412281389133*DYNX(W_,8878))+DYNX(DYNhelp,1701)*(
+ DYNX(DYNhelp,1702)*DYNX(W_,8877)*DYNX(W_,8880)+DYNX(DYNhelp,1703)*(
+ DYNX(DYNhelp,1704)-DYNX(DYNhelp,1705))),"cos(building.thermalZone[1].HDirTilWall[3].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[3].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[3].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[3].incAng.inc...");
+DYNX(DYNhelp,1706) = cos(DYNX(W_,8873));
+DYNX(W_,8872) = RealBmax(0, DYNX(DYNhelp,1706)*DYNX(W_,8455));
+DYNX(W_,8611) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8910)+DYNX(DP_,251))*DYNX(W_,8910)+DYNX(DP_,250))*DYNX(W_,8910)+
- DYNX(DP_,249))*DYNX(W_,8910)+DYNX(DP_,248))*DYNX(W_,8910)+DYNX(DP_,247))*
- DYNX(W_,8910)+DYNX(DP_,246);
-DYNX(DYNhelp,1706) = sin(DYNX(W_,8910));
-DYNX(DYNhelp,1707) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1706)),
+ DYNX(W_,8873)+DYNX(DP_,251))*DYNX(W_,8873)+DYNX(DP_,250))*DYNX(W_,8873)+
+ DYNX(DP_,249))*DYNX(W_,8873)+DYNX(DP_,248))*DYNX(W_,8873)+DYNX(DP_,247))*
+ DYNX(W_,8873)+DYNX(DP_,246);
+DYNX(DYNhelp,1707) = sin(DYNX(W_,8873));
+DYNX(DYNhelp,1708) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1707)),
"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2");
-DYNX(DYNhelp,1708) = divinvGuarded(DYNX(DYNhelp,1707),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2)");
-DYNX(W_,8652) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1708),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2)");
-DYNX(W_,8656) = DYNX(W_,8648)*DYNX(W_,8652);
-DYNX(W_,8660) = 1-DYNX(W_,8648);
-DYNX(W_,8664) = divGuarded(DYNX(W_,8660),"building.thermalZone[1].corGMod.rho_T1_dir[3]",2
- -DYNX(W_,8660),"2-building.thermalZone[1].corGMod.rho_T1_dir[3]");
-DYNX(W_,8668) = DYNX(W_,8664)+divGuarded(sqr((1-DYNX(W_,8664))*DYNX(W_,8652))*
- DYNX(W_,8664),"((1-building.thermalZone[1].corGMod.rho_11_dir[3])*building.thermalZone[1].corGMod.Tai_dir[3])^2*building.thermalZone[1].corGMod.rho_11_dir[3]",1
- -sqr(DYNX(W_,8664)*DYNX(W_,8652)),"1-(building.thermalZone[1].corGMod.rho_11_dir[3]*building.thermalZone[1].corGMod.Tai_dir[3])^2");
-DYNX(W_,8672) = 1.0-sqr(DYNX(W_,8668));
-DYNX(W_,8676) = divGuarded(sqr(DYNX(W_,8656)),"building.thermalZone[1].corGMod.Ta1_dir[3]^2",
- DYNX(W_,8672),"building.thermalZone[1].corGMod.XN2_dir[3]");
-DYNX(W_,8680) = 1-(DYNX(W_,8656)+DYNX(W_,8668));
-DYNX(W_,8684) = 0.04*DYNX(W_,8680)*(1+divGuarded(DYNX(W_,8656)*DYNX(W_,8668),
+DYNX(DYNhelp,1709) = divinvGuarded(DYNX(DYNhelp,1708),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2)");
+DYNX(W_,8615) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1709),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[3]))^2)");
+DYNX(W_,8619) = DYNX(W_,8611)*DYNX(W_,8615);
+DYNX(W_,8623) = 1-DYNX(W_,8611);
+DYNX(W_,8627) = divGuarded(DYNX(W_,8623),"building.thermalZone[1].corGMod.rho_T1_dir[3]",2
+ -DYNX(W_,8623),"2-building.thermalZone[1].corGMod.rho_T1_dir[3]");
+DYNX(W_,8631) = DYNX(W_,8627)+divGuarded(sqr((1-DYNX(W_,8627))*DYNX(W_,8615))*
+ DYNX(W_,8627),"((1-building.thermalZone[1].corGMod.rho_11_dir[3])*building.thermalZone[1].corGMod.Tai_dir[3])^2*building.thermalZone[1].corGMod.rho_11_dir[3]",1
+ -sqr(DYNX(W_,8627)*DYNX(W_,8615)),"1-(building.thermalZone[1].corGMod.rho_11_dir[3]*building.thermalZone[1].corGMod.Tai_dir[3])^2");
+DYNX(W_,8635) = 1.0-sqr(DYNX(W_,8631));
+DYNX(W_,8639) = divGuarded(sqr(DYNX(W_,8619)),"building.thermalZone[1].corGMod.Ta1_dir[3]^2",
+ DYNX(W_,8635),"building.thermalZone[1].corGMod.XN2_dir[3]");
+DYNX(W_,8643) = 1-(DYNX(W_,8619)+DYNX(W_,8631));
+DYNX(W_,8647) = 0.04*DYNX(W_,8643)*(1+divGuarded(DYNX(W_,8619)*DYNX(W_,8631),
"building.thermalZone[1].corGMod.Ta1_dir[3]*building.thermalZone[1].corGMod.rho_1_dir[3]",
- DYNX(W_,8672),"building.thermalZone[1].corGMod.XN2_dir[3]"))*DYNX(W_,578);
-DYNX(W_,8688) = divGuarded(DYNX(W_,8680)*DYNX(W_,8656)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8635),"building.thermalZone[1].corGMod.XN2_dir[3]"))*DYNX(W_,578);
+DYNX(W_,8651) = divGuarded(DYNX(W_,8643)*DYNX(W_,8619)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[3]*building.thermalZone[1].corGMod.Ta1_dir[3]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8672),"building.thermalZone[1].corGMod.XN2_dir[3]");
-DYNX(W_,8692) = DYNX(W_,8684)+DYNX(W_,8688);
-DYNX(W_,8696) = DYNX(DYNhelp,4)*(DYNX(W_,8676)+DYNX(W_,8692));
-DYNX(W_,8815) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8814) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(DYNhelp,1709) = 1+DYNX(W_,8814);
-DYNX(W_,8813) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1), 1, 8, 0.01)")
+ DYNX(W_,8635),"building.thermalZone[1].corGMod.XN2_dir[3]");
+DYNX(W_,8655) = DYNX(W_,8647)+DYNX(W_,8651);
+DYNX(W_,8659) = DYNX(DYNhelp,4)*(DYNX(W_,8639)+DYNX(W_,8655));
+DYNX(W_,8778) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8777) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(DYNhelp,1710) = 1+DYNX(W_,8777);
+DYNX(W_,8776) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8815),"building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou",
- DYNX(W_,8815),"building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou")+
- DYNX(W_,8814),"(building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1",
- DYNX(DYNhelp,1709),"1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1"), 1,
+ DYNX(W_,8455)+DYNX(W_,8778),"building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou",
+ DYNX(W_,8778),"building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou")+
+ DYNX(W_,8777),"(building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1",
+ DYNX(DYNhelp,1710),"1+building.thermalZone[1].HDifTilWall[3].skyCle.tmp1"), 1,
8, 0.01));
PopModelContext();
-DYNX(W_,8831) = IF 1.23-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8813)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8813))*(sqr(100.0*(1.23-
- DYNX(W_,8813)))-3);
-DYNX(W_,8823) = IF 1.065-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8813)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8813))*(sqr(100.0*(1.065-
- DYNX(W_,8813)))-3);
-DYNX(W_,8824) = DYNX(W_,8831)-DYNX(W_,8823);
-DYNX(W_,8832) = IF 1.5-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8813))*(sqr(100.0*(1.5-DYNX(W_,8813)))
+DYNX(W_,8794) = IF 1.23-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8776)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8776))*(sqr(100.0*(1.23-
+ DYNX(W_,8776)))-3);
+DYNX(W_,8786) = IF 1.065-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8776)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8776))*(sqr(100.0*(1.065-
+ DYNX(W_,8776)))-3);
+DYNX(W_,8787) = DYNX(W_,8794)-DYNX(W_,8786);
+DYNX(W_,8795) = IF 1.5-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8776))*(sqr(100.0*(1.5-DYNX(W_,8776)))
-3);
-DYNX(W_,8825) = DYNX(W_,8832)-DYNX(W_,8831);
-DYNX(W_,8833) = IF 1.95-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8813)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8813))*(sqr(100.0*(1.95-
- DYNX(W_,8813)))-3);
-DYNX(W_,8826) = DYNX(W_,8833)-DYNX(W_,8832);
-DYNX(W_,8834) = IF 2.8-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8813))*(sqr(100.0*(2.8-DYNX(W_,8813)))
+DYNX(W_,8788) = DYNX(W_,8795)-DYNX(W_,8794);
+DYNX(W_,8796) = IF 1.95-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8776)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8776))*(sqr(100.0*(1.95-
+ DYNX(W_,8776)))-3);
+DYNX(W_,8789) = DYNX(W_,8796)-DYNX(W_,8795);
+DYNX(W_,8797) = IF 2.8-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8776))*(sqr(100.0*(2.8-DYNX(W_,8776)))
-3);
-DYNX(W_,8827) = DYNX(W_,8834)-DYNX(W_,8833);
-DYNX(W_,8835) = IF 4.5-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8813))*(sqr(100.0*(4.5-DYNX(W_,8813)))
+DYNX(W_,8790) = DYNX(W_,8797)-DYNX(W_,8796);
+DYNX(W_,8798) = IF 4.5-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8776))*(sqr(100.0*(4.5-DYNX(W_,8776)))
-3);
-DYNX(W_,8828) = DYNX(W_,8835)-DYNX(W_,8834);
-DYNX(W_,8836) = IF 6.2-DYNX(W_,8813) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8813) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8813))*(sqr(100.0*(6.2-DYNX(W_,8813)))
+DYNX(W_,8791) = DYNX(W_,8798)-DYNX(W_,8797);
+DYNX(W_,8799) = IF 6.2-DYNX(W_,8776) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8776) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8776))*(sqr(100.0*(6.2-DYNX(W_,8776)))
-3);
-DYNX(W_,8829) = DYNX(W_,8836)-DYNX(W_,8835);
-DYNX(W_,8830) = IF DYNX(W_,8813)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8813)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8813)-6.2)*(sqr(100.0*(DYNX(W_,8813)-6.2))
+DYNX(W_,8792) = DYNX(W_,8799)-DYNX(W_,8798);
+DYNX(W_,8793) = IF DYNX(W_,8776)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8776)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8776)-6.2)*(sqr(100.0*(DYNX(W_,8776)-6.2))
-3);
-DYNX(W_,8817) = 0.1299457*DYNX(W_,8824)-0.0083117*DYNX(W_,8823)+0.3296958*
- DYNX(W_,8825)+0.5682053*DYNX(W_,8826)+0.873028*DYNX(W_,8827)+1.1326077*
- DYNX(W_,8828)+1.0601591*DYNX(W_,8829)+0.677747*DYNX(W_,8830);
-DYNX(W_,8818) = 0.5877285*DYNX(W_,8823)+0.6825954*DYNX(W_,8824)+0.4868735*
- DYNX(W_,8825)+0.1874525*DYNX(W_,8826)-0.3920403*DYNX(W_,8827)-1.2367284*
- DYNX(W_,8828)-1.5999137*DYNX(W_,8829)-0.3272588*DYNX(W_,8830);
-DYNX(W_,8838) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8839) = 0.3183098861837907*DYNX(W_,8838)*180;
-DYNX(DYNhelp,1710) = cos(DYNX(W_,8838));
-DYNX(DYNhelp,1711) = DYNX(DYNhelp,1710)+0.15*powGuarded(93.9-DYNX(W_,8839),
+DYNX(W_,8780) = 0.1299457*DYNX(W_,8787)-0.0083117*DYNX(W_,8786)+0.3296958*
+ DYNX(W_,8788)+0.5682053*DYNX(W_,8789)+0.873028*DYNX(W_,8790)+1.1326077*
+ DYNX(W_,8791)+1.0601591*DYNX(W_,8792)+0.677747*DYNX(W_,8793);
+DYNX(W_,8781) = 0.5877285*DYNX(W_,8786)+0.6825954*DYNX(W_,8787)+0.4868735*
+ DYNX(W_,8788)+0.1874525*DYNX(W_,8789)-0.3920403*DYNX(W_,8790)-1.2367284*
+ DYNX(W_,8791)-1.5999137*DYNX(W_,8792)-0.3272588*DYNX(W_,8793);
+DYNX(W_,8801) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8802) = 0.3183098861837907*DYNX(W_,8801)*180;
+DYNX(DYNhelp,1711) = cos(DYNX(W_,8801));
+DYNX(DYNhelp,1712) = DYNX(DYNhelp,1711)+0.15*powGuarded(93.9-DYNX(W_,8802),
"93.9-building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg",-1.253,"-1.253");
-DYNX(DYNhelp,1712) = divinvGuarded(DYNX(DYNhelp,1711),"cos(building.thermalZone[1].HDifTilWall[3].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8837) = DYNX(DYNhelp,1712);
-DYNX(W_,8840) = 1+0.033*DYNX(DYNhelp,1656);
-DYNX(W_,8816) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),
+DYNX(DYNhelp,1713) = divinvGuarded(DYNX(DYNhelp,1712),"cos(building.thermalZone[1].HDifTilWall[3].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg)^(-1.253)");
+DYNX(W_,8800) = DYNX(DYNhelp,1713);
+DYNX(W_,8803) = 1+0.033*DYNX(DYNhelp,1657);
+DYNX(W_,8779) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),
"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8837),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8837),"0.5*(building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8840),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor");
-DYNX(W_,8819) = (-0.0620636)*DYNX(W_,8823)-0.1513725*DYNX(W_,8824)-0.2210958*
- DYNX(W_,8825)-0.295129*DYNX(W_,8826)-0.3616149*DYNX(W_,8827)-0.4118494*
- DYNX(W_,8828)-0.3589221*DYNX(W_,8829)-0.2504286*DYNX(W_,8830);
-DYNX(W_,8806) = IF -(DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8817)+DYNX(W_,8818)*
- DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8817)+
- DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8817)+DYNX(W_,8818)*DYNX(W_,8816)+DYNX(W_,8819)*DYNX(W_,8504));
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8800),"building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8800),"0.5*(building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8803),"1366.1*building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor");
+DYNX(W_,8782) = (-0.0620636)*DYNX(W_,8786)-0.1513725*DYNX(W_,8787)-0.2210958*
+ DYNX(W_,8788)-0.295129*DYNX(W_,8789)-0.3616149*DYNX(W_,8790)-0.4118494*
+ DYNX(W_,8791)-0.3589221*DYNX(W_,8792)-0.2504286*DYNX(W_,8793);
+DYNX(W_,8769) = IF -(DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8780)+DYNX(W_,8781)*
+ DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8780)+
+ DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8780)+DYNX(W_,8781)*DYNX(W_,8779)+DYNX(W_,8782)*DYNX(W_,8467));
beginwhenBlock
-whenModelica(DYNX(W_,705) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8290), 4),"pre(building.thermalZone[1].HDifTilWall[3].incAng.decAng.tNext)",
- 119), 35)
- DYNX(W_,8290) = IF DYNX(W_,705) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,705) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8250), 4),"pre(building.thermalZone[1].HDifTilWall[3].incAng.decAng.tNext)",
+ 127), 35)
+ DYNX(W_,8250) = IF DYNX(W_,705) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux",
DYNX(W_,704),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[3].incAng.decAng.lenWea",
15)*DYNX(W_,704)+DYNX(W_,704) ELSE DYNTime;
@@ -20225,84 +20283,84 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8841) = IF DYNX(W_,705) THEN DYNX(W_,8506)-DYNX(W_,8290)+DYNX(W_,704)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1713) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8841));
-DYNX(W_,8842) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1713),
+DYNX(W_,8804) = IF DYNX(W_,705) THEN DYNX(W_,8469)-DYNX(W_,8250)+DYNX(W_,704)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1714) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8804));
+DYNX(W_,8805) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1714),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[3].incAng.decAng.calTimAux)");
-DYNX(W_,8844) = cos(DYNX(W_,8842));
-DYNX(W_,8843) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8846) = cos(DYNX(W_,8843));
-DYNX(W_,8845) = sin(DYNX(W_,8842));
-DYNX(W_,8847) = sin(DYNX(W_,8843));
+DYNX(W_,8807) = cos(DYNX(W_,8805));
+DYNX(W_,8806) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8809) = cos(DYNX(W_,8806));
+DYNX(W_,8808) = sin(DYNX(W_,8805));
+DYNX(W_,8810) = sin(DYNX(W_,8806));
if (NewParameters_) {
-DYNX(DYNhelp,1714) = cos(DYNX(W_,709));
+DYNX(DYNhelp,1715) = cos(DYNX(W_,709));
}
-DYNX(DYNhelp,1715) = DYNX(W_,8844)*DYNX(W_,8846);
+DYNX(DYNhelp,1716) = DYNX(W_,8807)*DYNX(W_,8809);
if (NewParameters_) {
-DYNX(DYNhelp,1716) = sin(DYNX(W_,709));
+DYNX(DYNhelp,1717) = sin(DYNX(W_,709));
}
if (NewParameters_) {
-DYNX(DYNhelp,1717) = sin(DYNX(W_,708));
+DYNX(DYNhelp,1718) = sin(DYNX(W_,708));
}
if (NewParameters_) {
-DYNX(DYNhelp,1718) = cos(DYNX(W_,708));
+DYNX(DYNhelp,1719) = cos(DYNX(W_,708));
}
-DYNX(DYNhelp,1719) = 0.7905412281389133*DYNX(DYNhelp,1715);
-DYNX(DYNhelp,1720) = 0.6124088231015443*DYNX(W_,8845);
-DYNX(W_,8808) = acosGuarded(DYNX(DYNhelp,1714)*(0.6124088231015443*
- DYNX(DYNhelp,1715)+0.7905412281389133*DYNX(W_,8845))+DYNX(DYNhelp,1716)*(
- DYNX(DYNhelp,1717)*DYNX(W_,8844)*DYNX(W_,8847)+DYNX(DYNhelp,1718)*(
- DYNX(DYNhelp,1719)-DYNX(DYNhelp,1720))),"cos(building.thermalZone[1].HDifTilWall[3].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[3].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[3].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[3].incAng.inc...");
-DYNX(W_,8811) = IF -cos(DYNX(W_,8808)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8808)) < -0.01 THEN cos(DYNX(W_,8808)) ELSE 0.5*cos(DYNX(W_,8808))-
- 25.0*cos(DYNX(W_,8808))*(sqr((-100.0)*cos(DYNX(W_,8808)))-3)*cos(DYNX(W_,8808));
-DYNX(W_,8812) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8820) = (-0.0596012)*DYNX(W_,8823)-0.0189325*DYNX(W_,8824)+0.055414*
- DYNX(W_,8825)+0.1088631*DYNX(W_,8826)+0.2255647*DYNX(W_,8827)+0.2877813*
- DYNX(W_,8828)+0.2642124*DYNX(W_,8829)+0.1561313*DYNX(W_,8830);
-DYNX(W_,8821) = 0.0721249*DYNX(W_,8823)+0.065965*DYNX(W_,8824)-0.0639588*
- DYNX(W_,8825)-0.1519229*DYNX(W_,8826)-0.4620442*DYNX(W_,8827)-0.8230357*
- DYNX(W_,8828)-1.127234*DYNX(W_,8829)-1.3765031*DYNX(W_,8830);
-DYNX(W_,8822) = (-0.0220216)*DYNX(W_,8823)-0.0288748*DYNX(W_,8824)-0.0260542*
- DYNX(W_,8825)-0.0139754*DYNX(W_,8826)+0.0012448*DYNX(W_,8827)+0.0558651*
- DYNX(W_,8828)+0.1310694*DYNX(W_,8829)+0.2506212*DYNX(W_,8830);
-DYNX(W_,8807) = DYNX(W_,8820)+DYNX(W_,8821)*DYNX(W_,8816)+DYNX(W_,8822)*
- DYNX(W_,8504);
-DYNX(DYNhelp,1721) = 1-DYNX(W_,8806);
+DYNX(DYNhelp,1720) = 0.7905412281389133*DYNX(DYNhelp,1716);
+DYNX(DYNhelp,1721) = 0.6124088231015443*DYNX(W_,8808);
+DYNX(W_,8771) = acosGuarded(DYNX(DYNhelp,1715)*(0.6124088231015443*
+ DYNX(DYNhelp,1716)+0.7905412281389133*DYNX(W_,8808))+DYNX(DYNhelp,1717)*(
+ DYNX(DYNhelp,1718)*DYNX(W_,8807)*DYNX(W_,8810)+DYNX(DYNhelp,1719)*(
+ DYNX(DYNhelp,1720)-DYNX(DYNhelp,1721))),"cos(building.thermalZone[1].HDifTilWall[3].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[3].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[3].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[3].incAng.inc...");
+DYNX(W_,8774) = IF -cos(DYNX(W_,8771)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8771)) < -0.01 THEN cos(DYNX(W_,8771)) ELSE 0.5*cos(DYNX(W_,8771))-
+ 25.0*cos(DYNX(W_,8771))*(sqr((-100.0)*cos(DYNX(W_,8771)))-3)*cos(DYNX(W_,8771));
+DYNX(W_,8775) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8783) = (-0.0596012)*DYNX(W_,8786)-0.0189325*DYNX(W_,8787)+0.055414*
+ DYNX(W_,8788)+0.1088631*DYNX(W_,8789)+0.2255647*DYNX(W_,8790)+0.2877813*
+ DYNX(W_,8791)+0.2642124*DYNX(W_,8792)+0.1561313*DYNX(W_,8793);
+DYNX(W_,8784) = 0.0721249*DYNX(W_,8786)+0.065965*DYNX(W_,8787)-0.0639588*
+ DYNX(W_,8788)-0.1519229*DYNX(W_,8789)-0.4620442*DYNX(W_,8790)-0.8230357*
+ DYNX(W_,8791)-1.127234*DYNX(W_,8792)-1.3765031*DYNX(W_,8793);
+DYNX(W_,8785) = (-0.0220216)*DYNX(W_,8786)-0.0288748*DYNX(W_,8787)-0.0260542*
+ DYNX(W_,8788)-0.0139754*DYNX(W_,8789)+0.0012448*DYNX(W_,8790)+0.0558651*
+ DYNX(W_,8791)+0.1310694*DYNX(W_,8792)+0.2506212*DYNX(W_,8793);
+DYNX(W_,8770) = DYNX(W_,8783)+DYNX(W_,8784)*DYNX(W_,8779)+DYNX(W_,8785)*
+ DYNX(W_,8467);
+DYNX(DYNhelp,1722) = 1-DYNX(W_,8769);
if (NewParameters_) {
-DYNX(DYNhelp,1722) = cos(DYNX(W_,692));
+DYNX(DYNhelp,1723) = cos(DYNX(W_,692));
}
-DYNX(DYNhelp,1723) = 1+DYNX(DYNhelp,1722);
+DYNX(DYNhelp,1724) = 1+DYNX(DYNhelp,1723);
if (NewParameters_) {
-DYNX(DYNhelp,1724) = sin(DYNX(W_,692));
+DYNX(DYNhelp,1725) = sin(DYNX(W_,692));
}
-DYNX(W_,8810) = DYNX(W_,8494)*(0.5*DYNX(DYNhelp,1721)*DYNX(DYNhelp,1723)+
- divGuarded(DYNX(W_,8806)*DYNX(W_,8811),"building.thermalZone[1].HDifTilWall[3].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[3].HDifTil.a",
- DYNX(W_,8812),"building.thermalZone[1].HDifTilWall[3].HDifTil.b")+
- DYNX(W_,8807)*DYNX(DYNhelp,1724));
-DYNX(W_,8809) = 0.5*DYNX(W_,8493)*DYNX(W_,691)*(1-DYNX(DYNhelp,1722));
-DYNX(W_,8644) = DYNX(W_,8909)*DYNX(W_,8696)+DYNX(W_,8810)*DYNX(W_,589)+
- DYNX(W_,8809)*DYNX(W_,590);
-DYNX(W_,8805) = DYNX(DP_,272)*DYNX(W_,8810)+DYNX(DP_,273)*DYNX(W_,8809);
-DYNX(W_,9003) = DYNX(DP_,313)*DYNX(W_,8909)+DYNX(DP_,314)*DYNX(W_,8805);
-DYNX(W_,8299) = Greater(DYNX(W_,9003),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].u",
+DYNX(W_,8773) = DYNX(W_,8457)*(0.5*DYNX(DYNhelp,1722)*DYNX(DYNhelp,1724)+
+ divGuarded(DYNX(W_,8769)*DYNX(W_,8774),"building.thermalZone[1].HDifTilWall[3].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[3].HDifTil.a",
+ DYNX(W_,8775),"building.thermalZone[1].HDifTilWall[3].HDifTil.b")+
+ DYNX(W_,8770)*DYNX(DYNhelp,1725));
+DYNX(W_,8772) = 0.5*DYNX(W_,8456)*DYNX(W_,691)*(1-DYNX(DYNhelp,1723));
+DYNX(W_,8607) = DYNX(W_,8872)*DYNX(W_,8659)+DYNX(W_,8773)*DYNX(W_,589)+
+ DYNX(W_,8772)*DYNX(W_,590);
+DYNX(W_,8768) = DYNX(DP_,272)*DYNX(W_,8773)+DYNX(DP_,273)*DYNX(W_,8772);
+DYNX(W_,8966) = DYNX(DP_,313)*DYNX(W_,8872)+DYNX(DP_,314)*DYNX(W_,8768);
+DYNX(W_,8259) = Greater(DYNX(W_,8966),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].u",
DYNX(W_,848),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].threshold",
25);
-DYNX(W_,8286) = IF DYNX(W_,8299) THEN DYNX(W_,852) ELSE DYNX(DP_,291);
-DYNX(W_,8516) = DYNX(W_,8644)*DYNX(W_,8286);
-DYNX(W_,8558) = DYNX(W_,444)*DYNX(W_,8516);
+DYNX(W_,8246) = IF DYNX(W_,8259) THEN DYNX(W_,852) ELSE DYNX(DP_,291);
+DYNX(W_,8479) = DYNX(W_,8607)*DYNX(W_,8246);
+DYNX(W_,8521) = DYNX(W_,444)*DYNX(W_,8479);
beginwhenBlock
-whenModelica(DYNX(W_,810) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8295), 10),"pre(building.thermalZone[1].HDirTilWall[4].incAng.decAng.tNext)",
- 120), 36)
- DYNX(W_,8295) = IF DYNX(W_,810) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,810) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8255), 10),"pre(building.thermalZone[1].HDirTilWall[4].incAng.decAng.tNext)",
+ 128), 36)
+ DYNX(W_,8255) = IF DYNX(W_,810) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux",
DYNX(W_,809),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilWall[4].incAng.decAng.lenWea",
16)*DYNX(W_,809)+DYNX(W_,809) ELSE DYNTime;
@@ -20310,161 +20368,161 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8920) = IF DYNX(W_,810) THEN DYNX(W_,8506)-DYNX(W_,8295)+DYNX(W_,809)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1725) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8920));
-DYNX(W_,8921) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1725),
+DYNX(W_,8883) = IF DYNX(W_,810) THEN DYNX(W_,8469)-DYNX(W_,8255)+DYNX(W_,809)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1726) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8883));
+DYNX(W_,8884) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1726),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilWall[4].incAng.decAng.calTimAux)");
-DYNX(W_,8923) = cos(DYNX(W_,8921));
-DYNX(W_,8922) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8925) = cos(DYNX(W_,8922));
-DYNX(W_,8924) = sin(DYNX(W_,8921));
-DYNX(W_,8926) = sin(DYNX(W_,8922));
+DYNX(W_,8886) = cos(DYNX(W_,8884));
+DYNX(W_,8885) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8888) = cos(DYNX(W_,8885));
+DYNX(W_,8887) = sin(DYNX(W_,8884));
+DYNX(W_,8889) = sin(DYNX(W_,8885));
if (NewParameters_) {
-DYNX(DYNhelp,1726) = cos(DYNX(W_,814));
+DYNX(DYNhelp,1727) = cos(DYNX(W_,814));
}
-DYNX(DYNhelp,1727) = DYNX(W_,8923)*DYNX(W_,8925);
+DYNX(DYNhelp,1728) = DYNX(W_,8886)*DYNX(W_,8888);
if (NewParameters_) {
-DYNX(DYNhelp,1728) = sin(DYNX(W_,814));
+DYNX(DYNhelp,1729) = sin(DYNX(W_,814));
}
if (NewParameters_) {
-DYNX(DYNhelp,1729) = sin(DYNX(W_,813));
+DYNX(DYNhelp,1730) = sin(DYNX(W_,813));
}
if (NewParameters_) {
-DYNX(DYNhelp,1730) = cos(DYNX(W_,813));
+DYNX(DYNhelp,1731) = cos(DYNX(W_,813));
}
-DYNX(DYNhelp,1731) = 0.7905412281389133*DYNX(DYNhelp,1727);
-DYNX(DYNhelp,1732) = 0.6124088231015443*DYNX(W_,8924);
-DYNX(W_,8919) = acosGuarded(DYNX(DYNhelp,1726)*(0.6124088231015443*
- DYNX(DYNhelp,1727)+0.7905412281389133*DYNX(W_,8924))+DYNX(DYNhelp,1728)*(
- DYNX(DYNhelp,1729)*DYNX(W_,8923)*DYNX(W_,8926)+DYNX(DYNhelp,1730)*(
- DYNX(DYNhelp,1731)-DYNX(DYNhelp,1732))),"cos(building.thermalZone[1].HDirTilWall[4].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[4].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[4].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[4].incAng.inc...");
-DYNX(DYNhelp,1733) = cos(DYNX(W_,8919));
-DYNX(W_,8918) = RealBmax(0, DYNX(DYNhelp,1733)*DYNX(W_,8492));
-DYNX(W_,8649) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
+DYNX(DYNhelp,1732) = 0.7905412281389133*DYNX(DYNhelp,1728);
+DYNX(DYNhelp,1733) = 0.6124088231015443*DYNX(W_,8887);
+DYNX(W_,8882) = acosGuarded(DYNX(DYNhelp,1727)*(0.6124088231015443*
+ DYNX(DYNhelp,1728)+0.7905412281389133*DYNX(W_,8887))+DYNX(DYNhelp,1729)*(
+ DYNX(DYNhelp,1730)*DYNX(W_,8886)*DYNX(W_,8889)+DYNX(DYNhelp,1731)*(
+ DYNX(DYNhelp,1732)-DYNX(DYNhelp,1733))),"cos(building.thermalZone[1].HDirTilWall[4].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_c*building.thermalZone[1].HDirTilWall[4].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilWall[4].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilWall[4].incAng.inc...");
+DYNX(DYNhelp,1734) = cos(DYNX(W_,8882));
+DYNX(W_,8881) = RealBmax(0, DYNX(DYNhelp,1734)*DYNX(W_,8455));
+DYNX(W_,8612) = 57.29577951308232*(57.29577951308232*(57.29577951308232*(
57.29577951308232*(57.29577951308232*(57.29577951308232*DYNX(DP_,252)*
- DYNX(W_,8919)+DYNX(DP_,251))*DYNX(W_,8919)+DYNX(DP_,250))*DYNX(W_,8919)+
- DYNX(DP_,249))*DYNX(W_,8919)+DYNX(DP_,248))*DYNX(W_,8919)+DYNX(DP_,247))*
- DYNX(W_,8919)+DYNX(DP_,246);
-DYNX(DYNhelp,1734) = sin(DYNX(W_,8919));
-DYNX(DYNhelp,1735) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1734)),
+ DYNX(W_,8882)+DYNX(DP_,251))*DYNX(W_,8882)+DYNX(DP_,250))*DYNX(W_,8882)+
+ DYNX(DP_,249))*DYNX(W_,8882)+DYNX(DP_,248))*DYNX(W_,8882)+DYNX(DP_,247))*
+ DYNX(W_,8882)+DYNX(DP_,246);
+DYNX(DYNhelp,1735) = sin(DYNX(W_,8882));
+DYNX(DYNhelp,1736) = sqrtGuarded(1-sqr(0.6600660066006601*DYNX(DYNhelp,1735)),
"1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2");
-DYNX(DYNhelp,1736) = divinvGuarded(DYNX(DYNhelp,1735),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2)");
-DYNX(W_,8653) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1736),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2)");
-DYNX(W_,8657) = DYNX(W_,8649)*DYNX(W_,8653);
-DYNX(W_,8661) = 1-DYNX(W_,8649);
-DYNX(W_,8665) = divGuarded(DYNX(W_,8661),"building.thermalZone[1].corGMod.rho_T1_dir[4]",2
- -DYNX(W_,8661),"2-building.thermalZone[1].corGMod.rho_T1_dir[4]");
-DYNX(W_,8669) = DYNX(W_,8665)+divGuarded(sqr((1-DYNX(W_,8665))*DYNX(W_,8653))*
- DYNX(W_,8665),"((1-building.thermalZone[1].corGMod.rho_11_dir[4])*building.thermalZone[1].corGMod.Tai_dir[4])^2*building.thermalZone[1].corGMod.rho_11_dir[4]",1
- -sqr(DYNX(W_,8665)*DYNX(W_,8653)),"1-(building.thermalZone[1].corGMod.rho_11_dir[4]*building.thermalZone[1].corGMod.Tai_dir[4])^2");
-DYNX(W_,8673) = 1.0-sqr(DYNX(W_,8669));
-DYNX(W_,8677) = divGuarded(sqr(DYNX(W_,8657)),"building.thermalZone[1].corGMod.Ta1_dir[4]^2",
- DYNX(W_,8673),"building.thermalZone[1].corGMod.XN2_dir[4]");
-DYNX(W_,8681) = 1-(DYNX(W_,8657)+DYNX(W_,8669));
-DYNX(W_,8685) = 0.04*DYNX(W_,8681)*(1+divGuarded(DYNX(W_,8657)*DYNX(W_,8669),
+DYNX(DYNhelp,1737) = divinvGuarded(DYNX(DYNhelp,1736),"sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2)");
+DYNX(W_,8616) = powGuarded(0.907,"0.907",DYNX(DYNhelp,1737),"1/sqrt(1-(0.6600660066006601*sin(building.thermalZone[1].corGMod.inc[4]))^2)");
+DYNX(W_,8620) = DYNX(W_,8612)*DYNX(W_,8616);
+DYNX(W_,8624) = 1-DYNX(W_,8612);
+DYNX(W_,8628) = divGuarded(DYNX(W_,8624),"building.thermalZone[1].corGMod.rho_T1_dir[4]",2
+ -DYNX(W_,8624),"2-building.thermalZone[1].corGMod.rho_T1_dir[4]");
+DYNX(W_,8632) = DYNX(W_,8628)+divGuarded(sqr((1-DYNX(W_,8628))*DYNX(W_,8616))*
+ DYNX(W_,8628),"((1-building.thermalZone[1].corGMod.rho_11_dir[4])*building.thermalZone[1].corGMod.Tai_dir[4])^2*building.thermalZone[1].corGMod.rho_11_dir[4]",1
+ -sqr(DYNX(W_,8628)*DYNX(W_,8616)),"1-(building.thermalZone[1].corGMod.rho_11_dir[4]*building.thermalZone[1].corGMod.Tai_dir[4])^2");
+DYNX(W_,8636) = 1.0-sqr(DYNX(W_,8632));
+DYNX(W_,8640) = divGuarded(sqr(DYNX(W_,8620)),"building.thermalZone[1].corGMod.Ta1_dir[4]^2",
+ DYNX(W_,8636),"building.thermalZone[1].corGMod.XN2_dir[4]");
+DYNX(W_,8644) = 1-(DYNX(W_,8620)+DYNX(W_,8632));
+DYNX(W_,8648) = 0.04*DYNX(W_,8644)*(1+divGuarded(DYNX(W_,8620)*DYNX(W_,8632),
"building.thermalZone[1].corGMod.Ta1_dir[4]*building.thermalZone[1].corGMod.rho_1_dir[4]",
- DYNX(W_,8673),"building.thermalZone[1].corGMod.XN2_dir[4]"))*DYNX(W_,578);
-DYNX(W_,8689) = divGuarded(DYNX(W_,8681)*DYNX(W_,8657)*(1-DYNX(W_,578)/(double)(
+ DYNX(W_,8636),"building.thermalZone[1].corGMod.XN2_dir[4]"))*DYNX(W_,578);
+DYNX(W_,8652) = divGuarded(DYNX(W_,8644)*DYNX(W_,8620)*(1-DYNX(W_,578)/(double)(
7.7)),"building.thermalZone[1].corGMod.a1_dir[4]*building.thermalZone[1].corGMod.Ta1_dir[4]*(1-building.thermalZone[1].corGMod.UWin/7.7)",
- DYNX(W_,8673),"building.thermalZone[1].corGMod.XN2_dir[4]");
-DYNX(W_,8693) = DYNX(W_,8685)+DYNX(W_,8689);
-DYNX(W_,8697) = DYNX(DYNhelp,4)*(DYNX(W_,8677)+DYNX(W_,8693));
-DYNX(W_,8858) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8857) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(DYNhelp,1737) = 1+DYNX(W_,8857);
-DYNX(W_,8856) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1), 1, 8, 0.01)")
+ DYNX(W_,8636),"building.thermalZone[1].corGMod.XN2_dir[4]");
+DYNX(W_,8656) = DYNX(W_,8648)+DYNX(W_,8652);
+DYNX(W_,8660) = DYNX(DYNhelp,4)*(DYNX(W_,8640)+DYNX(W_,8656));
+DYNX(W_,8821) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8820) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(DYNhelp,1738) = 1+DYNX(W_,8820);
+DYNX(W_,8819) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8858),"building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou",
- DYNX(W_,8858),"building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou")+
- DYNX(W_,8857),"(building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1",
- DYNX(DYNhelp,1737),"1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1"), 1,
+ DYNX(W_,8455)+DYNX(W_,8821),"building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou",
+ DYNX(W_,8821),"building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou")+
+ DYNX(W_,8820),"(building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor+building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1",
+ DYNX(DYNhelp,1738),"1+building.thermalZone[1].HDifTilWall[4].skyCle.tmp1"), 1,
8, 0.01));
PopModelContext();
-DYNX(W_,8874) = IF 1.23-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8856)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8856))*(sqr(100.0*(1.23-
- DYNX(W_,8856)))-3);
-DYNX(W_,8866) = IF 1.065-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8856)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8856))*(sqr(100.0*(1.065-
- DYNX(W_,8856)))-3);
-DYNX(W_,8867) = DYNX(W_,8874)-DYNX(W_,8866);
-DYNX(W_,8875) = IF 1.5-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8856))*(sqr(100.0*(1.5-DYNX(W_,8856)))
+DYNX(W_,8837) = IF 1.23-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8819)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8819))*(sqr(100.0*(1.23-
+ DYNX(W_,8819)))-3);
+DYNX(W_,8829) = IF 1.065-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8819)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8819))*(sqr(100.0*(1.065-
+ DYNX(W_,8819)))-3);
+DYNX(W_,8830) = DYNX(W_,8837)-DYNX(W_,8829);
+DYNX(W_,8838) = IF 1.5-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8819))*(sqr(100.0*(1.5-DYNX(W_,8819)))
-3);
-DYNX(W_,8868) = DYNX(W_,8875)-DYNX(W_,8874);
-DYNX(W_,8876) = IF 1.95-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8856)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8856))*(sqr(100.0*(1.95-
- DYNX(W_,8856)))-3);
-DYNX(W_,8869) = DYNX(W_,8876)-DYNX(W_,8875);
-DYNX(W_,8877) = IF 2.8-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8856))*(sqr(100.0*(2.8-DYNX(W_,8856)))
+DYNX(W_,8831) = DYNX(W_,8838)-DYNX(W_,8837);
+DYNX(W_,8839) = IF 1.95-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8819)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8819))*(sqr(100.0*(1.95-
+ DYNX(W_,8819)))-3);
+DYNX(W_,8832) = DYNX(W_,8839)-DYNX(W_,8838);
+DYNX(W_,8840) = IF 2.8-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8819))*(sqr(100.0*(2.8-DYNX(W_,8819)))
-3);
-DYNX(W_,8870) = DYNX(W_,8877)-DYNX(W_,8876);
-DYNX(W_,8878) = IF 4.5-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8856))*(sqr(100.0*(4.5-DYNX(W_,8856)))
+DYNX(W_,8833) = DYNX(W_,8840)-DYNX(W_,8839);
+DYNX(W_,8841) = IF 4.5-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8819))*(sqr(100.0*(4.5-DYNX(W_,8819)))
-3);
-DYNX(W_,8871) = DYNX(W_,8878)-DYNX(W_,8877);
-DYNX(W_,8879) = IF 6.2-DYNX(W_,8856) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8856) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8856))*(sqr(100.0*(6.2-DYNX(W_,8856)))
+DYNX(W_,8834) = DYNX(W_,8841)-DYNX(W_,8840);
+DYNX(W_,8842) = IF 6.2-DYNX(W_,8819) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8819) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8819))*(sqr(100.0*(6.2-DYNX(W_,8819)))
-3);
-DYNX(W_,8872) = DYNX(W_,8879)-DYNX(W_,8878);
-DYNX(W_,8873) = IF DYNX(W_,8856)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8856)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8856)-6.2)*(sqr(100.0*(DYNX(W_,8856)-6.2))
+DYNX(W_,8835) = DYNX(W_,8842)-DYNX(W_,8841);
+DYNX(W_,8836) = IF DYNX(W_,8819)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8819)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8819)-6.2)*(sqr(100.0*(DYNX(W_,8819)-6.2))
-3);
-DYNX(W_,8860) = 0.1299457*DYNX(W_,8867)-0.0083117*DYNX(W_,8866)+0.3296958*
- DYNX(W_,8868)+0.5682053*DYNX(W_,8869)+0.873028*DYNX(W_,8870)+1.1326077*
- DYNX(W_,8871)+1.0601591*DYNX(W_,8872)+0.677747*DYNX(W_,8873);
-DYNX(W_,8861) = 0.5877285*DYNX(W_,8866)+0.6825954*DYNX(W_,8867)+0.4868735*
- DYNX(W_,8868)+0.1874525*DYNX(W_,8869)-0.3920403*DYNX(W_,8870)-1.2367284*
- DYNX(W_,8871)-1.5999137*DYNX(W_,8872)-0.3272588*DYNX(W_,8873);
-DYNX(W_,8881) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8882) = 0.3183098861837907*DYNX(W_,8881)*180;
-DYNX(DYNhelp,1738) = cos(DYNX(W_,8881));
-DYNX(DYNhelp,1739) = DYNX(DYNhelp,1738)+0.15*powGuarded(93.9-DYNX(W_,8882),
+DYNX(W_,8823) = 0.1299457*DYNX(W_,8830)-0.0083117*DYNX(W_,8829)+0.3296958*
+ DYNX(W_,8831)+0.5682053*DYNX(W_,8832)+0.873028*DYNX(W_,8833)+1.1326077*
+ DYNX(W_,8834)+1.0601591*DYNX(W_,8835)+0.677747*DYNX(W_,8836);
+DYNX(W_,8824) = 0.5877285*DYNX(W_,8829)+0.6825954*DYNX(W_,8830)+0.4868735*
+ DYNX(W_,8831)+0.1874525*DYNX(W_,8832)-0.3920403*DYNX(W_,8833)-1.2367284*
+ DYNX(W_,8834)-1.5999137*DYNX(W_,8835)-0.3272588*DYNX(W_,8836);
+DYNX(W_,8844) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8845) = 0.3183098861837907*DYNX(W_,8844)*180;
+DYNX(DYNhelp,1739) = cos(DYNX(W_,8844));
+DYNX(DYNhelp,1740) = DYNX(DYNhelp,1739)+0.15*powGuarded(93.9-DYNX(W_,8845),
"93.9-building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg",-1.253,"-1.253");
-DYNX(DYNhelp,1740) = divinvGuarded(DYNX(DYNhelp,1739),"cos(building.thermalZone[1].HDifTilWall[4].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8880) = DYNX(DYNhelp,1740);
-DYNX(W_,8883) = 1+0.033*DYNX(DYNhelp,1656);
-DYNX(W_,8859) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),
+DYNX(DYNhelp,1741) = divinvGuarded(DYNX(DYNhelp,1740),"cos(building.thermalZone[1].HDifTilWall[4].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg)^(-1.253)");
+DYNX(W_,8843) = DYNX(DYNhelp,1741);
+DYNX(W_,8846) = 1+0.033*DYNX(DYNhelp,1657);
+DYNX(W_,8822) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),
"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8880),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8880),"0.5*(building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8883),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor");
-DYNX(W_,8862) = (-0.0620636)*DYNX(W_,8866)-0.1513725*DYNX(W_,8867)-0.2210958*
- DYNX(W_,8868)-0.295129*DYNX(W_,8869)-0.3616149*DYNX(W_,8870)-0.4118494*
- DYNX(W_,8871)-0.3589221*DYNX(W_,8872)-0.2504286*DYNX(W_,8873);
-DYNX(W_,8849) = IF -(DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8860)+DYNX(W_,8861)*
- DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8860)+
- DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8860)+DYNX(W_,8861)*DYNX(W_,8859)+DYNX(W_,8862)*DYNX(W_,8504));
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8843),"building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8843),"0.5*(building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor*building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8846),"1366.1*building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor");
+DYNX(W_,8825) = (-0.0620636)*DYNX(W_,8829)-0.1513725*DYNX(W_,8830)-0.2210958*
+ DYNX(W_,8831)-0.295129*DYNX(W_,8832)-0.3616149*DYNX(W_,8833)-0.4118494*
+ DYNX(W_,8834)-0.3589221*DYNX(W_,8835)-0.2504286*DYNX(W_,8836);
+DYNX(W_,8812) = IF -(DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8823)+DYNX(W_,8824)*
+ DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8823)+
+ DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8823)+DYNX(W_,8824)*DYNX(W_,8822)+DYNX(W_,8825)*DYNX(W_,8467));
beginwhenBlock
-whenModelica(DYNX(W_,734) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8291), 5),"pre(building.thermalZone[1].HDifTilWall[4].incAng.decAng.tNext)",
- 121), 37)
- DYNX(W_,8291) = IF DYNX(W_,734) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,734) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8251), 5),"pre(building.thermalZone[1].HDifTilWall[4].incAng.decAng.tNext)",
+ 129), 37)
+ DYNX(W_,8251) = IF DYNX(W_,734) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux",
DYNX(W_,733),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilWall[4].incAng.decAng.lenWea",
17)*DYNX(W_,733)+DYNX(W_,733) ELSE DYNTime;
@@ -20472,123 +20530,123 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8884) = IF DYNX(W_,734) THEN DYNX(W_,8506)-DYNX(W_,8291)+DYNX(W_,733)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,1741) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8884));
-DYNX(W_,8885) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1741),
+DYNX(W_,8847) = IF DYNX(W_,734) THEN DYNX(W_,8469)-DYNX(W_,8251)+DYNX(W_,733)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,1742) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8847));
+DYNX(W_,8848) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,1742),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilWall[4].incAng.decAng.calTimAux)");
-DYNX(W_,8887) = cos(DYNX(W_,8885));
-DYNX(W_,8886) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8889) = cos(DYNX(W_,8886));
-DYNX(W_,8888) = sin(DYNX(W_,8885));
-DYNX(W_,8890) = sin(DYNX(W_,8886));
+DYNX(W_,8850) = cos(DYNX(W_,8848));
+DYNX(W_,8849) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8852) = cos(DYNX(W_,8849));
+DYNX(W_,8851) = sin(DYNX(W_,8848));
+DYNX(W_,8853) = sin(DYNX(W_,8849));
if (NewParameters_) {
-DYNX(DYNhelp,1742) = cos(DYNX(W_,738));
+DYNX(DYNhelp,1743) = cos(DYNX(W_,738));
}
-DYNX(DYNhelp,1743) = DYNX(W_,8887)*DYNX(W_,8889);
+DYNX(DYNhelp,1744) = DYNX(W_,8850)*DYNX(W_,8852);
if (NewParameters_) {
-DYNX(DYNhelp,1744) = sin(DYNX(W_,738));
+DYNX(DYNhelp,1745) = sin(DYNX(W_,738));
}
if (NewParameters_) {
-DYNX(DYNhelp,1745) = sin(DYNX(W_,737));
+DYNX(DYNhelp,1746) = sin(DYNX(W_,737));
}
if (NewParameters_) {
-DYNX(DYNhelp,1746) = cos(DYNX(W_,737));
+DYNX(DYNhelp,1747) = cos(DYNX(W_,737));
}
-DYNX(DYNhelp,1747) = 0.7905412281389133*DYNX(DYNhelp,1743);
-DYNX(DYNhelp,1748) = 0.6124088231015443*DYNX(W_,8888);
-DYNX(W_,8851) = acosGuarded(DYNX(DYNhelp,1742)*(0.6124088231015443*
- DYNX(DYNhelp,1743)+0.7905412281389133*DYNX(W_,8888))+DYNX(DYNhelp,1744)*(
- DYNX(DYNhelp,1745)*DYNX(W_,8887)*DYNX(W_,8890)+DYNX(DYNhelp,1746)*(
- DYNX(DYNhelp,1747)-DYNX(DYNhelp,1748))),"cos(building.thermalZone[1].HDifTilWall[4].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[4].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[4].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[4].incAng.inc...");
-DYNX(W_,8854) = IF -cos(DYNX(W_,8851)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8851)) < -0.01 THEN cos(DYNX(W_,8851)) ELSE 0.5*cos(DYNX(W_,8851))-
- 25.0*cos(DYNX(W_,8851))*(sqr((-100.0)*cos(DYNX(W_,8851)))-3)*cos(DYNX(W_,8851));
-DYNX(W_,8855) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8863) = (-0.0596012)*DYNX(W_,8866)-0.0189325*DYNX(W_,8867)+0.055414*
- DYNX(W_,8868)+0.1088631*DYNX(W_,8869)+0.2255647*DYNX(W_,8870)+0.2877813*
- DYNX(W_,8871)+0.2642124*DYNX(W_,8872)+0.1561313*DYNX(W_,8873);
-DYNX(W_,8864) = 0.0721249*DYNX(W_,8866)+0.065965*DYNX(W_,8867)-0.0639588*
- DYNX(W_,8868)-0.1519229*DYNX(W_,8869)-0.4620442*DYNX(W_,8870)-0.8230357*
- DYNX(W_,8871)-1.127234*DYNX(W_,8872)-1.3765031*DYNX(W_,8873);
-DYNX(W_,8865) = (-0.0220216)*DYNX(W_,8866)-0.0288748*DYNX(W_,8867)-0.0260542*
- DYNX(W_,8868)-0.0139754*DYNX(W_,8869)+0.0012448*DYNX(W_,8870)+0.0558651*
- DYNX(W_,8871)+0.1310694*DYNX(W_,8872)+0.2506212*DYNX(W_,8873);
-DYNX(W_,8850) = DYNX(W_,8863)+DYNX(W_,8864)*DYNX(W_,8859)+DYNX(W_,8865)*
- DYNX(W_,8504);
-DYNX(DYNhelp,1749) = 1-DYNX(W_,8849);
+DYNX(DYNhelp,1748) = 0.7905412281389133*DYNX(DYNhelp,1744);
+DYNX(DYNhelp,1749) = 0.6124088231015443*DYNX(W_,8851);
+DYNX(W_,8814) = acosGuarded(DYNX(DYNhelp,1743)*(0.6124088231015443*
+ DYNX(DYNhelp,1744)+0.7905412281389133*DYNX(W_,8851))+DYNX(DYNhelp,1745)*(
+ DYNX(DYNhelp,1746)*DYNX(W_,8850)*DYNX(W_,8853)+DYNX(DYNhelp,1747)*(
+ DYNX(DYNhelp,1748)-DYNX(DYNhelp,1749))),"cos(building.thermalZone[1].HDifTilWall[4].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_c*building.thermalZone[1].HDifTilWall[4].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilWall[4].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilWall[4].incAng.inc...");
+DYNX(W_,8817) = IF -cos(DYNX(W_,8814)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8814)) < -0.01 THEN cos(DYNX(W_,8814)) ELSE 0.5*cos(DYNX(W_,8814))-
+ 25.0*cos(DYNX(W_,8814))*(sqr((-100.0)*cos(DYNX(W_,8814)))-3)*cos(DYNX(W_,8814));
+DYNX(W_,8818) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8826) = (-0.0596012)*DYNX(W_,8829)-0.0189325*DYNX(W_,8830)+0.055414*
+ DYNX(W_,8831)+0.1088631*DYNX(W_,8832)+0.2255647*DYNX(W_,8833)+0.2877813*
+ DYNX(W_,8834)+0.2642124*DYNX(W_,8835)+0.1561313*DYNX(W_,8836);
+DYNX(W_,8827) = 0.0721249*DYNX(W_,8829)+0.065965*DYNX(W_,8830)-0.0639588*
+ DYNX(W_,8831)-0.1519229*DYNX(W_,8832)-0.4620442*DYNX(W_,8833)-0.8230357*
+ DYNX(W_,8834)-1.127234*DYNX(W_,8835)-1.3765031*DYNX(W_,8836);
+DYNX(W_,8828) = (-0.0220216)*DYNX(W_,8829)-0.0288748*DYNX(W_,8830)-0.0260542*
+ DYNX(W_,8831)-0.0139754*DYNX(W_,8832)+0.0012448*DYNX(W_,8833)+0.0558651*
+ DYNX(W_,8834)+0.1310694*DYNX(W_,8835)+0.2506212*DYNX(W_,8836);
+DYNX(W_,8813) = DYNX(W_,8826)+DYNX(W_,8827)*DYNX(W_,8822)+DYNX(W_,8828)*
+ DYNX(W_,8467);
+DYNX(DYNhelp,1750) = 1-DYNX(W_,8812);
if (NewParameters_) {
-DYNX(DYNhelp,1750) = cos(DYNX(W_,721));
+DYNX(DYNhelp,1751) = cos(DYNX(W_,721));
}
-DYNX(DYNhelp,1751) = 1+DYNX(DYNhelp,1750);
+DYNX(DYNhelp,1752) = 1+DYNX(DYNhelp,1751);
if (NewParameters_) {
-DYNX(DYNhelp,1752) = sin(DYNX(W_,721));
+DYNX(DYNhelp,1753) = sin(DYNX(W_,721));
}
-DYNX(W_,8853) = DYNX(W_,8494)*(0.5*DYNX(DYNhelp,1749)*DYNX(DYNhelp,1751)+
- divGuarded(DYNX(W_,8849)*DYNX(W_,8854),"building.thermalZone[1].HDifTilWall[4].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[4].HDifTil.a",
- DYNX(W_,8855),"building.thermalZone[1].HDifTilWall[4].HDifTil.b")+
- DYNX(W_,8850)*DYNX(DYNhelp,1752));
-DYNX(W_,8852) = 0.5*DYNX(W_,8493)*DYNX(W_,720)*(1-DYNX(DYNhelp,1750));
-DYNX(W_,8645) = DYNX(W_,8918)*DYNX(W_,8697)+DYNX(W_,8853)*DYNX(W_,589)+
- DYNX(W_,8852)*DYNX(W_,590);
-DYNX(W_,8848) = DYNX(DP_,277)*DYNX(W_,8853)+DYNX(DP_,278)*DYNX(W_,8852);
-DYNX(W_,9004) = DYNX(DP_,315)*DYNX(W_,8918)+DYNX(DP_,316)*DYNX(W_,8848);
-DYNX(W_,8300) = Greater(DYNX(W_,9004),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].u",
+DYNX(W_,8816) = DYNX(W_,8457)*(0.5*DYNX(DYNhelp,1750)*DYNX(DYNhelp,1752)+
+ divGuarded(DYNX(W_,8812)*DYNX(W_,8817),"building.thermalZone[1].HDifTilWall[4].HDifTil.briCof1*building.thermalZone[1].HDifTilWall[4].HDifTil.a",
+ DYNX(W_,8818),"building.thermalZone[1].HDifTilWall[4].HDifTil.b")+
+ DYNX(W_,8813)*DYNX(DYNhelp,1753));
+DYNX(W_,8815) = 0.5*DYNX(W_,8456)*DYNX(W_,720)*(1-DYNX(DYNhelp,1751));
+DYNX(W_,8608) = DYNX(W_,8881)*DYNX(W_,8660)+DYNX(W_,8816)*DYNX(W_,589)+
+ DYNX(W_,8815)*DYNX(W_,590);
+DYNX(W_,8811) = DYNX(DP_,277)*DYNX(W_,8816)+DYNX(DP_,278)*DYNX(W_,8815);
+DYNX(W_,8967) = DYNX(DP_,315)*DYNX(W_,8881)+DYNX(DP_,316)*DYNX(W_,8811);
+DYNX(W_,8260) = Greater(DYNX(W_,8967),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].u",
DYNX(W_,849),"building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].threshold",
26);
-DYNX(W_,8287) = IF DYNX(W_,8300) THEN DYNX(W_,853) ELSE DYNX(DP_,292);
-DYNX(W_,8517) = DYNX(W_,8645)*DYNX(W_,8287);
-DYNX(W_,8560) = DYNX(W_,445)*DYNX(W_,8517);
-DYNX(W_,8565) = (-0.11587048061565267)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,8563) = (-0.6388848555249019)*(DYNX(W_,8554)+DYNX(W_,8556)+DYNX(W_,8558)
- +DYNX(W_,8560));
-DYNX(W_,9705) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n2, \nweaDat.datRea.u)")
+DYNX(W_,8247) = IF DYNX(W_,8260) THEN DYNX(W_,853) ELSE DYNX(DP_,292);
+DYNX(W_,8480) = DYNX(W_,8608)*DYNX(W_,8247);
+DYNX(W_,8523) = DYNX(W_,445)*DYNX(W_,8480);
+DYNX(W_,8528) = (-0.11587048061565267)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,8526) = (-0.6388848555249019)*(DYNX(W_,8517)+DYNX(W_,8519)+DYNX(W_,8521)
+ +DYNX(W_,8523));
+DYNX(W_,9674) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n2, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 2, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 2, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8489) = 273.15+DYNX(W_,9705);
-DYNX(W_,9737) = IF DYNX(W_,8489)-DYNX(W_,8487) > 0.1 THEN DYNX(W_,8487) ELSE IF
- DYNX(W_,8489)-DYNX(W_,8487) < -0.1 THEN DYNX(W_,8489) ELSE 2.5*(DYNX(W_,8489)-
- DYNX(W_,8487))*(sqr(10.0*(DYNX(W_,8489)-DYNX(W_,8487)))-3)*(DYNX(W_,8489)-
- DYNX(W_,8487))+0.5*(DYNX(W_,8487)+DYNX(W_,8489));
-DYNX(W_,9717) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n14, \nweaDat.datRea.u)")
+DYNX(W_,8452) = 273.15+DYNX(W_,9674);
+DYNX(W_,9706) = IF DYNX(W_,8452)-DYNX(W_,8450) > 0.1 THEN DYNX(W_,8450) ELSE IF
+ DYNX(W_,8452)-DYNX(W_,8450) < -0.1 THEN DYNX(W_,8452) ELSE 2.5*(DYNX(W_,8452)-
+ DYNX(W_,8450))*(sqr(10.0*(DYNX(W_,8452)-DYNX(W_,8450)))-3)*(DYNX(W_,8452)-
+ DYNX(W_,8450))+0.5*(DYNX(W_,8450)+DYNX(W_,8452));
+DYNX(W_,9686) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n14, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 14, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 14, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9731) = 0.1*DYNX(W_,9717);
-DYNX(DYNhelp,1753) = RealBmax(0, DYNX(W_,9731));
-DYNX(W_,8499) = RealBmin(1, DYNX(DYNhelp,1753));
-DYNX(W_,9739) = 10*DYNX(W_,8499);
-DYNX(DYNhelp,1754) = logGuarded( -DYNX(W_,9737)/(double)((-273.15)),
+DYNX(W_,9700) = 0.1*DYNX(W_,9686);
+DYNX(DYNhelp,1754) = RealBmax(0, DYNX(W_,9700));
+DYNX(W_,8462) = RealBmin(1, DYNX(DYNhelp,1754));
+DYNX(W_,9708) = 10*DYNX(W_,8462);
+DYNX(DYNhelp,1755) = logGuarded( -DYNX(W_,9706)/(double)((-273.15)),
" -weaDat.TBlaSkyCom.TDewPoiK/(-273.15)");
-DYNX(DYNhelp,1755) = sqr(DYNX(W_,9739));
-DYNX(W_,9738) = (0.787+0.764*DYNX(DYNhelp,1754))*(1.0+0.0224*DYNX(W_,9739)-
- 0.0035*DYNX(DYNhelp,1755)+0.00028*powUnguarded(DYNX(W_,9739), 3));
-DYNX(W_,8490) = DYNX(W_,8487)*powGuarded(DYNX(W_,9738),"weaDat.TBlaSkyCom.epsSky",
+DYNX(DYNhelp,1756) = sqr(DYNX(W_,9708));
+DYNX(W_,9707) = (0.787+0.764*DYNX(DYNhelp,1755))*(1.0+0.0224*DYNX(W_,9708)-
+ 0.0035*DYNX(DYNhelp,1756)+0.00028*powUnguarded(DYNX(W_,9708), 3));
+DYNX(W_,8453) = DYNX(W_,8450)*powGuarded(DYNX(W_,9707),"weaDat.TBlaSkyCom.epsSky",
0.25,"0.25");
-DYNX(W_,8707) = divGuarded((DYNX(W_,8490)-DYNX(W_,8487))*DYNX(W_,603),
+DYNX(W_,8670) = divGuarded((DYNX(W_,8453)-DYNX(W_,8450))*DYNX(W_,603),
"(building.thermalZone[1].eqAirTempWall.TBlaSky-building.thermalZone[1].eqAirTempWall.TDryBul)*building.thermalZone[1].eqAirTempWall.hRad",
DYNX(W_,603)+DYNX(W_,611),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWinOut");
-DYNX(W_,8702) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8284));
-DYNX(W_,8703) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8285));
+DYNX(W_,8665) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8244));
+DYNX(W_,8666) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8245));
+DYNX(W_,8667) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8246));
+DYNX(W_,8668) = DYNX(W_,8450)+DYNX(W_,8670)*(1-DYNX(W_,8247));
BreakSectionFunctionEnd()
BreakSectionFunctionStart(49);
-DYNX(W_,8704) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8286));
-DYNX(W_,8705) = DYNX(W_,8487)+DYNX(W_,8707)*(1-DYNX(W_,8287));
-DYNX(W_,8713) = DYNX(W_,8702)*DYNX(W_,597)+DYNX(W_,8703)*DYNX(W_,598)+
- DYNX(W_,8704)*DYNX(W_,599)+DYNX(W_,8705)*DYNX(W_,600);
-DYNX(W_,8562) = (-0.026136198635109624)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,8564) = (-0.11587048061565267)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
-DYNX(W_,8561) = (-0.10323798460868301)*(DYNX(W_,8554)+DYNX(W_,8556)+
- DYNX(W_,8558)+DYNX(W_,8560));
+DYNX(W_,8676) = DYNX(W_,8665)*DYNX(W_,597)+DYNX(W_,8666)*DYNX(W_,598)+
+ DYNX(W_,8667)*DYNX(W_,599)+DYNX(W_,8668)*DYNX(W_,600);
+DYNX(W_,8525) = (-0.026136198635109624)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,8527) = (-0.11587048061565267)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
+DYNX(W_,8524) = (-0.10323798460868301)*(DYNX(W_,8517)+DYNX(W_,8519)+
+ DYNX(W_,8521)+DYNX(W_,8523));
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[4] */
@@ -20603,278 +20661,278 @@ const char*const varnames_[]={"building.thermalZone[1].theConWin.dT",
"building.thermalZone[1].ROM.convExtWall.dT"};
const double nominal_[]={1.0, 300.0, 1.0, 1.0, 300.0, 1.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 6, 0, 0, 15, 82, 19,
- DYNX(DYNhelp,1756), 193, DYNX(did_->helpvari_vec,390), 28);
-NonLinearSystemSave(DYNX(W_,8507), 0);
+ DYNX(DYNhelp,1757), 193, DYNX(did_->helpvari_vec,390), 28);
+NonLinearSystemSave(DYNX(W_,8470), 0);
NonLinearSystemSave(DYNX(X_,3), 1);
NonLinearSystemSave(DYNX(X_,5), 2);
NonLinearSystemSave(DYNX(X_,4), 3);
NonLinearSystemSave(DYNX(X_,6), 4);
-NonLinearSystemSave(DYNX(W_,8561), 5);
-NonLinearSystemSave(DYNX(W_,8562), 6);
-NonLinearSystemSave(DYNX(W_,8563), 7);
-NonLinearSystemSave(DYNX(W_,8564), 8);
-NonLinearSystemSave(DYNX(W_,8565), 9);
-NonLinearSystemSave(DYNX(W_,8713), 10);
-NonLinearSystemSave(DYNX(W_,8624), 11);
-NonLinearSystemSave(DYNX(W_,8639), 12);
-NonLinearSystemSave(DYNX(W_,8633), 13);
-NonLinearSystemSave(DYNX(W_,9462), 14);
-NonLinearSystemSave(DYNX(W_,9470), 15);
-NonLinearSystemSave(DYNX(W_,9478), 16);
-NonLinearSystemSave(DYNX(W_,9486), 17);
-NonLinearSystemSave(DYNX(W_,9493), 18);
-SetInitVectorNH(x__, 1, DYNX(W_,8999), Remember_(DYNX(W_,8999), 12));
-SetInitVectorNH(x__, 2, DYNX(W_,8551), Remember_(DYNX(W_,8551), 13));
-SetInitVectorNH(x__, 3, DYNX(W_,8585), Remember_(DYNX(W_,8585), 14));
-SetInitVectorNH(x__, 4, DYNX(W_,8589), Remember_(DYNX(W_,8589), 15));
-SetInitVectorNH(x__, 5, DYNX(W_,8549), Remember_(DYNX(W_,8549), 16));
-SetInitVectorNH(x__, 6, DYNX(W_,8572), Remember_(DYNX(W_,8572), 17));
+NonLinearSystemSave(DYNX(W_,8524), 5);
+NonLinearSystemSave(DYNX(W_,8525), 6);
+NonLinearSystemSave(DYNX(W_,8526), 7);
+NonLinearSystemSave(DYNX(W_,8527), 8);
+NonLinearSystemSave(DYNX(W_,8528), 9);
+NonLinearSystemSave(DYNX(W_,8676), 10);
+NonLinearSystemSave(DYNX(W_,8587), 11);
+NonLinearSystemSave(DYNX(W_,8602), 12);
+NonLinearSystemSave(DYNX(W_,8596), 13);
+NonLinearSystemSave(DYNX(W_,9431), 14);
+NonLinearSystemSave(DYNX(W_,9439), 15);
+NonLinearSystemSave(DYNX(W_,9447), 16);
+NonLinearSystemSave(DYNX(W_,9455), 17);
+NonLinearSystemSave(DYNX(W_,9462), 18);
+SetInitVectorNH(x__, 1, DYNX(W_,8962), Remember_(DYNX(W_,8962), 14));
+SetInitVectorNH(x__, 2, DYNX(W_,8514), Remember_(DYNX(W_,8514), 15));
+SetInitVectorNH(x__, 3, DYNX(W_,8548), Remember_(DYNX(W_,8548), 16));
+SetInitVectorNH(x__, 4, DYNX(W_,8552), Remember_(DYNX(W_,8552), 17));
+SetInitVectorNH(x__, 5, DYNX(W_,8512), Remember_(DYNX(W_,8512), 18));
+SetInitVectorNH(x__, 6, DYNX(W_,8535), Remember_(DYNX(W_,8535), 19));
Residues;
- DYNX(W_,8544) = DYNX(W_,8572)+DYNX(W_,8507);
- DYNX(DYNhelp,1949) = DYNX(W_,8585)+DYNX(W_,8507);
- DYNX(W_,8542) = DYNX(W_,8589)+DYNX(DYNhelp,1949);
- DYNX(W_,8547) = DYNX(DYNhelp,1949);
- DYNX(W_,8477) = 0.1319599109131403*DYNX(W_,8544)+0.03340757238307349*
- DYNX(W_,8542)+0.6124721603563474*DYNX(W_,8547)+0.11108017817371936*
- DYNX(W_,8549)+0.11108017817371936*DYNX(W_,8551);
- DYNX(DYNhelp,1950) = DYNX(W_,5857)*DYNX(W_,5891);
- DYNX(DYNhelp,1951) = DYNX(W_,8477)-DYNX(W_,9493);
- DYNX(DYNhelp,1952) = DYNX(DYNhelp,1950)*DYNX(DYNhelp,1951);
- DYNX(DYNhelp,1953) = DYNX(W_,5863)-1;
- DYNX(DYNhelp,1954) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1951),
- DYNX(DYNhelp,1953), 0.05));
+ DYNX(W_,8507) = DYNX(W_,8535)+DYNX(W_,8470);
+ DYNX(DYNhelp,1950) = DYNX(W_,8548)+DYNX(W_,8470);
+ DYNX(W_,8505) = DYNX(W_,8552)+DYNX(DYNhelp,1950);
+ DYNX(W_,8510) = DYNX(DYNhelp,1950);
+ DYNX(W_,8440) = 0.1319599109131403*DYNX(W_,8507)+0.03340757238307349*
+ DYNX(W_,8505)+0.6124721603563474*DYNX(W_,8510)+0.11108017817371936*
+ DYNX(W_,8512)+0.11108017817371936*DYNX(W_,8514);
+ DYNX(DYNhelp,1951) = DYNX(W_,5817)*DYNX(W_,5851);
+ DYNX(DYNhelp,1952) = DYNX(W_,8440)-DYNX(W_,9462);
+ DYNX(DYNhelp,1953) = DYNX(DYNhelp,1951)*DYNX(DYNhelp,1952);
+ DYNX(DYNhelp,1954) = DYNX(W_,5823)-1;
+ DYNX(DYNhelp,1955) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1952),
+ DYNX(DYNhelp,1954), 0.05));
PopModelContext();
- DYNX(W_,9461) = DYNX(DYNhelp,1952)*DYNX(DYNhelp,1954);
- DYNX(DYNhelp,1955) = DYNX(W_,8477)-DYNX(W_,9486);
- DYNX(DYNhelp,1956) = DYNX(DYNhelp,1950)*DYNX(DYNhelp,1955);
- DYNX(DYNhelp,1957) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1955),
- DYNX(DYNhelp,1953), 0.05));
+ DYNX(W_,9430) = DYNX(DYNhelp,1953)*DYNX(DYNhelp,1955);
+ DYNX(DYNhelp,1956) = DYNX(W_,8440)-DYNX(W_,9455);
+ DYNX(DYNhelp,1957) = DYNX(DYNhelp,1951)*DYNX(DYNhelp,1956);
+ DYNX(DYNhelp,1958) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1956),
+ DYNX(DYNhelp,1954), 0.05));
PopModelContext();
- DYNX(W_,9460) = DYNX(DYNhelp,1956)*DYNX(DYNhelp,1957);
- DYNX(DYNhelp,1958) = DYNX(W_,8477)-DYNX(W_,9478);
- DYNX(DYNhelp,1959) = DYNX(DYNhelp,1950)*DYNX(DYNhelp,1958);
- DYNX(DYNhelp,1960) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1958),
- DYNX(DYNhelp,1953), 0.05));
+ DYNX(W_,9429) = DYNX(DYNhelp,1957)*DYNX(DYNhelp,1958);
+ DYNX(DYNhelp,1959) = DYNX(W_,8440)-DYNX(W_,9447);
+ DYNX(DYNhelp,1960) = DYNX(DYNhelp,1951)*DYNX(DYNhelp,1959);
+ DYNX(DYNhelp,1961) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1959),
+ DYNX(DYNhelp,1954), 0.05));
PopModelContext();
- DYNX(W_,9459) = DYNX(DYNhelp,1959)*DYNX(DYNhelp,1960);
- DYNX(DYNhelp,1961) = DYNX(W_,8477)-DYNX(W_,9470);
- DYNX(DYNhelp,1962) = DYNX(DYNhelp,1950)*DYNX(DYNhelp,1961);
- DYNX(DYNhelp,1963) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1961),
- DYNX(DYNhelp,1953), 0.05));
+ DYNX(W_,9428) = DYNX(DYNhelp,1960)*DYNX(DYNhelp,1961);
+ DYNX(DYNhelp,1962) = DYNX(W_,8440)-DYNX(W_,9439);
+ DYNX(DYNhelp,1963) = DYNX(DYNhelp,1951)*DYNX(DYNhelp,1962);
+ DYNX(DYNhelp,1964) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1962),
+ DYNX(DYNhelp,1954), 0.05));
PopModelContext();
- DYNX(W_,9458) = DYNX(DYNhelp,1962)*DYNX(DYNhelp,1963);
- DYNX(DYNhelp,1964) = DYNX(W_,8477)-DYNX(W_,9462);
- DYNX(DYNhelp,1965) = DYNX(DYNhelp,1950)*DYNX(DYNhelp,1964);
- DYNX(DYNhelp,1966) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1964),
- DYNX(DYNhelp,1953), 0.05));
+ DYNX(W_,9427) = DYNX(DYNhelp,1963)*DYNX(DYNhelp,1964);
+ DYNX(DYNhelp,1965) = DYNX(W_,8440)-DYNX(W_,9431);
+ DYNX(DYNhelp,1966) = DYNX(DYNhelp,1951)*DYNX(DYNhelp,1965);
+ DYNX(DYNhelp,1967) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,1965),
+ DYNX(DYNhelp,1954), 0.05));
PopModelContext();
- DYNX(W_,9457) = DYNX(DYNhelp,1965)*DYNX(DYNhelp,1966);
- DYNX(W_,8523) = -(DYNX(W_,8624)+DYNX(W_,8639)+DYNX(W_,8633)+DYNX(W_,9457)+
- DYNX(W_,9458)+DYNX(W_,9459)+DYNX(W_,9460)+DYNX(W_,9461));
- DYNX(W_,8550) = (-0.11108017817371936)*DYNX(W_,8523);
- DYNX(W_,8546) = (-0.03340757238307349)*DYNX(W_,8523);
- DYNX(W_,8521) = -DYNX(W_,507)*DYNX(W_,8999);
- DYNX(W_,8541) = DYNX(W_,398)*DYNX(W_,8521);
- DYNX(W_,8520) = DYNX(W_,8541)+DYNX(W_,8542);
- DYNX(W_,8548) = (-0.6124721603563474)*DYNX(W_,8523);
- DYNX(W_,8588) = DYNX(W_,462)*DYNX(W_,8589);
- DYNX(W_,8601) = DYNX(DYNhelp,1949)-DYNX(W_,8549);
- DYNX(W_,8600) = DYNX(W_,476)*DYNX(W_,8601);
- DYNX(W_,8552) = DYNX(W_,8550);
- DYNX(W_,8616) = DYNX(W_,8542)-DYNX(W_,8551);
- DYNX(W_,8615) = DYNX(W_,488)*DYNX(W_,8616);
- DYNX(W_,8618) = DYNX(W_,8551)-DYNX(W_,8549);
- DYNX(W_,8617) = DYNX(W_,489)*DYNX(W_,8618);
- DYNX(W_,8620) = DYNX(W_,8544)-DYNX(W_,8551);
- DYNX(W_,8619) = DYNX(W_,490)*DYNX(W_,8620);
- DYNX(W_,8612) = DYNX(W_,8551)-DYNX(W_,8507);
- DYNX(W_,8611) = DYNX(W_,486)*DYNX(W_,8612);
- DYNX(W_,8614) = DYNX(W_,8551)-DYNX(DYNhelp,1949);
- DYNX(W_,8613) = DYNX(W_,487)*DYNX(W_,8614);
- DYNX(DYNhelp,1967) = DYNX(W_,8613)-DYNX(W_,8619);
- DYNX(W_,8606) = -(DYNX(W_,8611)+DYNX(DYNhelp,1967)+DYNX(W_,8617)-
- DYNX(W_,8615)+DYNX(W_,8552)+DYNX(W_,8565));
- DYNX(W_,8609) = DYNX(W_,484)*DYNX(W_,8606);
- DYNX(W_,8587) = DYNX(W_,8572)-DYNX(W_,8585);
- DYNX(W_,8586) = DYNX(W_,461)*DYNX(W_,8587);
- DYNX(W_,8584) = DYNX(W_,460)*DYNX(W_,8585);
- DYNX(DYNhelp,1968) = DYNX(W_,8586)+DYNX(W_,8613);
- DYNX(W_,8581) = -(DYNX(W_,8584)+DYNX(W_,8600)-DYNX(DYNhelp,1968)-
- DYNX(W_,8588)+DYNX(W_,8548)+DYNX(W_,8563));
- DYNX(W_,8583) = DYNX(W_,459)*DYNX(W_,8581);
- DYNX(W_,8576) = DYNX(W_,8589)+DYNX(W_,8585)-DYNX(W_,8572);
- DYNX(W_,8575) = DYNX(W_,450)*DYNX(W_,8576);
- DYNX(W_,8574) = DYNX(W_,8542)-DYNX(W_,8507);
- DYNX(W_,8573) = DYNX(W_,305)*DYNX(W_,8574);
- DYNX(W_,8603) = DYNX(W_,8542)-DYNX(W_,8549);
- DYNX(W_,8602) = DYNX(W_,477)*DYNX(W_,8603);
- DYNX(W_,8597) = DYNX(W_,8549)-DYNX(W_,8507);
- DYNX(W_,8596) = DYNX(W_,474)*DYNX(W_,8597);
- DYNX(W_,8599) = DYNX(W_,8544)-DYNX(W_,8549);
- DYNX(W_,8598) = DYNX(W_,475)*DYNX(W_,8599);
- DYNX(DYNhelp,1969) = DYNX(W_,8598)+DYNX(W_,8602);
- DYNX(W_,8591) = -(DYNX(W_,8596)+DYNX(W_,8550)-(DYNX(DYNhelp,1969)+
- DYNX(W_,8600)+DYNX(W_,8617))+DYNX(W_,8564));
- DYNX(W_,8594) = DYNX(W_,471)*DYNX(W_,8591);
- DYNX(W_,8571) = DYNX(W_,441)*DYNX(W_,8572);
- DYNX(W_,8545) = (-0.1319599109131403)*DYNX(W_,8523);
- DYNX(DYNhelp,1970) = DYNX(W_,8598)+DYNX(W_,8586);
- DYNX(W_,8566) = -(DYNX(W_,8571)+DYNX(DYNhelp,1970)+DYNX(W_,8619)-
- DYNX(W_,8575)+DYNX(W_,8545)+DYNX(W_,8561));
- DYNX(W_,8569) = DYNX(W_,439)*DYNX(W_,8566);
-DYNX(DYNhelp,1971) = DYNX(W_,8575)+DYNX(W_,8602)+DYNX(W_,8588);
-SetVector(residue__, 1, DYNX(W_,8569)-DYNX(W_,8544)+DYNX(X_,3));
-SetVector(residue__, 2, DYNX(W_,8583)-DYNX(DYNhelp,1949)+DYNX(X_,4));
-SetVector(residue__, 3, DYNX(W_,8594)-DYNX(W_,8549)+DYNX(X_,5));
-SetVector(residue__, 4, DYNX(W_,8609)-DYNX(W_,8551)+DYNX(X_,6));
-SetVector(residue__, 5, DYNX(W_,8999)-DYNX(W_,8520)+DYNX(W_,8713));
-SetVector(residue__, 6, DYNX(W_,8573)+DYNX(DYNhelp,1971)+DYNX(W_,8615)-
- DYNX(W_,8521)+DYNX(W_,8546)+DYNX(W_,8562));
+ DYNX(W_,9426) = DYNX(DYNhelp,1966)*DYNX(DYNhelp,1967);
+ DYNX(W_,8486) = -(DYNX(W_,8587)+DYNX(W_,8602)+DYNX(W_,8596)+DYNX(W_,9426)+
+ DYNX(W_,9427)+DYNX(W_,9428)+DYNX(W_,9429)+DYNX(W_,9430));
+ DYNX(W_,8513) = (-0.11108017817371936)*DYNX(W_,8486);
+ DYNX(W_,8509) = (-0.03340757238307349)*DYNX(W_,8486);
+ DYNX(W_,8484) = -DYNX(W_,507)*DYNX(W_,8962);
+ DYNX(W_,8504) = DYNX(W_,398)*DYNX(W_,8484);
+ DYNX(W_,8483) = DYNX(W_,8504)+DYNX(W_,8505);
+ DYNX(W_,8511) = (-0.6124721603563474)*DYNX(W_,8486);
+ DYNX(W_,8551) = DYNX(W_,462)*DYNX(W_,8552);
+ DYNX(W_,8564) = DYNX(DYNhelp,1950)-DYNX(W_,8512);
+ DYNX(W_,8563) = DYNX(W_,476)*DYNX(W_,8564);
+ DYNX(W_,8515) = DYNX(W_,8513);
+ DYNX(W_,8579) = DYNX(W_,8505)-DYNX(W_,8514);
+ DYNX(W_,8578) = DYNX(W_,488)*DYNX(W_,8579);
+ DYNX(W_,8581) = DYNX(W_,8514)-DYNX(W_,8512);
+ DYNX(W_,8580) = DYNX(W_,489)*DYNX(W_,8581);
+ DYNX(W_,8583) = DYNX(W_,8507)-DYNX(W_,8514);
+ DYNX(W_,8582) = DYNX(W_,490)*DYNX(W_,8583);
+ DYNX(W_,8575) = DYNX(W_,8514)-DYNX(W_,8470);
+ DYNX(W_,8574) = DYNX(W_,486)*DYNX(W_,8575);
+ DYNX(W_,8577) = DYNX(W_,8514)-DYNX(DYNhelp,1950);
+ DYNX(W_,8576) = DYNX(W_,487)*DYNX(W_,8577);
+ DYNX(DYNhelp,1968) = DYNX(W_,8576)-DYNX(W_,8582);
+ DYNX(W_,8569) = -(DYNX(W_,8574)+DYNX(DYNhelp,1968)+DYNX(W_,8580)-
+ DYNX(W_,8578)+DYNX(W_,8515)+DYNX(W_,8528));
+ DYNX(W_,8572) = DYNX(W_,484)*DYNX(W_,8569);
+ DYNX(W_,8550) = DYNX(W_,8535)-DYNX(W_,8548);
+ DYNX(W_,8549) = DYNX(W_,461)*DYNX(W_,8550);
+ DYNX(W_,8547) = DYNX(W_,460)*DYNX(W_,8548);
+ DYNX(DYNhelp,1969) = DYNX(W_,8549)+DYNX(W_,8576);
+ DYNX(W_,8544) = -(DYNX(W_,8547)+DYNX(W_,8563)-DYNX(DYNhelp,1969)-
+ DYNX(W_,8551)+DYNX(W_,8511)+DYNX(W_,8526));
+ DYNX(W_,8546) = DYNX(W_,459)*DYNX(W_,8544);
+ DYNX(W_,8539) = DYNX(W_,8552)+DYNX(W_,8548)-DYNX(W_,8535);
+ DYNX(W_,8538) = DYNX(W_,450)*DYNX(W_,8539);
+ DYNX(W_,8537) = DYNX(W_,8505)-DYNX(W_,8470);
+ DYNX(W_,8536) = DYNX(W_,305)*DYNX(W_,8537);
+ DYNX(W_,8566) = DYNX(W_,8505)-DYNX(W_,8512);
+ DYNX(W_,8565) = DYNX(W_,477)*DYNX(W_,8566);
+ DYNX(W_,8560) = DYNX(W_,8512)-DYNX(W_,8470);
+ DYNX(W_,8559) = DYNX(W_,474)*DYNX(W_,8560);
+ DYNX(W_,8562) = DYNX(W_,8507)-DYNX(W_,8512);
+ DYNX(W_,8561) = DYNX(W_,475)*DYNX(W_,8562);
+ DYNX(DYNhelp,1970) = DYNX(W_,8561)+DYNX(W_,8565);
+ DYNX(W_,8554) = -(DYNX(W_,8559)+DYNX(W_,8513)-(DYNX(DYNhelp,1970)+
+ DYNX(W_,8563)+DYNX(W_,8580))+DYNX(W_,8527));
+ DYNX(W_,8557) = DYNX(W_,471)*DYNX(W_,8554);
+ DYNX(W_,8534) = DYNX(W_,441)*DYNX(W_,8535);
+ DYNX(W_,8508) = (-0.1319599109131403)*DYNX(W_,8486);
+ DYNX(DYNhelp,1971) = DYNX(W_,8561)+DYNX(W_,8549);
+ DYNX(W_,8529) = -(DYNX(W_,8534)+DYNX(DYNhelp,1971)+DYNX(W_,8582)-
+ DYNX(W_,8538)+DYNX(W_,8508)+DYNX(W_,8524));
+ DYNX(W_,8532) = DYNX(W_,439)*DYNX(W_,8529);
+DYNX(DYNhelp,1972) = DYNX(W_,8538)+DYNX(W_,8565)+DYNX(W_,8551);
+SetVector(residue__, 1, DYNX(W_,8532)-DYNX(W_,8507)+DYNX(X_,3));
+SetVector(residue__, 2, DYNX(W_,8546)-DYNX(DYNhelp,1950)+DYNX(X_,4));
+SetVector(residue__, 3, DYNX(W_,8557)-DYNX(W_,8512)+DYNX(X_,5));
+SetVector(residue__, 4, DYNX(W_,8572)-DYNX(W_,8514)+DYNX(X_,6));
+SetVector(residue__, 5, DYNX(W_,8962)-DYNX(W_,8483)+DYNX(W_,8676));
+SetVector(residue__, 6, DYNX(W_,8536)+DYNX(DYNhelp,1972)+DYNX(W_,8578)-
+ DYNX(W_,8484)+DYNX(W_,8509)+DYNX(W_,8525));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-DYNX(DYNhelp,1972) = DYNX(W_,490)*DYNX(W_,439);
-DYNX(DYNhelp,1973) = DYNX(DYNhelp,1954)*DYNX(DYNhelp,1950)+DYNX(DYNhelp,1952)*
+DYNX(DYNhelp,1973) = DYNX(W_,490)*DYNX(W_,439);
+DYNX(DYNhelp,1974) = DYNX(DYNhelp,1955)*DYNX(DYNhelp,1951)+DYNX(DYNhelp,1953)*
(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.der_regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05, 1.0)")
IBPSA_Utilities_Math_Functions_BaseClasses_derx_0regNonZeroPower(
- DYNX(DYNhelp,1951), DYNX(DYNhelp,1953), 0.05, 1.0));
+ DYNX(DYNhelp,1952), DYNX(DYNhelp,1954), 0.05, 1.0));
PopModelContext();
-DYNX(DYNhelp,1974) = DYNX(DYNhelp,1957)*DYNX(DYNhelp,1950)+DYNX(DYNhelp,1956)*
+DYNX(DYNhelp,1975) = DYNX(DYNhelp,1958)*DYNX(DYNhelp,1951)+DYNX(DYNhelp,1957)*
(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.der_regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05, 1.0)")
IBPSA_Utilities_Math_Functions_BaseClasses_derx_0regNonZeroPower(
- DYNX(DYNhelp,1955), DYNX(DYNhelp,1953), 0.05, 1.0));
+ DYNX(DYNhelp,1956), DYNX(DYNhelp,1954), 0.05, 1.0));
PopModelContext();
-DYNX(DYNhelp,1975) = DYNX(DYNhelp,1973)*DYNX(W_,439)+DYNX(DYNhelp,1974)*
+DYNX(DYNhelp,1976) = DYNX(DYNhelp,1974)*DYNX(W_,439)+DYNX(DYNhelp,1975)*
DYNX(W_,439);
-DYNX(DYNhelp,1976) = DYNX(DYNhelp,1960)*DYNX(DYNhelp,1950)+DYNX(DYNhelp,1959)*
+DYNX(DYNhelp,1977) = DYNX(DYNhelp,1961)*DYNX(DYNhelp,1951)+DYNX(DYNhelp,1960)*
(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.der_regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05, 1.0)")
IBPSA_Utilities_Math_Functions_BaseClasses_derx_0regNonZeroPower(
- DYNX(DYNhelp,1958), DYNX(DYNhelp,1953), 0.05, 1.0));
+ DYNX(DYNhelp,1959), DYNX(DYNhelp,1954), 0.05, 1.0));
PopModelContext();
-DYNX(DYNhelp,1977) = DYNX(DYNhelp,1976)*DYNX(W_,439);
-DYNX(DYNhelp,1978) = DYNX(DYNhelp,1963)*DYNX(DYNhelp,1950)+DYNX(DYNhelp,1962)*
+DYNX(DYNhelp,1978) = DYNX(DYNhelp,1977)*DYNX(W_,439);
+DYNX(DYNhelp,1979) = DYNX(DYNhelp,1964)*DYNX(DYNhelp,1951)+DYNX(DYNhelp,1963)*
(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.der_regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05, 1.0)")
IBPSA_Utilities_Math_Functions_BaseClasses_derx_0regNonZeroPower(
- DYNX(DYNhelp,1961), DYNX(DYNhelp,1953), 0.05, 1.0));
+ DYNX(DYNhelp,1962), DYNX(DYNhelp,1954), 0.05, 1.0));
PopModelContext();
-DYNX(DYNhelp,1979) = DYNX(DYNhelp,1966)*DYNX(DYNhelp,1950);
-DYNX(DYNhelp,1980) = DYNX(DYNhelp,1965)*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.der_regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05, 1.0)")
+DYNX(DYNhelp,1980) = DYNX(DYNhelp,1967)*DYNX(DYNhelp,1951);
+DYNX(DYNhelp,1981) = DYNX(DYNhelp,1966)*(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.der_regNonZeroPower(hydraulic.transfer.rad[1].heatPortRad.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05, 1.0)")
IBPSA_Utilities_Math_Functions_BaseClasses_derx_0regNonZeroPower(
- DYNX(DYNhelp,1964), DYNX(DYNhelp,1953), 0.05, 1.0));
+ DYNX(DYNhelp,1965), DYNX(DYNhelp,1954), 0.05, 1.0));
PopModelContext();
-DYNX(DYNhelp,1981) = DYNX(DYNhelp,1979)+DYNX(DYNhelp,1980);
-DYNX(DYNhelp,1982) = DYNX(DYNhelp,1975)+DYNX(DYNhelp,1977)+DYNX(DYNhelp,1978)*
- DYNX(W_,439)+DYNX(DYNhelp,1981)*DYNX(W_,439);
-DYNX(DYNhelp,1983) = 0.014658130416019759*DYNX(DYNhelp,1982);
-DYNX(DYNhelp,1984) = DYNX(W_,461)*DYNX(W_,439);
-DYNX(DYNhelp,1985) = DYNX(W_,450)*DYNX(W_,439);
-DYNX(DYNhelp,1986) = DYNX(W_,475)*DYNX(W_,439);
-DYNX(DYNhelp,1987) = (-0.017413418088203923)*DYNX(DYNhelp,1982)-DYNX(DYNhelp,1972);
-DYNX(DYNhelp,1988) = DYNX(W_,487)*DYNX(W_,459);
-DYNX(DYNhelp,1989) = DYNX(DYNhelp,1973)*DYNX(W_,459)+DYNX(DYNhelp,1974)*
+DYNX(DYNhelp,1982) = DYNX(DYNhelp,1980)+DYNX(DYNhelp,1981);
+DYNX(DYNhelp,1983) = DYNX(DYNhelp,1976)+DYNX(DYNhelp,1978)+DYNX(DYNhelp,1979)*
+ DYNX(W_,439)+DYNX(DYNhelp,1982)*DYNX(W_,439);
+DYNX(DYNhelp,1984) = 0.014658130416019759*DYNX(DYNhelp,1983);
+DYNX(DYNhelp,1985) = DYNX(W_,461)*DYNX(W_,439);
+DYNX(DYNhelp,1986) = DYNX(W_,450)*DYNX(W_,439);
+DYNX(DYNhelp,1987) = DYNX(W_,475)*DYNX(W_,439);
+DYNX(DYNhelp,1988) = (-0.017413418088203923)*DYNX(DYNhelp,1983)-DYNX(DYNhelp,1973);
+DYNX(DYNhelp,1989) = DYNX(W_,487)*DYNX(W_,459);
+DYNX(DYNhelp,1990) = DYNX(DYNhelp,1974)*DYNX(W_,459)+DYNX(DYNhelp,1975)*
DYNX(W_,459);
-DYNX(DYNhelp,1990) = DYNX(DYNhelp,1976)*DYNX(W_,459);
-DYNX(DYNhelp,1991) = DYNX(DYNhelp,1989)+DYNX(DYNhelp,1990)+DYNX(DYNhelp,1978)*
- DYNX(W_,459)+DYNX(DYNhelp,1981)*DYNX(W_,459);
-DYNX(DYNhelp,1992) = 0.06803351669882589*DYNX(DYNhelp,1991);
-DYNX(DYNhelp,1993) = (-0.39558335524129346)*DYNX(DYNhelp,1991);
-DYNX(DYNhelp,1994) = DYNX(W_,476)*DYNX(W_,459);
-DYNX(DYNhelp,1995) = DYNX(W_,461)*DYNX(W_,459);
-DYNX(DYNhelp,1996) = DYNX(W_,489)*DYNX(W_,471);
-DYNX(DYNhelp,1997) = DYNX(DYNhelp,1973)*DYNX(W_,471)+DYNX(DYNhelp,1974)*
+DYNX(DYNhelp,1991) = DYNX(DYNhelp,1977)*DYNX(W_,459);
+DYNX(DYNhelp,1992) = DYNX(DYNhelp,1990)+DYNX(DYNhelp,1991)+DYNX(DYNhelp,1979)*
+ DYNX(W_,459)+DYNX(DYNhelp,1982)*DYNX(W_,459);
+DYNX(DYNhelp,1993) = 0.06803351669882589*DYNX(DYNhelp,1992);
+DYNX(DYNhelp,1994) = (-0.39558335524129346)*DYNX(DYNhelp,1992);
+DYNX(DYNhelp,1995) = DYNX(W_,476)*DYNX(W_,459);
+DYNX(DYNhelp,1996) = DYNX(W_,461)*DYNX(W_,459);
+DYNX(DYNhelp,1997) = DYNX(W_,489)*DYNX(W_,471);
+DYNX(DYNhelp,1998) = DYNX(DYNhelp,1974)*DYNX(W_,471)+DYNX(DYNhelp,1975)*
DYNX(W_,471);
-DYNX(DYNhelp,1998) = DYNX(DYNhelp,1976)*DYNX(W_,471);
-DYNX(DYNhelp,1999) = DYNX(DYNhelp,1997)+DYNX(DYNhelp,1998)+DYNX(DYNhelp,1978)*
- DYNX(W_,471)+DYNX(DYNhelp,1981)*DYNX(W_,471);
-DYNX(DYNhelp,2000) = DYNX(W_,476)*DYNX(W_,471);
-DYNX(DYNhelp,2001) = DYNX(W_,477)*DYNX(W_,471);
-DYNX(DYNhelp,2002) = (-0.01233880598310524)*DYNX(DYNhelp,1999)-DYNX(DYNhelp,2000);
-DYNX(DYNhelp,2003) = DYNX(W_,475)*DYNX(W_,471);
-DYNX(DYNhelp,2004) = DYNX(DYNhelp,1973)*DYNX(W_,484);
+DYNX(DYNhelp,1999) = DYNX(DYNhelp,1977)*DYNX(W_,471);
+DYNX(DYNhelp,2000) = DYNX(DYNhelp,1998)+DYNX(DYNhelp,1999)+DYNX(DYNhelp,1979)*
+ DYNX(W_,471)+DYNX(DYNhelp,1982)*DYNX(W_,471);
+DYNX(DYNhelp,2001) = DYNX(W_,476)*DYNX(W_,471);
+DYNX(DYNhelp,2002) = DYNX(W_,477)*DYNX(W_,471);
+DYNX(DYNhelp,2003) = (-0.01233880598310524)*DYNX(DYNhelp,2000)-DYNX(DYNhelp,2001);
+DYNX(DYNhelp,2004) = DYNX(W_,475)*DYNX(W_,471);
DYNX(DYNhelp,2005) = DYNX(DYNhelp,1974)*DYNX(W_,484);
-DYNX(DYNhelp,2006) = DYNX(DYNhelp,2004)+DYNX(DYNhelp,2005)+DYNX(DYNhelp,1976)*
- DYNX(W_,484)+DYNX(DYNhelp,1978)*DYNX(W_,484)+DYNX(DYNhelp,1981)*DYNX(W_,484);
-DYNX(DYNhelp,2007) = DYNX(W_,488)*DYNX(W_,484);
-DYNX(DYNhelp,2008) = (-0.01233880598310524)*DYNX(DYNhelp,2006)-DYNX(DYNhelp,2007);
-DYNX(DYNhelp,2009) = DYNX(W_,489)*DYNX(W_,484);
-DYNX(DYNhelp,2010) = DYNX(W_,490)*DYNX(W_,484);
-DYNX(DYNhelp,2011) = DYNX(W_,487)*DYNX(W_,484);
-DYNX(DYNhelp,2012) = DYNX(DYNhelp,1973)+DYNX(DYNhelp,1974);
-DYNX(DYNhelp,2013) = DYNX(DYNhelp,2012)+DYNX(DYNhelp,1976)+DYNX(DYNhelp,1978)+
- DYNX(DYNhelp,1981);
-DYNX(DYNhelp,2014) = 0.00371091909266323*DYNX(DYNhelp,2013);
-DYNX(DYNhelp,2015) = 0.0011160658925302947*DYNX(DYNhelp,2013);
-DYNX(DYNhelp,2016) = DYNX(DYNhelp,2015)+DYNX(W_,305);
-SetMatrixLeading(Jacobian__, 1, 2, 6, DYNX(DYNhelp,1972)-DYNX(DYNhelp,1983));
-SetMatrixLeading(Jacobian__, 1, 3, 6, DYNX(DYNhelp,1984)-0.08523023199289687*
- DYNX(DYNhelp,1982)+DYNX(DYNhelp,1985));
-SetMatrixLeading(Jacobian__, 1, 4, 6, DYNX(DYNhelp,1985)-0.004408460275494665*
- DYNX(DYNhelp,1982));
-SetMatrixLeading(Jacobian__, 1, 5, 6, DYNX(DYNhelp,1986)-DYNX(DYNhelp,1983));
-SetMatrixLeading(Jacobian__, 1, 6, 6, DYNX(DYNhelp,1987)-DYNX(DYNhelp,1984)-
- DYNX(DYNhelp,1985)-DYNX(DYNhelp,1986)-DYNX(W_,439)*DYNX(W_,441)-1.0);
-SetMatrixLeading(Jacobian__, 2, 2, 6, DYNX(DYNhelp,1988)-DYNX(DYNhelp,1992));
-SetMatrixLeading(Jacobian__, 2, 3, 6, DYNX(DYNhelp,1993)-DYNX(DYNhelp,1994)-
- DYNX(DYNhelp,1988)-DYNX(DYNhelp,1995)-DYNX(W_,459)*DYNX(W_,460)-1.0);
+DYNX(DYNhelp,2006) = DYNX(DYNhelp,1975)*DYNX(W_,484);
+DYNX(DYNhelp,2007) = DYNX(DYNhelp,2005)+DYNX(DYNhelp,2006)+DYNX(DYNhelp,1977)*
+ DYNX(W_,484)+DYNX(DYNhelp,1979)*DYNX(W_,484)+DYNX(DYNhelp,1982)*DYNX(W_,484);
+DYNX(DYNhelp,2008) = DYNX(W_,488)*DYNX(W_,484);
+DYNX(DYNhelp,2009) = (-0.01233880598310524)*DYNX(DYNhelp,2007)-DYNX(DYNhelp,2008);
+DYNX(DYNhelp,2010) = DYNX(W_,489)*DYNX(W_,484);
+DYNX(DYNhelp,2011) = DYNX(W_,490)*DYNX(W_,484);
+DYNX(DYNhelp,2012) = DYNX(W_,487)*DYNX(W_,484);
+DYNX(DYNhelp,2013) = DYNX(DYNhelp,1974)+DYNX(DYNhelp,1975);
+DYNX(DYNhelp,2014) = DYNX(DYNhelp,2013)+DYNX(DYNhelp,1977)+DYNX(DYNhelp,1979)+
+ DYNX(DYNhelp,1982);
+DYNX(DYNhelp,2015) = 0.00371091909266323*DYNX(DYNhelp,2014);
+DYNX(DYNhelp,2016) = 0.0011160658925302947*DYNX(DYNhelp,2014);
+DYNX(DYNhelp,2017) = DYNX(DYNhelp,2016)+DYNX(W_,305);
+SetMatrixLeading(Jacobian__, 1, 2, 6, DYNX(DYNhelp,1973)-DYNX(DYNhelp,1984));
+SetMatrixLeading(Jacobian__, 1, 3, 6, DYNX(DYNhelp,1985)-0.08523023199289687*
+ DYNX(DYNhelp,1983)+DYNX(DYNhelp,1986));
+SetMatrixLeading(Jacobian__, 1, 4, 6, DYNX(DYNhelp,1986)-0.004408460275494665*
+ DYNX(DYNhelp,1983));
+SetMatrixLeading(Jacobian__, 1, 5, 6, DYNX(DYNhelp,1987)-DYNX(DYNhelp,1984));
+SetMatrixLeading(Jacobian__, 1, 6, 6, DYNX(DYNhelp,1988)-DYNX(DYNhelp,1985)-
+ DYNX(DYNhelp,1986)-DYNX(DYNhelp,1987)-DYNX(W_,439)*DYNX(W_,441)-1.0);
+SetMatrixLeading(Jacobian__, 2, 2, 6, DYNX(DYNhelp,1989)-DYNX(DYNhelp,1993));
+SetMatrixLeading(Jacobian__, 2, 3, 6, DYNX(DYNhelp,1994)-DYNX(DYNhelp,1995)-
+ DYNX(DYNhelp,1989)-DYNX(DYNhelp,1996)-DYNX(W_,459)*DYNX(W_,460)-1.0);
SetMatrixLeading(Jacobian__, 2, 4, 6, DYNX(W_,459)*DYNX(W_,462)-0.020461208029722074
- *DYNX(DYNhelp,1991));
-SetMatrixLeading(Jacobian__, 2, 5, 6, DYNX(DYNhelp,1994)-DYNX(DYNhelp,1992));
-SetMatrixLeading(Jacobian__, 2, 6, 6, DYNX(DYNhelp,1995)-0.0808217717174022*
- DYNX(DYNhelp,1991));
-SetMatrixLeading(Jacobian__, 3, 2, 6, DYNX(DYNhelp,1996)-0.01233880598310524*
- DYNX(DYNhelp,1999));
-SetMatrixLeading(Jacobian__, 3, 3, 6, DYNX(DYNhelp,2000)-0.07174443579148912*
- DYNX(DYNhelp,1999)+DYNX(DYNhelp,2001));
-SetMatrixLeading(Jacobian__, 3, 4, 6, DYNX(DYNhelp,2001)-0.00371091909266323*
- DYNX(DYNhelp,1999));
-SetMatrixLeading(Jacobian__, 3, 5, 6, DYNX(DYNhelp,2002)-DYNX(DYNhelp,1996)-
- DYNX(DYNhelp,2001)-DYNX(W_,474)*DYNX(W_,471)-DYNX(DYNhelp,2003)-1.0);
-SetMatrixLeading(Jacobian__, 3, 6, 6, DYNX(DYNhelp,2003)-0.014658130416019759*
- DYNX(DYNhelp,1999));
-SetMatrixLeading(Jacobian__, 4, 2, 6, DYNX(DYNhelp,2008)-DYNX(DYNhelp,2009)-
- DYNX(DYNhelp,2010)-DYNX(W_,486)*DYNX(W_,484)-DYNX(DYNhelp,2011)-1.0);
-SetMatrixLeading(Jacobian__, 4, 3, 6, DYNX(DYNhelp,2007)-0.07174443579148912*
- DYNX(DYNhelp,2006)+DYNX(DYNhelp,2011));
-SetMatrixLeading(Jacobian__, 4, 4, 6, DYNX(DYNhelp,2007)-0.00371091909266323*
- DYNX(DYNhelp,2006));
-SetMatrixLeading(Jacobian__, 4, 5, 6, DYNX(DYNhelp,2009)-0.01233880598310524*
- DYNX(DYNhelp,2006));
-SetMatrixLeading(Jacobian__, 4, 6, 6, DYNX(DYNhelp,2010)-0.014658130416019759*
- DYNX(DYNhelp,2006));
+ *DYNX(DYNhelp,1992));
+SetMatrixLeading(Jacobian__, 2, 5, 6, DYNX(DYNhelp,1995)-DYNX(DYNhelp,1993));
+SetMatrixLeading(Jacobian__, 2, 6, 6, DYNX(DYNhelp,1996)-0.0808217717174022*
+ DYNX(DYNhelp,1992));
+SetMatrixLeading(Jacobian__, 3, 2, 6, DYNX(DYNhelp,1997)-0.01233880598310524*
+ DYNX(DYNhelp,2000));
+SetMatrixLeading(Jacobian__, 3, 3, 6, DYNX(DYNhelp,2001)-0.07174443579148912*
+ DYNX(DYNhelp,2000)+DYNX(DYNhelp,2002));
+SetMatrixLeading(Jacobian__, 3, 4, 6, DYNX(DYNhelp,2002)-0.00371091909266323*
+ DYNX(DYNhelp,2000));
+SetMatrixLeading(Jacobian__, 3, 5, 6, DYNX(DYNhelp,2003)-DYNX(DYNhelp,1997)-
+ DYNX(DYNhelp,2002)-DYNX(W_,474)*DYNX(W_,471)-DYNX(DYNhelp,2004)-1.0);
+SetMatrixLeading(Jacobian__, 3, 6, 6, DYNX(DYNhelp,2004)-0.014658130416019759*
+ DYNX(DYNhelp,2000));
+SetMatrixLeading(Jacobian__, 4, 2, 6, DYNX(DYNhelp,2009)-DYNX(DYNhelp,2010)-
+ DYNX(DYNhelp,2011)-DYNX(W_,486)*DYNX(W_,484)-DYNX(DYNhelp,2012)-1.0);
+SetMatrixLeading(Jacobian__, 4, 3, 6, DYNX(DYNhelp,2008)-0.07174443579148912*
+ DYNX(DYNhelp,2007)+DYNX(DYNhelp,2012));
+SetMatrixLeading(Jacobian__, 4, 4, 6, DYNX(DYNhelp,2008)-0.00371091909266323*
+ DYNX(DYNhelp,2007));
+SetMatrixLeading(Jacobian__, 4, 5, 6, DYNX(DYNhelp,2010)-0.01233880598310524*
+ DYNX(DYNhelp,2007));
+SetMatrixLeading(Jacobian__, 4, 6, 6, DYNX(DYNhelp,2011)-0.014658130416019759*
+ DYNX(DYNhelp,2007));
SetMatrixLeading(Jacobian__, 5, 1, 6, 1.0+DYNX(W_,398)*DYNX(W_,507));
SetMatrixLeading(Jacobian__, 5, 3, 6, -1.0);
SetMatrixLeading(Jacobian__, 5, 4, 6, -1.0);
SetMatrixLeading(Jacobian__, 6, 1, 6, DYNX(W_,507));
-SetMatrixLeading(Jacobian__, 6, 2, 6, DYNX(DYNhelp,2014)-DYNX(W_,488));
-SetMatrixLeading(Jacobian__, 6, 3, 6, DYNX(DYNhelp,2016)+0.020461208029722074*
- DYNX(DYNhelp,2013)+DYNX(W_,488)+DYNX(W_,450)+DYNX(W_,477));
-SetMatrixLeading(Jacobian__, 6, 4, 6, DYNX(DYNhelp,2016)+DYNX(W_,462)+
+SetMatrixLeading(Jacobian__, 6, 2, 6, DYNX(DYNhelp,2015)-DYNX(W_,488));
+SetMatrixLeading(Jacobian__, 6, 3, 6, DYNX(DYNhelp,2017)+0.020461208029722074*
+ DYNX(DYNhelp,2014)+DYNX(W_,488)+DYNX(W_,450)+DYNX(W_,477));
+SetMatrixLeading(Jacobian__, 6, 4, 6, DYNX(DYNhelp,2017)+DYNX(W_,462)+
DYNX(W_,488)+DYNX(W_,450)+DYNX(W_,477));
-SetMatrixLeading(Jacobian__, 6, 5, 6, DYNX(DYNhelp,2014)-DYNX(W_,477));
-SetMatrixLeading(Jacobian__, 6, 6, 6, 0.004408460275494665*DYNX(DYNhelp,2013)-
+SetMatrixLeading(Jacobian__, 6, 5, 6, DYNX(DYNhelp,2015)-DYNX(W_,477));
+SetMatrixLeading(Jacobian__, 6, 6, 6, 0.004408460275494665*DYNX(DYNhelp,2014)-
DYNX(W_,450));
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 15,
"Tag: simulation.nonlinear[4]");
-DYNX(W_,8999) = GetVector(x__, 1);
-DYNX(W_,8551) = GetVector(x__, 2);
-DYNX(W_,8585) = GetVector(x__, 3);
-DYNX(W_,8589) = GetVector(x__, 4);
-DYNX(W_,8549) = GetVector(x__, 5);
-DYNX(W_,8572) = GetVector(x__, 6);
+DYNX(W_,8962) = GetVector(x__, 1);
+DYNX(W_,8514) = GetVector(x__, 2);
+DYNX(W_,8548) = GetVector(x__, 3);
+DYNX(W_,8552) = GetVector(x__, 4);
+DYNX(W_,8512) = GetVector(x__, 5);
+DYNX(W_,8535) = GetVector(x__, 6);
EndNonLinearSystemOfEquationsNH(residue__, x__, 15);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,8478) = DYNX(W_,8523)+DYNX(W_,8624)+DYNX(W_,8639)+DYNX(W_,8633);
-DYNX(W_,8508) = 0.5*(DYNX(W_,8477)+DYNX(W_,8507));
-DYNX(Y_,1) = DYNX(W_,8508);
+DYNX(W_,8441) = DYNX(W_,8486)+DYNX(W_,8587)+DYNX(W_,8602)+DYNX(W_,8596);
+DYNX(W_,8471) = 0.5*(DYNX(W_,8440)+DYNX(W_,8470));
+DYNX(Y_,1) = DYNX(W_,8471);
DYNX(Y_,2) = DYNX(X_,10);
DYNX(Y_,3) = DYNX(X_,13);
DYNX(Y_,4) = DYNX(X_,9);
@@ -20882,76 +20940,75 @@ DYNX(Y_,5) = DYNX(X_,12);
DYNX(Y_,6) = DYNX(X_,14);
DYNX(Y_,7) = DYNX(X_,11);
/* Linear system of equations to solve. */
-DYNX(W_,9527) = RememberSimple_(DYNX(W_,9527), 18);
-SolveScalarLinearParametric( -DYNX(W_,4456)," -hydraulic.distribution.stoDHW.layer[1].dynBal.m",
+DYNX(W_,9496) = RememberSimple_(DYNX(W_,9496), 20);
+SolveScalarLinearParametric( -DYNX(W_,4416)," -hydraulic.distribution.stoDHW.layer[1].dynBal.m",
-DYNX(X_,40)," -hydraulic.distribution.stoDHW.layer[1].dynBal.U",
- DYNX(W_,9527),"hydraulic.portDHW_in.h_outflow");
+ DYNX(W_,9496),"hydraulic.portDHW_in.h_outflow");
/* End of Equation Block */
-DYNX(W_,9433) = 273.15+0.0002390057361376673*DYNX(W_,9527);
-DYNX(W_,9324) = DYNX(W_,9433)-294.15;
-DYNX(W_,9323) = DYNX(W_,4888)*DYNX(W_,9324);
+DYNX(W_,9402) = 273.15+0.0002390057361376673*DYNX(W_,9496);
+DYNX(W_,9293) = DYNX(W_,9402)-294.15;
+DYNX(W_,9292) = DYNX(W_,4848)*DYNX(W_,9293);
/* Linear system of equations to solve. */
-DYNX(W_,9267) = RememberSimple_(DYNX(W_,9267), 19);
-SolveScalarLinearParametric( -DYNX(W_,4515)," -hydraulic.distribution.stoDHW.layer[2].dynBal.m",
+DYNX(W_,9236) = RememberSimple_(DYNX(W_,9236), 21);
+SolveScalarLinearParametric( -DYNX(W_,4475)," -hydraulic.distribution.stoDHW.layer[2].dynBal.m",
-DYNX(X_,41)," -hydraulic.distribution.stoDHW.layer[2].dynBal.U",
- DYNX(W_,9267),"hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow");
+ DYNX(W_,9236),"hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9268) = 273.15+0.0002390057361376673*DYNX(W_,9267);
-DYNX(W_,9326) = DYNX(W_,9268)-294.15;
-DYNX(W_,9325) = DYNX(W_,4890)*DYNX(W_,9326);
+DYNX(W_,9237) = 273.15+0.0002390057361376673*DYNX(W_,9236);
+DYNX(W_,9295) = DYNX(W_,9237)-294.15;
+DYNX(W_,9294) = DYNX(W_,4850)*DYNX(W_,9295);
/* Linear system of equations to solve. */
-DYNX(W_,9275) = RememberSimple_(DYNX(W_,9275), 20);
-SolveScalarLinearParametric( -DYNX(W_,4574)," -hydraulic.distribution.stoDHW.layer[3].dynBal.m",
+DYNX(W_,9244) = RememberSimple_(DYNX(W_,9244), 22);
+SolveScalarLinearParametric( -DYNX(W_,4534)," -hydraulic.distribution.stoDHW.layer[3].dynBal.m",
-DYNX(X_,42)," -hydraulic.distribution.stoDHW.layer[3].dynBal.U",
- DYNX(W_,9275),"hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow");
+ DYNX(W_,9244),"hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9276) = 273.15+0.0002390057361376673*DYNX(W_,9275);
-DYNX(W_,9328) = DYNX(W_,9276)-294.15;
-DYNX(W_,9327) = DYNX(W_,4892)*DYNX(W_,9328);
-DYNX(W_,9330) = DYNX(W_,9430)-294.15;
-DYNX(W_,9329) = DYNX(W_,4894)*DYNX(W_,9330);
-DYNX(Y_,8) = DYNX(W_,9323)+DYNX(W_,9325)+DYNX(W_,9327)+DYNX(W_,9329);
+DYNX(W_,9245) = 273.15+0.0002390057361376673*DYNX(W_,9244);
+DYNX(W_,9297) = DYNX(W_,9245)-294.15;
+DYNX(W_,9296) = DYNX(W_,4852)*DYNX(W_,9297);
+DYNX(W_,9299) = DYNX(W_,9399)-294.15;
+DYNX(W_,9298) = DYNX(W_,4854)*DYNX(W_,9299);
+DYNX(Y_,8) = DYNX(W_,9292)+DYNX(W_,9294)+DYNX(W_,9296)+DYNX(W_,9298);
DYNX(Y_,9) = DYNX(X_,58);
-DYNX(W_,9432) = 273.15+0.0002390057361376673*DYNX(W_,9340);
-DYNX(W_,9406) = DYNX(W_,9432)-294.15;
-DYNX(W_,9405) = DYNX(W_,5427)*DYNX(W_,9406);
+DYNX(W_,9401) = 273.15+0.0002390057361376673*DYNX(W_,9309);
+DYNX(W_,9375) = DYNX(W_,9401)-294.15;
+DYNX(W_,9374) = DYNX(W_,5387)*DYNX(W_,9375);
/* Linear system of equations to solve. */
-DYNX(W_,9349) = RememberSimple_(DYNX(W_,9349), 21);
-SolveScalarLinearParametric( -DYNX(W_,5054)," -hydraulic.distribution.stoBuf.layer[2].dynBal.m",
+DYNX(W_,9318) = RememberSimple_(DYNX(W_,9318), 23);
+SolveScalarLinearParametric( -DYNX(W_,5014)," -hydraulic.distribution.stoBuf.layer[2].dynBal.m",
-DYNX(X_,49)," -hydraulic.distribution.stoBuf.layer[2].dynBal.U",
- DYNX(W_,9349),"hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow");
+ DYNX(W_,9318),"hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9350) = 273.15+0.0002390057361376673*DYNX(W_,9349);
-DYNX(W_,9408) = DYNX(W_,9350)-294.15;
-DYNX(W_,9407) = DYNX(W_,5429)*DYNX(W_,9408);
+DYNX(W_,9319) = 273.15+0.0002390057361376673*DYNX(W_,9318);
+DYNX(W_,9377) = DYNX(W_,9319)-294.15;
+DYNX(W_,9376) = DYNX(W_,5389)*DYNX(W_,9377);
/* Linear system of equations to solve. */
-DYNX(W_,9357) = RememberSimple_(DYNX(W_,9357), 22);
-SolveScalarLinearParametric( -DYNX(W_,5113)," -hydraulic.distribution.stoBuf.layer[3].dynBal.m",
+DYNX(W_,9326) = RememberSimple_(DYNX(W_,9326), 24);
+SolveScalarLinearParametric( -DYNX(W_,5073)," -hydraulic.distribution.stoBuf.layer[3].dynBal.m",
-DYNX(X_,50)," -hydraulic.distribution.stoBuf.layer[3].dynBal.U",
- DYNX(W_,9357),"hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow");
+ DYNX(W_,9326),"hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9358) = 273.15+0.0002390057361376673*DYNX(W_,9357);
-DYNX(W_,9410) = DYNX(W_,9358)-294.15;
-DYNX(W_,9409) = DYNX(W_,5431)*DYNX(W_,9410);
-DYNX(W_,9412) = DYNX(W_,9431)-294.15;
-DYNX(W_,9411) = DYNX(W_,5433)*DYNX(W_,9412);
-DYNX(Y_,10) = DYNX(W_,9405)+DYNX(W_,9407)+DYNX(W_,9409)+DYNX(W_,9411);
+DYNX(W_,9327) = 273.15+0.0002390057361376673*DYNX(W_,9326);
+DYNX(W_,9379) = DYNX(W_,9327)-294.15;
+DYNX(W_,9378) = DYNX(W_,5391)*DYNX(W_,9379);
+DYNX(W_,9381) = DYNX(W_,9400)-294.15;
+DYNX(W_,9380) = DYNX(W_,5393)*DYNX(W_,9381);
+DYNX(Y_,10) = DYNX(W_,9374)+DYNX(W_,9376)+DYNX(W_,9378)+DYNX(W_,9380);
DYNX(Y_,11) = DYNX(X_,57);
-DYNX(W_,9152) = 0.04841442749939482*DYNX(X_,20);
-DYNX(W_,9144) = 1.0-DYNX(W_,9152);
-DYNX(W_,9159) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableID, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u1, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u2)")
+DYNX(W_,9126) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable2DValueNoDer2(\nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableID, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u1, \nhydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u2)")
Modelica_Blocks_Tables_Internal_getTable2DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,2735))), DYNX(W_,9167), DYNX(W_,9197)));
+ (Integer)(DYNX(W_,2720))), DYNX(W_,9134), DYNX(W_,9164)));
PopModelContext();
-DYNX(W_,9157) = DYNX(W_,9159)*DYNX(W_,9160);
-DYNX(W_,9156) = DYNX(Y_,14)-DYNX(W_,9157);
-DYNX(W_,9161) = DYNX(W_,9144)*DYNX(W_,9156);
-DYNX(Y_,12) = DYNX(Y_,14)-DYNX(W_,9161);
+DYNX(W_,9124) = DYNX(W_,9126)*DYNX(W_,9127);
+DYNX(W_,9123) = DYNX(W_,9109)-DYNX(W_,9124);
+DYNX(W_,9107) = DYNX(W_,9110)*DYNX(W_,9123);
+DYNX(W_,9108) = DYNX(W_,9109)-DYNX(W_,9107);
+DYNX(Y_,12) = IF DYNX(W_,8299) THEN DYNX(W_,9108) ELSE DYNX(W_,2846);
DYNX(Y_,13) = DYNX(X_,26);
DYNX(Y_,15) = DYNX(X_,24);
DYNX(Y_,17) = DYNX(X_,28);
@@ -20960,83 +21017,83 @@ DYNX(Y_,20) = DYNX(X_,33);
DYNX(Y_,22) = DYNX(X_,34);
DYNX(Y_,24) = DYNX(X_,31);
DYNX(Y_,25) = DYNX(X_,32);
-DYNX(DYNhelp,2017) = DYNX(W_,8507)-DYNX(W_,9462);
-DYNX(DYNhelp,2018) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2017),
- DYNX(W_,5863)-1, 0.05));
+DYNX(DYNhelp,2018) = DYNX(W_,8470)-DYNX(W_,9431);
+DYNX(DYNhelp,2019) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[1].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2018),
+ DYNX(W_,5823)-1, 0.05));
PopModelContext();
-DYNX(W_,9452) = (1-DYNX(W_,5857))*DYNX(W_,5891)*DYNX(DYNhelp,2017)*
- DYNX(DYNhelp,2018);
-DYNX(DYNhelp,2019) = DYNX(W_,8507)-DYNX(W_,9470);
-DYNX(DYNhelp,2020) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2019),
- DYNX(W_,5863)-1, 0.05));
+DYNX(W_,9421) = (1-DYNX(W_,5817))*DYNX(W_,5851)*DYNX(DYNhelp,2018)*
+ DYNX(DYNhelp,2019);
+DYNX(DYNhelp,2020) = DYNX(W_,8470)-DYNX(W_,9439);
+DYNX(DYNhelp,2021) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[2].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2020),
+ DYNX(W_,5823)-1, 0.05));
PopModelContext();
-DYNX(W_,9453) = (1-DYNX(W_,5857))*DYNX(W_,5891)*DYNX(DYNhelp,2019)*
- DYNX(DYNhelp,2020);
-DYNX(DYNhelp,2021) = DYNX(W_,8507)-DYNX(W_,9478);
-DYNX(DYNhelp,2022) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2021),
- DYNX(W_,5863)-1, 0.05));
+DYNX(W_,9422) = (1-DYNX(W_,5817))*DYNX(W_,5851)*DYNX(DYNhelp,2020)*
+ DYNX(DYNhelp,2021);
+DYNX(DYNhelp,2022) = DYNX(W_,8470)-DYNX(W_,9447);
+DYNX(DYNhelp,2023) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[3].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2022),
+ DYNX(W_,5823)-1, 0.05));
PopModelContext();
-DYNX(W_,9454) = (1-DYNX(W_,5857))*DYNX(W_,5891)*DYNX(DYNhelp,2021)*
- DYNX(DYNhelp,2022);
-DYNX(DYNhelp,2023) = DYNX(W_,8507)-DYNX(W_,9486);
-DYNX(DYNhelp,2024) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2023),
- DYNX(W_,5863)-1, 0.05));
+DYNX(W_,9423) = (1-DYNX(W_,5817))*DYNX(W_,5851)*DYNX(DYNhelp,2022)*
+ DYNX(DYNhelp,2023);
+DYNX(DYNhelp,2024) = DYNX(W_,8470)-DYNX(W_,9455);
+DYNX(DYNhelp,2025) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[4].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2024),
+ DYNX(W_,5823)-1, 0.05));
PopModelContext();
-DYNX(W_,9455) = (1-DYNX(W_,5857))*DYNX(W_,5891)*DYNX(DYNhelp,2023)*
- DYNX(DYNhelp,2024);
-DYNX(DYNhelp,2025) = DYNX(W_,8507)-DYNX(W_,9493);
-DYNX(DYNhelp,2026) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
- IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2025),
- DYNX(W_,5863)-1, 0.05));
+DYNX(W_,9424) = (1-DYNX(W_,5817))*DYNX(W_,5851)*DYNX(DYNhelp,2024)*
+ DYNX(DYNhelp,2025);
+DYNX(DYNhelp,2026) = DYNX(W_,8470)-DYNX(W_,9462);
+DYNX(DYNhelp,2027) = (PushModelContext(1,"IBPSA.Utilities.Math.Functions.regNonZeroPower(hydraulic.transfer.rad[1].heatPortCon.T-hydraulic.transfer.rad[1].vol[5].T, hydraulic.transfer.rad[1].n-1, 0.05)")
+ IBPSA_Utilities_Math_Functions_regNonZeroPower(DYNX(DYNhelp,2026),
+ DYNX(W_,5823)-1, 0.05));
PopModelContext();
-DYNX(W_,9456) = (1-DYNX(W_,5857))*DYNX(W_,5891)*DYNX(DYNhelp,2025)*
- DYNX(DYNhelp,2026);
-DYNX(W_,8476) = -(DYNX(W_,9452)+DYNX(W_,9453)+DYNX(W_,9454)+DYNX(W_,9455)+
- DYNX(W_,9456));
-DYNX(Y_,26) = DYNX(W_,8478)+DYNX(W_,8476);
+DYNX(W_,9425) = (1-DYNX(W_,5817))*DYNX(W_,5851)*DYNX(DYNhelp,2026)*
+ DYNX(DYNhelp,2027);
+DYNX(W_,8439) = -(DYNX(W_,9421)+DYNX(W_,9422)+DYNX(W_,9423)+DYNX(W_,9424)+
+ DYNX(W_,9425));
+DYNX(Y_,26) = DYNX(W_,8441)+DYNX(W_,8439);
DYNX(Y_,27) = DYNX(X_,64);
-DYNX(W_,9054) = DYNTime;
+DYNX(W_,9017) = DYNTime;
beginwhenBlock
-whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8312), 62), 3), 38)
- DYNX(W_,8313) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nDHW.combiTimeTableDHWInput.tableID, \nDHW.combiTimeTableDHWInput.timeScaled)")
+whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8272), 67), 3), 38)
+ DYNX(W_,8273) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getNextTimeEvent(\nDHW.combiTimeTableDHWInput.tableID, \nDHW.combiTimeTableDHWInput.timeScaled)")
Modelica_Blocks_Tables_Internal_getNextTimeEvent_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), DYNX(W_,9054)));
+ (Integer)(DYNX(W_,1978))), DYNX(W_,9017)));
PopModelContext();
endwhenModelica()
endwhenBlock
-DYNX(DYNhelp,2027) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n4, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
+DYNX(DYNhelp,2028) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n4, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), 4, DYNX(W_,9054), DYNX(W_,8313), PRE(DYNX(W_,8313),
+ (Integer)(DYNX(W_,1978))), 4, DYNX(W_,9017), DYNX(W_,8273), PRE(DYNX(W_,8273),
0)));
PopModelContext();
+DYNX(W_,8997) = DYNX(W_,1977)+DYNX(DYNhelp,2028);
+DYNX(W_,8990) = 273.15+DYNX(W_,8997);
+DYNX(W_,8992) = DYNX(DP_,355)*DYNX(W_,8990)-DYNX(W_,1092);
BreakSectionFunctionEnd()
BreakSectionFunctionStart(50);
-DYNX(W_,9034) = DYNX(W_,1977)+DYNX(DYNhelp,2027);
-DYNX(W_,9027) = 273.15+DYNX(W_,9034);
-DYNX(W_,9029) = DYNX(DP_,355)*DYNX(W_,9027)-DYNX(W_,1092);
if (NewParameters_) {
-DYNX(DYNhelp,2028) = divinvGuarded(DYNX(W_,1090),"DHW.calcmFlow.division.u2");
+DYNX(DYNhelp,2029) = divinvGuarded(DYNX(W_,1090),"DHW.calcmFlow.division.u2");
}
-DYNX(W_,9030) = DYNX(DYNhelp,2028)*DYNX(W_,9029);
-DYNX(W_,9031) = IF GreaterS(DYNX(W_,9030),"DHW.calcmFlow.limiter.u",
- DYNX(DP_,357),"DHW.calcmFlow.limiter.uMax", 71) THEN DYNX(DP_,357) ELSE IF
- LessS(DYNX(W_,9030),"DHW.calcmFlow.limiter.u", DYNX(DP_,358),"DHW.calcmFlow.limiter.uMin",
- 72) THEN DYNX(DP_,358) ELSE DYNX(W_,9030);
-DYNX(DYNhelp,2029) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n2, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
+DYNX(W_,8993) = DYNX(DYNhelp,2029)*DYNX(W_,8992);
+DYNX(W_,8994) = IF GreaterS(DYNX(W_,8993),"DHW.calcmFlow.limiter.u",
+ DYNX(DP_,357),"DHW.calcmFlow.limiter.uMax", 79) THEN DYNX(DP_,357) ELSE IF
+ LessS(DYNX(W_,8993),"DHW.calcmFlow.limiter.u", DYNX(DP_,358),"DHW.calcmFlow.limiter.uMin",
+ 80) THEN DYNX(DP_,358) ELSE DYNX(W_,8993);
+DYNX(DYNhelp,2030) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n2, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), 2, DYNX(W_,9054), DYNX(W_,8313), PRE(DYNX(W_,8313),
+ (Integer)(DYNX(W_,1978))), 2, DYNX(W_,9017), DYNX(W_,8273), PRE(DYNX(W_,8273),
0)));
PopModelContext();
-DYNX(W_,9026) = DYNX(W_,1975)+DYNX(DYNhelp,2029);
-DYNX(W_,9021) = DYNX(W_,9031)*DYNX(W_,9026);
-DYNX(W_,9028) = 273.15+0.0002390057361376673*DYNX(W_,9526);
-DYNX(Y_,31) = 4184.0*DYNX(W_,9021)*(DYNX(W_,9028)-DYNX(W_,1077));
+DYNX(W_,8989) = DYNX(W_,1975)+DYNX(DYNhelp,2030);
+DYNX(W_,8984) = DYNX(W_,8994)*DYNX(W_,8989);
+DYNX(W_,8991) = 273.15+0.0002390057361376673*DYNX(W_,9495);
+DYNX(Y_,31) = 4184.0*DYNX(W_,8984)*(DYNX(W_,8991)-DYNX(W_,1077));
DYNX(Y_,32) = DYNX(X_,15);
DYNX(Y_,33) = DYNX(X_,69);
DYNX(Y_,36) = DYNX(Y_,43);
@@ -21044,88 +21101,103 @@ DYNX(Y_,37) = DYNX(X_,19);
DYNX(Y_,38) = DYNX(Y_,42);
DYNX(Y_,39) = DYNX(X_,18);
DYNX(Y_,41) = DYNX(X_,17);
-DYNX(W_,8392) = NOT PRE(DYNX(W_,8392), 32) AND Greater(DYNX(W_,9195),
- "hydraulic.generation.heatPump.hys.u", DYNX(W_,3386),"hydraulic.generation.heatPump.hys.uHigh",
- 122) OR PRE(DYNX(W_,8392), 32) AND GreaterEqual(DYNX(W_,9195),
- "hydraulic.generation.heatPump.hys.u", 0.001,"0.001", 123);
+DYNX(W_,8355) = NOT PRE(DYNX(W_,8355), 33) AND Greater(DYNX(W_,9162),
+ "hydraulic.generation.heatPump.hys.u", DYNX(W_,3356),"hydraulic.generation.heatPump.hys.uHigh",
+ 130) OR PRE(DYNX(W_,8355), 33) AND GreaterEqual(DYNX(W_,9162),
+ "hydraulic.generation.heatPump.hys.u", 0.001,"0.001", 131);
beginwhenBlock
-whenModelica(DYNX(W_,8392), 39)
- DYNX(W_,8413) = 1+PRE(DYNX(W_,8413), 63);
+whenModelica(DYNX(W_,8355), 39)
+ DYNX(W_,8376) = 1+PRE(DYNX(W_,8376), 68);
endwhenModelica()
endwhenBlock
-DYNX(Y_,16) = DYNX(W_,8413);
-DYNX(W_,8417) = NOT PRE(DYNX(W_,8417), 31) AND Greater(DYNX(Y_,21),
- "hydraulic.generation.multiSum.u[3]", DYNX(W_,3976),"hydraulic.generation.KPIEleHea.isOn.uHigh",
- 124) OR PRE(DYNX(W_,8417), 31) AND GreaterEqual(DYNX(Y_,21),"hydraulic.generation.multiSum.u[3]",
- DYNX(W_,3975),"hydraulic.generation.KPIEleHea.isOn.uLow", 125);
+DYNX(Y_,16) = DYNX(W_,8376);
+DYNX(W_,8380) = NOT PRE(DYNX(W_,8380), 31) AND Greater(DYNX(Y_,21),
+ "hydraulic.generation.multiSum.u[3]", DYNX(W_,3936),"hydraulic.generation.KPIEleHea.isOn.uHigh",
+ 132) OR PRE(DYNX(W_,8380), 31) AND GreaterEqual(DYNX(Y_,21),"hydraulic.generation.multiSum.u[3]",
+ DYNX(W_,3935),"hydraulic.generation.KPIEleHea.isOn.uLow", 133);
beginwhenBlock
-whenModelica(DYNX(W_,8417), 40)
- DYNX(W_,8420) = 1+PRE(DYNX(W_,8420), 64);
+whenModelica(DYNX(W_,8380), 40)
+ DYNX(W_,8383) = 1+PRE(DYNX(W_,8383), 69);
endwhenModelica()
endwhenBlock
-DYNX(Y_,23) = DYNX(W_,8420);
-AssertModelica(GreaterEqual(DYNX(W_,9027),"DHW.calcmFlow.TSet", DYNX(W_,1086),
- "DHW.calcmFlow.TCold", 70),"DHW.calcmFlow.TSet >= DHW.calcmFlow.TCold",
+DYNX(Y_,23) = DYNX(W_,8383);
+AssertModelica(GreaterEqual(DYNX(W_,8990),"DHW.calcmFlow.TSet", DYNX(W_,1086),
+ "DHW.calcmFlow.TCold", 78),"DHW.calcmFlow.TSet >= DHW.calcmFlow.TCold",
"Set temperature has to be higher than cold water temperature");
-AssertModelica(DYNX(W_,8487) > DYNX(DP_,1474) AND DYNX(W_,8487) < DYNX(DP_,1475),
+AssertModelica(DYNX(W_,8450) > DYNX(DP_,1480) AND DYNX(W_,8450) < DYNX(DP_,1481),
"noEvent(weaDat.cheTemDryBul.TIn > weaDat.cheTemDryBul.TMin and weaDat.cheTemDryBul.TIn < weaDat.cheTemDryBul.TMax)",
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.cheTemDryBul: Weather data dry bulb temperature out of bounds.\n TIn = ",
- Real2String2(DYNX(W_,8487), true, 0)));
-AssertModelica(DYNX(W_,8489) > DYNX(DP_,1476) AND DYNX(W_,8489) < DYNX(DP_,1477),
+ Real2String2(DYNX(W_,8450), true, 0)));
+AssertModelica(DYNX(W_,8452) > DYNX(DP_,1482) AND DYNX(W_,8452) < DYNX(DP_,1483),
"noEvent(weaDat.cheTemDewPoi.TIn > weaDat.cheTemDewPoi.TMin and weaDat.cheTemDewPoi.TIn < weaDat.cheTemDewPoi.TMax)",
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.cheTemDewPoi: Weather data dew point temperature out of bounds.\n TIn = ",
- Real2String2(DYNX(W_,8489), true, 0)));
-AssertModelica(DYNX(W_,8250) OR DYNTime-DYNX(W_,8248) < 1800.0,"weaDat.conTimMin.canRepeatWeatherFile or noEvent(time-weaDat.conTimMin.weaDatEndTim < 1800.0)",
+ Real2String2(DYNX(W_,8452), true, 0)));
+AssertModelica(DYNX(W_,8210) OR DYNTime-DYNX(W_,8208) < 1800.0,"weaDat.conTimMin.canRepeatWeatherFile or noEvent(time-weaDat.conTimMin.weaDatEndTim < 1800.0)",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.conTimMin: Insufficient weather data provided for the desired simulation period.\n The simulation time ",
Real2String2(DYNTime, true, 0))," exceeds the end time "),Real2String2(
- DYNX(W_,8248), true, 0))," of the weather data file."));
-AssertModelica(DYNX(W_,8250) OR DYNTime >= DYNX(W_,8247),"weaDat.conTimMin.canRepeatWeatherFile or noEvent(time >= weaDat.conTimMin.weaDatStaTim)",
+ DYNX(W_,8208), true, 0))," of the weather data file."));
+AssertModelica(DYNX(W_,8210) OR DYNTime >= DYNX(W_,8207),"weaDat.conTimMin.canRepeatWeatherFile or noEvent(time >= weaDat.conTimMin.weaDatStaTim)",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.conTimMin: Insufficient weather data provided for the desired simulation period.\n The simulation time ",
Real2String2(DYNTime, true, 0))," is less than the start time "),Real2String2(
- DYNX(W_,8247), true, 0))," of the weather data file."));
-AssertModelica(DYNX(W_,8255) OR DYNTime-DYNX(W_,8253) < 1800.0,"weaDat.conTim.canRepeatWeatherFile or noEvent(time-weaDat.conTim.weaDatEndTim < 1800.0)",
+ DYNX(W_,8207), true, 0))," of the weather data file."));
+AssertModelica(DYNX(W_,8215) OR DYNTime-DYNX(W_,8213) < 1800.0,"weaDat.conTim.canRepeatWeatherFile or noEvent(time-weaDat.conTim.weaDatEndTim < 1800.0)",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.conTim: Insufficient weather data provided for the desired simulation period.\n The simulation time ",
Real2String2(DYNTime, true, 0))," exceeds the end time "),Real2String2(
- DYNX(W_,8253), true, 0))," of the weather data file."));
-AssertModelica(DYNX(W_,8255) OR DYNTime >= DYNX(W_,8252),"weaDat.conTim.canRepeatWeatherFile or noEvent(time >= weaDat.conTim.weaDatStaTim)",
+ DYNX(W_,8213), true, 0))," of the weather data file."));
+AssertModelica(DYNX(W_,8215) OR DYNTime >= DYNX(W_,8212),"weaDat.conTim.canRepeatWeatherFile or noEvent(time >= weaDat.conTim.weaDatStaTim)",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.conTim: Insufficient weather data provided for the desired simulation period.\n The simulation time ",
Real2String2(DYNTime, true, 0))," is less than the start time "),Real2String2(
- DYNX(W_,8252), true, 0))," of the weather data file."));
-AssertModelica(DYNX(W_,8490) > DYNX(DP_,1487) AND DYNX(W_,8490) < DYNX(DP_,1488),
+ DYNX(W_,8212), true, 0))," of the weather data file."));
+AssertModelica(DYNX(W_,8453) > DYNX(DP_,1493) AND DYNX(W_,8453) < DYNX(DP_,1494),
"noEvent(weaDat.cheTemBlaSky.TIn > weaDat.cheTemBlaSky.TMin and weaDat.cheTemBlaSky.TIn < weaDat.cheTemBlaSky.TMax)",
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.weaDat.cheTemBlaSky: Weather data black-body sky temperature out of bounds.\n TIn = ",
- Real2String2(DYNX(W_,8490), true, 0)));
+ Real2String2(DYNX(W_,8453), true, 0)));
DynamicsSection
-DYNX(W_,9555) = DYNX(W_,8192)-DYNX(W_,9536);
+if (NewParameters_) {
+DYNX(DYNhelp,2031) = DYNX(W_,3404) >= 0;
+}
+DYNX(W_,9147) = IF DYNX(DYNhelp,2031) THEN DYNX(Aux_,140)*DYNX(W_,3404) ELSE
+ DYNX(X_,22)*DYNX(W_,3404);
+if (NewParameters_) {
+DYNX(DYNhelp,2032) = -DYNX(W_,3404) >= 0;
+}
+DYNX(W_,9148) = IF DYNX(DYNhelp,2032) THEN -DYNX(Aux_,142)*DYNX(W_,3404) ELSE
+ -DYNX(X_,22)*DYNX(W_,3404);
+DYNX(W_,9143) = DYNX(W_,9147)+DYNX(W_,9148);
+if (NewParameters_) {
+DYNX(DYNhelp,2033) = divinvGuarded(DYNX(W_,3091),"hydraulic.generation.heatPump.eva.vol.dynBal.m");
+}
+DYNX(F_,22) = DYNX(DYNhelp,2033)*DYNX(W_,9143);
+DYNX(W_,9524) = DYNX(W_,8152)-DYNX(W_,9505);
/* Introducing 0 common subexpressions and reusing 1 variables totally used in 0
expressions */
/* Of the common subexpressions 1 are reals, 0 are integers, and 0
are booleans. */
-DYNX(W_,9534) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.hex.bal1.preDro.dp, 0.010888888888888889, 0.01088888888888889)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9555),
+DYNX(W_,9503) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.hex.bal1.preDro.dp, 0.010888888888888889, 0.01088888888888889)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9524),
0.010888888888888889, 0.01088888888888889));
PopModelContext();
-DYNX(F_,68) = DYNX(W_,9534)-DYNX(W_,8510);
-DYNX(W_,9691) = DYNX(W_,8511)-DYNX(W_,9532);
+DYNX(F_,68) = DYNX(W_,9503)-DYNX(W_,8473);
+DYNX(W_,9660) = DYNX(W_,8474)-DYNX(W_,9501);
/* Introducing 1 common subexpressions used in 0 expressions */
/* Of the common subexpressions 1 are reals, 0 are integers, and 0
are booleans. */
-DYNX(DYNhelp,2030) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.distribution.resExh[1].dp, 0.010888888888888889, 0.03266666666666667)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9691),
+DYNX(DYNhelp,2034) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.distribution.resExh[1].dp, 0.010888888888888889, 0.03266666666666667)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9660),
0.010888888888888889, 0.03266666666666667));
PopModelContext();
-DYNX(W_,8513) = -DYNX(DYNhelp,2030);
+DYNX(W_,8476) = -DYNX(DYNhelp,2034);
-DYNX(F_,2) = DYNX(W_,8510)+DYNX(W_,8513);
-DYNX(W_,9638) = 1.1843079200592153E-05*DYNX(W_,9532);
-DYNX(W_,9604) = DYNX(W_,9616)*DYNX(W_,9638);
-DYNX(F_,72) = -(DYNX(W_,9604)+DYNX(W_,8513));
+DYNX(F_,2) = DYNX(W_,8473)+DYNX(W_,8476);
+DYNX(W_,9607) = 1.1843079200592153E-05*DYNX(W_,9501);
+DYNX(W_,9573) = DYNX(W_,9585)*DYNX(W_,9607);
+DYNX(F_,72) = -(DYNX(W_,9573)+DYNX(W_,8476));
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[7] */
@@ -21136,39 +21208,39 @@ DYNX(F_,72) = -(DYNX(W_,9604)+DYNX(W_,8513));
const char*const varnames_[]={"ventilation.generation.threeWayValve_b.res1.dp"};
const double nominal_[]={6000.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 16, 88, 1,
- DYNX(DYNhelp,2031), 37, DYNX(did_->helpvari_vec,418), 23);
-NonLinearSystemSave(DYNX(W_,9605), 0);
-SetInitVectorNH(x__, 1, DYNX(W_,9652), Remember_(DYNX(W_,9652), 23));
+ DYNX(DYNhelp,2035), 37, DYNX(did_->helpvari_vec,418), 23);
+NonLinearSystemSave(DYNX(W_,9574), 0);
+SetInitVectorNH(x__, 1, DYNX(W_,9621), Remember_(DYNX(W_,9621), 25));
Residues;
- DYNX(W_,9649) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_b.res1.dp, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9652),
- DYNX(W_,7672), DYNX(W_,7653)));
+ DYNX(W_,9618) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_b.res1.dp, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9621),
+ DYNX(W_,7632), DYNX(W_,7613)));
PopModelContext();
- DYNX(W_,9670) = DYNX(W_,9652)+DYNX(W_,7258)-DYNX(W_,9605);
-DYNX(DYNhelp,2068) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9670),
- DYNX(W_,7865), DYNX(W_,7846)));
+ DYNX(W_,9639) = DYNX(W_,9621)+DYNX(W_,7218)-DYNX(W_,9574);
+DYNX(DYNhelp,2072) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9639),
+ DYNX(W_,7825), DYNX(W_,7806)));
PopModelContext();
-SetVector(residue__, 1, DYNX(W_,9649)+DYNX(DYNhelp,2068));
+SetVector(residue__, 1, DYNX(W_,9618)+DYNX(DYNhelp,2072));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_b.res1.dp, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9652),
- DYNX(W_,7672), DYNX(W_,7653), 1.0))+(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9670),
- DYNX(W_,7865), DYNX(W_,7846), 1.0)));
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9621),
+ DYNX(W_,7632), DYNX(W_,7613), 1.0))+(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_a.res1.dp, ventilation.generation.threeWayValve_a.res1.k, ventilation.generation.threeWayValve_a.res1.m_flow_turbulent, 1.0)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9639),
+ DYNX(W_,7825), DYNX(W_,7806), 1.0)));
PopModelContext();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 16,
"Tag: simulation.nonlinear[7]");
-DYNX(W_,9652) = GetVector(x__, 1);
+DYNX(W_,9621) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 16);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9650) = DYNX(W_,9652)+DYNX(W_,7258);
+DYNX(W_,9619) = DYNX(W_,9621)+DYNX(W_,7218);
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[8] */
@@ -21179,796 +21251,804 @@ DYNX(W_,9650) = DYNX(W_,9652)+DYNX(W_,7258);
const char*const varnames_[]={"ventilation.generation.threeWayValve_b.res3.dp"};
const double nominal_[]={6000.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 17, 89, 1,
- DYNX(DYNhelp,2069), 37, DYNX(did_->helpvari_vec,441), 23);
-NonLinearSystemSave(DYNX(W_,9605), 0);
-SetInitVectorNH(x__, 1, DYNX(W_,9653), Remember_(DYNX(W_,9653), 24));
+ DYNX(DYNhelp,2073), 37, DYNX(did_->helpvari_vec,441), 23);
+NonLinearSystemSave(DYNX(W_,9574), 0);
+SetInitVectorNH(x__, 1, DYNX(W_,9622), Remember_(DYNX(W_,9622), 26));
Residues;
- DYNX(W_,9538) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9653),
- DYNX(W_,7713), DYNX(W_,7694)));
+ DYNX(W_,9507) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9622),
+ DYNX(W_,7673), DYNX(W_,7654)));
PopModelContext();
- DYNX(W_,9560) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.hex.bal2.preDro.m_flow, 0.010888888888888889, 0.01088888888888889)")
+ DYNX(W_,9529) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.hex.bal2.preDro.m_flow, 0.010888888888888889, 0.01088888888888889)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
- DYNX(W_,9538), 0.010888888888888889, 0.01088888888888889));
+ DYNX(W_,9507), 0.010888888888888889, 0.01088888888888889));
PopModelContext();
- DYNX(W_,9671) = DYNX(W_,9560)-DYNX(W_,9605)+DYNX(W_,9653)+DYNX(W_,7258);
-DYNX(DYNhelp,2106) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res3.dp, ventilation.generation.threeWayValve_a.res3.k, ventilation.generation.threeWayValve_a.res3.m_flow_turbulent)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9671),
- DYNX(W_,7903), DYNX(W_,7884)));
+ DYNX(W_,9640) = DYNX(W_,9529)-DYNX(W_,9574)+DYNX(W_,9622)+DYNX(W_,7218);
+DYNX(DYNhelp,2110) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.generation.threeWayValve_a.res3.dp, ventilation.generation.threeWayValve_a.res3.k, ventilation.generation.threeWayValve_a.res3.m_flow_turbulent)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9640),
+ DYNX(W_,7863), DYNX(W_,7844)));
PopModelContext();
-SetVector(residue__, 1, DYNX(W_,9538)+DYNX(DYNhelp,2106));
+SetVector(residue__, 1, DYNX(W_,9507)+DYNX(DYNhelp,2110));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-DYNX(DYNhelp,2107) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_a.res3.dp, ventilation.generation.threeWayValve_a.res3.k, ventilation.generation.threeWayValve_a.res3.m_flow_turbulent, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9671),
- DYNX(W_,7903), DYNX(W_,7884), 1.0));
+DYNX(DYNhelp,2111) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_a.res3.dp, ventilation.generation.threeWayValve_a.res3.k, ventilation.generation.threeWayValve_a.res3.m_flow_turbulent, 1.0)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9640),
+ DYNX(W_,7863), DYNX(W_,7844), 1.0));
PopModelContext();
SetMatrixLeading(Jacobian__, 1, 1, 1, (1.0+(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(ventilation.generation.hex.bal2.preDro.m_flow, 0.010888888888888889, 0.01088888888888889, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flowx_0der(
- DYNX(W_,9538), 0.010888888888888889, 0.01088888888888889, 1.0))*
- DYNX(DYNhelp,2107))*(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9653),
- DYNX(W_,7713), DYNX(W_,7694), 1.0))+DYNX(DYNhelp,2107));
+ DYNX(W_,9507), 0.010888888888888889, 0.01088888888888889, 1.0))*
+ DYNX(DYNhelp,2111))*(PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.generation.threeWayValve_b.res3.dp, ventilation.generation.threeWayValve_b.res3.k, ventilation.generation.threeWayValve_b.res3.m_flow_turbulent, 1.0)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9622),
+ DYNX(W_,7673), DYNX(W_,7654), 1.0))+DYNX(DYNhelp,2111));
PopModelContext();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 17,
"Tag: simulation.nonlinear[8]");
-DYNX(W_,9653) = GetVector(x__, 1);
+DYNX(W_,9622) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 17);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9541) = DYNX(W_,9653)+DYNX(W_,7258);
-DYNX(W_,9539) = DYNX(W_,9671)+DYNX(W_,9605);
-DYNX(F_,78) = DYNX(W_,9604)-DYNX(W_,9649)-DYNX(W_,9538);
-DYNX(W_,9697) = DYNX(X_,66);
-DYNX(DYNhelp,2108) = DYNX(W_,8510) >= 0;
-DYNX(W_,8539) = IF DYNX(DYNhelp,2108) THEN DYNX(W_,9697)*DYNX(W_,8510) ELSE
- DYNX(X_,0)*DYNX(W_,8510);
-DYNX(DYNhelp,2109) = DYNX(W_,8513) >= 0;
-DYNX(W_,8540) = IF DYNX(DYNhelp,2109) THEN DYNX(X_,70)*DYNX(W_,8513) ELSE
- DYNX(X_,0)*DYNX(W_,8513);
-DYNX(W_,8535) = DYNX(W_,8539)+DYNX(W_,8540);
-DYNX(F_,0) = divGuarded(DYNX(W_,8535),"building.thermalZone[1].ROM.volAir.dynBal.mbXi_flow[1]",
+DYNX(W_,9510) = DYNX(W_,9622)+DYNX(W_,7218);
+DYNX(W_,9508) = DYNX(W_,9640)+DYNX(W_,9574);
+DYNX(F_,78) = DYNX(W_,9573)-DYNX(W_,9618)-DYNX(W_,9507);
+DYNX(W_,9666) = DYNX(X_,66);
+DYNX(DYNhelp,2112) = DYNX(W_,8473) >= 0;
+DYNX(W_,8502) = IF DYNX(DYNhelp,2112) THEN DYNX(W_,9666)*DYNX(W_,8473) ELSE
+ DYNX(X_,0)*DYNX(W_,8473);
+DYNX(DYNhelp,2113) = DYNX(W_,8476) >= 0;
+DYNX(W_,8503) = IF DYNX(DYNhelp,2113) THEN DYNX(X_,70)*DYNX(W_,8476) ELSE
+ DYNX(X_,0)*DYNX(W_,8476);
+DYNX(W_,8498) = DYNX(W_,8502)+DYNX(W_,8503);
+DYNX(F_,0) = divGuarded(DYNX(W_,8498),"building.thermalZone[1].ROM.volAir.dynBal.mbXi_flow[1]",
DYNX(X_,2),"building.thermalZone[1].ROM.volAir.dynBal.m");
-DYNX(DYNhelp,2110) = DYNX(W_,9534) >= 0;
-DYNX(W_,9595) = IF DYNX(DYNhelp,2110) THEN DYNX(Aux_,159)*DYNX(W_,9534) ELSE
- DYNX(X_,66)*DYNX(W_,9534);
-DYNX(DYNhelp,2111) = -DYNX(W_,8510) >= 0;
-DYNX(W_,9596) = IF DYNX(DYNhelp,2111) THEN -DYNX(X_,0)*DYNX(W_,8510) ELSE -
- DYNX(X_,66)*DYNX(W_,8510);
-DYNX(W_,9592) = DYNX(W_,9595)+DYNX(W_,9596);
-DYNX(F_,66) = divGuarded(DYNX(W_,9592),"ventilation.generation.fanFlow.vol.dynBal.mbXi_flow[1]",
+DYNX(DYNhelp,2114) = DYNX(W_,9503) >= 0;
+DYNX(W_,9564) = IF DYNX(DYNhelp,2114) THEN DYNX(Aux_,159)*DYNX(W_,9503) ELSE
+ DYNX(X_,66)*DYNX(W_,9503);
+DYNX(DYNhelp,2115) = -DYNX(W_,8473) >= 0;
+DYNX(W_,9565) = IF DYNX(DYNhelp,2115) THEN -DYNX(X_,0)*DYNX(W_,8473) ELSE -
+ DYNX(X_,66)*DYNX(W_,8473);
+DYNX(W_,9561) = DYNX(W_,9564)+DYNX(W_,9565);
+DYNX(F_,66) = divGuarded(DYNX(W_,9561),"ventilation.generation.fanFlow.vol.dynBal.mbXi_flow[1]",
DYNX(X_,68),"ventilation.generation.fanFlow.vol.dynBal.m");
-DYNX(DYNhelp,2112) = -DYNX(W_,8513) >= 0;
-DYNX(W_,9635) = IF DYNX(DYNhelp,2112) THEN -DYNX(X_,0)*DYNX(W_,8513) ELSE -
- DYNX(X_,70)*DYNX(W_,8513);
-DYNX(DYNhelp,2113) = -DYNX(W_,9604) >= 0;
-DYNX(W_,9636) = IF DYNX(DYNhelp,2113) THEN -DYNX(X_,76)*DYNX(W_,9604) ELSE -
- DYNX(X_,70)*DYNX(W_,9604);
-DYNX(W_,9632) = DYNX(W_,9635)+DYNX(W_,9636);
-DYNX(F_,70) = divGuarded(DYNX(W_,9632),"ventilation.generation.fanRet.vol.dynBal.mbXi_flow[1]",
+DYNX(DYNhelp,2116) = -DYNX(W_,8476) >= 0;
+DYNX(W_,9604) = IF DYNX(DYNhelp,2116) THEN -DYNX(X_,0)*DYNX(W_,8476) ELSE -
+ DYNX(X_,70)*DYNX(W_,8476);
+DYNX(DYNhelp,2117) = -DYNX(W_,9573) >= 0;
+DYNX(W_,9605) = IF DYNX(DYNhelp,2117) THEN -DYNX(X_,76)*DYNX(W_,9573) ELSE -
+ DYNX(X_,70)*DYNX(W_,9573);
+DYNX(W_,9601) = DYNX(W_,9604)+DYNX(W_,9605);
+DYNX(F_,70) = divGuarded(DYNX(W_,9601),"ventilation.generation.fanRet.vol.dynBal.mbXi_flow[1]",
DYNX(X_,72),"ventilation.generation.fanRet.vol.dynBal.m");
-DYNX(DYNhelp,2114) = -DYNX(W_,9649) >= 0;
-DYNX(W_,9687) = IF DYNX(DYNhelp,2114) THEN -DYNX(X_,74)*DYNX(W_,9649) ELSE -
- DYNX(X_,76)*DYNX(W_,9649);
-DYNX(W_,9608) = DYNX(X_,70);
-DYNX(DYNhelp,2115) = DYNX(W_,9604) >= 0;
-DYNX(W_,9688) = IF DYNX(DYNhelp,2115) THEN DYNX(W_,9608)*DYNX(W_,9604) ELSE
- DYNX(X_,76)*DYNX(W_,9604);
-DYNX(DYNhelp,2116) = -DYNX(W_,9538) >= 0;
-DYNX(W_,9689) = IF DYNX(DYNhelp,2116) THEN -DYNX(X_,74)*DYNX(W_,9538) ELSE -
- DYNX(X_,76)*DYNX(W_,9538);
-DYNX(W_,9683) = DYNX(W_,9687)+DYNX(W_,9688)+DYNX(W_,9689);
-DYNX(F_,76) = divGuarded(DYNX(W_,9683),"ventilation.generation.threeWayValve_a.vol.dynBal.mbXi_flow[1]",
+DYNX(DYNhelp,2118) = -DYNX(W_,9618) >= 0;
+DYNX(W_,9656) = IF DYNX(DYNhelp,2118) THEN -DYNX(X_,74)*DYNX(W_,9618) ELSE -
+ DYNX(X_,76)*DYNX(W_,9618);
+DYNX(W_,9577) = DYNX(X_,70);
+DYNX(DYNhelp,2119) = DYNX(W_,9573) >= 0;
+DYNX(W_,9657) = IF DYNX(DYNhelp,2119) THEN DYNX(W_,9577)*DYNX(W_,9573) ELSE
+ DYNX(X_,76)*DYNX(W_,9573);
+DYNX(DYNhelp,2120) = -DYNX(W_,9507) >= 0;
+DYNX(W_,9658) = IF DYNX(DYNhelp,2120) THEN -DYNX(X_,74)*DYNX(W_,9507) ELSE -
+ DYNX(X_,76)*DYNX(W_,9507);
+DYNX(W_,9652) = DYNX(W_,9656)+DYNX(W_,9657)+DYNX(W_,9658);
+DYNX(F_,76) = divGuarded(DYNX(W_,9652),"ventilation.generation.threeWayValve_a.vol.dynBal.mbXi_flow[1]",
DYNX(X_,78),"ventilation.generation.threeWayValve_a.vol.dynBal.m");
-DYNX(DYNhelp,2117) = DYNX(W_,9649) >= 0;
-DYNX(W_,9667) = IF DYNX(DYNhelp,2117) THEN DYNX(X_,76)*DYNX(W_,9649) ELSE
- DYNX(X_,74)*DYNX(W_,9649);
-DYNX(W_,9614) = DYNX(W_,9649)+DYNX(W_,9538);
-DYNX(DYNhelp,2118) = -DYNX(W_,9614) >= 0;
-DYNX(W_,9668) = IF DYNX(DYNhelp,2118) THEN -DYNX(Aux_,218)*DYNX(W_,9614) ELSE
- -DYNX(X_,74)*DYNX(W_,9614);
-DYNX(DYNhelp,2119) = DYNX(W_,9538) >= 0;
-DYNX(W_,9669) = IF DYNX(DYNhelp,2119) THEN DYNX(X_,76)*DYNX(W_,9538) ELSE
- DYNX(X_,74)*DYNX(W_,9538);
-DYNX(W_,9663) = DYNX(W_,9667)+DYNX(W_,9668)+DYNX(W_,9669);
+DYNX(DYNhelp,2121) = DYNX(W_,9618) >= 0;
+DYNX(W_,9636) = IF DYNX(DYNhelp,2121) THEN DYNX(X_,76)*DYNX(W_,9618) ELSE
+ DYNX(X_,74)*DYNX(W_,9618);
+DYNX(W_,9583) = DYNX(W_,9618)+DYNX(W_,9507);
+DYNX(DYNhelp,2122) = -DYNX(W_,9583) >= 0;
+DYNX(W_,9637) = IF DYNX(DYNhelp,2122) THEN -DYNX(Aux_,218)*DYNX(W_,9583) ELSE
+ -DYNX(X_,74)*DYNX(W_,9583);
+DYNX(DYNhelp,2123) = DYNX(W_,9507) >= 0;
+DYNX(W_,9638) = IF DYNX(DYNhelp,2123) THEN DYNX(X_,76)*DYNX(W_,9507) ELSE
+ DYNX(X_,74)*DYNX(W_,9507);
+DYNX(W_,9632) = DYNX(W_,9636)+DYNX(W_,9637)+DYNX(W_,9638);
if (NewParameters_) {
-DYNX(DYNhelp,2120) = divinvGuarded(DYNX(W_,7803),"ventilation.generation.threeWayValve_b.vol.dynBal.m");
+DYNX(DYNhelp,2124) = divinvGuarded(DYNX(W_,7763),"ventilation.generation.threeWayValve_b.vol.dynBal.m");
}
-DYNX(F_,74) = DYNX(DYNhelp,2120)*DYNX(W_,9663);
-DYNX(F_,7) = (DYNX(W_,8487)-DYNX(X_,7))*DYNX(W_,877);
+DYNX(F_,74) = DYNX(DYNhelp,2124)*DYNX(W_,9632);
+DYNX(F_,7) = (DYNX(W_,8450)-DYNX(X_,7))*DYNX(W_,877);
DYNX(F_,8) = (DYNX(X_,7)-DYNX(X_,8))*DYNX(W_,886);
-DYNX(W_,9573) = 1006.0*(DYNX(W_,8487)-273.15)*(1-DYNX(W_,6875))+(2501014.5+1860*
- (DYNX(W_,8487)-273.15))*DYNX(W_,6875);
-DYNX(W_,9569) = IF DYNX(W_,9534) > 1.088888888888889E-05 THEN 1 ELSE IF
- DYNX(W_,9534) < -1.088888888888889E-05 THEN 0 ELSE 0.5-22959.183673469386*
- DYNX(W_,9534)*(sqr(91836.73469387754*DYNX(W_,9534))-3);
-DYNX(W_,9570) = 1-DYNX(W_,9569);
-DYNX(DYNhelp,2121) = fabs(DYNX(W_,9534));
-DYNX(DYNhelp,2122) = 1-DYNX(DP_,1349);
-DYNX(DYNhelp,2123) = 1-DYNX(X_,66);
-DYNX(W_,9565) = DYNX(DYNhelp,2121)*(DYNX(W_,9569)*(1006*DYNX(DYNhelp,2122)+1860*
- DYNX(DP_,1349))+DYNX(W_,9570)*(1006*DYNX(DYNhelp,2123)+1860*DYNX(X_,66)));
-DYNX(W_,9571) = IF DYNX(W_,9538) > 1.088888888888889E-05 THEN 1 ELSE IF
- DYNX(W_,9538) < -1.088888888888889E-05 THEN 0 ELSE 0.5-22959.183673469386*
- DYNX(W_,9538)*(sqr(91836.73469387754*DYNX(W_,9538))-3);
-DYNX(W_,9572) = 1-DYNX(W_,9571);
-DYNX(DYNhelp,2124) = fabs(DYNX(W_,9538));
-DYNX(DYNhelp,2125) = 1-DYNX(X_,76);
-DYNX(DYNhelp,2126) = 1-DYNX(X_,74);
-DYNX(W_,9566) = DYNX(DYNhelp,2124)*(DYNX(W_,9571)*(1006*DYNX(DYNhelp,2125)+1860*
- DYNX(X_,76))+DYNX(W_,9572)*(1006*DYNX(DYNhelp,2126)+1860*DYNX(X_,74)));
-DYNX(W_,9567) = RealBmin(DYNX(W_,9565), DYNX(W_,9566));
+DYNX(W_,9542) = 1006.0*(DYNX(W_,8450)-273.15)*(1-DYNX(W_,6835))+(2501014.5+1860*
+ (DYNX(W_,8450)-273.15))*DYNX(W_,6835);
+DYNX(W_,9538) = IF DYNX(W_,9503) > 1.088888888888889E-05 THEN 1 ELSE IF
+ DYNX(W_,9503) < -1.088888888888889E-05 THEN 0 ELSE 0.5-22959.183673469386*
+ DYNX(W_,9503)*(sqr(91836.73469387754*DYNX(W_,9503))-3);
+DYNX(W_,9539) = 1-DYNX(W_,9538);
+DYNX(DYNhelp,2125) = fabs(DYNX(W_,9503));
+DYNX(DYNhelp,2126) = 1-DYNX(DP_,1355);
+DYNX(DYNhelp,2127) = 1-DYNX(X_,66);
+DYNX(W_,9534) = DYNX(DYNhelp,2125)*(DYNX(W_,9538)*(1006*DYNX(DYNhelp,2126)+1860*
+ DYNX(DP_,1355))+DYNX(W_,9539)*(1006*DYNX(DYNhelp,2127)+1860*DYNX(X_,66)));
+DYNX(W_,9540) = IF DYNX(W_,9507) > 1.088888888888889E-05 THEN 1 ELSE IF
+ DYNX(W_,9507) < -1.088888888888889E-05 THEN 0 ELSE 0.5-22959.183673469386*
+ DYNX(W_,9507)*(sqr(91836.73469387754*DYNX(W_,9507))-3);
+DYNX(W_,9541) = 1-DYNX(W_,9540);
+DYNX(DYNhelp,2128) = fabs(DYNX(W_,9507));
+DYNX(DYNhelp,2129) = 1-DYNX(X_,76);
+DYNX(DYNhelp,2130) = 1-DYNX(X_,74);
+DYNX(W_,9535) = DYNX(DYNhelp,2128)*(DYNX(W_,9540)*(1006*DYNX(DYNhelp,2129)+1860*
+ DYNX(X_,76))+DYNX(W_,9541)*(1006*DYNX(DYNhelp,2130)+1860*DYNX(X_,74)));
+DYNX(W_,9536) = RealBmin(DYNX(W_,9534), DYNX(W_,9535));
/* Linear system of equations to solve. */
-DYNX(W_,9677) = RememberSimple_(DYNX(W_,9677), 25);
+DYNX(W_,9646) = RememberSimple_(DYNX(W_,9646), 27);
SolveScalarLinear( -DYNX(X_,78)," -ventilation.generation.threeWayValve_a.vol.dynBal.m",
-DYNX(X_,77)," -ventilation.generation.threeWayValve_a.vol.dynBal.U",
- DYNX(W_,9677),"ventilation.generation.threeWayValve_a.vol.dynBal.medium.u");
+ DYNX(W_,9646),"ventilation.generation.threeWayValve_a.vol.dynBal.medium.u");
/* End of Equation Block */
-DYNX(W_,9606) = 84437.5+DYNX(W_,9677);
-DYNX(W_,9548) = 273.15+divGuarded(DYNX(W_,9606)-2501014.5*DYNX(X_,76),
+DYNX(W_,9575) = 84437.5+DYNX(W_,9646);
+DYNX(W_,9517) = 273.15+divGuarded(DYNX(W_,9575)-2501014.5*DYNX(X_,76),
"ventilation.generation.threeWayValve_a.port_3.h_outflow-2501014.5*ventilation.generation.hex.port_b2.Xi_outflow[1]",1006
*(1-DYNX(X_,76))+1860*DYNX(X_,76),"1006*(1-ventilation.generation.hex.port_b2.Xi_outflow[1])+1860*ventilation.generation.hex.port_b2.Xi_outflow[1]");
/* Linear system of equations to solve. */
-DYNX(W_,9658) = RememberSimple_(DYNX(W_,9658), 26);
-SolveScalarLinearParametric( -DYNX(W_,7803)," -ventilation.generation.threeWayValve_b.vol.dynBal.m",
+DYNX(W_,9627) = RememberSimple_(DYNX(W_,9627), 28);
+SolveScalarLinearParametric( -DYNX(W_,7763)," -ventilation.generation.threeWayValve_b.vol.dynBal.m",
-DYNX(X_,75)," -ventilation.generation.threeWayValve_b.vol.dynBal.U",
- DYNX(W_,9658),"ventilation.generation.threeWayValve_b.vol.dynBal.medium.u");
+ DYNX(W_,9627),"ventilation.generation.threeWayValve_b.vol.dynBal.medium.u");
/* End of Equation Block */
-DYNX(W_,9651) = 84437.5+DYNX(W_,9658);
-DYNX(W_,9550) = 273.15+divGuarded(DYNX(W_,9651)-2501014.5*DYNX(X_,74),
+DYNX(W_,9620) = 84437.5+DYNX(W_,9627);
+DYNX(W_,9519) = 273.15+divGuarded(DYNX(W_,9620)-2501014.5*DYNX(X_,74),
"ventilation.generation.threeWayValve_b.port_3.h_outflow-2501014.5*ventilation.generation.hex.port_a2.Xi_outflow[1]",1006
*(1-DYNX(X_,74))+1860*DYNX(X_,74),"1006*(1-ventilation.generation.hex.port_a2.Xi_outflow[1])+1860*ventilation.generation.hex.port_a2.Xi_outflow[1]");
-DYNX(W_,9564) = DYNX(W_,9571)*DYNX(W_,9548)+DYNX(W_,9572)*DYNX(W_,9550);
-DYNX(W_,9545) = 273.15+divGuarded(DYNX(W_,9573)-2501014.5*DYNX(DP_,1349),
+DYNX(W_,9533) = DYNX(W_,9540)*DYNX(W_,9517)+DYNX(W_,9541)*DYNX(W_,9519);
+DYNX(W_,9514) = 273.15+divGuarded(DYNX(W_,9542)-2501014.5*DYNX(DP_,1355),
"ventilation.generation.bouSup.ports[1].h_outflow-2501014.5*ventilation.generation.bouSup.ports[1].Xi_outflow[1]",1006
- *(1-DYNX(DP_,1349))+1860*DYNX(DP_,1349),"1006*(1-ventilation.generation.bouSup.ports[1].Xi_outflow[1])+1860*ventilation.generation.bouSup.ports[1].Xi_outflow[1]");
+ *(1-DYNX(DP_,1355))+1860*DYNX(DP_,1355),"1006*(1-ventilation.generation.bouSup.ports[1].Xi_outflow[1])+1860*ventilation.generation.bouSup.ports[1].Xi_outflow[1]");
/* Linear system of equations to solve. */
-DYNX(W_,9586) = RememberSimple_(DYNX(W_,9586), 27);
+DYNX(W_,9555) = RememberSimple_(DYNX(W_,9555), 29);
SolveScalarLinear( -DYNX(X_,68)," -ventilation.generation.fanFlow.vol.dynBal.m",
- -DYNX(X_,67)," -ventilation.generation.fanFlow.vol.dynBal.U", DYNX(W_,9586),
+ -DYNX(X_,67)," -ventilation.generation.fanFlow.vol.dynBal.U", DYNX(W_,9555),
"ventilation.generation.fanFlow.vol.dynBal.medium.u");
/* End of Equation Block */
-DYNX(W_,9574) = 84437.5+DYNX(W_,9586);
-DYNX(W_,9546) = 273.15+divGuarded(DYNX(W_,9574)-2501014.5*DYNX(X_,66),
+DYNX(W_,9543) = 84437.5+DYNX(W_,9555);
+DYNX(W_,9515) = 273.15+divGuarded(DYNX(W_,9543)-2501014.5*DYNX(X_,66),
"ventilation.generation.TSup.port_a.h_outflow-2501014.5*ventilation.generation.hex.port_a1.Xi_outflow[1]",1006
*(1-DYNX(X_,66))+1860*DYNX(X_,66),"1006*(1-ventilation.generation.hex.port_a1.Xi_outflow[1])+1860*ventilation.generation.hex.port_a1.Xi_outflow[1]");
-DYNX(W_,9563) = DYNX(W_,9569)*DYNX(W_,9545)+DYNX(W_,9570)*DYNX(W_,9546);
-DYNX(W_,9568) = DYNX(W_,9567)*(DYNX(W_,9564)-DYNX(W_,9563));
-DYNX(W_,9552) = DYNX(W_,6871)*DYNX(W_,9568);
-AssertModelica(fabs(DYNX(W_,9552)) < 202908.0*RealBmax(1.088888888888889E-08,
- fabs(DYNX(W_,9534))),"noEvent(abs(ventilation.generation.hex.bal1.vol.Q_flow) < 202908.0*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal1.vol.m_flow)))",
+DYNX(W_,9532) = DYNX(W_,9538)*DYNX(W_,9514)+DYNX(W_,9539)*DYNX(W_,9515);
+DYNX(W_,9537) = DYNX(W_,9536)*(DYNX(W_,9533)-DYNX(W_,9532));
+DYNX(W_,9521) = DYNX(W_,6831)*DYNX(W_,9537);
+AssertModelica(fabs(DYNX(W_,9521)) < 202908.0*RealBmax(1.088888888888889E-08,
+ fabs(DYNX(W_,9503))),"noEvent(abs(ventilation.generation.hex.bal1.vol.Q_flow) < 202908.0*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal1.vol.m_flow)))",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.hex.bal1.vol:\n The heat flow rate equals ",
- Real2String2(DYNX(W_,9552), true, 0))," W and the mass flow rate equals "),
- Real2String2(DYNX(W_,9534), true, 0))," kg/s,\n which results in a temperature difference "),
- Real2String2(divGuarded(fabs(DYNX(W_,9552)),"abs(ventilation.generation.hex.bal1.vol.Q_flow)",
- 1014.54*RealBmax(1.088888888888889E-08, fabs(DYNX(W_,9534))),"1014.54*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal1.vol.m_flow))"),
+ Real2String2(DYNX(W_,9521), true, 0))," W and the mass flow rate equals "),
+ Real2String2(DYNX(W_,9503), true, 0))," kg/s,\n which results in a temperature difference "),
+ Real2String2(divGuarded(fabs(DYNX(W_,9521)),"abs(ventilation.generation.hex.bal1.vol.Q_flow)",
+ 1014.54*RealBmax(1.088888888888889E-08, fabs(DYNX(W_,9503))),"1014.54*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal1.vol.m_flow))"),
true, 0))," K > dTMax="),"200")," K.\n This may indicate that energy is not conserved for small mass flow rates.\n The implementation may require prescribedHeatFlowRate = false."));
-AssertModelica(fabs(DYNX(W_,9552)) < 202908.0*RealBmax(1.088888888888889E-08,
- fabs(DYNX(W_,9538))),"noEvent(abs( -ventilation.generation.hex.bal2.vol.Q_flow) < 202908.0*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal2.vol.m_flow)))",
+AssertModelica(fabs(DYNX(W_,9521)) < 202908.0*RealBmax(1.088888888888889E-08,
+ fabs(DYNX(W_,9507))),"noEvent(abs( -ventilation.generation.hex.bal2.vol.Q_flow) < 202908.0*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal2.vol.m_flow)))",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(
StringAdd("In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.hex.bal2.vol:\n The heat flow rate equals ",
- Real2String2( -DYNX(W_,9552), true, 0))," W and the mass flow rate equals "),
- Real2String2(DYNX(W_,9538), true, 0))," kg/s,\n which results in a temperature difference "),
- Real2String2(divGuarded(fabs(DYNX(W_,9552)),"abs( -ventilation.generation.hex.bal2.vol.Q_flow)",
- 1014.54*RealBmax(1.088888888888889E-08, fabs(DYNX(W_,9538))),"1014.54*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal2.vol.m_flow))"),
+ Real2String2( -DYNX(W_,9521), true, 0))," W and the mass flow rate equals "),
+ Real2String2(DYNX(W_,9507), true, 0))," kg/s,\n which results in a temperature difference "),
+ Real2String2(divGuarded(fabs(DYNX(W_,9521)),"abs( -ventilation.generation.hex.bal2.vol.Q_flow)",
+ 1014.54*RealBmax(1.088888888888889E-08, fabs(DYNX(W_,9507))),"1014.54*max(1.088888888888889E-08, abs(ventilation.generation.hex.bal2.vol.m_flow))"),
true, 0))," K > dTMax="),"200")," K.\n This may indicate that energy is not conserved for small mass flow rates.\n The implementation may require prescribedHeatFlowRate = false."));
-DYNX(W_,9554) = IF DYNX(W_,9534) > 1.088888888888889E-08 OR DYNX(W_,9534) <
- -1.088888888888889E-08 THEN divinvGuarded(DYNX(W_,9534),"ventilation.generation.hex.bal1.vol.port_a.m_flow")
- ELSE IF DYNX(W_,9534) < 5.444444444444445E-09 AND DYNX(W_,9534) >
- -5.444444444444445E-09 THEN 8433985839233652.0*DYNX(W_,9534) ELSE
+DYNX(W_,9523) = IF DYNX(W_,9503) > 1.088888888888889E-08 OR DYNX(W_,9503) <
+ -1.088888888888889E-08 THEN divinvGuarded(DYNX(W_,9503),"ventilation.generation.hex.bal1.vol.port_a.m_flow")
+ ELSE IF DYNX(W_,9503) < 5.444444444444445E-09 AND DYNX(W_,9503) >
+ -5.444444444444445E-09 THEN 8433985839233652.0*DYNX(W_,9503) ELSE
(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.smoothTransition(ventilation.generation.hex.bal1.vol.port_a.m_flow, 1.088888888888889E-08, 91836734.69387755, -1377551020.4081633, 1.0036443148688046E+18, -2.796124488945932E+26, 3.7984550550834275E+34, -2.4823657204741497E+42, 6.239243593887767E+49)\nIBPSA.Utilities.Math.Functions.inverseXRegularized(ventilation.generation.hex.bal1.vol.port_a.m_flow, 1...")
- IBPSA_Utilities_Math_Functions_BaseClasses_smoothTransition(DYNX(W_,9534),
+ IBPSA_Utilities_Math_Functions_BaseClasses_smoothTransition(DYNX(W_,9503),
1.088888888888889E-08, 91836734.69387755, -1377551020.4081633,
1.0036443148688046E+18, -2.796124488945932E+26, 3.7984550550834275E+34,
-2.4823657204741497E+42, 6.239243593887767E+49));
PopModelContext();
-DYNX(W_,9537) = DYNX(W_,9573)+DYNX(W_,9552)*DYNX(W_,9554);
-DYNX(W_,9593) = IF DYNX(DYNhelp,2110) THEN DYNX(W_,9537)*DYNX(W_,9534) ELSE
- DYNX(W_,9574)*DYNX(W_,9534);
-DYNX(W_,9594) = IF DYNX(DYNhelp,2111) THEN -DYNX(W_,8512)*DYNX(W_,8510) ELSE -
- DYNX(W_,9574)*DYNX(W_,8510);
-DYNX(F_,67) = DYNX(W_,9593)+DYNX(W_,9594);
-DYNX(W_,9696) = DYNX(W_,9574);
-DYNX(W_,8537) = IF DYNX(DYNhelp,2108) THEN DYNX(W_,9696)*DYNX(W_,8510) ELSE
- DYNX(W_,8512)*DYNX(W_,8510);
+DYNX(W_,9506) = DYNX(W_,9542)+DYNX(W_,9521)*DYNX(W_,9523);
+DYNX(W_,9562) = IF DYNX(DYNhelp,2114) THEN DYNX(W_,9506)*DYNX(W_,9503) ELSE
+ DYNX(W_,9543)*DYNX(W_,9503);
+DYNX(W_,9563) = IF DYNX(DYNhelp,2115) THEN -DYNX(W_,8475)*DYNX(W_,8473) ELSE -
+ DYNX(W_,9543)*DYNX(W_,8473);
+DYNX(F_,67) = DYNX(W_,9562)+DYNX(W_,9563);
+DYNX(W_,9665) = DYNX(W_,9543);
+DYNX(W_,8500) = IF DYNX(DYNhelp,2112) THEN DYNX(W_,9665)*DYNX(W_,8473) ELSE
+ DYNX(W_,8475)*DYNX(W_,8473);
/* Linear system of equations to solve. */
-DYNX(W_,9626) = RememberSimple_(DYNX(W_,9626), 28);
+DYNX(W_,9595) = RememberSimple_(DYNX(W_,9595), 30);
SolveScalarLinear( -DYNX(X_,72)," -ventilation.generation.fanRet.vol.dynBal.m",
- -DYNX(X_,71)," -ventilation.generation.fanRet.vol.dynBal.U", DYNX(W_,9626),
+ -DYNX(X_,71)," -ventilation.generation.fanRet.vol.dynBal.U", DYNX(W_,9595),
"ventilation.generation.fanRet.vol.dynBal.medium.u");
/* End of Equation Block */
-DYNX(W_,9698) = 84437.5+DYNX(W_,9626);
-DYNX(W_,8538) = IF DYNX(DYNhelp,2109) THEN DYNX(W_,9698)*DYNX(W_,8513) ELSE
- DYNX(W_,8512)*DYNX(W_,8513);
-DYNX(W_,8536) = DYNX(W_,8537)+DYNX(W_,8538);
-DYNX(W_,8936) = DYNX(W_,8473)*DYNX(W_,856);
-DYNX(W_,8946) = DYNX(DP_,299)*DYNX(X_,7);
-DYNX(W_,8947) = DYNX(W_,8946)-DYNX(X_,8);
-DYNX(W_,8940) = divGuarded(DYNX(W_,8947)-DYNX(W_,863),"building.thermalZone[1].ventCont.dEMA.y[2]-building.thermalZone[1].ventCont.winterReduction[2]",
+DYNX(W_,9667) = 84437.5+DYNX(W_,9595);
+DYNX(W_,8501) = IF DYNX(DYNhelp,2113) THEN DYNX(W_,9667)*DYNX(W_,8476) ELSE
+ DYNX(W_,8475)*DYNX(W_,8476);
+DYNX(W_,8499) = DYNX(W_,8500)+DYNX(W_,8501);
+DYNX(W_,8899) = DYNX(W_,8436)*DYNX(W_,856);
+DYNX(W_,8909) = DYNX(DP_,299)*DYNX(X_,7);
+DYNX(W_,8910) = DYNX(W_,8909)-DYNX(X_,8);
+DYNX(W_,8903) = divGuarded(DYNX(W_,8910)-DYNX(W_,863),"building.thermalZone[1].ventCont.dEMA.y[2]-building.thermalZone[1].ventCont.winterReduction[2]",
DYNX(W_,864)-DYNX(W_,863),"building.thermalZone[1].ventCont.winterReduction[3]-building.thermalZone[1].ventCont.winterReduction[2]");
-DYNX(W_,8941) = IF Greater(DYNX(W_,8940),"building.thermalZone[1].ventCont.dTmin",
- 0,"0", 126) THEN RealBmin(DYNX(W_,8940)*(1-DYNX(W_,862)), 1-DYNX(W_,862))+
+DYNX(W_,8904) = IF Greater(DYNX(W_,8903),"building.thermalZone[1].ventCont.dTmin",
+ 0,"0", 134) THEN RealBmin(DYNX(W_,8903)*(1-DYNX(W_,862)), 1-DYNX(W_,862))+
DYNX(W_,862) ELSE DYNX(W_,862);
-DYNX(W_,8948) = IF LessEqual(DYNX(W_,8947),"building.thermalZone[1].ventCont.optimalTemp.u[1]",
- 273.15,"273.15", 127) THEN 294.67499999999995 ELSE IF GreaterEqual(
- DYNX(W_,8947),"building.thermalZone[1].ventCont.optimalTemp.u[1]", 300.928,
- "300.928", 128) THEN 297.84169199999997 ELSE 273.15+(PushModelContext(1,
+DYNX(W_,8911) = IF LessEqual(DYNX(W_,8910),"building.thermalZone[1].ventCont.optimalTemp.u[1]",
+ 273.15,"273.15", 135) THEN 294.67499999999995 ELSE IF GreaterEqual(
+ DYNX(W_,8910),"building.thermalZone[1].ventCont.optimalTemp.u[1]", 300.928,
+ "300.928", 136) THEN 297.84169199999997 ELSE 273.15+(PushModelContext(1,
"AixLib.Utilities.Math.Functions.polynomial(building.thermalZone[1].ventCont.optimalTemp.u[1]-273.15, {21.524999999999995, 0.114})")
- AixLib_Utilities_Math_Functions_polynomial(DYNX(W_,8947)-273.15,
- RealTemporaryDense( DymArrays113, 1, 2)));
+ AixLib_Utilities_Math_Functions_polynomial(DYNX(W_,8910)-273.15,
+ RealTemporaryDense( DymArrays112, 1, 2)));
PopAllMarks();
-DYNX(W_,8945) = DYNX(W_,8948)+DYNX(DP_,293);
+DYNX(W_,8908) = DYNX(W_,8911)+DYNX(DP_,293);
if (NewParameters_) {
-DYNX(DYNhelp,2127) = divinvGuarded(DYNX(W_,858),"building.thermalZone[1].ventCont.maxOverheatingACH[2]");
+DYNX(DYNhelp,2131) = divinvGuarded(DYNX(W_,858),"building.thermalZone[1].ventCont.maxOverheatingACH[2]");
}
-DYNX(W_,8937) = DYNX(DYNhelp,2127)*(DYNX(W_,8507)-DYNX(W_,8945));
-DYNX(W_,8938) = IF Greater(DYNX(W_,8937),"building.thermalZone[1].ventCont.dToh",
- 0,"0", 129) THEN RealBmin(DYNX(W_,8937)*DYNX(W_,857), DYNX(W_,857)) ELSE 0;
-DYNX(W_,8939) = divGuarded(DYNX(W_,8947)-DYNX(W_,860),"building.thermalZone[1].ventCont.dEMA.y[2]-building.thermalZone[1].ventCont.maxSummerACH[2]",
+DYNX(W_,8900) = DYNX(DYNhelp,2131)*(DYNX(W_,8470)-DYNX(W_,8908));
+DYNX(W_,8901) = IF Greater(DYNX(W_,8900),"building.thermalZone[1].ventCont.dToh",
+ 0,"0", 137) THEN RealBmin(DYNX(W_,8900)*DYNX(W_,857), DYNX(W_,857)) ELSE 0;
+DYNX(W_,8902) = divGuarded(DYNX(W_,8910)-DYNX(W_,860),"building.thermalZone[1].ventCont.dEMA.y[2]-building.thermalZone[1].ventCont.maxSummerACH[2]",
DYNX(W_,861)-DYNX(W_,860),"building.thermalZone[1].ventCont.maxSummerACH[3]-building.thermalZone[1].ventCont.maxSummerACH[2]");
-DYNX(W_,8942) = IF Greater(DYNX(W_,8939),"building.thermalZone[1].ventCont.dTamb",
- 0,"0", 130) THEN RealBmin(DYNX(W_,8939)*DYNX(W_,859), DYNX(W_,859)) ELSE 0;
-DYNX(W_,8943) = DYNX(W_,855)+DYNX(W_,8936)*DYNX(W_,8941)+DYNX(W_,8938)+
- DYNX(W_,8942);
-DYNX(W_,8952) = DYNX(DP_,317)*DYNX(W_,8943)+DYNX(DP_,318)*DYNX(W_,923);
-DYNX(W_,8949) = divGuarded(DYNX(W_,8487)*DYNX(W_,923)+DYNX(W_,8487)*
- DYNX(W_,8943),"building.thermalZone[1].mixedTemp.temperature_flow1*building.thermalZone[1].mixedTemp.flowRate_flow1+building.thermalZone[1].mixedTemp.temperature_flow2*building.thermalZone[1].mixedTemp.flowRate_flow2",
- DYNX(W_,923)+DYNX(W_,8943),"building.thermalZone[1].mixedTemp.flowRate_flow1+building.thermalZone[1].mixedTemp.flowRate_flow2");
-DYNX(W_,8950) = 0.17777777777777778*DYNX(W_,8952)*DYNX(DP_,300)*DYNX(DP_,301)*(
- DYNX(W_,8949)-DYNX(W_,8507));
-DYNX(W_,8623) = -DYNX(W_,523)*DYNX(W_,8628);
-DYNX(W_,8522) = -(DYNX(W_,8632)-(DYNX(W_,8476)-DYNX(W_,8623)+DYNX(W_,8950))+
- DYNX(W_,8638));
-DYNX(W_,8577) = DYNX(W_,446)*DYNX(W_,8514);
-DYNX(W_,8578) = DYNX(W_,447)*DYNX(W_,8515);
-DYNX(W_,8579) = DYNX(W_,448)*DYNX(W_,8516);
-DYNX(W_,8580) = DYNX(W_,449)*DYNX(W_,8517);
-DYNX(W_,8543) = DYNX(DP_,213)*DYNX(W_,8577)+DYNX(DP_,214)*DYNX(W_,8578)+
- DYNX(DP_,215)*DYNX(W_,8579)+DYNX(DP_,216)*DYNX(W_,8580);
-DYNX(W_,8525) = DYNX(W_,8522)+DYNX(W_,8571)+DYNX(W_,8596)+DYNX(W_,8543)+
- DYNX(W_,8584)+DYNX(W_,8611)+DYNX(W_,8573);
-DYNX(F_,1) = DYNX(W_,8536)+DYNX(W_,8525);
-DYNX(DYNhelp,2128) = -DYNX(W_,9256) >= 0;
-DYNX(W_,9369) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9357)*DYNX(W_,9256) ELSE -
- DYNX(W_,9257)*DYNX(W_,9256);
+DYNX(W_,8905) = IF Greater(DYNX(W_,8902),"building.thermalZone[1].ventCont.dTamb",
+ 0,"0", 138) THEN RealBmin(DYNX(W_,8902)*DYNX(W_,859), DYNX(W_,859)) ELSE 0;
+DYNX(W_,8906) = DYNX(W_,855)+DYNX(W_,8899)*DYNX(W_,8904)+DYNX(W_,8901)+
+ DYNX(W_,8905);
+DYNX(W_,8915) = DYNX(DP_,317)*DYNX(W_,8906)+DYNX(DP_,318)*DYNX(W_,923);
+DYNX(W_,8912) = divGuarded(DYNX(W_,8450)*DYNX(W_,923)+DYNX(W_,8450)*
+ DYNX(W_,8906),"building.thermalZone[1].mixedTemp.temperature_flow1*building.thermalZone[1].mixedTemp.flowRate_flow1+building.thermalZone[1].mixedTemp.temperature_flow2*building.thermalZone[1].mixedTemp.flowRate_flow2",
+ DYNX(W_,923)+DYNX(W_,8906),"building.thermalZone[1].mixedTemp.flowRate_flow1+building.thermalZone[1].mixedTemp.flowRate_flow2");
+DYNX(W_,8913) = 0.17777777777777778*DYNX(W_,8915)*DYNX(DP_,300)*DYNX(DP_,301)*(
+ DYNX(W_,8912)-DYNX(W_,8470));
+DYNX(W_,8586) = -DYNX(W_,523)*DYNX(W_,8591);
+DYNX(W_,8485) = -(DYNX(W_,8595)-(DYNX(W_,8439)-DYNX(W_,8586)+DYNX(W_,8913))+
+ DYNX(W_,8601));
+DYNX(W_,8540) = DYNX(W_,446)*DYNX(W_,8477);
+DYNX(W_,8541) = DYNX(W_,447)*DYNX(W_,8478);
+DYNX(W_,8542) = DYNX(W_,448)*DYNX(W_,8479);
+DYNX(W_,8543) = DYNX(W_,449)*DYNX(W_,8480);
+DYNX(W_,8506) = DYNX(DP_,213)*DYNX(W_,8540)+DYNX(DP_,214)*DYNX(W_,8541)+
+ DYNX(DP_,215)*DYNX(W_,8542)+DYNX(DP_,216)*DYNX(W_,8543);
+DYNX(W_,8488) = DYNX(W_,8485)+DYNX(W_,8534)+DYNX(W_,8559)+DYNX(W_,8506)+
+ DYNX(W_,8547)+DYNX(W_,8574)+DYNX(W_,8536);
+DYNX(F_,1) = DYNX(W_,8499)+DYNX(W_,8488);
+DYNX(DYNhelp,2132) = -DYNX(W_,9225) >= 0;
+DYNX(W_,9338) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9326)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9226)*DYNX(W_,9225);
/* Linear system of equations to solve. */
-DYNX(W_,9435) = RememberSimple_(DYNX(W_,9435), 29);
-SolveScalarLinearParametric( -DYNX(W_,6399)," -hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m",
+DYNX(W_,9404) = RememberSimple_(DYNX(W_,9404), 31);
+SolveScalarLinearParametric( -DYNX(W_,6359)," -hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m",
-DYNX(X_,65)," -hydraulic.transfer.pumFixMFlo[1].vol.dynBal.U",
- DYNX(W_,9435),"hydraulic.transfer.portTra_in[1].h_outflow");
+ DYNX(W_,9404),"hydraulic.transfer.portTra_in[1].h_outflow");
/* End of Equation Block */
-DYNX(DYNhelp,2129) = DYNX(W_,9256) >= 0;
-DYNX(W_,9370) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9435)*DYNX(W_,9256) ELSE
- DYNX(W_,9257)*DYNX(W_,9256);
-DYNX(W_,9368) = DYNX(W_,9369)+DYNX(W_,9370);
-DYNX(W_,9419) = DYNX(W_,9431)-DYNX(W_,9358);
-DYNX(W_,9420) = IF Greater(DYNX(W_,9419),"hydraulic.distribution.stoBuf.bouyancy[3].dT",
- 0,"0", 131) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,5453)*sqr(
- DYNX(W_,5452))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,5451)*DYNX(W_,9419),
+DYNX(DYNhelp,2133) = DYNX(W_,9225) >= 0;
+DYNX(W_,9339) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9404)*DYNX(W_,9225) ELSE
+ DYNX(W_,9226)*DYNX(W_,9225);
+DYNX(W_,9337) = DYNX(W_,9338)+DYNX(W_,9339);
+DYNX(W_,9388) = DYNX(W_,9400)-DYNX(W_,9327);
+DYNX(W_,9389) = IF Greater(DYNX(W_,9388),"hydraulic.distribution.stoBuf.bouyancy[3].dT",
+ 0,"0", 139) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,5413)*sqr(
+ DYNX(W_,5412))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,5411)*DYNX(W_,9388),
"9.80665*(hydraulic.distribution.stoBuf.bouyancy[3].beta*hydraulic.distribution.stoBuf.bouyancy[3].dT)",
- DYNX(W_,5452),"hydraulic.distribution.stoBuf.bouyancy[3].dx")),
+ DYNX(W_,5412),"hydraulic.distribution.stoBuf.bouyancy[3].dx")),
"abs(9.80665*(hydraulic.distribution.stoBuf.bouyancy[3].beta*hydraulic.distribution.stoBuf.bouyancy[3].dT)/hydraulic.distribution.stoBuf.bouyancy[3].dx)");
if (NewParameters_) {
-DYNX(DYNhelp,2130) = divinvGuarded(DYNX(W_,5452),"hydraulic.distribution.stoBuf.bouyancy[3].dx");
+DYNX(DYNhelp,2134) = divinvGuarded(DYNX(W_,5412),"hydraulic.distribution.stoBuf.bouyancy[3].dx");
}
-DYNX(W_,9421) = DYNX(DYNhelp,2130)*DYNX(W_,9420)*DYNX(W_,5450)*DYNX(W_,9419);
+DYNX(W_,9390) = DYNX(DYNhelp,2134)*DYNX(W_,9389)*DYNX(W_,5410)*DYNX(W_,9388);
/* Linear system of equations to solve. */
-DYNX(W_,9342) = RememberSimple_(DYNX(W_,9342), 30);
-SolveScalarLinearParametric( -DYNX(W_,5408)," -hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m",
+DYNX(W_,9311) = RememberSimple_(DYNX(W_,9311), 32);
+SolveScalarLinearParametric( -DYNX(W_,5368)," -hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m",
-DYNX(X_,55)," -hydraulic.distribution.stoBuf.layer_HE[4].dynBal.U",
- DYNX(W_,9342),"hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow");
+ DYNX(W_,9311),"hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow");
/* End of Equation Block */
-DYNX(W_,9394) = 273.15+0.0002390057361376673*DYNX(W_,9342);
-DYNX(W_,9404) = DYNX(W_,9431)-DYNX(W_,9394);
-DYNX(W_,9395) = DYNX(W_,5425)*DYNX(W_,9404);
-DYNX(W_,9365) = -(DYNX(W_,9421)+DYNX(W_,9411)+DYNX(W_,9395));
-DYNX(F_,51) = DYNX(W_,9368)+DYNX(W_,9365);
-DYNX(DYNhelp,2131) = DYNX(W_,9021) >= 0;
-DYNX(W_,9287) = IF DYNX(DYNhelp,2131) THEN DYNX(W_,9275)*DYNX(W_,9021) ELSE
- DYNX(W_,9526)*DYNX(W_,9021);
-DYNX(DYNhelp,2132) = -DYNX(W_,9021) >= 0;
-DYNX(W_,9288) = IF DYNX(DYNhelp,2132) THEN -DYNX(Aux_,177)*DYNX(W_,9021) ELSE
- -DYNX(W_,9526)*DYNX(W_,9021);
-DYNX(W_,9286) = DYNX(W_,9287)+DYNX(W_,9288);
-DYNX(W_,9337) = DYNX(W_,9430)-DYNX(W_,9276);
-DYNX(W_,9338) = IF Greater(DYNX(W_,9337),"hydraulic.distribution.stoDHW.bouyancy[3].dT",
- 0,"0", 132) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,4914)*sqr(
- DYNX(W_,4913))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,4912)*DYNX(W_,9337),
+DYNX(W_,9363) = 273.15+0.0002390057361376673*DYNX(W_,9311);
+DYNX(W_,9373) = DYNX(W_,9400)-DYNX(W_,9363);
+DYNX(W_,9364) = DYNX(W_,5385)*DYNX(W_,9373);
+DYNX(W_,9334) = -(DYNX(W_,9390)+DYNX(W_,9380)+DYNX(W_,9364));
+DYNX(F_,51) = DYNX(W_,9337)+DYNX(W_,9334);
+DYNX(DYNhelp,2135) = DYNX(W_,8984) >= 0;
+DYNX(W_,9256) = IF DYNX(DYNhelp,2135) THEN DYNX(W_,9244)*DYNX(W_,8984) ELSE
+ DYNX(W_,9495)*DYNX(W_,8984);
+DYNX(DYNhelp,2136) = -DYNX(W_,8984) >= 0;
+DYNX(W_,9257) = IF DYNX(DYNhelp,2136) THEN -DYNX(Aux_,177)*DYNX(W_,8984) ELSE
+ -DYNX(W_,9495)*DYNX(W_,8984);
+DYNX(W_,9255) = DYNX(W_,9256)+DYNX(W_,9257);
+DYNX(W_,9306) = DYNX(W_,9399)-DYNX(W_,9245);
+DYNX(W_,9307) = IF Greater(DYNX(W_,9306),"hydraulic.distribution.stoDHW.bouyancy[3].dT",
+ 0,"0", 140) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,4874)*sqr(
+ DYNX(W_,4873))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,4872)*DYNX(W_,9306),
"9.80665*(hydraulic.distribution.stoDHW.bouyancy[3].beta*hydraulic.distribution.stoDHW.bouyancy[3].dT)",
- DYNX(W_,4913),"hydraulic.distribution.stoDHW.bouyancy[3].dx")),
+ DYNX(W_,4873),"hydraulic.distribution.stoDHW.bouyancy[3].dx")),
"abs(9.80665*(hydraulic.distribution.stoDHW.bouyancy[3].beta*hydraulic.distribution.stoDHW.bouyancy[3].dT)/hydraulic.distribution.stoDHW.bouyancy[3].dx)");
if (NewParameters_) {
-DYNX(DYNhelp,2133) = divinvGuarded(DYNX(W_,4913),"hydraulic.distribution.stoDHW.bouyancy[3].dx");
+DYNX(DYNhelp,2137) = divinvGuarded(DYNX(W_,4873),"hydraulic.distribution.stoDHW.bouyancy[3].dx");
}
-DYNX(W_,9339) = DYNX(DYNhelp,2133)*DYNX(W_,9338)*DYNX(W_,4911)*DYNX(W_,9337);
+DYNX(W_,9308) = DYNX(DYNhelp,2137)*DYNX(W_,9307)*DYNX(W_,4871)*DYNX(W_,9306);
/* Linear system of equations to solve. */
-DYNX(W_,9260) = RememberSimple_(DYNX(W_,9260), 31);
-SolveScalarLinearParametric( -DYNX(W_,4869)," -hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m",
+DYNX(W_,9229) = RememberSimple_(DYNX(W_,9229), 33);
+SolveScalarLinearParametric( -DYNX(W_,4829)," -hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m",
-DYNX(X_,47)," -hydraulic.distribution.stoDHW.layer_HE[4].dynBal.U",
- DYNX(W_,9260),"hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow");
+ DYNX(W_,9229),"hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow");
/* End of Equation Block */
-DYNX(W_,9312) = 273.15+0.0002390057361376673*DYNX(W_,9260);
-DYNX(W_,9322) = DYNX(W_,9430)-DYNX(W_,9312);
-DYNX(W_,9313) = DYNX(W_,4886)*DYNX(W_,9322);
-DYNX(W_,9283) = -(DYNX(W_,9339)+DYNX(W_,9329)+DYNX(W_,9313));
-DYNX(F_,43) = DYNX(W_,9286)+DYNX(W_,9283);
-DYNX(W_,9281) = IF DYNX(DYNhelp,2131) THEN DYNX(W_,9267)*DYNX(W_,9021) ELSE
- DYNX(W_,9275)*DYNX(W_,9021);
-DYNX(W_,9282) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9526)*DYNX(W_,9021) ELSE -
- DYNX(W_,9275)*DYNX(W_,9021);
-DYNX(W_,9280) = DYNX(W_,9281)+DYNX(W_,9282);
-DYNX(W_,9334) = DYNX(W_,9276)-DYNX(W_,9268);
-DYNX(W_,9335) = IF Greater(DYNX(W_,9334),"hydraulic.distribution.stoDHW.bouyancy[2].dT",
- 0,"0", 133) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,4906)*sqr(
- DYNX(W_,4905))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,4904)*DYNX(W_,9334),
+DYNX(W_,9281) = 273.15+0.0002390057361376673*DYNX(W_,9229);
+DYNX(W_,9291) = DYNX(W_,9399)-DYNX(W_,9281);
+DYNX(W_,9282) = DYNX(W_,4846)*DYNX(W_,9291);
+DYNX(W_,9252) = -(DYNX(W_,9308)+DYNX(W_,9298)+DYNX(W_,9282));
+DYNX(F_,43) = DYNX(W_,9255)+DYNX(W_,9252);
+DYNX(W_,9250) = IF DYNX(DYNhelp,2135) THEN DYNX(W_,9236)*DYNX(W_,8984) ELSE
+ DYNX(W_,9244)*DYNX(W_,8984);
+DYNX(W_,9251) = IF DYNX(DYNhelp,2136) THEN -DYNX(W_,9495)*DYNX(W_,8984) ELSE -
+ DYNX(W_,9244)*DYNX(W_,8984);
+DYNX(W_,9249) = DYNX(W_,9250)+DYNX(W_,9251);
+DYNX(W_,9303) = DYNX(W_,9245)-DYNX(W_,9237);
+DYNX(W_,9304) = IF Greater(DYNX(W_,9303),"hydraulic.distribution.stoDHW.bouyancy[2].dT",
+ 0,"0", 141) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,4866)*sqr(
+ DYNX(W_,4865))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,4864)*DYNX(W_,9303),
"9.80665*(hydraulic.distribution.stoDHW.bouyancy[2].beta*hydraulic.distribution.stoDHW.bouyancy[2].dT)",
- DYNX(W_,4905),"hydraulic.distribution.stoDHW.bouyancy[2].dx")),
+ DYNX(W_,4865),"hydraulic.distribution.stoDHW.bouyancy[2].dx")),
"abs(9.80665*(hydraulic.distribution.stoDHW.bouyancy[2].beta*hydraulic.distribution.stoDHW.bouyancy[2].dT)/hydraulic.distribution.stoDHW.bouyancy[2].dx)");
if (NewParameters_) {
-DYNX(DYNhelp,2134) = divinvGuarded(DYNX(W_,4905),"hydraulic.distribution.stoDHW.bouyancy[2].dx");
+DYNX(DYNhelp,2138) = divinvGuarded(DYNX(W_,4865),"hydraulic.distribution.stoDHW.bouyancy[2].dx");
}
-DYNX(W_,9336) = DYNX(DYNhelp,2134)*DYNX(W_,9335)*DYNX(W_,4903)*DYNX(W_,9334);
+DYNX(W_,9305) = DYNX(DYNhelp,2138)*DYNX(W_,9304)*DYNX(W_,4863)*DYNX(W_,9303);
/* Linear system of equations to solve. */
-DYNX(W_,9304) = RememberSimple_(DYNX(W_,9304), 32);
-SolveScalarLinearParametric( -DYNX(W_,4810)," -hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m",
+DYNX(W_,9273) = RememberSimple_(DYNX(W_,9273), 34);
+SolveScalarLinearParametric( -DYNX(W_,4770)," -hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m",
-DYNX(X_,46)," -hydraulic.distribution.stoDHW.layer_HE[3].dynBal.U",
- DYNX(W_,9304),"hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow");
+ DYNX(W_,9273),"hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9305) = 273.15+0.0002390057361376673*DYNX(W_,9304);
-DYNX(W_,9321) = DYNX(W_,9276)-DYNX(W_,9305);
-DYNX(W_,9306) = DYNX(W_,4885)*DYNX(W_,9321);
-DYNX(W_,9277) = -(DYNX(W_,9336)-DYNX(W_,9339)+DYNX(W_,9327)+DYNX(W_,9306));
-DYNX(F_,42) = DYNX(W_,9280)+DYNX(W_,9277);
-DYNX(W_,9273) = IF DYNX(DYNhelp,2131) THEN DYNX(W_,9527)*DYNX(W_,9021) ELSE
- DYNX(W_,9267)*DYNX(W_,9021);
-DYNX(W_,9274) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9275)*DYNX(W_,9021) ELSE -
- DYNX(W_,9267)*DYNX(W_,9021);
-DYNX(W_,9272) = DYNX(W_,9273)+DYNX(W_,9274);
-DYNX(W_,9331) = DYNX(W_,9268)-DYNX(W_,9433);
-DYNX(W_,9332) = IF Greater(DYNX(W_,9331),"hydraulic.distribution.stoDHW.bouyancy[1].dT",
- 0,"0", 134) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,4898)*sqr(
- DYNX(W_,4897))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,4896)*DYNX(W_,9331),
+DYNX(W_,9274) = 273.15+0.0002390057361376673*DYNX(W_,9273);
+DYNX(W_,9290) = DYNX(W_,9245)-DYNX(W_,9274);
+DYNX(W_,9275) = DYNX(W_,4845)*DYNX(W_,9290);
+DYNX(W_,9246) = -(DYNX(W_,9305)-DYNX(W_,9308)+DYNX(W_,9296)+DYNX(W_,9275));
+DYNX(F_,42) = DYNX(W_,9249)+DYNX(W_,9246);
+DYNX(W_,9242) = IF DYNX(DYNhelp,2135) THEN DYNX(W_,9496)*DYNX(W_,8984) ELSE
+ DYNX(W_,9236)*DYNX(W_,8984);
+DYNX(W_,9243) = IF DYNX(DYNhelp,2136) THEN -DYNX(W_,9244)*DYNX(W_,8984) ELSE -
+ DYNX(W_,9236)*DYNX(W_,8984);
+DYNX(W_,9241) = DYNX(W_,9242)+DYNX(W_,9243);
+DYNX(W_,9300) = DYNX(W_,9237)-DYNX(W_,9402);
+DYNX(W_,9301) = IF Greater(DYNX(W_,9300),"hydraulic.distribution.stoDHW.bouyancy[1].dT",
+ 0,"0", 142) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,4858)*sqr(
+ DYNX(W_,4857))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,4856)*DYNX(W_,9300),
"9.80665*(hydraulic.distribution.stoDHW.bouyancy[1].beta*hydraulic.distribution.stoDHW.bouyancy[1].dT)",
- DYNX(W_,4897),"hydraulic.distribution.stoDHW.bouyancy[1].dx")),
+ DYNX(W_,4857),"hydraulic.distribution.stoDHW.bouyancy[1].dx")),
"abs(9.80665*(hydraulic.distribution.stoDHW.bouyancy[1].beta*hydraulic.distribution.stoDHW.bouyancy[1].dT)/hydraulic.distribution.stoDHW.bouyancy[1].dx)");
if (NewParameters_) {
-DYNX(DYNhelp,2135) = divinvGuarded(DYNX(W_,4897),"hydraulic.distribution.stoDHW.bouyancy[1].dx");
+DYNX(DYNhelp,2139) = divinvGuarded(DYNX(W_,4857),"hydraulic.distribution.stoDHW.bouyancy[1].dx");
}
-DYNX(W_,9333) = DYNX(DYNhelp,2135)*DYNX(W_,9332)*DYNX(W_,4895)*DYNX(W_,9331);
+DYNX(W_,9302) = DYNX(DYNhelp,2139)*DYNX(W_,9301)*DYNX(W_,4855)*DYNX(W_,9300);
/* Linear system of equations to solve. */
-DYNX(W_,9296) = RememberSimple_(DYNX(W_,9296), 33);
-SolveScalarLinearParametric( -DYNX(W_,4751)," -hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m",
+DYNX(W_,9265) = RememberSimple_(DYNX(W_,9265), 35);
+SolveScalarLinearParametric( -DYNX(W_,4711)," -hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m",
-DYNX(X_,45)," -hydraulic.distribution.stoDHW.layer_HE[2].dynBal.U",
- DYNX(W_,9296),"hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow");
+ DYNX(W_,9265),"hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9297) = 273.15+0.0002390057361376673*DYNX(W_,9296);
-DYNX(W_,9320) = DYNX(W_,9268)-DYNX(W_,9297);
-DYNX(W_,9298) = DYNX(W_,4884)*DYNX(W_,9320);
-DYNX(W_,9269) = -(DYNX(W_,9333)-DYNX(W_,9336)+DYNX(W_,9325)+DYNX(W_,9298));
-DYNX(F_,41) = DYNX(W_,9272)+DYNX(W_,9269);
+DYNX(W_,9266) = 273.15+0.0002390057361376673*DYNX(W_,9265);
BreakSectionFunctionEnd()
BreakSectionFunctionStart(51);
+DYNX(W_,9289) = DYNX(W_,9237)-DYNX(W_,9266);
+DYNX(W_,9267) = DYNX(W_,4844)*DYNX(W_,9289);
+DYNX(W_,9238) = -(DYNX(W_,9302)-DYNX(W_,9305)+DYNX(W_,9294)+DYNX(W_,9267));
+DYNX(F_,41) = DYNX(W_,9241)+DYNX(W_,9238);
/* Linear system of equations to solve. */
-DYNX(W_,9035) = RememberSimple_(DYNX(W_,9035), 34);
+DYNX(W_,8998) = RememberSimple_(DYNX(W_,8998), 36);
SolveScalarLinearParametric( -DYNX(W_,1240)," -DHW.pump.vol.dynBal.m", -
- DYNX(X_,16)," -DHW.pump.vol.dynBal.U", DYNX(W_,9035),"DHW.pump.port_a.h_outflow");
+ DYNX(X_,16)," -DHW.pump.vol.dynBal.U", DYNX(W_,8998),"DHW.pump.port_a.h_outflow");
/* End of Equation Block */
-DYNX(W_,9045) = IF DYNX(DYNhelp,2131) THEN DYNX(Aux_,135)*DYNX(W_,9021) ELSE
- DYNX(W_,9035)*DYNX(W_,9021);
-DYNX(W_,9046) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9527)*DYNX(W_,9021) ELSE -
- DYNX(W_,9035)*DYNX(W_,9021);
-DYNX(F_,16) = DYNX(W_,9045)+DYNX(W_,9046);
-DYNX(W_,9022) = DYNX(W_,9035);
-DYNX(W_,9265) = IF DYNX(DYNhelp,2131) THEN DYNX(W_,9022)*DYNX(W_,9021) ELSE
- DYNX(W_,9527)*DYNX(W_,9021);
-DYNX(W_,9266) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9267)*DYNX(W_,9021) ELSE -
- DYNX(W_,9527)*DYNX(W_,9021);
-DYNX(W_,9264) = DYNX(W_,9265)+DYNX(W_,9266);
+DYNX(W_,9008) = IF DYNX(DYNhelp,2135) THEN DYNX(Aux_,135)*DYNX(W_,8984) ELSE
+ DYNX(W_,8998)*DYNX(W_,8984);
+DYNX(W_,9009) = IF DYNX(DYNhelp,2136) THEN -DYNX(W_,9496)*DYNX(W_,8984) ELSE -
+ DYNX(W_,8998)*DYNX(W_,8984);
+DYNX(F_,16) = DYNX(W_,9008)+DYNX(W_,9009);
+DYNX(W_,8985) = DYNX(W_,8998);
+DYNX(W_,9234) = IF DYNX(DYNhelp,2135) THEN DYNX(W_,8985)*DYNX(W_,8984) ELSE
+ DYNX(W_,9496)*DYNX(W_,8984);
+DYNX(W_,9235) = IF DYNX(DYNhelp,2136) THEN -DYNX(W_,9236)*DYNX(W_,8984) ELSE -
+ DYNX(W_,9496)*DYNX(W_,8984);
+DYNX(W_,9233) = DYNX(W_,9234)+DYNX(W_,9235);
/* Linear system of equations to solve. */
-DYNX(W_,9259) = RememberSimple_(DYNX(W_,9259), 35);
-SolveScalarLinearParametric( -DYNX(W_,4692)," -hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m",
+DYNX(W_,9228) = RememberSimple_(DYNX(W_,9228), 37);
+SolveScalarLinearParametric( -DYNX(W_,4652)," -hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m",
-DYNX(X_,44)," -hydraulic.distribution.stoDHW.layer_HE[1].dynBal.U",
- DYNX(W_,9259),"hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow");
+ DYNX(W_,9228),"hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow");
+ /* End of Equation Block */
+
+DYNX(W_,9258) = 273.15+0.0002390057361376673*DYNX(W_,9228);
+DYNX(W_,9288) = DYNX(W_,9402)-DYNX(W_,9258);
+DYNX(W_,9259) = DYNX(W_,4843)*DYNX(W_,9288);
+DYNX(W_,9230) = -(DYNX(W_,9292)-DYNX(W_,9302)+DYNX(W_,9259));
+DYNX(F_,40) = DYNX(W_,9233)+DYNX(W_,9230);
+DYNX(W_,9217) = DYNX(DP_,1186)*DYNX(W_,9207)+DYNX(DP_,1187)*DYNX(W_,9213);
+DYNX(W_,9216) = DYNX(W_,4125)*DYNX(W_,9217);
+DYNX(W_,9215) = DYNX(DP_,1183)*DYNX(W_,9203)+DYNX(DP_,1184)*DYNX(X_,27)+
+ DYNX(DP_,1185)*DYNX(W_,9216);
+DYNX(F_,38) = DYNX(W_,4113)*DYNX(W_,9215);
+ /* Linear system of equations to solve. */
+DYNX(W_,9100) = RememberSimple_(DYNX(W_,9100), 38);
+SolveScalarLinearParametric( -DYNX(W_,3888)," -hydraulic.generation.eleHea.vol.dynBal.m",
+ -DYNX(X_,30)," -hydraulic.generation.eleHea.vol.dynBal.U", DYNX(W_,9100),
+ "hydraulic.generation.portGen_out[1].h_outflow");
+ /* End of Equation Block */
+
+DYNX(W_,9180) = 273.15+0.0002390057361376673*DYNX(W_,9100);
+ /* Linear system of equations to solve. */
+DYNX(W_,9223) = RememberSimple_(DYNX(W_,9223), 39);
+SolveScalarLinearParametric( -DYNX(W_,5607)," -hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.m",
+ -DYNX(X_,56)," -hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.U",
+ DYNX(W_,9223),"hydraulic.distribution.portGen_in[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9289) = 273.15+0.0002390057361376673*DYNX(W_,9259);
-DYNX(W_,9319) = DYNX(W_,9433)-DYNX(W_,9289);
-DYNX(W_,9290) = DYNX(W_,4883)*DYNX(W_,9319);
-DYNX(W_,9261) = -(DYNX(W_,9323)-DYNX(W_,9333)+DYNX(W_,9290));
-DYNX(F_,40) = DYNX(W_,9264)+DYNX(W_,9261);
-DYNX(W_,9706) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n3, \nweaDat.datRea.u)")
+DYNX(W_,9181) = 273.15+0.0002390057361376673*DYNX(W_,9223);
+DYNX(W_,9179) = IF -DYNX(W_,8296) > 3.379347183446045E-05 THEN DYNX(W_,9180)
+ ELSE IF -DYNX(W_,8296) < -3.379347183446045E-05 THEN DYNX(W_,9181) ELSE 0.5*
+ (DYNX(W_,9180)+DYNX(W_,9181))-7397.878537743664*DYNX(W_,8296)*(sqr((
+ -29591.514150974657)*DYNX(W_,8296))-3)*(DYNX(W_,9181)-DYNX(W_,9180));
+DYNX(W_,8373) = (-2.959151415097466)*DYNX(W_,8296);
+DYNX(W_,8372) = IF -DYNX(W_,8296) > 3.379347183446045E-05 THEN DYNX(W_,8373)
+ ELSE IF -DYNX(W_,8296) < -3.379347183446045E-05 THEN -DYNX(W_,8373) ELSE
+ 14795.757075487329*DYNX(W_,8296)*(sqr((-29591.514150974657)*DYNX(W_,8296))-3)*
+ DYNX(W_,8373);
+DYNX(F_,27) = (DYNX(W_,9179)-DYNX(X_,27))*DYNX(W_,8372)+divGuarded((
+ DYNX(W_,3791)-DYNX(X_,27))*DYNX(W_,3793),"(hydraulic.generation.senTGenOut.TAmb-hydraulic.generation.senTGenOut.T)*hydraulic.generation.senTGenOut.tauHeaTraInv",1
+ +DYNX(W_,3794)*DYNX(W_,8372),"1+hydraulic.generation.senTGenOut.ratTau*hydraulic.generation.senTGenOut.k");
+DYNX(W_,9145) = IF DYNX(DYNhelp,2031) THEN DYNX(W_,9171)*DYNX(W_,3404) ELSE
+ DYNX(W_,9103)*DYNX(W_,3404);
+DYNX(W_,9146) = IF DYNX(DYNhelp,2032) THEN -DYNX(Aux_,141)*DYNX(W_,3404) ELSE
+ -DYNX(W_,9103)*DYNX(W_,3404);
+DYNX(W_,9144) = DYNX(W_,9145)+DYNX(W_,9146);
+DYNX(W_,9128) = IF DYNX(W_,8299) THEN DYNX(W_,9107) ELSE DYNX(W_,2568);
+DYNX(F_,23) = DYNX(W_,9144)+DYNX(W_,9128);
+DYNX(W_,8303) = DYNX(W_,8355) AND DYNX(W_,8299);
+DYNX(W_,9675) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n3, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 3, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 3, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9730) = 0.01*DYNX(W_,9706);
-DYNX(DYNhelp,2136) = RealBmax(0, DYNX(W_,9730));
-DYNX(W_,8491) = RealBmin(1, DYNX(DYNhelp,2136));
-DYNX(W_,9153) = (PushModelContext(1,"BESRules.Components.Frosting.BaseClasses.ZhuFrostingZone.poly_fit(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_severe, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda-273.15)")
+DYNX(W_,9699) = 0.01*DYNX(W_,9675);
+DYNX(DYNhelp,2140) = RealBmax(0, DYNX(W_,9699));
+DYNX(W_,8454) = RealBmin(1, DYNX(DYNhelp,2140));
+DYNX(W_,9120) = (PushModelContext(1,"BESRules.Components.Frosting.BaseClasses.ZhuFrostingZone.poly_fit(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_severe, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda-273.15)")
BESRules_Components_Frosting_BaseClasses_ZhuFrostingZone_polyx_0fit(
- RealTemporaryDense( &DYNX(DP_,895), 1, 4), DYNX(W_,9197)-273.15));
+ RealTemporaryDense( &DYNX(DP_,899), 1, 4), DYNX(W_,9164)-273.15));
PopAllMarks();
-DYNX(W_,9154) = (PushModelContext(1,"BESRules.Components.Frosting.BaseClasses.ZhuFrostingZone.poly_fit(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_moderate, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda-273.15)")
+DYNX(W_,9121) = (PushModelContext(1,"BESRules.Components.Frosting.BaseClasses.ZhuFrostingZone.poly_fit(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_moderate, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda-273.15)")
BESRules_Components_Frosting_BaseClasses_ZhuFrostingZone_polyx_0fit(
- RealTemporaryDense( &DYNX(DP_,899), 1, 4), DYNX(W_,9197)-273.15));
+ RealTemporaryDense( &DYNX(DP_,903), 1, 4), DYNX(W_,9164)-273.15));
PopAllMarks();
-DYNX(W_,9155) = (PushModelContext(1,"BESRules.Components.Frosting.BaseClasses.ZhuFrostingZone.poly_fit(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda-273.15)")
+DYNX(W_,9122) = (PushModelContext(1,"BESRules.Components.Frosting.BaseClasses.ZhuFrostingZone.poly_fit(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild, hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda-273.15)")
BESRules_Components_Frosting_BaseClasses_ZhuFrostingZone_polyx_0fit(
- RealTemporaryDense( &DYNX(DP_,903), 1, 4), DYNX(W_,9197)-273.15));
+ RealTemporaryDense( &DYNX(DP_,907), 1, 4), DYNX(W_,9164)-273.15));
PopAllMarks();
-DYNX(W_,8343) = IF GreaterEqual(DYNX(W_,9197),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda",
- 279.15,"279.15", 135) THEN 0 ELSE IF GreaterEqual(DYNX(W_,8491),
+DYNX(W_,8305) = IF GreaterEqual(DYNX(W_,9164),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda",
+ 279.15,"279.15", 143) THEN 0 ELSE IF GreaterEqual(DYNX(W_,8454),
"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum",
- DYNX(W_,9153),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev",
- 136) THEN 3 ELSE IF GreaterEqual(DYNX(W_,8491),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum",
- DYNX(W_,9154),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod",
- 137) THEN 2 ELSE IF GreaterEqual(DYNX(W_,8491),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum",
- DYNX(W_,9155),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil",
- 138) THEN 1 ELSE 0;
-DYNX(W_,9145) = IF DYNX(W_,8343) == 1 THEN divGuarded(1.4E-07*(DYNX(W_,8491)-
- DYNX(W_,9155))*DYNX(DP_,893),"1.4E-07*((hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil)*hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.corCoeffMil)",
- DYNX(W_,9154)-DYNX(W_,9155),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil")
- ELSE IF DYNX(W_,8343) == 2 THEN (1.4E-07+divGuarded(2.1999999999999998E-07*(
- DYNX(W_,8491)-DYNX(W_,9154)),"2.1999999999999998E-07*(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod)",
- DYNX(W_,9153)-DYNX(W_,9154),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod"))
- *DYNX(DP_,892) ELSE IF DYNX(W_,8343) == 3 THEN (3.6E-07+divGuarded(
- 2.1999999999999998E-07*(DYNX(W_,8491)-DYNX(W_,9153)),"2.1999999999999998E-07*(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev)",
- DYNX(W_,9153)-DYNX(W_,9154),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod"))
- *DYNX(DP_,891) ELSE 0;
-DYNX(W_,9146) = RealBmin(0, -DYNX(DP_,886)*(DYNX(W_,9197)-273.15));
-DYNX(W_,9147) = IF DYNX(W_,8392) THEN DYNX(W_,9145) ELSE DYNX(W_,9146);
-DYNX(W_,9150) = 15*DYNX(W_,9147);
-DYNX(W_,9148) = 918.0*DYNX(W_,9150);
+ DYNX(W_,9120),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev",
+ 144) THEN 3 ELSE IF GreaterEqual(DYNX(W_,8454),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum",
+ DYNX(W_,9121),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod",
+ 145) THEN 2 ELSE IF GreaterEqual(DYNX(W_,8454),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum",
+ DYNX(W_,9122),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil",
+ 146) THEN 1 ELSE 0;
+DYNX(W_,9111) = IF DYNX(W_,8305) == 1 THEN divGuarded(1.4E-07*(DYNX(W_,8454)-
+ DYNX(W_,9122))*DYNX(DP_,897),"1.4E-07*((hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil)*hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.corCoeffMil)",
+ DYNX(W_,9121)-DYNX(W_,9122),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil")
+ ELSE IF DYNX(W_,8305) == 2 THEN (1.4E-07+divGuarded(2.1999999999999998E-07*(
+ DYNX(W_,8454)-DYNX(W_,9121)),"2.1999999999999998E-07*(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod)",
+ DYNX(W_,9120)-DYNX(W_,9121),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod"))
+ *DYNX(DP_,896) ELSE IF DYNX(W_,8305) == 3 THEN (3.6E-07+divGuarded(
+ 2.1999999999999998E-07*(DYNX(W_,8454)-DYNX(W_,9120)),"2.1999999999999998E-07*(hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev)",
+ DYNX(W_,9120)-DYNX(W_,9121),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev-hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod"))
+ *DYNX(DP_,895) ELSE 0;
+DYNX(W_,9112) = RealBmin(0, -DYNX(DP_,890)*(DYNX(W_,9164)-273.15));
+DYNX(W_,9113) = IF DYNX(W_,8303) THEN DYNX(W_,9111) ELSE DYNX(W_,9112);
+DYNX(W_,9117) = 15*DYNX(W_,9113);
+DYNX(W_,9114) = 918.0*DYNX(W_,9117);
+DYNX(W_,9118) = DYNX(W_,2580)*DYNX(W_,9128);
+DYNX(W_,8304) = IF Equal(DYNX(W_,8305), DYNX(DP_,898), 147) THEN
+ 0.4838709677419355*DYNX(DP_,898) ELSE IF DYNX(W_,8305) == 2 THEN
+ 0.7894736842105263*DYNX(DP_,898) ELSE DYNX(DP_,898);
+DYNX(W_,9115) = DYNX(W_,9118)*DYNX(W_,8304);
+DYNX(W_,9116) = IF DYNX(W_,8299) THEN DYNX(W_,9114) ELSE DYNX(W_,9115);
DYNX(F_,20) = IF Greater(DYNX(X_,20),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce",
- 20.655,"20.655", 139) THEN RealBmin(0, DYNX(W_,9148)) ELSE IF Less(
+ 20.655,"20.655", 148) THEN RealBmin(0, DYNX(W_,9116)) ELSE IF Less(
DYNX(X_,20),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce",
- 0,"0", 140) THEN RealBmax(0, DYNX(W_,9148)) ELSE DYNX(W_,9148);
-DYNX(W_,9248) = DYNX(DP_,1180)*DYNX(W_,9238)+DYNX(DP_,1181)*DYNX(W_,9244);
-DYNX(W_,9247) = DYNX(W_,4165)*DYNX(W_,9248);
-DYNX(W_,9246) = DYNX(DP_,1177)*DYNX(W_,9234)+DYNX(DP_,1178)*DYNX(X_,27)+
- DYNX(DP_,1179)*DYNX(W_,9247);
-DYNX(F_,38) = DYNX(W_,4153)*DYNX(W_,9246);
- /* Linear system of equations to solve. */
-DYNX(W_,9137) = RememberSimple_(DYNX(W_,9137), 36);
-SolveScalarLinearParametric( -DYNX(W_,3928)," -hydraulic.generation.eleHea.vol.dynBal.m",
- -DYNX(X_,30)," -hydraulic.generation.eleHea.vol.dynBal.U", DYNX(W_,9137),
- "hydraulic.generation.portGen_out[1].h_outflow");
- /* End of Equation Block */
-
-DYNX(W_,9211) = 273.15+0.0002390057361376673*DYNX(W_,9137);
- /* Linear system of equations to solve. */
-DYNX(W_,9254) = RememberSimple_(DYNX(W_,9254), 37);
-SolveScalarLinearParametric( -DYNX(W_,5647)," -hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.m",
- -DYNX(X_,56)," -hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.U",
- DYNX(W_,9254),"hydraulic.distribution.portGen_in[1].h_outflow");
- /* End of Equation Block */
-
-DYNX(W_,9212) = 273.15+0.0002390057361376673*DYNX(W_,9254);
-DYNX(W_,9210) = IF -DYNX(W_,8336) > 3.379347183446045E-05 THEN DYNX(W_,9211)
- ELSE IF -DYNX(W_,8336) < -3.379347183446045E-05 THEN DYNX(W_,9212) ELSE 0.5*
- (DYNX(W_,9211)+DYNX(W_,9212))-7397.878537743664*DYNX(W_,8336)*(sqr((
- -29591.514150974657)*DYNX(W_,8336))-3)*(DYNX(W_,9212)-DYNX(W_,9211));
-DYNX(W_,8410) = (-2.959151415097466)*DYNX(W_,8336);
-DYNX(W_,8409) = IF -DYNX(W_,8336) > 3.379347183446045E-05 THEN DYNX(W_,8410)
- ELSE IF -DYNX(W_,8336) < -3.379347183446045E-05 THEN -DYNX(W_,8410) ELSE
- 14795.757075487329*DYNX(W_,8336)*(sqr((-29591.514150974657)*DYNX(W_,8336))-3)*
- DYNX(W_,8410);
-DYNX(F_,27) = (DYNX(W_,9210)-DYNX(X_,27))*DYNX(W_,8409)+divGuarded((
- DYNX(W_,3829)-DYNX(X_,27))*DYNX(W_,3831),"(hydraulic.generation.senTGenOut.TAmb-hydraulic.generation.senTGenOut.T)*hydraulic.generation.senTGenOut.tauHeaTraInv",1
- +DYNX(W_,3832)*DYNX(W_,8409),"1+hydraulic.generation.senTGenOut.ratTau*hydraulic.generation.senTGenOut.k");
-DYNX(DYNhelp,2137) = DYNX(W_,8453) >= 0;
-DYNX(W_,9427) = IF DYNX(DYNhelp,2137) THEN DYNX(W_,9342)*DYNX(W_,8453) ELSE
- DYNX(W_,9254)*DYNX(W_,8453);
-DYNX(DYNhelp,2138) = -DYNX(W_,8336) >= 0;
-DYNX(W_,9428) = IF DYNX(DYNhelp,2138) THEN -DYNX(W_,9137)*DYNX(W_,8336) ELSE -
- DYNX(W_,9254)*DYNX(W_,8336);
-DYNX(DYNhelp,2139) = DYNX(W_,8452) >= 0;
-DYNX(W_,9429) = IF DYNX(DYNhelp,2139) THEN DYNX(W_,9260)*DYNX(W_,8452) ELSE
- DYNX(W_,9254)*DYNX(W_,8452);
-DYNX(F_,56) = DYNX(W_,9427)+DYNX(W_,9428)+DYNX(W_,9429);
-DYNX(W_,9217) = IF DYNX(DYNhelp,2138) THEN -DYNX(W_,9139)*DYNX(W_,8336) ELSE -
- DYNX(W_,9137)*DYNX(W_,8336);
-DYNX(DYNhelp,2140) = DYNX(W_,8336) >= 0;
-DYNX(W_,9218) = IF DYNX(DYNhelp,2140) THEN DYNX(W_,9254)*DYNX(W_,8336) ELSE
- DYNX(W_,9137)*DYNX(W_,8336);
-DYNX(W_,9216) = DYNX(W_,9217)+DYNX(W_,9218);
-DYNX(F_,30) = DYNX(W_,9216)+DYNX(Y_,19);
- /* Linear system of equations to solve. */
-DYNX(W_,9203) = RememberSimple_(DYNX(W_,9203), 38);
-SolveScalarLinearParametric( -DYNX(W_,3580)," -hydraulic.generation.pump.vol.dynBal.m",
- -DYNX(X_,25)," -hydraulic.generation.pump.vol.dynBal.U", DYNX(W_,9203),
- "hydraulic.generation.pump.port_a.h_outflow");
- /* End of Equation Block */
-
-DYNX(W_,9204) = DYNX(W_,9203);
-DYNX(W_,9165) = IF DYNX(DYNhelp,2138) THEN -DYNX(W_,9204)*DYNX(W_,8336) ELSE -
- DYNX(W_,9139)*DYNX(W_,8336);
-DYNX(W_,9166) = IF DYNX(DYNhelp,2140) THEN DYNX(W_,9137)*DYNX(W_,8336) ELSE
- DYNX(W_,9139)*DYNX(W_,8336);
-DYNX(W_,9164) = DYNX(W_,9165)+DYNX(W_,9166);
-DYNX(F_,21) = DYNX(W_,9164)+DYNX(Y_,12);
-DYNX(W_,9475) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9440)*DYNX(W_,9256) ELSE -
- DYNX(W_,9469)*DYNX(W_,9256);
-DYNX(W_,9476) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9477)*DYNX(W_,9256) ELSE
- DYNX(W_,9469)*DYNX(W_,9256);
-DYNX(W_,9474) = DYNX(W_,9475)+DYNX(W_,9476);
-DYNX(W_,9471) = DYNX(W_,9453)+DYNX(W_,9458);
-DYNX(F_,60) = DYNX(W_,9474)+DYNX(W_,9471);
-DYNX(W_,9483) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9469)*DYNX(W_,9256) ELSE -
- DYNX(W_,9477)*DYNX(W_,9256);
-DYNX(W_,9484) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9485)*DYNX(W_,9256) ELSE
- DYNX(W_,9477)*DYNX(W_,9256);
-DYNX(W_,9482) = DYNX(W_,9483)+DYNX(W_,9484);
-DYNX(W_,9479) = DYNX(W_,9454)+DYNX(W_,9459);
-DYNX(F_,61) = DYNX(W_,9482)+DYNX(W_,9479);
-DYNX(W_,9491) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9477)*DYNX(W_,9256) ELSE -
- DYNX(W_,9485)*DYNX(W_,9256);
-DYNX(W_,9492) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9434)*DYNX(W_,9256) ELSE
- DYNX(W_,9485)*DYNX(W_,9256);
-DYNX(W_,9490) = DYNX(W_,9491)+DYNX(W_,9492);
-DYNX(W_,9487) = DYNX(W_,9455)+DYNX(W_,9460);
-DYNX(F_,62) = DYNX(W_,9490)+DYNX(W_,9487);
-DYNX(W_,9498) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9485)*DYNX(W_,9256) ELSE -
- DYNX(W_,9434)*DYNX(W_,9256);
-DYNX(W_,9499) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9258)*DYNX(W_,9256) ELSE
- DYNX(W_,9434)*DYNX(W_,9256);
-DYNX(W_,9497) = DYNX(W_,9498)+DYNX(W_,9499);
-DYNX(W_,9494) = DYNX(W_,9456)+DYNX(W_,9461);
-DYNX(F_,63) = DYNX(W_,9497)+DYNX(W_,9494);
-DYNX(DYNhelp,2141) = RealBmax( -DYNX(W_,9256), 0.0);
-DYNX(Aux_,229) = DYNX(DYNhelp,2141)+DYNX(DYNhelp,1626);
+ 0,"0", 149) THEN RealBmax(0, DYNX(W_,9116)) ELSE DYNX(W_,9116);
+DYNX(DYNhelp,2141) = DYNX(W_,8416) >= 0;
+DYNX(W_,9396) = IF DYNX(DYNhelp,2141) THEN DYNX(W_,9311)*DYNX(W_,8416) ELSE
+ DYNX(W_,9223)*DYNX(W_,8416);
+DYNX(DYNhelp,2142) = -DYNX(W_,8296) >= 0;
+DYNX(W_,9397) = IF DYNX(DYNhelp,2142) THEN -DYNX(W_,9100)*DYNX(W_,8296) ELSE -
+ DYNX(W_,9223)*DYNX(W_,8296);
+DYNX(DYNhelp,2143) = DYNX(W_,8415) >= 0;
+DYNX(W_,9398) = IF DYNX(DYNhelp,2143) THEN DYNX(W_,9229)*DYNX(W_,8415) ELSE
+ DYNX(W_,9223)*DYNX(W_,8415);
+DYNX(F_,56) = DYNX(W_,9396)+DYNX(W_,9397)+DYNX(W_,9398);
+DYNX(W_,9186) = IF DYNX(DYNhelp,2142) THEN -DYNX(W_,9102)*DYNX(W_,8296) ELSE -
+ DYNX(W_,9100)*DYNX(W_,8296);
+DYNX(DYNhelp,2144) = DYNX(W_,8296) >= 0;
+DYNX(W_,9187) = IF DYNX(DYNhelp,2144) THEN DYNX(W_,9223)*DYNX(W_,8296) ELSE
+ DYNX(W_,9100)*DYNX(W_,8296);
+DYNX(W_,9185) = DYNX(W_,9186)+DYNX(W_,9187);
+DYNX(F_,30) = DYNX(W_,9185)+DYNX(Y_,19);
+DYNX(W_,9132) = IF DYNX(DYNhelp,2142) THEN -DYNX(W_,9173)*DYNX(W_,8296) ELSE -
+ DYNX(W_,9102)*DYNX(W_,8296);
+DYNX(W_,9133) = IF DYNX(DYNhelp,2144) THEN DYNX(W_,9100)*DYNX(W_,8296) ELSE
+ DYNX(W_,9102)*DYNX(W_,8296);
+DYNX(W_,9131) = DYNX(W_,9132)+DYNX(W_,9133);
+DYNX(F_,21) = DYNX(W_,9131)+DYNX(Y_,12);
+DYNX(W_,9444) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9409)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9438)*DYNX(W_,9225);
+DYNX(W_,9445) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9446)*DYNX(W_,9225) ELSE
+ DYNX(W_,9438)*DYNX(W_,9225);
+DYNX(W_,9443) = DYNX(W_,9444)+DYNX(W_,9445);
+DYNX(W_,9440) = DYNX(W_,9422)+DYNX(W_,9427);
+DYNX(F_,60) = DYNX(W_,9443)+DYNX(W_,9440);
+DYNX(W_,9452) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9438)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9446)*DYNX(W_,9225);
+DYNX(W_,9453) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9454)*DYNX(W_,9225) ELSE
+ DYNX(W_,9446)*DYNX(W_,9225);
+DYNX(W_,9451) = DYNX(W_,9452)+DYNX(W_,9453);
+DYNX(W_,9448) = DYNX(W_,9423)+DYNX(W_,9428);
+DYNX(F_,61) = DYNX(W_,9451)+DYNX(W_,9448);
+DYNX(W_,9460) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9446)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9454)*DYNX(W_,9225);
+DYNX(W_,9461) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9403)*DYNX(W_,9225) ELSE
+ DYNX(W_,9454)*DYNX(W_,9225);
+DYNX(W_,9459) = DYNX(W_,9460)+DYNX(W_,9461);
+DYNX(W_,9456) = DYNX(W_,9424)+DYNX(W_,9429);
+DYNX(F_,62) = DYNX(W_,9459)+DYNX(W_,9456);
+DYNX(W_,9467) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9454)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9403)*DYNX(W_,9225);
+DYNX(W_,9468) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9227)*DYNX(W_,9225) ELSE
+ DYNX(W_,9403)*DYNX(W_,9225);
+DYNX(W_,9466) = DYNX(W_,9467)+DYNX(W_,9468);
+DYNX(W_,9463) = DYNX(W_,9425)+DYNX(W_,9430);
+DYNX(F_,63) = DYNX(W_,9466)+DYNX(W_,9463);
+DYNX(DYNhelp,2145) = RealBmax( -DYNX(W_,9225), 0.0);
+DYNX(Aux_,229) = DYNX(DYNhelp,2145)+DYNX(DYNhelp,1627);
DYNX(Aux_,230) = IF DYNX(Aux_,229) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,229) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,229))*(3.0-20000000000.0*DYNX(Aux_,229))
ELSE 0.0;
-DYNX(DYNhelp,2142) = 1.0-DYNX(Aux_,230);
-DYNX(DYNhelp,2143) = 1E-10*DYNX(DYNhelp,2142);
-DYNX(DYNhelp,2144) = DYNX(Aux_,230)*DYNX(DYNhelp,2141)+DYNX(DYNhelp,2143);
-DYNX(DYNhelp,2145) = DYNX(Aux_,230)*DYNX(DYNhelp,1626)+DYNX(DYNhelp,2143);
-DYNX(DYNhelp,2146) = DYNX(DYNhelp,2144)+DYNX(DYNhelp,2145);
-DYNX(Aux_,43) = divGuarded(DYNX(DYNhelp,2144)*DYNX(W_,9434)+DYNX(DYNhelp,2145)*
- DYNX(W_,5774),"(stream_alpha3*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3))*hydraulic.transfer.portTra_out[1].h_outflow+(stream_alpha3*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3))*hydraulic.distribution.bouPumBuf.ports[1].h_outflow",
- DYNX(DYNhelp,2146),"stream_alpha3*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3)+stream_alpha3*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3)");
+DYNX(DYNhelp,2146) = 1.0-DYNX(Aux_,230);
+DYNX(DYNhelp,2147) = 1E-10*DYNX(DYNhelp,2146);
+DYNX(DYNhelp,2148) = DYNX(Aux_,230)*DYNX(DYNhelp,2145)+DYNX(DYNhelp,2147);
+DYNX(DYNhelp,2149) = DYNX(Aux_,230)*DYNX(DYNhelp,1627)+DYNX(DYNhelp,2147);
+DYNX(DYNhelp,2150) = DYNX(DYNhelp,2148)+DYNX(DYNhelp,2149);
+DYNX(Aux_,43) = divGuarded(DYNX(DYNhelp,2148)*DYNX(W_,9403)+DYNX(DYNhelp,2149)*
+ DYNX(W_,5734),"(stream_alpha3*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3))*hydraulic.transfer.portTra_out[1].h_outflow+(stream_alpha3*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3))*hydraulic.distribution.bouPumBuf.ports[1].h_outflow",
+ DYNX(DYNhelp,2150),"stream_alpha3*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3)+stream_alpha3*max( -hydraulic.distribution.bouPumBuf.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha3)");
DYNX(Aux_,151) = DYNX(Aux_,43);
DYNX(Aux_,186) = DYNX(Aux_,151);
-DYNX(W_,9347) = IF DYNX(DYNhelp,2128) THEN -DYNX(Aux_,186)*DYNX(W_,9256) ELSE
- -DYNX(W_,9340)*DYNX(W_,9256);
-DYNX(W_,9348) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9349)*DYNX(W_,9256) ELSE
- DYNX(W_,9340)*DYNX(W_,9256);
-DYNX(W_,9346) = DYNX(W_,9347)+DYNX(W_,9348);
-DYNX(W_,9413) = DYNX(W_,9350)-DYNX(W_,9432);
-DYNX(W_,9414) = IF Greater(DYNX(W_,9413),"hydraulic.distribution.stoBuf.bouyancy[1].dT",
- 0,"0", 141) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,5437)*sqr(
- DYNX(W_,5436))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,5435)*DYNX(W_,9413),
+DYNX(W_,9316) = IF DYNX(DYNhelp,2132) THEN -DYNX(Aux_,186)*DYNX(W_,9225) ELSE
+ -DYNX(W_,9309)*DYNX(W_,9225);
+DYNX(W_,9317) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9318)*DYNX(W_,9225) ELSE
+ DYNX(W_,9309)*DYNX(W_,9225);
+DYNX(W_,9315) = DYNX(W_,9316)+DYNX(W_,9317);
+DYNX(W_,9382) = DYNX(W_,9319)-DYNX(W_,9401);
+DYNX(W_,9383) = IF Greater(DYNX(W_,9382),"hydraulic.distribution.stoBuf.bouyancy[1].dT",
+ 0,"0", 150) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,5397)*sqr(
+ DYNX(W_,5396))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,5395)*DYNX(W_,9382),
"9.80665*(hydraulic.distribution.stoBuf.bouyancy[1].beta*hydraulic.distribution.stoBuf.bouyancy[1].dT)",
- DYNX(W_,5436),"hydraulic.distribution.stoBuf.bouyancy[1].dx")),
+ DYNX(W_,5396),"hydraulic.distribution.stoBuf.bouyancy[1].dx")),
"abs(9.80665*(hydraulic.distribution.stoBuf.bouyancy[1].beta*hydraulic.distribution.stoBuf.bouyancy[1].dT)/hydraulic.distribution.stoBuf.bouyancy[1].dx)");
if (NewParameters_) {
-DYNX(DYNhelp,2147) = divinvGuarded(DYNX(W_,5436),"hydraulic.distribution.stoBuf.bouyancy[1].dx");
+DYNX(DYNhelp,2151) = divinvGuarded(DYNX(W_,5396),"hydraulic.distribution.stoBuf.bouyancy[1].dx");
}
-DYNX(W_,9415) = DYNX(DYNhelp,2147)*DYNX(W_,9414)*DYNX(W_,5434)*DYNX(W_,9413);
+DYNX(W_,9384) = DYNX(DYNhelp,2151)*DYNX(W_,9383)*DYNX(W_,5394)*DYNX(W_,9382);
/* Linear system of equations to solve. */
-DYNX(W_,9341) = RememberSimple_(DYNX(W_,9341), 39);
-SolveScalarLinearParametric( -DYNX(W_,5231)," -hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m",
+DYNX(W_,9310) = RememberSimple_(DYNX(W_,9310), 40);
+SolveScalarLinearParametric( -DYNX(W_,5191)," -hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m",
-DYNX(X_,52)," -hydraulic.distribution.stoBuf.layer_HE[1].dynBal.U",
- DYNX(W_,9341),"hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow");
+ DYNX(W_,9310),"hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow");
/* End of Equation Block */
-DYNX(W_,9371) = 273.15+0.0002390057361376673*DYNX(W_,9341);
-DYNX(W_,9401) = DYNX(W_,9432)-DYNX(W_,9371);
-DYNX(W_,9372) = DYNX(W_,5422)*DYNX(W_,9401);
-DYNX(W_,9343) = -(DYNX(W_,9405)-DYNX(W_,9415)+DYNX(W_,9372));
-DYNX(F_,48) = DYNX(W_,9346)+DYNX(W_,9343);
-DYNX(W_,9355) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9340)*DYNX(W_,9256) ELSE -
- DYNX(W_,9349)*DYNX(W_,9256);
-DYNX(W_,9356) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9357)*DYNX(W_,9256) ELSE
- DYNX(W_,9349)*DYNX(W_,9256);
-DYNX(W_,9354) = DYNX(W_,9355)+DYNX(W_,9356);
-DYNX(W_,9416) = DYNX(W_,9358)-DYNX(W_,9350);
-DYNX(W_,9417) = IF Greater(DYNX(W_,9416),"hydraulic.distribution.stoBuf.bouyancy[2].dT",
- 0,"0", 142) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,5445)*sqr(
- DYNX(W_,5444))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,5443)*DYNX(W_,9416),
+DYNX(W_,9340) = 273.15+0.0002390057361376673*DYNX(W_,9310);
+DYNX(W_,9370) = DYNX(W_,9401)-DYNX(W_,9340);
+DYNX(W_,9341) = DYNX(W_,5382)*DYNX(W_,9370);
+DYNX(W_,9312) = -(DYNX(W_,9374)-DYNX(W_,9384)+DYNX(W_,9341));
+DYNX(F_,48) = DYNX(W_,9315)+DYNX(W_,9312);
+DYNX(W_,9324) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9309)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9318)*DYNX(W_,9225);
+DYNX(W_,9325) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9326)*DYNX(W_,9225) ELSE
+ DYNX(W_,9318)*DYNX(W_,9225);
+DYNX(W_,9323) = DYNX(W_,9324)+DYNX(W_,9325);
+DYNX(W_,9385) = DYNX(W_,9327)-DYNX(W_,9319);
+DYNX(W_,9386) = IF Greater(DYNX(W_,9385),"hydraulic.distribution.stoBuf.bouyancy[2].dT",
+ 0,"0", 151) THEN 0.598 ELSE 0.598+2777021.2159999995*DYNX(W_,5405)*sqr(
+ DYNX(W_,5404))*sqrtGuarded(fabs(divGuarded(9.80665*DYNX(W_,5403)*DYNX(W_,9385),
"9.80665*(hydraulic.distribution.stoBuf.bouyancy[2].beta*hydraulic.distribution.stoBuf.bouyancy[2].dT)",
- DYNX(W_,5444),"hydraulic.distribution.stoBuf.bouyancy[2].dx")),
+ DYNX(W_,5404),"hydraulic.distribution.stoBuf.bouyancy[2].dx")),
"abs(9.80665*(hydraulic.distribution.stoBuf.bouyancy[2].beta*hydraulic.distribution.stoBuf.bouyancy[2].dT)/hydraulic.distribution.stoBuf.bouyancy[2].dx)");
if (NewParameters_) {
-DYNX(DYNhelp,2148) = divinvGuarded(DYNX(W_,5444),"hydraulic.distribution.stoBuf.bouyancy[2].dx");
+DYNX(DYNhelp,2152) = divinvGuarded(DYNX(W_,5404),"hydraulic.distribution.stoBuf.bouyancy[2].dx");
}
-DYNX(W_,9418) = DYNX(DYNhelp,2148)*DYNX(W_,9417)*DYNX(W_,5442)*DYNX(W_,9416);
+DYNX(W_,9387) = DYNX(DYNhelp,2152)*DYNX(W_,9386)*DYNX(W_,5402)*DYNX(W_,9385);
/* Linear system of equations to solve. */
-DYNX(W_,9378) = RememberSimple_(DYNX(W_,9378), 40);
-SolveScalarLinearParametric( -DYNX(W_,5290)," -hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m",
+DYNX(W_,9347) = RememberSimple_(DYNX(W_,9347), 41);
+SolveScalarLinearParametric( -DYNX(W_,5250)," -hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m",
-DYNX(X_,53)," -hydraulic.distribution.stoBuf.layer_HE[2].dynBal.U",
- DYNX(W_,9378),"hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow");
+ DYNX(W_,9347),"hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9379) = 273.15+0.0002390057361376673*DYNX(W_,9378);
-DYNX(W_,9402) = DYNX(W_,9350)-DYNX(W_,9379);
-DYNX(W_,9380) = DYNX(W_,5423)*DYNX(W_,9402);
-DYNX(W_,9351) = -(DYNX(W_,9415)-DYNX(W_,9418)+DYNX(W_,9407)+DYNX(W_,9380));
-DYNX(F_,49) = DYNX(W_,9354)+DYNX(W_,9351);
-DYNX(W_,9363) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9349)*DYNX(W_,9256) ELSE -
- DYNX(W_,9357)*DYNX(W_,9256);
-DYNX(W_,9364) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9257)*DYNX(W_,9256) ELSE
- DYNX(W_,9357)*DYNX(W_,9256);
-DYNX(W_,9362) = DYNX(W_,9363)+DYNX(W_,9364);
+DYNX(W_,9348) = 273.15+0.0002390057361376673*DYNX(W_,9347);
+DYNX(W_,9371) = DYNX(W_,9319)-DYNX(W_,9348);
+DYNX(W_,9349) = DYNX(W_,5383)*DYNX(W_,9371);
+DYNX(W_,9320) = -(DYNX(W_,9384)-DYNX(W_,9387)+DYNX(W_,9376)+DYNX(W_,9349));
+DYNX(F_,49) = DYNX(W_,9323)+DYNX(W_,9320);
+DYNX(W_,9332) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9318)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9326)*DYNX(W_,9225);
+DYNX(W_,9333) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9226)*DYNX(W_,9225) ELSE
+ DYNX(W_,9326)*DYNX(W_,9225);
+DYNX(W_,9331) = DYNX(W_,9332)+DYNX(W_,9333);
/* Linear system of equations to solve. */
-DYNX(W_,9386) = RememberSimple_(DYNX(W_,9386), 41);
-SolveScalarLinearParametric( -DYNX(W_,5349)," -hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m",
+DYNX(W_,9355) = RememberSimple_(DYNX(W_,9355), 42);
+SolveScalarLinearParametric( -DYNX(W_,5309)," -hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m",
-DYNX(X_,54)," -hydraulic.distribution.stoBuf.layer_HE[3].dynBal.U",
- DYNX(W_,9386),"hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow");
+ DYNX(W_,9355),"hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow");
/* End of Equation Block */
-DYNX(W_,9387) = 273.15+0.0002390057361376673*DYNX(W_,9386);
-DYNX(W_,9403) = DYNX(W_,9358)-DYNX(W_,9387);
-DYNX(W_,9388) = DYNX(W_,5424)*DYNX(W_,9403);
-DYNX(W_,9359) = -(DYNX(W_,9418)-DYNX(W_,9421)+DYNX(W_,9409)+DYNX(W_,9388));
-DYNX(F_,50) = DYNX(W_,9362)+DYNX(W_,9359);
-DYNX(W_,9392) = IF DYNX(DYNhelp,2137) THEN DYNX(W_,9378)*DYNX(W_,8453) ELSE
- DYNX(W_,9386)*DYNX(W_,8453);
-DYNX(DYNhelp,2149) = -DYNX(W_,8453) >= 0;
-DYNX(W_,9393) = IF DYNX(DYNhelp,2149) THEN -DYNX(W_,9342)*DYNX(W_,8453) ELSE -
- DYNX(W_,9386)*DYNX(W_,8453);
-DYNX(W_,9391) = DYNX(W_,9392)+DYNX(W_,9393);
-DYNX(F_,54) = DYNX(W_,9391)+DYNX(W_,9388);
-DYNX(W_,9384) = IF DYNX(DYNhelp,2137) THEN DYNX(W_,9341)*DYNX(W_,8453) ELSE
- DYNX(W_,9378)*DYNX(W_,8453);
-DYNX(W_,9385) = IF DYNX(DYNhelp,2149) THEN -DYNX(W_,9386)*DYNX(W_,8453) ELSE -
- DYNX(W_,9378)*DYNX(W_,8453);
-DYNX(W_,9383) = DYNX(W_,9384)+DYNX(W_,9385);
-DYNX(F_,53) = DYNX(W_,9383)+DYNX(W_,9380);
-DYNX(W_,8338) = -(DYNX(W_,8453)+DYNX(W_,8452));
-DYNX(DYNhelp,2150) = RealBmax( -DYNX(W_,8338), 0.0);
-DYNX(DYNhelp,2151) = RealBmax( -DYNX(W_,8452), 0.0);
-DYNX(Aux_,233) = DYNX(DYNhelp,2150)+DYNX(DYNhelp,2151);
+DYNX(W_,9356) = 273.15+0.0002390057361376673*DYNX(W_,9355);
+DYNX(W_,9372) = DYNX(W_,9327)-DYNX(W_,9356);
+DYNX(W_,9357) = DYNX(W_,5384)*DYNX(W_,9372);
+DYNX(W_,9328) = -(DYNX(W_,9387)-DYNX(W_,9390)+DYNX(W_,9378)+DYNX(W_,9357));
+DYNX(F_,50) = DYNX(W_,9331)+DYNX(W_,9328);
+DYNX(W_,9361) = IF DYNX(DYNhelp,2141) THEN DYNX(W_,9347)*DYNX(W_,8416) ELSE
+ DYNX(W_,9355)*DYNX(W_,8416);
+DYNX(DYNhelp,2153) = -DYNX(W_,8416) >= 0;
+DYNX(W_,9362) = IF DYNX(DYNhelp,2153) THEN -DYNX(W_,9311)*DYNX(W_,8416) ELSE -
+ DYNX(W_,9355)*DYNX(W_,8416);
+DYNX(W_,9360) = DYNX(W_,9361)+DYNX(W_,9362);
+DYNX(F_,54) = DYNX(W_,9360)+DYNX(W_,9357);
+DYNX(W_,9353) = IF DYNX(DYNhelp,2141) THEN DYNX(W_,9310)*DYNX(W_,8416) ELSE
+ DYNX(W_,9347)*DYNX(W_,8416);
+DYNX(W_,9354) = IF DYNX(DYNhelp,2153) THEN -DYNX(W_,9355)*DYNX(W_,8416) ELSE -
+ DYNX(W_,9347)*DYNX(W_,8416);
+DYNX(W_,9352) = DYNX(W_,9353)+DYNX(W_,9354);
+DYNX(F_,53) = DYNX(W_,9352)+DYNX(W_,9349);
+DYNX(W_,8298) = -(DYNX(W_,8416)+DYNX(W_,8415));
+DYNX(DYNhelp,2154) = RealBmax( -DYNX(W_,8298), 0.0);
+DYNX(DYNhelp,2155) = RealBmax( -DYNX(W_,8415), 0.0);
+DYNX(Aux_,233) = DYNX(DYNhelp,2154)+DYNX(DYNhelp,2155);
DYNX(Aux_,234) = IF DYNX(Aux_,233) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,233) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,233))*(3.0-20000000000.0*DYNX(Aux_,233))
ELSE 0.0;
-DYNX(W_,8408) = DYNX(W_,8338)+DYNX(W_,8336);
-DYNX(DYNhelp,2152) = RealBmax(DYNX(W_,8336), 0.0);
-DYNX(DYNhelp,2153) = RealBmax( -DYNX(W_,8408), 0.0);
-DYNX(Aux_,231) = DYNX(DYNhelp,2152)+DYNX(DYNhelp,2153);
+DYNX(W_,8371) = DYNX(W_,8298)+DYNX(W_,8296);
+DYNX(DYNhelp,2156) = RealBmax(DYNX(W_,8296), 0.0);
+DYNX(DYNhelp,2157) = RealBmax( -DYNX(W_,8371), 0.0);
+DYNX(Aux_,231) = DYNX(DYNhelp,2156)+DYNX(DYNhelp,2157);
DYNX(Aux_,232) = IF DYNX(Aux_,231) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,231) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,231))*(3.0-20000000000.0*DYNX(Aux_,231))
ELSE 0.0;
-DYNX(DYNhelp,2154) = 1.0-DYNX(Aux_,232);
-DYNX(DYNhelp,2155) = 1E-10*DYNX(DYNhelp,2154);
-DYNX(DYNhelp,2156) = DYNX(Aux_,232)*DYNX(DYNhelp,2152)+DYNX(DYNhelp,2155);
-DYNX(DYNhelp,2157) = DYNX(Aux_,232)*DYNX(DYNhelp,2153)+DYNX(DYNhelp,2155);
-DYNX(DYNhelp,2158) = DYNX(DYNhelp,2156)+DYNX(DYNhelp,2157);
-DYNX(W_,9138) = divGuarded(DYNX(DYNhelp,2156)*DYNX(W_,9203)+DYNX(DYNhelp,2157)*
- DYNX(W_,3808),"(stream_alpha5*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha5))*hydraulic.generation.pump.port_a.h_outflow+(stream_alpha5*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha5))*hydraulic.generation.bouPum.ports[1].h_outflow",
- DYNX(DYNhelp,2158),"stream_alpha5*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha5)+stream_alpha5*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha5)");
-DYNX(DYNhelp,2159) = 1.0-DYNX(Aux_,234);
-DYNX(DYNhelp,2160) = 1E-10*DYNX(DYNhelp,2159);
-DYNX(DYNhelp,2161) = DYNX(Aux_,234)*DYNX(DYNhelp,2150)+DYNX(DYNhelp,2160);
-DYNX(DYNhelp,2162) = DYNX(Aux_,234)*DYNX(DYNhelp,2151)+DYNX(DYNhelp,2160);
-DYNX(DYNhelp,2163) = DYNX(DYNhelp,2161)+DYNX(DYNhelp,2162);
-DYNX(W_,9423) = divGuarded(DYNX(DYNhelp,2161)*DYNX(W_,9138)+DYNX(DYNhelp,2162)*
- DYNX(W_,9259),"(stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha7))*hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.h_outflow_inStream+(stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha7))*hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow",
- DYNX(DYNhelp,2163),"stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha7)+stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha7)");
-DYNX(W_,9376) = IF DYNX(DYNhelp,2137) THEN DYNX(W_,9423)*DYNX(W_,8453) ELSE
- DYNX(W_,9341)*DYNX(W_,8453);
-DYNX(W_,9377) = IF DYNX(DYNhelp,2149) THEN -DYNX(W_,9378)*DYNX(W_,8453) ELSE -
- DYNX(W_,9341)*DYNX(W_,8453);
-DYNX(W_,9375) = DYNX(W_,9376)+DYNX(W_,9377);
-DYNX(F_,52) = DYNX(W_,9375)+DYNX(W_,9372);
-DYNX(DYNhelp,2164) = RealBmax(DYNX(W_,8338), 0.0);
-DYNX(Aux_,237) = DYNX(DYNhelp,2164)+DYNX(DYNhelp,2153);
+DYNX(DYNhelp,2158) = 1.0-DYNX(Aux_,232);
+DYNX(DYNhelp,2159) = 1E-10*DYNX(DYNhelp,2158);
+DYNX(DYNhelp,2160) = DYNX(Aux_,232)*DYNX(DYNhelp,2156)+DYNX(DYNhelp,2159);
+DYNX(DYNhelp,2161) = DYNX(Aux_,232)*DYNX(DYNhelp,2157)+DYNX(DYNhelp,2159);
+DYNX(DYNhelp,2162) = DYNX(DYNhelp,2160)+DYNX(DYNhelp,2161);
+DYNX(W_,9101) = divGuarded(DYNX(DYNhelp,2160)*DYNX(W_,9172)+DYNX(DYNhelp,2161)*
+ DYNX(W_,3770),"(stream_alpha5*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha5))*hydraulic.generation.pump.port_a.h_outflow+(stream_alpha5*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha5))*hydraulic.generation.bouPum.ports[1].h_outflow",
+ DYNX(DYNhelp,2162),"stream_alpha5*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha5)+stream_alpha5*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha5)");
+DYNX(DYNhelp,2163) = 1.0-DYNX(Aux_,234);
+DYNX(DYNhelp,2164) = 1E-10*DYNX(DYNhelp,2163);
+DYNX(DYNhelp,2165) = DYNX(Aux_,234)*DYNX(DYNhelp,2154)+DYNX(DYNhelp,2164);
+DYNX(DYNhelp,2166) = DYNX(Aux_,234)*DYNX(DYNhelp,2155)+DYNX(DYNhelp,2164);
+DYNX(DYNhelp,2167) = DYNX(DYNhelp,2165)+DYNX(DYNhelp,2166);
+DYNX(W_,9392) = divGuarded(DYNX(DYNhelp,2165)*DYNX(W_,9101)+DYNX(DYNhelp,2166)*
+ DYNX(W_,9228),"(stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha7))*hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.h_outflow_inStream+(stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha7))*hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow",
+ DYNX(DYNhelp,2167),"stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha7)+stream_alpha7*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha7)");
+DYNX(W_,9345) = IF DYNX(DYNhelp,2141) THEN DYNX(W_,9392)*DYNX(W_,8416) ELSE
+ DYNX(W_,9310)*DYNX(W_,8416);
+DYNX(W_,9346) = IF DYNX(DYNhelp,2153) THEN -DYNX(W_,9347)*DYNX(W_,8416) ELSE -
+ DYNX(W_,9310)*DYNX(W_,8416);
+DYNX(W_,9344) = DYNX(W_,9345)+DYNX(W_,9346);
+DYNX(F_,52) = DYNX(W_,9344)+DYNX(W_,9341);
+DYNX(DYNhelp,2168) = RealBmax(DYNX(W_,8298), 0.0);
+DYNX(Aux_,237) = DYNX(DYNhelp,2168)+DYNX(DYNhelp,2157);
DYNX(Aux_,238) = IF DYNX(Aux_,237) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,237) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,237))*(3.0-20000000000.0*DYNX(Aux_,237))
ELSE 0.0;
-DYNX(DYNhelp,2165) = RealBmax( -DYNX(W_,8453), 0.0);
-DYNX(Aux_,235) = DYNX(DYNhelp,2151)+DYNX(DYNhelp,2165);
+DYNX(DYNhelp,2169) = RealBmax( -DYNX(W_,8416), 0.0);
+DYNX(Aux_,235) = DYNX(DYNhelp,2155)+DYNX(DYNhelp,2169);
DYNX(Aux_,236) = IF DYNX(Aux_,235) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,235) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,235))*(3.0-20000000000.0*DYNX(Aux_,235))
ELSE 0.0;
-DYNX(DYNhelp,2166) = 1.0-DYNX(Aux_,236);
-DYNX(DYNhelp,2167) = 1E-10*DYNX(DYNhelp,2166);
-DYNX(DYNhelp,2168) = DYNX(Aux_,236)*DYNX(DYNhelp,2151)+DYNX(DYNhelp,2167);
-DYNX(DYNhelp,2169) = DYNX(Aux_,236)*DYNX(DYNhelp,2165)+DYNX(DYNhelp,2167);
-DYNX(DYNhelp,2170) = DYNX(DYNhelp,2168)+DYNX(DYNhelp,2169);
-DYNX(W_,9255) = divGuarded(DYNX(DYNhelp,2168)*DYNX(W_,9259)+DYNX(DYNhelp,2169)*
- DYNX(W_,9341),"(stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9))*hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow+(stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9))*hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow",
- DYNX(DYNhelp,2170),"stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9)+stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9)");
-DYNX(DYNhelp,2171) = 1.0-DYNX(Aux_,238);
-DYNX(DYNhelp,2172) = 1E-10*DYNX(DYNhelp,2171);
-DYNX(DYNhelp,2173) = DYNX(Aux_,238)*DYNX(DYNhelp,2164)+DYNX(DYNhelp,2172);
-DYNX(DYNhelp,2174) = DYNX(Aux_,238)*DYNX(DYNhelp,2153)+DYNX(DYNhelp,2172);
-DYNX(DYNhelp,2175) = DYNX(DYNhelp,2173)+DYNX(DYNhelp,2174);
-DYNX(Aux_,28) = divGuarded(DYNX(DYNhelp,2173)*DYNX(W_,9255)+DYNX(DYNhelp,2174)*
- DYNX(W_,3808),"(stream_alpha11*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11))*hydraulic.distribution.portGen_out[1].h_outflow+(stream_alpha11*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11))*hydraulic.generation.bouPum.ports[1].h_outflow",
- DYNX(DYNhelp,2175),"stream_alpha11*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11)+stream_alpha11*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11)");
+DYNX(DYNhelp,2170) = 1.0-DYNX(Aux_,236);
+DYNX(DYNhelp,2171) = 1E-10*DYNX(DYNhelp,2170);
+DYNX(DYNhelp,2172) = DYNX(Aux_,236)*DYNX(DYNhelp,2155)+DYNX(DYNhelp,2171);
+DYNX(DYNhelp,2173) = DYNX(Aux_,236)*DYNX(DYNhelp,2169)+DYNX(DYNhelp,2171);
+DYNX(DYNhelp,2174) = DYNX(DYNhelp,2172)+DYNX(DYNhelp,2173);
+DYNX(W_,9224) = divGuarded(DYNX(DYNhelp,2172)*DYNX(W_,9228)+DYNX(DYNhelp,2173)*
+ DYNX(W_,9310),"(stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9))*hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow+(stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9))*hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow",
+ DYNX(DYNhelp,2174),"stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9)+stream_alpha9*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha9)");
+DYNX(DYNhelp,2175) = 1.0-DYNX(Aux_,238);
+DYNX(DYNhelp,2176) = 1E-10*DYNX(DYNhelp,2175);
+DYNX(DYNhelp,2177) = DYNX(Aux_,238)*DYNX(DYNhelp,2168)+DYNX(DYNhelp,2176);
+DYNX(DYNhelp,2178) = DYNX(Aux_,238)*DYNX(DYNhelp,2157)+DYNX(DYNhelp,2176);
+DYNX(DYNhelp,2179) = DYNX(DYNhelp,2177)+DYNX(DYNhelp,2178);
+DYNX(Aux_,28) = divGuarded(DYNX(DYNhelp,2177)*DYNX(W_,9224)+DYNX(DYNhelp,2178)*
+ DYNX(W_,3770),"(stream_alpha11*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11))*hydraulic.distribution.portGen_out[1].h_outflow+(stream_alpha11*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11))*hydraulic.generation.bouPum.ports[1].h_outflow",
+ DYNX(DYNhelp,2179),"stream_alpha11*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11)+stream_alpha11*max( -hydraulic.generation.bouPum.ports[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha11)");
DYNX(Aux_,29) = DYNX(Aux_,28);
DYNX(Aux_,143) = DYNX(Aux_,29);
-DYNX(W_,9208) = IF DYNX(DYNhelp,2138) THEN -DYNX(Aux_,143)*DYNX(W_,8336) ELSE
- -DYNX(W_,9203)*DYNX(W_,8336);
-DYNX(W_,9209) = IF DYNX(DYNhelp,2140) THEN DYNX(W_,9139)*DYNX(W_,8336) ELSE
- DYNX(W_,9203)*DYNX(W_,8336);
-DYNX(F_,25) = DYNX(W_,9208)+DYNX(W_,9209);
-DYNX(Aux_,239) = DYNX(DYNhelp,2150)+DYNX(DYNhelp,2165);
+DYNX(W_,9177) = IF DYNX(DYNhelp,2142) THEN -DYNX(Aux_,143)*DYNX(W_,8296) ELSE
+ -DYNX(W_,9172)*DYNX(W_,8296);
+DYNX(W_,9178) = IF DYNX(DYNhelp,2144) THEN DYNX(W_,9102)*DYNX(W_,8296) ELSE
+ DYNX(W_,9172)*DYNX(W_,8296);
+DYNX(F_,25) = DYNX(W_,9177)+DYNX(W_,9178);
+DYNX(Aux_,239) = DYNX(DYNhelp,2154)+DYNX(DYNhelp,2169);
DYNX(Aux_,240) = IF DYNX(Aux_,239) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,239) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,239))*(3.0-20000000000.0*DYNX(Aux_,239))
ELSE 0.0;
-DYNX(DYNhelp,2176) = 1.0-DYNX(Aux_,240);
-DYNX(DYNhelp,2177) = 1E-10*DYNX(DYNhelp,2176);
-DYNX(DYNhelp,2178) = DYNX(Aux_,240)*DYNX(DYNhelp,2150)+DYNX(DYNhelp,2177);
-DYNX(DYNhelp,2179) = DYNX(Aux_,240)*DYNX(DYNhelp,2165)+DYNX(DYNhelp,2177);
-DYNX(DYNhelp,2180) = DYNX(DYNhelp,2178)+DYNX(DYNhelp,2179);
-DYNX(W_,9422) = divGuarded(DYNX(DYNhelp,2178)*DYNX(W_,9138)+DYNX(DYNhelp,2179)*
- DYNX(W_,9341),"(stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha13))*hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.h_outflow_inStream+(stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha13))*hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow",
- DYNX(DYNhelp,2180),"stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha13)+stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha13)");
-DYNX(W_,9294) = IF DYNX(DYNhelp,2139) THEN DYNX(W_,9422)*DYNX(W_,8452) ELSE
- DYNX(W_,9259)*DYNX(W_,8452);
-DYNX(DYNhelp,2181) = -DYNX(W_,8452) >= 0;
-DYNX(W_,9295) = IF DYNX(DYNhelp,2181) THEN -DYNX(W_,9296)*DYNX(W_,8452) ELSE -
- DYNX(W_,9259)*DYNX(W_,8452);
-DYNX(W_,9293) = DYNX(W_,9294)+DYNX(W_,9295);
-DYNX(F_,44) = DYNX(W_,9293)+DYNX(W_,9290);
-DYNX(W_,9302) = IF DYNX(DYNhelp,2139) THEN DYNX(W_,9259)*DYNX(W_,8452) ELSE
- DYNX(W_,9296)*DYNX(W_,8452);
-DYNX(W_,9303) = IF DYNX(DYNhelp,2181) THEN -DYNX(W_,9304)*DYNX(W_,8452) ELSE -
- DYNX(W_,9296)*DYNX(W_,8452);
-DYNX(W_,9301) = DYNX(W_,9302)+DYNX(W_,9303);
-DYNX(F_,45) = DYNX(W_,9301)+DYNX(W_,9298);
-DYNX(W_,9310) = IF DYNX(DYNhelp,2139) THEN DYNX(W_,9296)*DYNX(W_,8452) ELSE
- DYNX(W_,9304)*DYNX(W_,8452);
-DYNX(W_,9311) = IF DYNX(DYNhelp,2181) THEN -DYNX(W_,9260)*DYNX(W_,8452) ELSE -
- DYNX(W_,9304)*DYNX(W_,8452);
-DYNX(W_,9309) = DYNX(W_,9310)+DYNX(W_,9311);
-DYNX(F_,46) = DYNX(W_,9309)+DYNX(W_,9306);
-DYNX(W_,9317) = IF DYNX(DYNhelp,2139) THEN DYNX(W_,9304)*DYNX(W_,8452) ELSE
- DYNX(W_,9260)*DYNX(W_,8452);
-DYNX(W_,9318) = IF DYNX(DYNhelp,2181) THEN -DYNX(W_,9254)*DYNX(W_,8452) ELSE -
- DYNX(W_,9260)*DYNX(W_,8452);
-DYNX(W_,9316) = DYNX(W_,9317)+DYNX(W_,9318);
-DYNX(F_,47) = DYNX(W_,9316)+DYNX(W_,9313);
-DYNX(W_,9399) = IF DYNX(DYNhelp,2137) THEN DYNX(W_,9386)*DYNX(W_,8453) ELSE
- DYNX(W_,9342)*DYNX(W_,8453);
-DYNX(W_,9400) = IF DYNX(DYNhelp,2149) THEN -DYNX(W_,9254)*DYNX(W_,8453) ELSE -
- DYNX(W_,9342)*DYNX(W_,8453);
-DYNX(W_,9398) = DYNX(W_,9399)+DYNX(W_,9400);
-DYNX(F_,55) = DYNX(W_,9398)+DYNX(W_,9395);
-DYNX(W_,9515) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9257)*DYNX(W_,9256) ELSE -
- DYNX(W_,9435)*DYNX(W_,9256);
-DYNX(W_,9516) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9440)*DYNX(W_,9256) ELSE
- DYNX(W_,9435)*DYNX(W_,9256);
-DYNX(F_,65) = DYNX(W_,9515)+DYNX(W_,9516);
-DYNX(W_,9232) = DYNX(DP_,1148)*DYNX(Y_,28)+DYNX(DP_,1149)*DYNX(W_,9229);
-DYNX(W_,9231) = DYNX(W_,4091)*DYNX(W_,9232);
-DYNX(W_,9230) = DYNX(DP_,1145)*DYNX(W_,8283)+DYNX(DP_,1146)*DYNX(W_,8507)+
- DYNX(DP_,1147)*DYNX(W_,9231);
-DYNX(F_,35) = DYNX(W_,4084)*DYNX(W_,9230);
-DYNX(W_,9502) = DYNX(W_,9435);
-DYNX(W_,9467) = IF DYNX(DYNhelp,2128) THEN -DYNX(W_,9502)*DYNX(W_,9256) ELSE -
- DYNX(W_,9440)*DYNX(W_,9256);
-DYNX(W_,9468) = IF DYNX(DYNhelp,2129) THEN DYNX(W_,9469)*DYNX(W_,9256) ELSE
- DYNX(W_,9440)*DYNX(W_,9256);
-DYNX(W_,9466) = DYNX(W_,9467)+DYNX(W_,9468);
-DYNX(W_,9463) = DYNX(W_,9452)+DYNX(W_,9457);
-DYNX(F_,59) = DYNX(W_,9466)+DYNX(W_,9463);
-DYNX(W_,8716) = divGuarded((DYNX(W_,8490)-DYNX(W_,8487))*DYNX(W_,618),
+DYNX(DYNhelp,2180) = 1.0-DYNX(Aux_,240);
+DYNX(DYNhelp,2181) = 1E-10*DYNX(DYNhelp,2180);
+DYNX(DYNhelp,2182) = DYNX(Aux_,240)*DYNX(DYNhelp,2154)+DYNX(DYNhelp,2181);
+DYNX(DYNhelp,2183) = DYNX(Aux_,240)*DYNX(DYNhelp,2169)+DYNX(DYNhelp,2181);
+DYNX(DYNhelp,2184) = DYNX(DYNhelp,2182)+DYNX(DYNhelp,2183);
+DYNX(W_,9391) = divGuarded(DYNX(DYNhelp,2182)*DYNX(W_,9101)+DYNX(DYNhelp,2183)*
+ DYNX(W_,9310),"(stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha13))*hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.h_outflow_inStream+(stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha13))*hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow",
+ DYNX(DYNhelp,2184),"stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha13)+stream_alpha13*max(hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha13)");
+DYNX(W_,9263) = IF DYNX(DYNhelp,2143) THEN DYNX(W_,9391)*DYNX(W_,8415) ELSE
+ DYNX(W_,9228)*DYNX(W_,8415);
+DYNX(DYNhelp,2185) = -DYNX(W_,8415) >= 0;
+DYNX(W_,9264) = IF DYNX(DYNhelp,2185) THEN -DYNX(W_,9265)*DYNX(W_,8415) ELSE -
+ DYNX(W_,9228)*DYNX(W_,8415);
+DYNX(W_,9262) = DYNX(W_,9263)+DYNX(W_,9264);
+DYNX(F_,44) = DYNX(W_,9262)+DYNX(W_,9259);
+DYNX(W_,9271) = IF DYNX(DYNhelp,2143) THEN DYNX(W_,9228)*DYNX(W_,8415) ELSE
+ DYNX(W_,9265)*DYNX(W_,8415);
+DYNX(W_,9272) = IF DYNX(DYNhelp,2185) THEN -DYNX(W_,9273)*DYNX(W_,8415) ELSE -
+ DYNX(W_,9265)*DYNX(W_,8415);
+DYNX(W_,9270) = DYNX(W_,9271)+DYNX(W_,9272);
+DYNX(F_,45) = DYNX(W_,9270)+DYNX(W_,9267);
+DYNX(W_,9279) = IF DYNX(DYNhelp,2143) THEN DYNX(W_,9265)*DYNX(W_,8415) ELSE
+ DYNX(W_,9273)*DYNX(W_,8415);
+DYNX(W_,9280) = IF DYNX(DYNhelp,2185) THEN -DYNX(W_,9229)*DYNX(W_,8415) ELSE -
+ DYNX(W_,9273)*DYNX(W_,8415);
+DYNX(W_,9278) = DYNX(W_,9279)+DYNX(W_,9280);
+DYNX(F_,46) = DYNX(W_,9278)+DYNX(W_,9275);
+DYNX(W_,9286) = IF DYNX(DYNhelp,2143) THEN DYNX(W_,9273)*DYNX(W_,8415) ELSE
+ DYNX(W_,9229)*DYNX(W_,8415);
+DYNX(W_,9287) = IF DYNX(DYNhelp,2185) THEN -DYNX(W_,9223)*DYNX(W_,8415) ELSE -
+ DYNX(W_,9229)*DYNX(W_,8415);
+DYNX(W_,9285) = DYNX(W_,9286)+DYNX(W_,9287);
+DYNX(F_,47) = DYNX(W_,9285)+DYNX(W_,9282);
+DYNX(W_,9368) = IF DYNX(DYNhelp,2141) THEN DYNX(W_,9355)*DYNX(W_,8416) ELSE
+ DYNX(W_,9311)*DYNX(W_,8416);
+DYNX(W_,9369) = IF DYNX(DYNhelp,2153) THEN -DYNX(W_,9223)*DYNX(W_,8416) ELSE -
+ DYNX(W_,9311)*DYNX(W_,8416);
+DYNX(W_,9367) = DYNX(W_,9368)+DYNX(W_,9369);
+DYNX(F_,55) = DYNX(W_,9367)+DYNX(W_,9364);
+DYNX(W_,9484) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9226)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9404)*DYNX(W_,9225);
+DYNX(W_,9485) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9409)*DYNX(W_,9225) ELSE
+ DYNX(W_,9404)*DYNX(W_,9225);
+DYNX(F_,65) = DYNX(W_,9484)+DYNX(W_,9485);
+DYNX(W_,9201) = DYNX(DP_,1154)*DYNX(Y_,28)+DYNX(DP_,1155)*DYNX(W_,9198);
+DYNX(W_,9200) = DYNX(W_,4051)*DYNX(W_,9201);
+DYNX(W_,9199) = DYNX(DP_,1151)*DYNX(W_,8243)+DYNX(DP_,1152)*DYNX(W_,8470)+
+ DYNX(DP_,1153)*DYNX(W_,9200);
+DYNX(F_,35) = DYNX(W_,4044)*DYNX(W_,9199);
+DYNX(W_,9471) = DYNX(W_,9404);
+DYNX(W_,9436) = IF DYNX(DYNhelp,2132) THEN -DYNX(W_,9471)*DYNX(W_,9225) ELSE -
+ DYNX(W_,9409)*DYNX(W_,9225);
+DYNX(W_,9437) = IF DYNX(DYNhelp,2133) THEN DYNX(W_,9438)*DYNX(W_,9225) ELSE
+ DYNX(W_,9409)*DYNX(W_,9225);
+DYNX(W_,9435) = DYNX(W_,9436)+DYNX(W_,9437);
+DYNX(W_,9432) = DYNX(W_,9421)+DYNX(W_,9426);
+DYNX(F_,59) = DYNX(W_,9435)+DYNX(W_,9432);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(52);
+DYNX(W_,8679) = divGuarded((DYNX(W_,8453)-DYNX(W_,8450))*DYNX(W_,618),
"(building.thermalZone[1].eqAirTempRoof.TBlaSky-building.thermalZone[1].eqAirTempRoof.TDryBul)*building.thermalZone[1].eqAirTempRoof.hRad",
DYNX(W_,618)+DYNX(W_,617),"building.thermalZone[1].eqAirTempRoof.hRad+building.thermalZone[1].eqAirTempRoof.hConWallOut");
beginwhenBlock
-whenModelica(DYNX(W_,829) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8296), 6),"pre(building.thermalZone[1].HDirTilRoof[1].incAng.decAng.tNext)",
- 143), 41)
- DYNX(W_,8296) = IF DYNX(W_,829) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,829) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8256), 6),"pre(building.thermalZone[1].HDirTilRoof[1].incAng.decAng.tNext)",
+ 152), 41)
+ DYNX(W_,8256) = IF DYNX(W_,829) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux",
DYNX(W_,828),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux/building.thermalZone[1].HDirTilRoof[1].incAng.decAng.lenWea",
18)*DYNX(W_,828)+DYNX(W_,828) ELSE DYNTime;
@@ -21976,134 +22056,132 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8929) = IF DYNX(W_,829) THEN DYNX(W_,8506)-DYNX(W_,8296)+DYNX(W_,828)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,2182) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8929));
-DYNX(W_,8930) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,2182),
+DYNX(W_,8892) = IF DYNX(W_,829) THEN DYNX(W_,8469)-DYNX(W_,8256)+DYNX(W_,828)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,2186) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8892));
+DYNX(W_,8893) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,2186),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDirTilRoof[1].incAng.decAng.calTimAux)");
-DYNX(W_,8932) = cos(DYNX(W_,8930));
-DYNX(W_,8931) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8934) = cos(DYNX(W_,8931));
-DYNX(W_,8933) = sin(DYNX(W_,8930));
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(52);
-DYNX(W_,8935) = sin(DYNX(W_,8931));
+DYNX(W_,8895) = cos(DYNX(W_,8893));
+DYNX(W_,8894) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8897) = cos(DYNX(W_,8894));
+DYNX(W_,8896) = sin(DYNX(W_,8893));
+DYNX(W_,8898) = sin(DYNX(W_,8894));
if (NewParameters_) {
-DYNX(DYNhelp,2183) = cos(DYNX(W_,833));
+DYNX(DYNhelp,2187) = cos(DYNX(W_,833));
}
-DYNX(DYNhelp,2184) = DYNX(W_,8932)*DYNX(W_,8934);
+DYNX(DYNhelp,2188) = DYNX(W_,8895)*DYNX(W_,8897);
if (NewParameters_) {
-DYNX(DYNhelp,2185) = sin(DYNX(W_,833));
+DYNX(DYNhelp,2189) = sin(DYNX(W_,833));
}
if (NewParameters_) {
-DYNX(DYNhelp,2186) = sin(DYNX(W_,832));
+DYNX(DYNhelp,2190) = sin(DYNX(W_,832));
}
if (NewParameters_) {
-DYNX(DYNhelp,2187) = cos(DYNX(W_,832));
+DYNX(DYNhelp,2191) = cos(DYNX(W_,832));
}
-DYNX(DYNhelp,2188) = 0.7905412281389133*DYNX(DYNhelp,2184);
-DYNX(DYNhelp,2189) = 0.6124088231015443*DYNX(W_,8933);
-DYNX(W_,8928) = acosGuarded(DYNX(DYNhelp,2183)*(0.6124088231015443*
- DYNX(DYNhelp,2184)+0.7905412281389133*DYNX(W_,8933))+DYNX(DYNhelp,2185)*(
- DYNX(DYNhelp,2186)*DYNX(W_,8932)*DYNX(W_,8935)+DYNX(DYNhelp,2187)*(
- DYNX(DYNhelp,2188)-DYNX(DYNhelp,2189))),"cos(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_c*building.thermalZone[1].HDirTilRoof[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilRoof[1].incAng.inc...");
-DYNX(DYNhelp,2190) = cos(DYNX(W_,8928));
-DYNX(W_,8927) = RealBmax(0, DYNX(DYNhelp,2190)*DYNX(W_,8492));
-DYNX(W_,8963) = IF DYNX(W_,8494)-5E-05 > 2.5E-05 THEN DYNX(W_,8494) ELSE IF
- DYNX(W_,8494)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8494)-
- 5E-05)*(sqr(40000.0*(DYNX(W_,8494)-5E-05))-3)*(5E-05-DYNX(W_,8494))+0.5*
- DYNX(W_,8494);
-DYNX(W_,8962) = 1.040895310738997*powUnguarded(DYNX(W_,8504), 3);
-DYNX(DYNhelp,2191) = 1+DYNX(W_,8962);
-DYNX(W_,8961) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1), 1, 8, 0.01)")
+DYNX(DYNhelp,2192) = 0.7905412281389133*DYNX(DYNhelp,2188);
+DYNX(DYNhelp,2193) = 0.6124088231015443*DYNX(W_,8896);
+DYNX(W_,8891) = acosGuarded(DYNX(DYNhelp,2187)*(0.6124088231015443*
+ DYNX(DYNhelp,2188)+0.7905412281389133*DYNX(W_,8896))+DYNX(DYNhelp,2189)*(
+ DYNX(DYNhelp,2190)*DYNX(W_,8895)*DYNX(W_,8898)+DYNX(DYNhelp,2191)*(
+ DYNX(DYNhelp,2192)-DYNX(DYNhelp,2193))),"cos(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_c*building.thermalZone[1].HDirTilRoof[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDirTilRoof[1].incAng.inc...");
+DYNX(DYNhelp,2194) = cos(DYNX(W_,8891));
+DYNX(W_,8890) = RealBmax(0, DYNX(DYNhelp,2194)*DYNX(W_,8455));
+DYNX(W_,8926) = IF DYNX(W_,8457)-5E-05 > 2.5E-05 THEN DYNX(W_,8457) ELSE IF
+ DYNX(W_,8457)-5E-05 < -2.5E-05 THEN 5E-05 ELSE 2.5E-05+10000.0*(DYNX(W_,8457)-
+ 5E-05)*(sqr(40000.0*(DYNX(W_,8457)-5E-05))-3)*(5E-05-DYNX(W_,8457))+0.5*
+ DYNX(W_,8457);
+DYNX(W_,8925) = 1.040895310738997*powUnguarded(DYNX(W_,8467), 3);
+DYNX(DYNhelp,2195) = 1+DYNX(W_,8925);
+DYNX(W_,8924) = (PushModelContext(1,"AixLib.Utilities.Math.Functions.smoothLimit(((building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1)/(1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1), 1, 8, 0.01)")
AixLib_Utilities_Math_Functions_smoothLimit(divGuarded(divGuarded(
- DYNX(W_,8492)+DYNX(W_,8963),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou",
- DYNX(W_,8963),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou")+
- DYNX(W_,8962),"(building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1",
- DYNX(DYNhelp,2191),"1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1"), 1,
+ DYNX(W_,8455)+DYNX(W_,8926),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou",
+ DYNX(W_,8926),"building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou")+
+ DYNX(W_,8925),"(building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor+building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou)/building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1",
+ DYNX(DYNhelp,2195),"1+building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1"), 1,
8, 0.01));
PopModelContext();
-DYNX(W_,8979) = IF 1.23-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8961)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8961))*(sqr(100.0*(1.23-
- DYNX(W_,8961)))-3);
-DYNX(W_,8971) = IF 1.065-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8961)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8961))*(sqr(100.0*(1.065-
- DYNX(W_,8961)))-3);
-DYNX(W_,8972) = DYNX(W_,8979)-DYNX(W_,8971);
-DYNX(W_,8980) = IF 1.5-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8961))*(sqr(100.0*(1.5-DYNX(W_,8961)))
+DYNX(W_,8942) = IF 1.23-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.23-DYNX(W_,8924)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.23-DYNX(W_,8924))*(sqr(100.0*(1.23-
+ DYNX(W_,8924)))-3);
+DYNX(W_,8934) = IF 1.065-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.065-DYNX(W_,8924)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.065-DYNX(W_,8924))*(sqr(100.0*(1.065-
+ DYNX(W_,8924)))-3);
+DYNX(W_,8935) = DYNX(W_,8942)-DYNX(W_,8934);
+DYNX(W_,8943) = IF 1.5-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.5-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(1.5-DYNX(W_,8924))*(sqr(100.0*(1.5-DYNX(W_,8924)))
-3);
-DYNX(W_,8973) = DYNX(W_,8980)-DYNX(W_,8979);
-DYNX(W_,8981) = IF 1.95-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8961)
- < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8961))*(sqr(100.0*(1.95-
- DYNX(W_,8961)))-3);
-DYNX(W_,8974) = DYNX(W_,8981)-DYNX(W_,8980);
-DYNX(W_,8982) = IF 2.8-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8961))*(sqr(100.0*(2.8-DYNX(W_,8961)))
+DYNX(W_,8936) = DYNX(W_,8943)-DYNX(W_,8942);
+DYNX(W_,8944) = IF 1.95-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 1.95-DYNX(W_,8924)
+ < -0.01 THEN 0 ELSE 0.5-25.0*(1.95-DYNX(W_,8924))*(sqr(100.0*(1.95-
+ DYNX(W_,8924)))-3);
+DYNX(W_,8937) = DYNX(W_,8944)-DYNX(W_,8943);
+DYNX(W_,8945) = IF 2.8-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 2.8-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(2.8-DYNX(W_,8924))*(sqr(100.0*(2.8-DYNX(W_,8924)))
-3);
-DYNX(W_,8975) = DYNX(W_,8982)-DYNX(W_,8981);
-DYNX(W_,8983) = IF 4.5-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8961))*(sqr(100.0*(4.5-DYNX(W_,8961)))
+DYNX(W_,8938) = DYNX(W_,8945)-DYNX(W_,8944);
+DYNX(W_,8946) = IF 4.5-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 4.5-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(4.5-DYNX(W_,8924))*(sqr(100.0*(4.5-DYNX(W_,8924)))
-3);
-DYNX(W_,8976) = DYNX(W_,8983)-DYNX(W_,8982);
-DYNX(W_,8984) = IF 6.2-DYNX(W_,8961) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8961) <
- -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8961))*(sqr(100.0*(6.2-DYNX(W_,8961)))
+DYNX(W_,8939) = DYNX(W_,8946)-DYNX(W_,8945);
+DYNX(W_,8947) = IF 6.2-DYNX(W_,8924) > 0.01 THEN 1 ELSE IF 6.2-DYNX(W_,8924) <
+ -0.01 THEN 0 ELSE 0.5-25.0*(6.2-DYNX(W_,8924))*(sqr(100.0*(6.2-DYNX(W_,8924)))
-3);
-DYNX(W_,8977) = DYNX(W_,8984)-DYNX(W_,8983);
-DYNX(W_,8978) = IF DYNX(W_,8961)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8961)-6.2 <
- -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8961)-6.2)*(sqr(100.0*(DYNX(W_,8961)-6.2))
+DYNX(W_,8940) = DYNX(W_,8947)-DYNX(W_,8946);
+DYNX(W_,8941) = IF DYNX(W_,8924)-6.2 > 0.01 THEN 1 ELSE IF DYNX(W_,8924)-6.2 <
+ -0.01 THEN 0 ELSE 0.5-25.0*(DYNX(W_,8924)-6.2)*(sqr(100.0*(DYNX(W_,8924)-6.2))
-3);
-DYNX(W_,8965) = 0.1299457*DYNX(W_,8972)-0.0083117*DYNX(W_,8971)+0.3296958*
- DYNX(W_,8973)+0.5682053*DYNX(W_,8974)+0.873028*DYNX(W_,8975)+1.1326077*
- DYNX(W_,8976)+1.0601591*DYNX(W_,8977)+0.677747*DYNX(W_,8978);
-DYNX(W_,8966) = 0.5877285*DYNX(W_,8971)+0.6825954*DYNX(W_,8972)+0.4868735*
- DYNX(W_,8973)+0.1874525*DYNX(W_,8974)-0.3920403*DYNX(W_,8975)-1.2367284*
- DYNX(W_,8976)-1.5999137*DYNX(W_,8977)-0.3272588*DYNX(W_,8978);
-DYNX(W_,8986) = IF 1.5707963267948966-DYNX(W_,8504) > 0.01 THEN DYNX(W_,8504)
- ELSE IF 1.5707963267948966-DYNX(W_,8504) < -0.01 THEN 1.5707963267948966
- ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8504))*(sqr(100.0*(
- 1.5707963267948966-DYNX(W_,8504)))-3)*(1.5707963267948966-DYNX(W_,8504))+0.5*
- DYNX(W_,8504);
-DYNX(W_,8987) = 0.3183098861837907*DYNX(W_,8986)*180;
-DYNX(DYNhelp,2192) = cos(DYNX(W_,8986));
-DYNX(DYNhelp,2193) = DYNX(DYNhelp,2192)+0.15*powGuarded(93.9-DYNX(W_,8987),
+DYNX(W_,8928) = 0.1299457*DYNX(W_,8935)-0.0083117*DYNX(W_,8934)+0.3296958*
+ DYNX(W_,8936)+0.5682053*DYNX(W_,8937)+0.873028*DYNX(W_,8938)+1.1326077*
+ DYNX(W_,8939)+1.0601591*DYNX(W_,8940)+0.677747*DYNX(W_,8941);
+DYNX(W_,8929) = 0.5877285*DYNX(W_,8934)+0.6825954*DYNX(W_,8935)+0.4868735*
+ DYNX(W_,8936)+0.1874525*DYNX(W_,8937)-0.3920403*DYNX(W_,8938)-1.2367284*
+ DYNX(W_,8939)-1.5999137*DYNX(W_,8940)-0.3272588*DYNX(W_,8941);
+DYNX(W_,8949) = IF 1.5707963267948966-DYNX(W_,8467) > 0.01 THEN DYNX(W_,8467)
+ ELSE IF 1.5707963267948966-DYNX(W_,8467) < -0.01 THEN 1.5707963267948966
+ ELSE 0.7853981633974483+25.0*(1.5707963267948966-DYNX(W_,8467))*(sqr(100.0*(
+ 1.5707963267948966-DYNX(W_,8467)))-3)*(1.5707963267948966-DYNX(W_,8467))+0.5*
+ DYNX(W_,8467);
+DYNX(W_,8950) = 0.3183098861837907*DYNX(W_,8949)*180;
+DYNX(DYNhelp,2196) = cos(DYNX(W_,8949));
+DYNX(DYNhelp,2197) = DYNX(DYNhelp,2196)+0.15*powGuarded(93.9-DYNX(W_,8950),
"93.9-building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg",-1.253,"-1.253");
-DYNX(DYNhelp,2194) = divinvGuarded(DYNX(DYNhelp,2193),"cos(building.thermalZone[1].HDifTilRoof[1].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg)^(-1.253)");
-DYNX(W_,8985) = DYNX(DYNhelp,2194);
-DYNX(W_,8988) = 1+0.033*DYNX(DYNhelp,1656);
-DYNX(W_,8964) = IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
- > 0.025 THEN divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
- ELSE IF 1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
- < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),
+DYNX(DYNhelp,2198) = divinvGuarded(DYNX(DYNhelp,2197),"cos(building.thermalZone[1].HDifTilRoof[1].relAirMas.zenLim)+0.15*(93.9-building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg)^(-1.253)");
+DYNX(W_,8948) = DYNX(DYNhelp,2198);
+DYNX(W_,8951) = 1+0.033*DYNX(DYNhelp,1657);
+DYNX(W_,8927) = IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
+ > 0.025 THEN divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
+ ELSE IF 1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")
+ < -0.025 THEN 1 ELSE 0.5+10.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),
"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
- *(sqr(40.0*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")))
- -3)*(1-divGuarded(DYNX(W_,8494)*DYNX(W_,8985),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
- +divGuarded(0.5*DYNX(W_,8494)*DYNX(W_,8985),"0.5*(building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas)",
- 1366.1*DYNX(W_,8988),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor");
-DYNX(W_,8967) = (-0.0620636)*DYNX(W_,8971)-0.1513725*DYNX(W_,8972)-0.2210958*
- DYNX(W_,8973)-0.295129*DYNX(W_,8974)-0.3616149*DYNX(W_,8975)-0.4118494*
- DYNX(W_,8976)-0.3589221*DYNX(W_,8977)-0.2504286*DYNX(W_,8978);
-DYNX(W_,8954) = IF -(DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*
- DYNX(W_,8504)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8965)+DYNX(W_,8966)*
- DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504)) < -0.01 THEN DYNX(W_,8965)+
- DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504) ELSE 0.5*(
- DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504))-25.0*(
- DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504))*(sqr((
- -100.0)*(DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504)))
- -3)*(DYNX(W_,8965)+DYNX(W_,8966)*DYNX(W_,8964)+DYNX(W_,8967)*DYNX(W_,8504));
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
+ *(sqr(40.0*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor")))
+ -3)*(1-divGuarded(DYNX(W_,8457)*DYNX(W_,8948),"building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor"))
+ +divGuarded(0.5*DYNX(W_,8457)*DYNX(W_,8948),"0.5*(building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor*building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas)",
+ 1366.1*DYNX(W_,8951),"1366.1*building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor");
+DYNX(W_,8930) = (-0.0620636)*DYNX(W_,8934)-0.1513725*DYNX(W_,8935)-0.2210958*
+ DYNX(W_,8936)-0.295129*DYNX(W_,8937)-0.3616149*DYNX(W_,8938)-0.4118494*
+ DYNX(W_,8939)-0.3589221*DYNX(W_,8940)-0.2504286*DYNX(W_,8941);
+DYNX(W_,8917) = IF -(DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*
+ DYNX(W_,8467)) > 0.01 THEN 0 ELSE IF -(DYNX(W_,8928)+DYNX(W_,8929)*
+ DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467)) < -0.01 THEN DYNX(W_,8928)+
+ DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467) ELSE 0.5*(
+ DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467))-25.0*(
+ DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467))*(sqr((
+ -100.0)*(DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467)))
+ -3)*(DYNX(W_,8928)+DYNX(W_,8929)*DYNX(W_,8927)+DYNX(W_,8930)*DYNX(W_,8467));
beginwhenBlock
-whenModelica(DYNX(W_,911) AND GreaterMinor(DYNX(W_,8506),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux",
- PRE(DYNX(W_,8304), 1),"pre(building.thermalZone[1].HDifTilRoof[1].incAng.decAng.tNext)",
- 144), 42)
- DYNX(W_,8304) = IF DYNX(W_,911) THEN real2integerEvent(divGuarded(
- DYNX(W_,8506),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux",
+whenModelica(DYNX(W_,911) AND GreaterMinor(DYNX(W_,8469),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux",
+ PRE(DYNX(W_,8264), 1),"pre(building.thermalZone[1].HDifTilRoof[1].incAng.decAng.tNext)",
+ 153), 42)
+ DYNX(W_,8264) = IF DYNX(W_,911) THEN real2integerEvent(divGuarded(
+ DYNX(W_,8469),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux",
DYNX(W_,910),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.lenWea"),
"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux/building.thermalZone[1].HDifTilRoof[1].incAng.decAng.lenWea",
19)*DYNX(W_,910)+DYNX(W_,910) ELSE DYNTime;
@@ -22111,1154 +22189,1098 @@ endwhenModelica()
endwhenBlock
-DYNX(W_,8989) = IF DYNX(W_,911) THEN DYNX(W_,8506)-DYNX(W_,8304)+DYNX(W_,910)
- ELSE DYNX(W_,8506);
-DYNX(DYNhelp,2195) = cos(0.17202423838958483+1.9910212776572317E-07*
- DYNX(W_,8989));
-DYNX(W_,8990) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,2195),
+DYNX(W_,8952) = IF DYNX(W_,911) THEN DYNX(W_,8469)-DYNX(W_,8264)+DYNX(W_,910)
+ ELSE DYNX(W_,8469);
+DYNX(DYNhelp,2199) = cos(0.17202423838958483+1.9910212776572317E-07*
+ DYNX(W_,8952));
+DYNX(W_,8953) = asinGuarded((-0.3979486313076103)*DYNX(DYNhelp,2199),
"(-0.3979486313076103)*cos(0.17202423838958483+1.9910212776572317E-07*building.thermalZone[1].HDifTilRoof[1].incAng.decAng.calTimAux)");
-DYNX(W_,8992) = cos(DYNX(W_,8990));
-DYNX(W_,8991) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8505)-12);
-DYNX(W_,8994) = cos(DYNX(W_,8991));
-DYNX(W_,8993) = sin(DYNX(W_,8990));
-DYNX(W_,8995) = sin(DYNX(W_,8991));
+DYNX(W_,8955) = cos(DYNX(W_,8953));
+DYNX(W_,8954) = 0.2617993877991494*(0.0002777777777777778*DYNX(W_,8468)-12);
+DYNX(W_,8957) = cos(DYNX(W_,8954));
+DYNX(W_,8956) = sin(DYNX(W_,8953));
+DYNX(W_,8958) = sin(DYNX(W_,8954));
if (NewParameters_) {
-DYNX(DYNhelp,2196) = cos(DYNX(W_,915));
+DYNX(DYNhelp,2200) = cos(DYNX(W_,915));
}
-DYNX(DYNhelp,2197) = DYNX(W_,8992)*DYNX(W_,8994);
+DYNX(DYNhelp,2201) = DYNX(W_,8955)*DYNX(W_,8957);
if (NewParameters_) {
-DYNX(DYNhelp,2198) = sin(DYNX(W_,915));
+DYNX(DYNhelp,2202) = sin(DYNX(W_,915));
}
if (NewParameters_) {
-DYNX(DYNhelp,2199) = sin(DYNX(W_,914));
+DYNX(DYNhelp,2203) = sin(DYNX(W_,914));
}
if (NewParameters_) {
-DYNX(DYNhelp,2200) = cos(DYNX(W_,914));
+DYNX(DYNhelp,2204) = cos(DYNX(W_,914));
}
-DYNX(DYNhelp,2201) = 0.7905412281389133*DYNX(DYNhelp,2197);
-DYNX(DYNhelp,2202) = 0.6124088231015443*DYNX(W_,8993);
-DYNX(W_,8956) = acosGuarded(DYNX(DYNhelp,2196)*(0.6124088231015443*
- DYNX(DYNhelp,2197)+0.7905412281389133*DYNX(W_,8993))+DYNX(DYNhelp,2198)*(
- DYNX(DYNhelp,2199)*DYNX(W_,8992)*DYNX(W_,8995)+DYNX(DYNhelp,2200)*(
- DYNX(DYNhelp,2201)-DYNX(DYNhelp,2202))),"cos(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_c*building.thermalZone[1].HDifTilRoof[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilRoof[1].incAng.inc...");
-DYNX(W_,8959) = IF -cos(DYNX(W_,8956)) > 0.01 THEN 0 ELSE IF -cos(
- DYNX(W_,8956)) < -0.01 THEN cos(DYNX(W_,8956)) ELSE 0.5*cos(DYNX(W_,8956))-
- 25.0*cos(DYNX(W_,8956))*(sqr((-100.0)*cos(DYNX(W_,8956)))-3)*cos(DYNX(W_,8956));
-DYNX(W_,8960) = IF 0.08715574274765814-cos(DYNX(W_,8504)) > 0.01 THEN
- 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8504)) < -0.01
- THEN cos(DYNX(W_,8504)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
- cos(DYNX(W_,8504)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8504))))-3)*(
- cos(DYNX(W_,8504))-0.08715574274765814)+0.5*cos(DYNX(W_,8504));
-DYNX(W_,8968) = (-0.0596012)*DYNX(W_,8971)-0.0189325*DYNX(W_,8972)+0.055414*
- DYNX(W_,8973)+0.1088631*DYNX(W_,8974)+0.2255647*DYNX(W_,8975)+0.2877813*
- DYNX(W_,8976)+0.2642124*DYNX(W_,8977)+0.1561313*DYNX(W_,8978);
-DYNX(W_,8969) = 0.0721249*DYNX(W_,8971)+0.065965*DYNX(W_,8972)-0.0639588*
- DYNX(W_,8973)-0.1519229*DYNX(W_,8974)-0.4620442*DYNX(W_,8975)-0.8230357*
- DYNX(W_,8976)-1.127234*DYNX(W_,8977)-1.3765031*DYNX(W_,8978);
-DYNX(W_,8970) = (-0.0220216)*DYNX(W_,8971)-0.0288748*DYNX(W_,8972)-0.0260542*
- DYNX(W_,8973)-0.0139754*DYNX(W_,8974)+0.0012448*DYNX(W_,8975)+0.0558651*
- DYNX(W_,8976)+0.1310694*DYNX(W_,8977)+0.2506212*DYNX(W_,8978);
-DYNX(W_,8955) = DYNX(W_,8968)+DYNX(W_,8969)*DYNX(W_,8964)+DYNX(W_,8970)*
- DYNX(W_,8504);
-DYNX(DYNhelp,2203) = 1-DYNX(W_,8954);
+DYNX(DYNhelp,2205) = 0.7905412281389133*DYNX(DYNhelp,2201);
+DYNX(DYNhelp,2206) = 0.6124088231015443*DYNX(W_,8956);
+DYNX(W_,8919) = acosGuarded(DYNX(DYNhelp,2200)*(0.6124088231015443*
+ DYNX(DYNhelp,2201)+0.7905412281389133*DYNX(W_,8956))+DYNX(DYNhelp,2202)*(
+ DYNX(DYNhelp,2203)*DYNX(W_,8955)*DYNX(W_,8958)+DYNX(DYNhelp,2204)*(
+ DYNX(DYNhelp,2205)-DYNX(DYNhelp,2206))),"cos(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til)*(0.6124088231015443*(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_c*building.thermalZone[1].HDifTilRoof[1].incAng.incAng.sol_c)+0.7905412281389133*building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_s)+sin(building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til)*(sin(building.thermalZone[1].HDifTilRoof[1].incAng.inc...");
+DYNX(W_,8922) = IF -cos(DYNX(W_,8919)) > 0.01 THEN 0 ELSE IF -cos(
+ DYNX(W_,8919)) < -0.01 THEN cos(DYNX(W_,8919)) ELSE 0.5*cos(DYNX(W_,8919))-
+ 25.0*cos(DYNX(W_,8919))*(sqr((-100.0)*cos(DYNX(W_,8919)))-3)*cos(DYNX(W_,8919));
+DYNX(W_,8923) = IF 0.08715574274765814-cos(DYNX(W_,8467)) > 0.01 THEN
+ 0.08715574274765814 ELSE IF 0.08715574274765814-cos(DYNX(W_,8467)) < -0.01
+ THEN cos(DYNX(W_,8467)) ELSE 0.04357787137382907+25.0*(0.08715574274765814-
+ cos(DYNX(W_,8467)))*(sqr(100.0*(0.08715574274765814-cos(DYNX(W_,8467))))-3)*(
+ cos(DYNX(W_,8467))-0.08715574274765814)+0.5*cos(DYNX(W_,8467));
+DYNX(W_,8931) = (-0.0596012)*DYNX(W_,8934)-0.0189325*DYNX(W_,8935)+0.055414*
+ DYNX(W_,8936)+0.1088631*DYNX(W_,8937)+0.2255647*DYNX(W_,8938)+0.2877813*
+ DYNX(W_,8939)+0.2642124*DYNX(W_,8940)+0.1561313*DYNX(W_,8941);
+DYNX(W_,8932) = 0.0721249*DYNX(W_,8934)+0.065965*DYNX(W_,8935)-0.0639588*
+ DYNX(W_,8936)-0.1519229*DYNX(W_,8937)-0.4620442*DYNX(W_,8938)-0.8230357*
+ DYNX(W_,8939)-1.127234*DYNX(W_,8940)-1.3765031*DYNX(W_,8941);
+DYNX(W_,8933) = (-0.0220216)*DYNX(W_,8934)-0.0288748*DYNX(W_,8935)-0.0260542*
+ DYNX(W_,8936)-0.0139754*DYNX(W_,8937)+0.0012448*DYNX(W_,8938)+0.0558651*
+ DYNX(W_,8939)+0.1310694*DYNX(W_,8940)+0.2506212*DYNX(W_,8941);
+DYNX(W_,8918) = DYNX(W_,8931)+DYNX(W_,8932)*DYNX(W_,8927)+DYNX(W_,8933)*
+ DYNX(W_,8467);
+DYNX(DYNhelp,2207) = 1-DYNX(W_,8917);
if (NewParameters_) {
-DYNX(DYNhelp,2204) = cos(DYNX(W_,898));
+DYNX(DYNhelp,2208) = cos(DYNX(W_,898));
}
-DYNX(DYNhelp,2205) = 1+DYNX(DYNhelp,2204);
+DYNX(DYNhelp,2209) = 1+DYNX(DYNhelp,2208);
if (NewParameters_) {
-DYNX(DYNhelp,2206) = sin(DYNX(W_,898));
+DYNX(DYNhelp,2210) = sin(DYNX(W_,898));
}
-DYNX(W_,8958) = DYNX(W_,8494)*(0.5*DYNX(DYNhelp,2203)*DYNX(DYNhelp,2205)+
- divGuarded(DYNX(W_,8954)*DYNX(W_,8959),"building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof1*building.thermalZone[1].HDifTilRoof[1].HDifTil.a",
- DYNX(W_,8960),"building.thermalZone[1].HDifTilRoof[1].HDifTil.b")+
- DYNX(W_,8955)*DYNX(DYNhelp,2206));
-DYNX(W_,8957) = 0.5*DYNX(W_,8493)*DYNX(W_,897)*(1-DYNX(DYNhelp,2204));
-DYNX(W_,8953) = DYNX(DP_,305)*DYNX(W_,8958)+DYNX(DP_,306)*DYNX(W_,8957);
-DYNX(W_,9000) = DYNX(DP_,307)*DYNX(W_,8927)+DYNX(DP_,308)*DYNX(W_,8953);
-DYNX(W_,8717) = divGuarded(DYNX(W_,612)*DYNX(W_,9000),"building.thermalZone[1].eqAirTempRoof.aExt*building.thermalZone[1].eqAirTempRoof.HSol[1]",
+DYNX(W_,8921) = DYNX(W_,8457)*(0.5*DYNX(DYNhelp,2207)*DYNX(DYNhelp,2209)+
+ divGuarded(DYNX(W_,8917)*DYNX(W_,8922),"building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof1*building.thermalZone[1].HDifTilRoof[1].HDifTil.a",
+ DYNX(W_,8923),"building.thermalZone[1].HDifTilRoof[1].HDifTil.b")+
+ DYNX(W_,8918)*DYNX(DYNhelp,2210));
+DYNX(W_,8920) = 0.5*DYNX(W_,8456)*DYNX(W_,897)*(1-DYNX(DYNhelp,2208));
+DYNX(W_,8916) = DYNX(DP_,305)*DYNX(W_,8921)+DYNX(DP_,306)*DYNX(W_,8920);
+DYNX(W_,8963) = DYNX(DP_,307)*DYNX(W_,8890)+DYNX(DP_,308)*DYNX(W_,8916);
+DYNX(W_,8680) = divGuarded(DYNX(W_,612)*DYNX(W_,8963),"building.thermalZone[1].eqAirTempRoof.aExt*building.thermalZone[1].eqAirTempRoof.HSol[1]",
DYNX(W_,618)+DYNX(W_,617),"building.thermalZone[1].eqAirTempRoof.hRad+building.thermalZone[1].eqAirTempRoof.hConWallOut");
-DYNX(W_,8714) = DYNX(W_,8487)+DYNX(W_,8716)+DYNX(W_,8717);
-DYNX(W_,8718) = DYNX(W_,8714)*DYNX(W_,614);
+DYNX(W_,8677) = DYNX(W_,8450)+DYNX(W_,8679)+DYNX(W_,8680);
+DYNX(W_,8681) = DYNX(W_,8677)*DYNX(W_,614);
/* Linear system of equations to solve. */
/* Tag: simulation.linear[6] */
-DYNX(W_,8997) = RememberSimple_(DYNX(W_,8997), 42);
+DYNX(W_,8960) = RememberSimple_(DYNX(W_,8960), 43);
SolveScalarLinearParametric(1.0+DYNX(W_,485)*DYNX(W_,498),"1.0+building.thermalZone[1].ROM.roofRC.thermResExtRem.R*building.thermalZone[1].theConRoof.Gc",
- DYNX(X_,6)-DYNX(W_,8718),"building.thermalZone[1].ROM.roofRC.thermResExtRem.port_a.T-building.thermalZone[1].theConRoof.fluid.T",
- DYNX(W_,8997),"building.thermalZone[1].theConRoof.dT");
-DYNX(W_,8605) = -DYNX(W_,498)*DYNX(W_,8997);
-DYNX(W_,8610) = -DYNX(W_,485)*DYNX(W_,8605);
-DYNX(W_,8604) = DYNX(X_,6)-DYNX(W_,8610);
+ DYNX(X_,6)-DYNX(W_,8681),"building.thermalZone[1].ROM.roofRC.thermResExtRem.port_a.T-building.thermalZone[1].theConRoof.fluid.T",
+ DYNX(W_,8960),"building.thermalZone[1].theConRoof.dT");
+DYNX(W_,8568) = -DYNX(W_,498)*DYNX(W_,8960);
+DYNX(W_,8573) = -DYNX(W_,485)*DYNX(W_,8568);
+DYNX(W_,8567) = DYNX(X_,6)-DYNX(W_,8573);
/* End of Equation Block */
-DYNX(W_,8608) = DYNX(W_,8605)+DYNX(W_,8606);
+DYNX(W_,8571) = DYNX(W_,8568)+DYNX(W_,8569);
/* Linear system of equations to solve. */
-DYNX(W_,8607) = RememberSimple_(DYNX(W_,8607), 43);
+DYNX(W_,8570) = RememberSimple_(DYNX(W_,8570), 44);
SolveScalarLinearParametric(DYNX(W_,483),"building.thermalZone[1].ROM.roofRC.thermCapExt[1].C",
- DYNX(W_,8608),"building.thermalZone[1].ROM.roofRC.thermCapExt[1].port.Q_flow",
- DYNX(W_,8607),"building.thermalZone[1].ROM.roofRC.thermCapExt[1].der_T");
+ DYNX(W_,8571),"building.thermalZone[1].ROM.roofRC.thermCapExt[1].port.Q_flow",
+ DYNX(W_,8570),"building.thermalZone[1].ROM.roofRC.thermCapExt[1].der_T");
/* End of Equation Block */
-DYNX(F_,6) = DYNX(W_,8607);
+DYNX(F_,6) = DYNX(W_,8570);
/* Linear system of equations to solve. */
-DYNX(W_,8582) = RememberSimple_(DYNX(W_,8582), 44);
+DYNX(W_,8545) = RememberSimple_(DYNX(W_,8545), 45);
SolveScalarLinearParametric(DYNX(W_,458),"building.thermalZone[1].ROM.intWallRC.thermCapInt[1].C",
- DYNX(W_,8581),"building.thermalZone[1].ROM.intWallRC.thermCapInt[1].port.Q_flow",
- DYNX(W_,8582),"building.thermalZone[1].ROM.intWallRC.thermCapInt[1].der_T");
+ DYNX(W_,8544),"building.thermalZone[1].ROM.intWallRC.thermCapInt[1].port.Q_flow",
+ DYNX(W_,8545),"building.thermalZone[1].ROM.intWallRC.thermCapInt[1].der_T");
/* End of Equation Block */
-DYNX(F_,4) = DYNX(W_,8582);
-DYNX(W_,8595) = DYNX(X_,5)-286.15;
+DYNX(F_,4) = DYNX(W_,8545);
+DYNX(W_,8558) = DYNX(X_,5)-286.15;
/* Linear system of equations to solve. */
-DYNX(W_,8590) = RememberSimple_(DYNX(W_,8590), 45);
+DYNX(W_,8553) = RememberSimple_(DYNX(W_,8553), 46);
SolveScalarLinearParametric(DYNX(W_,473),"building.thermalZone[1].ROM.floorRC.thermResExtRem.R",
- -DYNX(W_,8595)," -building.thermalZone[1].ROM.floorRC.thermResExtRem.dT",
- DYNX(W_,8590),"building.thermalZone[1].ROM.floor.Q_flow");
+ -DYNX(W_,8558)," -building.thermalZone[1].ROM.floorRC.thermResExtRem.dT",
+ DYNX(W_,8553),"building.thermalZone[1].ROM.floor.Q_flow");
/* End of Equation Block */
-DYNX(W_,8593) = DYNX(W_,8590)+DYNX(W_,8591);
+DYNX(W_,8556) = DYNX(W_,8553)+DYNX(W_,8554);
/* Linear system of equations to solve. */
-DYNX(W_,8592) = RememberSimple_(DYNX(W_,8592), 46);
+DYNX(W_,8555) = RememberSimple_(DYNX(W_,8555), 47);
SolveScalarLinearParametric(DYNX(W_,470),"building.thermalZone[1].ROM.floorRC.thermCapExt[1].C",
- DYNX(W_,8593),"building.thermalZone[1].ROM.floorRC.thermCapExt[1].port.Q_flow",
- DYNX(W_,8592),"building.thermalZone[1].ROM.floorRC.thermCapExt[1].der_T");
+ DYNX(W_,8556),"building.thermalZone[1].ROM.floorRC.thermCapExt[1].port.Q_flow",
+ DYNX(W_,8555),"building.thermalZone[1].ROM.floorRC.thermCapExt[1].der_T");
/* End of Equation Block */
-DYNX(F_,5) = DYNX(W_,8592);
-DYNX(W_,8706) = divGuarded((DYNX(W_,8490)-DYNX(W_,8487))*DYNX(W_,603),
+DYNX(F_,5) = DYNX(W_,8555);
+DYNX(W_,8669) = divGuarded((DYNX(W_,8453)-DYNX(W_,8450))*DYNX(W_,603),
"(building.thermalZone[1].eqAirTempWall.TBlaSky-building.thermalZone[1].eqAirTempWall.TDryBul)*building.thermalZone[1].eqAirTempWall.hRad",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8708) = divGuarded(DYNX(W_,591)*DYNX(W_,9001),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[1]",
+DYNX(W_,8671) = divGuarded(DYNX(W_,591)*DYNX(W_,8964),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[1]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8698) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8708);
-DYNX(W_,8709) = divGuarded(DYNX(W_,591)*DYNX(W_,9002),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[2]",
+DYNX(W_,8661) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8671);
+DYNX(W_,8672) = divGuarded(DYNX(W_,591)*DYNX(W_,8965),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[2]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8699) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8709);
-DYNX(W_,8710) = divGuarded(DYNX(W_,591)*DYNX(W_,9003),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[3]",
+DYNX(W_,8662) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8672);
+DYNX(W_,8673) = divGuarded(DYNX(W_,591)*DYNX(W_,8966),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[3]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8700) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8710);
-DYNX(W_,8711) = divGuarded(DYNX(W_,591)*DYNX(W_,9004),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[4]",
+DYNX(W_,8663) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8673);
+DYNX(W_,8674) = divGuarded(DYNX(W_,591)*DYNX(W_,8967),"building.thermalZone[1].eqAirTempWall.aExt*building.thermalZone[1].eqAirTempWall.HSol[4]",
DYNX(W_,603)+DYNX(W_,602),"building.thermalZone[1].eqAirTempWall.hRad+building.thermalZone[1].eqAirTempWall.hConWallOut");
-DYNX(W_,8701) = DYNX(W_,8487)+DYNX(W_,8706)+DYNX(W_,8711);
-DYNX(W_,8712) = DYNX(W_,8698)*DYNX(W_,593)+DYNX(W_,8699)*DYNX(W_,594)+
- DYNX(W_,8700)*DYNX(W_,595)+DYNX(W_,8701)*DYNX(W_,596)+286.15*DYNX(W_,601);
+DYNX(W_,8664) = DYNX(W_,8450)+DYNX(W_,8669)+DYNX(W_,8674);
+DYNX(W_,8675) = DYNX(W_,8661)*DYNX(W_,593)+DYNX(W_,8662)*DYNX(W_,594)+
+ DYNX(W_,8663)*DYNX(W_,595)+DYNX(W_,8664)*DYNX(W_,596)+286.15*DYNX(W_,601);
/* Linear system of equations to solve. */
/* Tag: simulation.linear[7] */
-DYNX(W_,8998) = RememberSimple_(DYNX(W_,8998), 47);
+DYNX(W_,8961) = RememberSimple_(DYNX(W_,8961), 48);
SolveScalarLinearParametric(1.0+DYNX(W_,440)*DYNX(W_,506),"1.0+building.thermalZone[1].ROM.extWallRC.thermResExtRem.R*building.thermalZone[1].theConWall.Gc",
- DYNX(X_,3)-DYNX(W_,8712),"building.thermalZone[1].ROM.extWallRC.thermResExtRem.port_a.T-building.thermalZone[1].theConWall.fluid.T",
- DYNX(W_,8998),"building.thermalZone[1].theConWall.dT");
-DYNX(W_,8519) = -DYNX(W_,506)*DYNX(W_,8998);
-DYNX(W_,8570) = -DYNX(W_,440)*DYNX(W_,8519);
-DYNX(W_,8518) = DYNX(X_,3)-DYNX(W_,8570);
+ DYNX(X_,3)-DYNX(W_,8675),"building.thermalZone[1].ROM.extWallRC.thermResExtRem.port_a.T-building.thermalZone[1].theConWall.fluid.T",
+ DYNX(W_,8961),"building.thermalZone[1].theConWall.dT");
+DYNX(W_,8482) = -DYNX(W_,506)*DYNX(W_,8961);
+DYNX(W_,8533) = -DYNX(W_,440)*DYNX(W_,8482);
+DYNX(W_,8481) = DYNX(X_,3)-DYNX(W_,8533);
/* End of Equation Block */
-DYNX(W_,8568) = DYNX(W_,8519)+DYNX(W_,8566);
+DYNX(W_,8531) = DYNX(W_,8482)+DYNX(W_,8529);
/* Linear system of equations to solve. */
-DYNX(W_,8567) = RememberSimple_(DYNX(W_,8567), 48);
+DYNX(W_,8530) = RememberSimple_(DYNX(W_,8530), 49);
SolveScalarLinearParametric(DYNX(W_,438),"building.thermalZone[1].ROM.extWallRC.thermCapExt[1].C",
- DYNX(W_,8568),"building.thermalZone[1].ROM.extWallRC.thermCapExt[1].port.Q_flow",
- DYNX(W_,8567),"building.thermalZone[1].ROM.extWallRC.thermCapExt[1].der_T");
+ DYNX(W_,8531),"building.thermalZone[1].ROM.extWallRC.thermCapExt[1].port.Q_flow",
+ DYNX(W_,8530),"building.thermalZone[1].ROM.extWallRC.thermCapExt[1].der_T");
/* End of Equation Block */
-DYNX(F_,3) = DYNX(W_,8567);
-DYNX(W_,9633) = IF DYNX(DYNhelp,2112) THEN -DYNX(W_,8512)*DYNX(W_,8513) ELSE -
- DYNX(W_,9698)*DYNX(W_,8513);
-DYNX(W_,9634) = IF DYNX(DYNhelp,2113) THEN -DYNX(W_,9606)*DYNX(W_,9604) ELSE -
- DYNX(W_,9698)*DYNX(W_,9604);
-DYNX(F_,71) = DYNX(W_,9633)+DYNX(W_,9634);
-DYNX(W_,9684) = IF DYNX(DYNhelp,2114) THEN -DYNX(W_,9651)*DYNX(W_,9649) ELSE -
- DYNX(W_,9606)*DYNX(W_,9649);
-DYNX(W_,9607) = DYNX(W_,9698);
-DYNX(W_,9685) = IF DYNX(DYNhelp,2115) THEN DYNX(W_,9607)*DYNX(W_,9604) ELSE
- DYNX(W_,9606)*DYNX(W_,9604);
-DYNX(W_,9559) = IF DYNX(W_,9538) > 1.088888888888889E-08 OR DYNX(W_,9538) <
- -1.088888888888889E-08 THEN divinvGuarded(DYNX(W_,9538),"ventilation.generation.hex.bal2.vol.port_a.m_flow")
- ELSE IF DYNX(W_,9538) < 5.444444444444445E-09 AND DYNX(W_,9538) >
- -5.444444444444445E-09 THEN 8433985839233652.0*DYNX(W_,9538) ELSE
+DYNX(F_,3) = DYNX(W_,8530);
+DYNX(W_,9602) = IF DYNX(DYNhelp,2116) THEN -DYNX(W_,8475)*DYNX(W_,8476) ELSE -
+ DYNX(W_,9667)*DYNX(W_,8476);
+DYNX(W_,9603) = IF DYNX(DYNhelp,2117) THEN -DYNX(W_,9575)*DYNX(W_,9573) ELSE -
+ DYNX(W_,9667)*DYNX(W_,9573);
+DYNX(F_,71) = DYNX(W_,9602)+DYNX(W_,9603);
+DYNX(W_,9653) = IF DYNX(DYNhelp,2118) THEN -DYNX(W_,9620)*DYNX(W_,9618) ELSE -
+ DYNX(W_,9575)*DYNX(W_,9618);
+DYNX(W_,9576) = DYNX(W_,9667);
+DYNX(W_,9654) = IF DYNX(DYNhelp,2119) THEN DYNX(W_,9576)*DYNX(W_,9573) ELSE
+ DYNX(W_,9575)*DYNX(W_,9573);
+DYNX(W_,9528) = IF DYNX(W_,9507) > 1.088888888888889E-08 OR DYNX(W_,9507) <
+ -1.088888888888889E-08 THEN divinvGuarded(DYNX(W_,9507),"ventilation.generation.hex.bal2.vol.port_a.m_flow")
+ ELSE IF DYNX(W_,9507) < 5.444444444444445E-09 AND DYNX(W_,9507) >
+ -5.444444444444445E-09 THEN 8433985839233652.0*DYNX(W_,9507) ELSE
(PushModelContext(1,"IBPSA.Utilities.Math.Functions.BaseClasses.smoothTransition(ventilation.generation.hex.bal2.vol.port_a.m_flow, 1.088888888888889E-08, 91836734.69387755, -1377551020.4081633, 1.0036443148688046E+18, -2.796124488945932E+26, 3.7984550550834275E+34, -2.4823657204741497E+42, 6.239243593887767E+49)\nIBPSA.Utilities.Math.Functions.inverseXRegularized(ventilation.generation.hex.bal2.vol.port_a.m_flow, 1...")
- IBPSA_Utilities_Math_Functions_BaseClasses_smoothTransition(DYNX(W_,9538),
+ IBPSA_Utilities_Math_Functions_BaseClasses_smoothTransition(DYNX(W_,9507),
1.088888888888889E-08, 91836734.69387755, -1377551020.4081633,
1.0036443148688046E+18, -2.796124488945932E+26, 3.7984550550834275E+34,
-2.4823657204741497E+42, 6.239243593887767E+49));
PopModelContext();
-DYNX(W_,9540) = DYNX(W_,9651)+DYNX(W_,9552)*DYNX(W_,9559);
-DYNX(W_,9686) = IF DYNX(DYNhelp,2116) THEN -DYNX(W_,9540)*DYNX(W_,9538) ELSE -
- DYNX(W_,9606)*DYNX(W_,9538);
-DYNX(F_,77) = DYNX(W_,9684)+DYNX(W_,9685)+DYNX(W_,9686);
-DYNX(W_,9664) = IF DYNX(DYNhelp,2117) THEN DYNX(W_,9606)*DYNX(W_,9649) ELSE
- DYNX(W_,9651)*DYNX(W_,9649);
-DYNX(W_,9665) = IF DYNX(DYNhelp,2118) THEN -DYNX(W_,7249)*DYNX(W_,9614) ELSE -
- DYNX(W_,9651)*DYNX(W_,9614);
-DYNX(W_,9542) = DYNX(W_,9606)-DYNX(W_,9552)*DYNX(W_,9559);
-DYNX(W_,9666) = IF DYNX(DYNhelp,2119) THEN DYNX(W_,9542)*DYNX(W_,9538) ELSE
- DYNX(W_,9651)*DYNX(W_,9538);
-DYNX(F_,75) = DYNX(W_,9664)+DYNX(W_,9665)+DYNX(W_,9666);
-DYNX(W_,9009) = DYNX(W_,968)*DYNX(W_,8507)+DYNX(W_,969)*DYNX(W_,970);
-DYNX(F_,10) = IF GreaterS(DYNX(W_,9009),"building.zonTem[1].comCool.lim.u",
- 1E+60,"1E+60", 73) THEN 1E+60 ELSE IF LessS(DYNX(W_,9009),"building.zonTem[1].comCool.lim.u",
- 0,"0", 74) THEN 0 ELSE DYNX(W_,9009);
-DYNX(W_,9012) = DYNX(W_,1020)*DYNX(W_,8508)+DYNX(W_,1021)*DYNX(W_,1022);
-DYNX(F_,13) = IF GreaterS(DYNX(W_,9012),"building.zonTemOpe[1].comCool.lim.u",
- 1E+60,"1E+60", 75) THEN 1E+60 ELSE IF LessS(DYNX(W_,9012),"building.zonTemOpe[1].comCool.lim.u",
- 0,"0", 76) THEN 0 ELSE DYNX(W_,9012);
-DYNX(W_,9008) = DYNX(W_,953)*DYNX(W_,8507)+DYNX(W_,954)*DYNX(W_,955);
-DYNX(F_,9) = IF GreaterS(DYNX(W_,9008),"building.zonTem[1].comHea.lim.u", 1E+60,
- "1E+60", 77) THEN 1E+60 ELSE IF LessS(DYNX(W_,9008),"building.zonTem[1].comHea.lim.u",
- 0,"0", 78) THEN 0 ELSE DYNX(W_,9008);
-DYNX(W_,9011) = DYNX(W_,1005)*DYNX(W_,8508)+DYNX(W_,1006)*DYNX(W_,1007);
-DYNX(F_,12) = IF GreaterS(DYNX(W_,9011),"building.zonTemOpe[1].comHea.lim.u",
- 1E+60,"1E+60", 79) THEN 1E+60 ELSE IF LessS(DYNX(W_,9011),"building.zonTemOpe[1].comHea.lim.u",
- 0,"0", 80) THEN 0 ELSE DYNX(W_,9011);
-DYNX(W_,8306) = DYNX(DP_,327)*DYNX(W_,8283);
-DYNX(W_,9013) = DYNX(W_,8306)-DYNX(W_,8508);
-DYNX(F_,14) = IF GreaterS(DYNX(W_,9013),"building.zonTemOpe[1].calCtrl.lim.u",
- 1E+60,"1E+60", 81) THEN 1E+60 ELSE IF LessS(DYNX(W_,9013),"building.zonTemOpe[1].calCtrl.lim.u",
- 0,"0", 82) THEN 0 ELSE DYNX(W_,9013);
-DYNX(W_,8305) = DYNX(DP_,323)*DYNX(W_,8283);
-DYNX(W_,9010) = DYNX(W_,8305)-DYNX(W_,8507);
-DYNX(F_,11) = IF GreaterS(DYNX(W_,9010),"building.zonTem[1].calCtrl.lim.u",
- 1E+60,"1E+60", 83) THEN 1E+60 ELSE IF LessS(DYNX(W_,9010),"building.zonTem[1].calCtrl.lim.u",
- 0,"0", 84) THEN 0 ELSE DYNX(W_,9010);
+DYNX(W_,9509) = DYNX(W_,9620)+DYNX(W_,9521)*DYNX(W_,9528);
+DYNX(W_,9655) = IF DYNX(DYNhelp,2120) THEN -DYNX(W_,9509)*DYNX(W_,9507) ELSE -
+ DYNX(W_,9575)*DYNX(W_,9507);
+DYNX(F_,77) = DYNX(W_,9653)+DYNX(W_,9654)+DYNX(W_,9655);
+DYNX(W_,9633) = IF DYNX(DYNhelp,2121) THEN DYNX(W_,9575)*DYNX(W_,9618) ELSE
+ DYNX(W_,9620)*DYNX(W_,9618);
+DYNX(W_,9634) = IF DYNX(DYNhelp,2122) THEN -DYNX(W_,7209)*DYNX(W_,9583) ELSE -
+ DYNX(W_,9620)*DYNX(W_,9583);
+DYNX(W_,9511) = DYNX(W_,9575)-DYNX(W_,9521)*DYNX(W_,9528);
+DYNX(W_,9635) = IF DYNX(DYNhelp,2123) THEN DYNX(W_,9511)*DYNX(W_,9507) ELSE
+ DYNX(W_,9620)*DYNX(W_,9507);
+DYNX(F_,75) = DYNX(W_,9633)+DYNX(W_,9634)+DYNX(W_,9635);
+DYNX(W_,8972) = DYNX(W_,968)*DYNX(W_,8470)+DYNX(W_,969)*DYNX(W_,970);
+DYNX(F_,10) = IF GreaterS(DYNX(W_,8972),"building.zonTem[1].comCool.lim.u",
+ 1E+60,"1E+60", 81) THEN 1E+60 ELSE IF LessS(DYNX(W_,8972),"building.zonTem[1].comCool.lim.u",
+ 0,"0", 82) THEN 0 ELSE DYNX(W_,8972);
+DYNX(W_,8975) = DYNX(W_,1020)*DYNX(W_,8471)+DYNX(W_,1021)*DYNX(W_,1022);
+DYNX(F_,13) = IF GreaterS(DYNX(W_,8975),"building.zonTemOpe[1].comCool.lim.u",
+ 1E+60,"1E+60", 83) THEN 1E+60 ELSE IF LessS(DYNX(W_,8975),"building.zonTemOpe[1].comCool.lim.u",
+ 0,"0", 84) THEN 0 ELSE DYNX(W_,8975);
+DYNX(W_,8971) = DYNX(W_,953)*DYNX(W_,8470)+DYNX(W_,954)*DYNX(W_,955);
+DYNX(F_,9) = IF GreaterS(DYNX(W_,8971),"building.zonTem[1].comHea.lim.u", 1E+60,
+ "1E+60", 85) THEN 1E+60 ELSE IF LessS(DYNX(W_,8971),"building.zonTem[1].comHea.lim.u",
+ 0,"0", 86) THEN 0 ELSE DYNX(W_,8971);
+DYNX(W_,8974) = DYNX(W_,1005)*DYNX(W_,8471)+DYNX(W_,1006)*DYNX(W_,1007);
+DYNX(F_,12) = IF GreaterS(DYNX(W_,8974),"building.zonTemOpe[1].comHea.lim.u",
+ 1E+60,"1E+60", 87) THEN 1E+60 ELSE IF LessS(DYNX(W_,8974),"building.zonTemOpe[1].comHea.lim.u",
+ 0,"0", 88) THEN 0 ELSE DYNX(W_,8974);
+DYNX(W_,8266) = DYNX(DP_,327)*DYNX(W_,8243);
+DYNX(W_,8976) = DYNX(W_,8266)-DYNX(W_,8471);
+DYNX(F_,14) = IF GreaterS(DYNX(W_,8976),"building.zonTemOpe[1].calCtrl.lim.u",
+ 1E+60,"1E+60", 89) THEN 1E+60 ELSE IF LessS(DYNX(W_,8976),"building.zonTemOpe[1].calCtrl.lim.u",
+ 0,"0", 90) THEN 0 ELSE DYNX(W_,8976);
+DYNX(W_,8265) = DYNX(DP_,323)*DYNX(W_,8243);
+DYNX(W_,8973) = DYNX(W_,8265)-DYNX(W_,8470);
+DYNX(F_,11) = IF GreaterS(DYNX(W_,8973),"building.zonTem[1].calCtrl.lim.u",
+ 1E+60,"1E+60", 91) THEN 1E+60 ELSE IF LessS(DYNX(W_,8973),"building.zonTem[1].calCtrl.lim.u",
+ 0,"0", 92) THEN 0 ELSE DYNX(W_,8973);
DYNX(F_,15) = DYNX(DP_,361)*DYNX(Y_,31);
DYNX(F_,17) = DYNX(DP_,829)*DYNX(Y_,40);
DYNX(F_,18) = DYNX(DP_,831)*DYNX(Y_,42);
DYNX(F_,19) = DYNX(DP_,833)*DYNX(Y_,43);
-if (NewParameters_) {
-DYNX(DYNhelp,2207) = DYNX(W_,3442) >= 0;
-}
-DYNX(W_,9180) = IF DYNX(DYNhelp,2207) THEN DYNX(Aux_,140)*DYNX(W_,3442) ELSE
- DYNX(X_,22)*DYNX(W_,3442);
-if (NewParameters_) {
-DYNX(DYNhelp,2208) = -DYNX(W_,3442) >= 0;
-}
-DYNX(W_,9181) = IF DYNX(DYNhelp,2208) THEN -DYNX(Aux_,142)*DYNX(W_,3442) ELSE
- -DYNX(X_,22)*DYNX(W_,3442);
-DYNX(W_,9176) = DYNX(W_,9180)+DYNX(W_,9181);
-if (NewParameters_) {
-DYNX(DYNhelp,2209) = divinvGuarded(DYNX(W_,3116),"hydraulic.generation.heatPump.eva.vol.dynBal.m");
-}
-DYNX(F_,22) = DYNX(DYNhelp,2209)*DYNX(W_,9176);
- /* Linear system of equations to solve. */
-DYNX(W_,9171) = RememberSimple_(DYNX(W_,9171), 49);
-SolveScalarLinearParametric( -DYNX(W_,3116)," -hydraulic.generation.heatPump.eva.vol.dynBal.m",
- -DYNX(X_,23)," -hydraulic.generation.heatPump.eva.vol.dynBal.U",
- DYNX(W_,9171),"hydraulic.generation.heatPump.eva.vol.dynBal.medium.u");
- /* End of Equation Block */
-
-DYNX(W_,9140) = 84437.5+DYNX(W_,9171);
-DYNX(W_,9178) = IF DYNX(DYNhelp,2207) THEN DYNX(W_,9202)*DYNX(W_,3442) ELSE
- DYNX(W_,9140)*DYNX(W_,3442);
-DYNX(W_,9179) = IF DYNX(DYNhelp,2208) THEN -DYNX(Aux_,141)*DYNX(W_,3442) ELSE
- -DYNX(W_,9140)*DYNX(W_,3442);
-DYNX(W_,9177) = DYNX(W_,9178)+DYNX(W_,9179);
-DYNX(F_,23) = DYNX(W_,9177)+DYNX(W_,9161);
-DYNX(F_,24) = DYNX(DP_,1070)*DYNX(Y_,14);
-DYNX(F_,26) = DYNX(DP_,1089)*DYNX(Y_,12);
-DYNX(W_,8411) = IF DYNX(W_,8392) THEN DYNX(DP_,1098) ELSE DYNX(DP_,1099);
-DYNX(F_,28) = DYNX(DP_,1100)*DYNX(W_,8411);
-DYNX(F_,29) = DYNX(DP_,1102)*DYNX(W_,8411);
-DYNX(W_,8418) = IF DYNX(W_,8417) THEN DYNX(DP_,1115) ELSE DYNX(DP_,1116);
-DYNX(F_,31) = DYNX(DP_,1117)*DYNX(W_,8418);
-DYNX(F_,32) = DYNX(DP_,1119)*DYNX(W_,8418);
-DYNX(F_,33) = DYNX(DP_,1121)*DYNX(Y_,19);
-DYNX(F_,34) = DYNX(DP_,1123)*DYNX(Y_,21);
-DYNX(W_,9235) = DYNX(W_,9234)-DYNX(X_,27);
-DYNX(W_,9236) = IF DYNX(W_,9235) >= 0 THEN DYNX(W_,9235) ELSE -DYNX(W_,9235);
-DYNX(F_,36) = DYNX(DP_,1163)*DYNX(W_,9236);
-DYNX(W_,9237) = DYNX(W_,9235)*DYNX(W_,9235);
-DYNX(F_,37) = DYNX(DP_,1165)*DYNX(W_,9237);
+DYNX(F_,24) = DYNX(DP_,1076)*DYNX(Y_,14);
+DYNX(F_,26) = DYNX(DP_,1095)*DYNX(Y_,12);
+DYNX(W_,8374) = IF DYNX(W_,8355) THEN DYNX(DP_,1104) ELSE DYNX(DP_,1105);
+DYNX(F_,28) = DYNX(DP_,1106)*DYNX(W_,8374);
+DYNX(F_,29) = DYNX(DP_,1108)*DYNX(W_,8374);
+DYNX(W_,8381) = IF DYNX(W_,8380) THEN DYNX(DP_,1121) ELSE DYNX(DP_,1122);
+DYNX(F_,31) = DYNX(DP_,1123)*DYNX(W_,8381);
+DYNX(F_,32) = DYNX(DP_,1125)*DYNX(W_,8381);
+DYNX(F_,33) = DYNX(DP_,1127)*DYNX(Y_,19);
+DYNX(F_,34) = DYNX(DP_,1129)*DYNX(Y_,21);
+DYNX(W_,9204) = DYNX(W_,9203)-DYNX(X_,27);
+DYNX(W_,9205) = IF DYNX(W_,9204) >= 0 THEN DYNX(W_,9204) ELSE -DYNX(W_,9204);
+DYNX(F_,36) = DYNX(DP_,1169)*DYNX(W_,9205);
+DYNX(W_,9206) = DYNX(W_,9204)*DYNX(W_,9204);
+DYNX(F_,37) = DYNX(DP_,1171)*DYNX(W_,9206);
DYNX(F_,39) = 0;
-DYNX(F_,57) = DYNX(DP_,1262)*DYNX(Y_,10);
-DYNX(F_,58) = DYNX(DP_,1264)*DYNX(Y_,8);
-DYNX(F_,64) = DYNX(DP_,1302)*DYNX(Y_,26);
-DYNX(W_,9612) = 273.15+divGuarded(DYNX(W_,9607)-2501014.5*DYNX(W_,9608),
+DYNX(F_,57) = DYNX(DP_,1268)*DYNX(Y_,10);
+DYNX(F_,58) = DYNX(DP_,1270)*DYNX(Y_,8);
+DYNX(F_,64) = DYNX(DP_,1308)*DYNX(Y_,26);
+DYNX(W_,9581) = 273.15+divGuarded(DYNX(W_,9576)-2501014.5*DYNX(W_,9577),
"ventilation.generation.TExhIn.port_b.h_outflow-2501014.5*ventilation.generation.TExhIn.port_b.Xi_outflow[1]",1006
- *(1-DYNX(W_,9608))+1860*DYNX(W_,9608),"1006*(1-ventilation.generation.TExhIn.port_b.Xi_outflow[1])+1860*ventilation.generation.TExhIn.port_b.Xi_outflow[1]");
-DYNX(W_,9613) = 273.15+divGuarded(DYNX(W_,9606)-2501014.5*DYNX(X_,76),
+ *(1-DYNX(W_,9577))+1860*DYNX(W_,9577),"1006*(1-ventilation.generation.TExhIn.port_b.Xi_outflow[1])+1860*ventilation.generation.TExhIn.port_b.Xi_outflow[1]");
+DYNX(W_,9582) = 273.15+divGuarded(DYNX(W_,9575)-2501014.5*DYNX(X_,76),
"ventilation.generation.TExhIn.port_a.h_outflow-2501014.5*ventilation.generation.hex.port_b2.Xi_outflow[1]",1006
*(1-DYNX(X_,76))+1860*DYNX(X_,76),"1006*(1-ventilation.generation.hex.port_b2.Xi_outflow[1])+1860*ventilation.generation.hex.port_b2.Xi_outflow[1]");
-DYNX(W_,9611) = IF DYNX(W_,9604) > 1.088888888888889E-05 THEN DYNX(W_,9612)
- ELSE IF DYNX(W_,9604) < -1.088888888888889E-05 THEN DYNX(W_,9613) ELSE
- 22959.183673469386*DYNX(W_,9604)*(sqr(91836.73469387754*DYNX(W_,9604))-3)*(
- DYNX(W_,9613)-DYNX(W_,9612))+0.5*(DYNX(W_,9612)+DYNX(W_,9613));
-DYNX(W_,9610) = 9.183673469387754*DYNX(W_,9604);
-DYNX(W_,9609) = IF DYNX(W_,9604) > 1.088888888888889E-05 THEN DYNX(W_,9610)
- ELSE IF DYNX(W_,9604) < -1.088888888888889E-05 THEN -DYNX(W_,9610) ELSE (
- -45918.36734693877)*DYNX(W_,9604)*(sqr(91836.73469387754*DYNX(W_,9604))-3)*
- DYNX(W_,9610);
-DYNX(F_,69) = (DYNX(W_,9611)-DYNX(X_,69))*DYNX(W_,9609);
-DYNX(W_,9647) = 273.15+divGuarded(DYNX(W_,9537)-2501014.5*DYNX(DP_,1349),
+DYNX(W_,9580) = IF DYNX(W_,9573) > 1.088888888888889E-05 THEN DYNX(W_,9581)
+ ELSE IF DYNX(W_,9573) < -1.088888888888889E-05 THEN DYNX(W_,9582) ELSE
+ 22959.183673469386*DYNX(W_,9573)*(sqr(91836.73469387754*DYNX(W_,9573))-3)*(
+ DYNX(W_,9582)-DYNX(W_,9581))+0.5*(DYNX(W_,9581)+DYNX(W_,9582));
+DYNX(W_,9579) = 9.183673469387754*DYNX(W_,9573);
+DYNX(W_,9578) = IF DYNX(W_,9573) > 1.088888888888889E-05 THEN DYNX(W_,9579)
+ ELSE IF DYNX(W_,9573) < -1.088888888888889E-05 THEN -DYNX(W_,9579) ELSE (
+ -45918.36734693877)*DYNX(W_,9573)*(sqr(91836.73469387754*DYNX(W_,9573))-3)*
+ DYNX(W_,9579);
+DYNX(F_,69) = (DYNX(W_,9580)-DYNX(X_,69))*DYNX(W_,9578);
+DYNX(W_,9616) = 273.15+divGuarded(DYNX(W_,9506)-2501014.5*DYNX(DP_,1355),
"ventilation.generation.TSup.port_b.h_outflow-2501014.5*ventilation.generation.hex.port_b1.Xi_outflow[1]",1006
- *(1-DYNX(DP_,1349))+1860*DYNX(DP_,1349),"1006*(1-ventilation.generation.hex.port_b1.Xi_outflow[1])+1860*ventilation.generation.hex.port_b1.Xi_outflow[1]");
-DYNX(W_,9648) = 273.15+divGuarded(DYNX(W_,9574)-2501014.5*DYNX(X_,66),
+ *(1-DYNX(DP_,1355))+1860*DYNX(DP_,1355),"1006*(1-ventilation.generation.hex.port_b1.Xi_outflow[1])+1860*ventilation.generation.hex.port_b1.Xi_outflow[1]");
+DYNX(W_,9617) = 273.15+divGuarded(DYNX(W_,9543)-2501014.5*DYNX(X_,66),
"ventilation.generation.TSup.port_a.h_outflow-2501014.5*ventilation.generation.hex.port_a1.Xi_outflow[1]",1006
*(1-DYNX(X_,66))+1860*DYNX(X_,66),"1006*(1-ventilation.generation.hex.port_a1.Xi_outflow[1])+1860*ventilation.generation.hex.port_a1.Xi_outflow[1]");
-DYNX(W_,9646) = IF DYNX(W_,9534) > 1.088888888888889E-05 THEN DYNX(W_,9647)
- ELSE IF DYNX(W_,9534) < -1.088888888888889E-05 THEN DYNX(W_,9648) ELSE
- 22959.183673469386*DYNX(W_,9534)*(sqr(91836.73469387754*DYNX(W_,9534))-3)*(
- DYNX(W_,9648)-DYNX(W_,9647))+0.5*(DYNX(W_,9647)+DYNX(W_,9648));
-DYNX(W_,9645) = 9.183673469387754*DYNX(W_,9534);
-DYNX(W_,9644) = IF DYNX(W_,9534) > 1.088888888888889E-05 THEN DYNX(W_,9645)
- ELSE IF DYNX(W_,9534) < -1.088888888888889E-05 THEN -DYNX(W_,9645) ELSE (
- -45918.36734693877)*DYNX(W_,9534)*(sqr(91836.73469387754*DYNX(W_,9534))-3)*
- DYNX(W_,9645);
-DYNX(F_,73) = (DYNX(W_,9646)-DYNX(X_,73))*DYNX(W_,9644);
+DYNX(W_,9615) = IF DYNX(W_,9503) > 1.088888888888889E-05 THEN DYNX(W_,9616)
+ ELSE IF DYNX(W_,9503) < -1.088888888888889E-05 THEN DYNX(W_,9617) ELSE
+ 22959.183673469386*DYNX(W_,9503)*(sqr(91836.73469387754*DYNX(W_,9503))-3)*(
+ DYNX(W_,9617)-DYNX(W_,9616))+0.5*(DYNX(W_,9616)+DYNX(W_,9617));
+DYNX(W_,9614) = 9.183673469387754*DYNX(W_,9503);
+DYNX(W_,9613) = IF DYNX(W_,9503) > 1.088888888888889E-05 THEN DYNX(W_,9614)
+ ELSE IF DYNX(W_,9503) < -1.088888888888889E-05 THEN -DYNX(W_,9614) ELSE (
+ -45918.36734693877)*DYNX(W_,9503)*(sqr(91836.73469387754*DYNX(W_,9503))-3)*
+ DYNX(W_,9614);
+DYNX(F_,73) = (DYNX(W_,9615)-DYNX(X_,73))*DYNX(W_,9613);
AcceptedSection1
-DYNX(W_,8365) = DYNX(W_,8392);
-DYNX(W_,9501) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.transfer.res[1].m_flow, 0.002503975005737425, 0.09527999175517109)")
+DYNX(W_,8328) = DYNX(W_,8355);
+DYNX(W_,9470) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(hydraulic.transfer.res[1].m_flow, 0.002503975005737425, 0.09527999175517109)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow( -
- DYNX(W_,9256), 0.002503975005737425, 0.09527999175517109));
+ DYNX(W_,9225), 0.002503975005737425, 0.09527999175517109));
PopModelContext();
-DYNX(W_,9500) = DYNX(W_,5781)-DYNX(W_,9501);
-DYNX(W_,9511) = DYNX(W_,9500)-DYNX(W_,5781);
-AssertModelica(LessEqual( -DYNX(W_,9511)," -hydraulic.transfer.pumFixMFlo[1].dp",
- 38427.23766693173,"38427.23766693173", 145)," -hydraulic.transfer.pumFixMFlo[1].dp <= 38427.23766693173",
+DYNX(W_,9469) = DYNX(W_,5741)-DYNX(W_,9470);
+DYNX(W_,9480) = DYNX(W_,9469)-DYNX(W_,5741);
+AssertModelica(LessEqual( -DYNX(W_,9480)," -hydraulic.transfer.pumFixMFlo[1].dp",
+ 38427.23766693173,"38427.23766693173", 154)," -hydraulic.transfer.pumFixMFlo[1].dp <= 38427.23766693173",
StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1]: Model operates with head -dp = ",
- Real2String2( -DYNX(W_,9511), true, 0))," Pa,\n exceeding the pressure allowed by the parameter "),
+ Real2String2( -DYNX(W_,9480), true, 0))," Pa,\n exceeding the pressure allowed by the parameter "),
"HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1]"),
".dpMax.\n This can happen if the model forces a high mass flow rate through a closed actuator,\n or if the performance record is unreasonable. Please verify your model, and\n consider using one of the other pump or fan models."));
-DYNX(W_,9043) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9035));
-AssertModelica(DYNX(W_,9043) >= 272.15,"noEvent(DHW.pump.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9006) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,8998));
+AssertModelica(DYNX(W_,9006) >= 272.15,"noEvent(DHW.pump.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.DHW.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9043), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9006), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9043) <= 403.15,"noEvent(DHW.pump.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9006) <= 403.15,"noEvent(DHW.pump.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.DHW.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9043), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9006), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9162) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9139));
-AssertModelica(DYNX(W_,9162) >= 272.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9129) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9102));
+AssertModelica(DYNX(W_,9129) >= 272.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.con.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9162), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9129), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9162) <= 403.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9129) <= 403.15,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.con.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9162), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9129), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,8340) >= 0.0,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,8301) >= 0.0,"noEvent(hydraulic.generation.heatPump.con.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8340), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9162), true, 0))," K)"));
-DYNX(W_,9170) = 1-DYNX(X_,22);
+ DYNX(W_,8301), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9129), true, 0))," K)"));
+DYNX(W_,9137) = 1-DYNX(X_,22);
/* Linear system of equations to solve. */
-DYNX(W_,9175) = RememberSimple_(DYNX(W_,9175), 50);
-SolveScalarLinear( -(1006.0*DYNX(W_,9170)+1860.0*DYNX(X_,22))," -(1006.0*hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]+1860.0*hydraulic.generation.heatPump.port_a2.Xi_outflow[1])",
- 2501014.5*DYNX(X_,22)-DYNX(W_,9140),"2501014.5*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]-hydraulic.generation.heatPump.eva.vol.dynBal.medium.h",
- DYNX(W_,9175),"hydraulic.generation.heatPump.eva.vol.dynBal.medium.dT");
+DYNX(W_,9142) = RememberSimple_(DYNX(W_,9142), 50);
+SolveScalarLinear( -(1006.0*DYNX(W_,9137)+1860.0*DYNX(X_,22))," -(1006.0*hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]+1860.0*hydraulic.generation.heatPump.port_a2.Xi_outflow[1])",
+ 2501014.5*DYNX(X_,22)-DYNX(W_,9103),"2501014.5*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]-hydraulic.generation.heatPump.eva.vol.dynBal.medium.h",
+ DYNX(W_,9142),"hydraulic.generation.heatPump.eva.vol.dynBal.medium.dT");
/* End of Equation Block */
-DYNX(W_,9169) = 273.15+DYNX(W_,9175);
-AssertModelica(DYNX(W_,9169) >= 200.0,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9136) = 273.15+DYNX(W_,9142);
+AssertModelica(DYNX(W_,9136) >= 200.0,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.eva.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"AixLib.Media.Air\".");
-AssertModelica(DYNX(W_,9169) <= 423.15,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9136) <= 423.15,"noEvent(hydraulic.generation.heatPump.eva.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.heatPump.eva.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"AixLib.Media.Air\".");
-DYNX(W_,9206) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9203));
-AssertModelica(DYNX(W_,9206) >= 272.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9175) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9172));
+AssertModelica(DYNX(W_,9175) >= 272.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9206), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9175), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9206) <= 403.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9175) <= 403.15,"noEvent(hydraulic.generation.pump.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.pump.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9206), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9175), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9214) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9137));
-AssertModelica(DYNX(W_,9214) >= 272.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9183) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9100));
+AssertModelica(DYNX(W_,9183) >= 272.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.eleHea.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9214), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9183), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9214) <= 403.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9183) <= 403.15,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.generation.eleHea.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9214), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9183), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,8337) >= 0.0,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,8297) >= 0.0,"noEvent(hydraulic.generation.eleHea.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8337), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9214), true, 0))," K)"));
-DYNX(W_,9512) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9435));
-AssertModelica(DYNX(W_,9512) >= 272.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T >= 272.15)",
+ DYNX(W_,8297), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9183), true, 0))," K)"));
+DYNX(W_,9481) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9404));
+AssertModelica(DYNX(W_,9481) >= 272.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9512), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9481), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9512) <= 403.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9481) <= 403.15,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9512), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9481), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9500) >= 0.0,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,9469) >= 0.0,"noEvent(hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9500), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9512), true, 0))," K)"));
-DYNX(W_,9585) = 1-DYNX(X_,66);
+ DYNX(W_,9469), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9481), true, 0))," K)"));
+DYNX(W_,9554) = 1-DYNX(X_,66);
/* Linear system of equations to solve. */
-DYNX(W_,9591) = RememberSimple_(DYNX(W_,9591), 51);
-SolveScalarLinear( -(1006.0*DYNX(W_,9585)+1860.0*DYNX(X_,66))," -(1006.0*ventilation.generation.fanFlow.vol.dynBal.medium.X[2]+1860.0*ventilation.generation.hex.port_a1.Xi_outflow[1])",
- 2501014.5*DYNX(X_,66)-DYNX(W_,9574),"2501014.5*ventilation.generation.hex.port_a1.Xi_outflow[1]-ventilation.generation.fanFlow.vol.dynBal.medium.h",
- DYNX(W_,9591),"ventilation.generation.fanFlow.vol.dynBal.medium.dT");
+DYNX(W_,9560) = RememberSimple_(DYNX(W_,9560), 51);
+SolveScalarLinear( -(1006.0*DYNX(W_,9554)+1860.0*DYNX(X_,66))," -(1006.0*ventilation.generation.fanFlow.vol.dynBal.medium.X[2]+1860.0*ventilation.generation.hex.port_a1.Xi_outflow[1])",
+ 2501014.5*DYNX(X_,66)-DYNX(W_,9543),"2501014.5*ventilation.generation.hex.port_a1.Xi_outflow[1]-ventilation.generation.fanFlow.vol.dynBal.medium.h",
+ DYNX(W_,9560),"ventilation.generation.fanFlow.vol.dynBal.medium.dT");
/* End of Equation Block */
-DYNX(W_,9584) = 273.15+DYNX(W_,9591);
-AssertModelica(DYNX(W_,9584) >= 200.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9553) = 273.15+DYNX(W_,9560);
+AssertModelica(DYNX(W_,9553) >= 200.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9584) <= 423.15,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9553) <= 423.15,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanFlow.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9536) >= 0.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,9505) >= 0.0,"noEvent(ventilation.generation.fanFlow.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9536), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9584), true, 0))," K)"));
-DYNX(W_,9625) = 1-DYNX(X_,70);
+ DYNX(W_,9505), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9553), true, 0))," K)"));
+DYNX(W_,9594) = 1-DYNX(X_,70);
/* Linear system of equations to solve. */
-DYNX(W_,9631) = RememberSimple_(DYNX(W_,9631), 52);
-SolveScalarLinear( -(1006.0*DYNX(W_,9625)+1860.0*DYNX(X_,70))," -(1006.0*ventilation.generation.fanRet.vol.dynBal.medium.X[2]+1860.0*ventilation.portVent_out[1].Xi_outflow[1])",
- 2501014.5*DYNX(X_,70)-DYNX(W_,9698),"2501014.5*ventilation.portVent_out[1].Xi_outflow[1]-ventilation.generation.fanRet.vol.dynBal.medium.h",
- DYNX(W_,9631),"ventilation.generation.fanRet.vol.dynBal.medium.dT");
+DYNX(W_,9600) = RememberSimple_(DYNX(W_,9600), 52);
+SolveScalarLinear( -(1006.0*DYNX(W_,9594)+1860.0*DYNX(X_,70))," -(1006.0*ventilation.generation.fanRet.vol.dynBal.medium.X[2]+1860.0*ventilation.portVent_out[1].Xi_outflow[1])",
+ 2501014.5*DYNX(X_,70)-DYNX(W_,9667),"2501014.5*ventilation.portVent_out[1].Xi_outflow[1]-ventilation.generation.fanRet.vol.dynBal.medium.h",
+ DYNX(W_,9600),"ventilation.generation.fanRet.vol.dynBal.medium.dT");
/* End of Equation Block */
-DYNX(W_,9624) = 273.15+DYNX(W_,9631);
-AssertModelica(DYNX(W_,9624) >= 200.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9593) = 273.15+DYNX(W_,9600);
+AssertModelica(DYNX(W_,9593) >= 200.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9624) <= 423.15,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9593) <= 423.15,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.fanRet.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9532) >= 0.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,9501) >= 0.0,"noEvent(ventilation.generation.fanRet.vol.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9532), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9624), true, 0))," K)"));
-DYNX(W_,8528) = 1-DYNX(X_,0);
+ DYNX(W_,9501), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9593), true, 0))," K)"));
+DYNX(W_,8491) = 1-DYNX(X_,0);
/* Linear system of equations to solve. */
-DYNX(W_,8534) = RememberSimple_(DYNX(W_,8534), 53);
-SolveScalarLinear( -(1006.0*DYNX(W_,8528)+1860.0*DYNX(X_,0))," -(1006.0*building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]+1860.0*building.thermalZone[1].ports[1].Xi_outflow[1])",
- 2501014.5*DYNX(X_,0)-DYNX(W_,8512),"2501014.5*building.thermalZone[1].ports[1].Xi_outflow[1]-building.thermalZone[1].ROM.volAir.dynBal.medium.h",
- DYNX(W_,8534),"building.thermalZone[1].ROM.volAir.dynBal.medium.dT");
+DYNX(W_,8497) = RememberSimple_(DYNX(W_,8497), 53);
+SolveScalarLinear( -(1006.0*DYNX(W_,8491)+1860.0*DYNX(X_,0))," -(1006.0*building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]+1860.0*building.thermalZone[1].ports[1].Xi_outflow[1])",
+ 2501014.5*DYNX(X_,0)-DYNX(W_,8475),"2501014.5*building.thermalZone[1].ports[1].Xi_outflow[1]-building.thermalZone[1].ROM.volAir.dynBal.medium.h",
+ DYNX(W_,8497),"building.thermalZone[1].ROM.volAir.dynBal.medium.dT");
/* End of Equation Block */
-DYNX(W_,8527) = 273.15+DYNX(W_,8534);
-AssertModelica(DYNX(W_,8527) >= 200.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T >= 200.0)",
+DYNX(W_,8490) = 273.15+DYNX(W_,8497);
+AssertModelica(DYNX(W_,8490) >= 200.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.building.thermalZone[1].ROM.volAir.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,8527) <= 423.15,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,8490) <= 423.15,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.building.thermalZone[1].ROM.volAir.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,8511) >= 0.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.p >= 0.0)",
+AssertModelica(DYNX(W_,8474) >= 0.0,"noEvent(building.thermalZone[1].ROM.volAir.dynBal.medium.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8511), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,8527), true, 0))," K)"));
-DYNX(W_,9262) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9527));
-AssertModelica(DYNX(W_,9262) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T >= 272.15)",
+ DYNX(W_,8474), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,8490), true, 0))," K)"));
+DYNX(W_,9231) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9496));
+AssertModelica(DYNX(W_,9231) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9262), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9231), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9262) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9231) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9262), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9231), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9270) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9267));
-AssertModelica(DYNX(W_,9270) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T >= 272.15)",
+DYNX(W_,9239) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9236));
+AssertModelica(DYNX(W_,9239) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9270), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9239), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9270) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9239) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9270), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9239), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9278) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9275));
-AssertModelica(DYNX(W_,9278) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T >= 272.15)",
+DYNX(W_,9247) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9244));
+AssertModelica(DYNX(W_,9247) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9278), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9247), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9278) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9247) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9278), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9247), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9284) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9526));
-AssertModelica(DYNX(W_,9284) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T >= 272.15)",
+DYNX(W_,9253) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9495));
+AssertModelica(DYNX(W_,9253) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9284), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9253), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9284) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9253) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9284), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9253), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9291) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9259));
-AssertModelica(DYNX(W_,9291) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T >= 272.15)",
+DYNX(W_,9260) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9228));
+AssertModelica(DYNX(W_,9260) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9291), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9260), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9291) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9260) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9291), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9260), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9299) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9296));
-AssertModelica(DYNX(W_,9299) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T >= 272.15)",
+DYNX(W_,9268) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9265));
+AssertModelica(DYNX(W_,9268) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9299), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9268), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9299) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9268) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9299), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9268), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9307) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9304));
-AssertModelica(DYNX(W_,9307) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T >= 272.15)",
+DYNX(W_,9276) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9273));
+AssertModelica(DYNX(W_,9276) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9307), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9276), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9307) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9276) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9307), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9276), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9314) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9260));
-AssertModelica(DYNX(W_,9314) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T >= 272.15)",
+DYNX(W_,9283) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9229));
+AssertModelica(DYNX(W_,9283) >= 272.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9314), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9283), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9314) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9283) <= 403.15,"noEvent(hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9314), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9283), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9344) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9340));
-AssertModelica(DYNX(W_,9344) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T >= 272.15)",
+DYNX(W_,9313) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9309));
+AssertModelica(DYNX(W_,9313) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9344), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9313), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9344) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9313) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9344), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9313), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9352) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9349));
-AssertModelica(DYNX(W_,9352) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T >= 272.15)",
+DYNX(W_,9321) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9318));
+AssertModelica(DYNX(W_,9321) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9352), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9321), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9352) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9321) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9352), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9321), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9360) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9357));
-AssertModelica(DYNX(W_,9360) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T >= 272.15)",
+DYNX(W_,9329) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9326));
+AssertModelica(DYNX(W_,9329) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9360), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9329), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9360) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9329) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9360), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9329), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9366) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9257));
-AssertModelica(DYNX(W_,9366) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T >= 272.15)",
+DYNX(W_,9335) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9226));
+AssertModelica(DYNX(W_,9335) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9366), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9335), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9366) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9335) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9366), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9335), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9373) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9341));
-AssertModelica(DYNX(W_,9373) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T >= 272.15)",
+DYNX(W_,9342) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9310));
+AssertModelica(DYNX(W_,9342) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9373), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9342), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9373) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9342) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9373), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9342), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9381) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9378));
-AssertModelica(DYNX(W_,9381) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T >= 272.15)",
+DYNX(W_,9350) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9347));
+AssertModelica(DYNX(W_,9350) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9381), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9350), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9381) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9350) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9381), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9350), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9389) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9386));
-AssertModelica(DYNX(W_,9389) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T >= 272.15)",
+DYNX(W_,9358) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9355));
+AssertModelica(DYNX(W_,9358) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9389), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9358), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9389) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9358) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9389), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9358), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9396) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9342));
-AssertModelica(DYNX(W_,9396) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T >= 272.15)",
+DYNX(W_,9365) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9311));
+AssertModelica(DYNX(W_,9365) >= 272.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9396), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9365), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9396) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9365) <= 403.15,"noEvent(hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9396), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9365), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-DYNX(W_,9425) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9254));
-AssertModelica(DYNX(W_,9425) >= 272.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T >= 272.15)",
+DYNX(W_,9394) = (-0.0002390057361376673)*((-1142859.5999999999)-DYNX(W_,9223));
+AssertModelica(DYNX(W_,9394) >= 272.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T >= 272.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9425), true, 0))," K exceeded its minimum allowed value of "),
+ Real2String2(DYNX(W_,9394), true, 0))," K exceeded its minimum allowed value of "),
"-1")," degC ("),"272.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,9425) <= 403.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T <= 403.15)",
+AssertModelica(DYNX(W_,9394) <= 403.15,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T <= 403.15)",
StringAdd(StringAdd(StringAdd(StringAdd(StringAdd(StringAdd("In HeatPumpMonoenergeticResidentialBuilding.hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium: Temperature T = ",
- Real2String2(DYNX(W_,9425), true, 0))," K exceeded its maximum allowed value of "),
+ Real2String2(DYNX(W_,9394), true, 0))," K exceeded its maximum allowed value of "),
"130")," degC ("),"403.15")," Kelvin) as required from medium model \"IBPSA.Media.Water\"."));
-AssertModelica(DYNX(W_,8337) >= 0.0,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.p >= 0.0)",
+AssertModelica(DYNX(W_,8297) >= 0.0,"noEvent(hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,8337), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9425), true, 0))," K)"));
-DYNX(W_,9657) = 1-DYNX(X_,74);
+ DYNX(W_,8297), true, 0))," Pa) of medium \"IBPSA.Media.Water\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9394), true, 0))," K)"));
+DYNX(W_,9626) = 1-DYNX(X_,74);
/* Linear system of equations to solve. */
-DYNX(W_,9662) = RememberSimple_(DYNX(W_,9662), 54);
-SolveScalarLinear( -(1006.0*DYNX(W_,9657)+1860.0*DYNX(X_,74))," -(1006.0*ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]+1860.0*ventilation.generation.hex.port_a2.Xi_outflow[1])",
- 2501014.5*DYNX(X_,74)-DYNX(W_,9651),"2501014.5*ventilation.generation.hex.port_a2.Xi_outflow[1]-ventilation.generation.threeWayValve_b.vol.dynBal.medium.h",
- DYNX(W_,9662),"ventilation.generation.threeWayValve_b.vol.dynBal.medium.dT");
+DYNX(W_,9631) = RememberSimple_(DYNX(W_,9631), 54);
+SolveScalarLinear( -(1006.0*DYNX(W_,9626)+1860.0*DYNX(X_,74))," -(1006.0*ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]+1860.0*ventilation.generation.hex.port_a2.Xi_outflow[1])",
+ 2501014.5*DYNX(X_,74)-DYNX(W_,9620),"2501014.5*ventilation.generation.hex.port_a2.Xi_outflow[1]-ventilation.generation.threeWayValve_b.vol.dynBal.medium.h",
+ DYNX(W_,9631),"ventilation.generation.threeWayValve_b.vol.dynBal.medium.dT");
/* End of Equation Block */
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(53);
-DYNX(W_,9656) = 273.15+DYNX(W_,9662);
-AssertModelica(DYNX(W_,9656) >= 200.0,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T >= 200.0)",
+DYNX(W_,9625) = 273.15+DYNX(W_,9631);
+AssertModelica(DYNX(W_,9625) >= 200.0,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_b.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9656) <= 423.15,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9625) <= 423.15,"noEvent(ventilation.generation.threeWayValve_b.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_b.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-DYNX(W_,9676) = 1-DYNX(X_,76);
+DYNX(W_,9645) = 1-DYNX(X_,76);
/* Linear system of equations to solve. */
-DYNX(W_,9682) = RememberSimple_(DYNX(W_,9682), 55);
-SolveScalarLinear( -(1006.0*DYNX(W_,9676)+1860.0*DYNX(X_,76))," -(1006.0*ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]+1860.0*ventilation.generation.hex.port_b2.Xi_outflow[1])",
- 2501014.5*DYNX(X_,76)-DYNX(W_,9606),"2501014.5*ventilation.generation.hex.port_b2.Xi_outflow[1]-ventilation.generation.threeWayValve_a.vol.dynBal.medium.h",
- DYNX(W_,9682),"ventilation.generation.threeWayValve_a.vol.dynBal.medium.dT");
+DYNX(W_,9651) = RememberSimple_(DYNX(W_,9651), 55);
+SolveScalarLinear( -(1006.0*DYNX(W_,9645)+1860.0*DYNX(X_,76))," -(1006.0*ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]+1860.0*ventilation.generation.hex.port_b2.Xi_outflow[1])",
+ 2501014.5*DYNX(X_,76)-DYNX(W_,9575),"2501014.5*ventilation.generation.hex.port_b2.Xi_outflow[1]-ventilation.generation.threeWayValve_a.vol.dynBal.medium.h",
+ DYNX(W_,9651),"ventilation.generation.threeWayValve_a.vol.dynBal.medium.dT");
/* End of Equation Block */
-DYNX(W_,9675) = 273.15+DYNX(W_,9682);
-AssertModelica(DYNX(W_,9675) >= 200.0,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T >= 200.0)",
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(53);
+DYNX(W_,9644) = 273.15+DYNX(W_,9651);
+AssertModelica(DYNX(W_,9644) >= 200.0,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T >= 200.0)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_a.vol.dynBal.medium: Temperature T exceeded its minimum allowed value of -73.15 degC (200 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9675) <= 423.15,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T <= 423.15)",
+AssertModelica(DYNX(W_,9644) <= 423.15,"noEvent(ventilation.generation.threeWayValve_a.vol.dynBal.medium.T <= 423.15)",
"In HeatPumpMonoenergeticResidentialBuilding.ventilation.generation.threeWayValve_a.vol.dynBal.medium: Temperature T exceeded its maximum allowed value of 150 degC (423.15 Kelvin)\nas required from medium model \"IBPSA.Media.Air\".");
-AssertModelica(DYNX(W_,9605) >= 0.0,"noEvent(ventilation.generation.threeWayValve_a.res1.port_b.p >= 0.0)",
+AssertModelica(DYNX(W_,9574) >= 0.0,"noEvent(ventilation.generation.threeWayValve_a.res1.port_b.p >= 0.0)",
StringAdd(StringAdd(StringAdd(StringAdd("Pressure (= ",Real2String2(
- DYNX(W_,9605), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
- Real2String2(DYNX(W_,9675), true, 0))," K)"));
-DYNX(W_,8412) = NOT DYNX(W_,8392);
-DYNX(W_,8419) = NOT DYNX(W_,8417);
-DYNX(W_,8421) = DYNX(W_,8424) AND DYNX(W_,8392);
+ DYNX(W_,9574), true, 0))," Pa) of medium \"IBPSA.Media.Air\" is negative\n(Temperature = "),
+ Real2String2(DYNX(W_,9644), true, 0))," K)"));
+DYNX(W_,8375) = NOT DYNX(W_,8355);
+DYNX(W_,8382) = NOT DYNX(W_,8380);
+DYNX(W_,8384) = DYNX(W_,8387) AND DYNX(W_,8355);
beginwhenBlock
-whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8308), 61), 2), 43)
- DYNX(W_,8308) = IF Less(DYNX(W_,8309),"userProfiles.tabIntGai.nextTimeEventScaled",
- 1E+60,"1E+60", 20) THEN DYNX(W_,8309) ELSE 1E+60;
+whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8268), 66), 2), 43)
+ DYNX(W_,8268) = IF Less(DYNX(W_,8269),"userProfiles.tabIntGai.nextTimeEventScaled",
+ 1E+60,"1E+60", 20) THEN DYNX(W_,8269) ELSE 1E+60;
endwhenModelica()
endwhenBlock
beginwhenBlock
-whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8312), 62), 3), 44)
- DYNX(W_,8312) = IF Less(DYNX(W_,8313),"DHW.combiTimeTableDHWInput.nextTimeEventScaled",
- 1E+60,"1E+60", 21) THEN DYNX(W_,8313) ELSE 1E+60;
+whenModelica(GreaterEqualTimeMinor(PRE(DYNX(W_,8272), 67), 3), 44)
+ DYNX(W_,8272) = IF Less(DYNX(W_,8273),"DHW.combiTimeTableDHWInput.nextTimeEventScaled",
+ 1E+60,"1E+60", 21) THEN DYNX(W_,8273) ELSE 1E+60;
endwhenModelica()
endwhenBlock
AcceptedSection2
+DYNX(Aux_,139) = DYNX(W_,9171);
DYNX(Aux_,226) = DYNX(X_,74);
DYNX(Aux_,165) = DYNX(X_,76);
DYNX(Aux_,169) = DYNX(X_,70);
DYNX(Aux_,161) = DYNX(X_,0);
-DYNX(Aux_,167) = DYNX(W_,9697);
+DYNX(Aux_,167) = DYNX(W_,9666);
DYNX(Aux_,163) = DYNX(X_,0);
-DYNX(Aux_,224) = DYNX(W_,9608);
+DYNX(Aux_,224) = DYNX(W_,9577);
DYNX(Aux_,216) = DYNX(X_,76);
DYNX(Aux_,222) = DYNX(X_,74);
DYNX(Aux_,220) = DYNX(X_,76);
DYNX(Aux_,76) = DYNX(X_,74);
-DYNX(Aux_,75) = DYNX(W_,9651);
-DYNX(Aux_,225) = DYNX(W_,9540);
-DYNX(Aux_,223) = DYNX(W_,9607);
-DYNX(Aux_,162) = DYNX(W_,8512);
-DYNX(Aux_,168) = DYNX(W_,9698);
-DYNX(Aux_,166) = DYNX(W_,9696);
-DYNX(Aux_,206) = DYNX(W_,9469);
-DYNX(Aux_,157) = DYNX(W_,9440);
-DYNX(Aux_,193) = DYNX(W_,9435);
-DYNX(Aux_,192) = DYNX(W_,9357);
-DYNX(Aux_,201) = DYNX(W_,9254);
-DYNX(Aux_,200) = DYNX(W_,9386);
-DYNX(Aux_,176) = DYNX(W_,9275);
-DYNX(Aux_,175) = DYNX(W_,9526);
-DYNX(Aux_,173) = DYNX(W_,9275);
-DYNX(Aux_,179) = DYNX(W_,9296);
-DYNX(Aux_,185) = DYNX(W_,9254);
-DYNX(Aux_,183) = DYNX(W_,9260);
-DYNX(Aux_,181) = DYNX(W_,9304);
-DYNX(Aux_,180) = DYNX(W_,9259);
-DYNX(Aux_,182) = DYNX(W_,9296);
-DYNX(Aux_,184) = DYNX(W_,9304);
-DYNX(Aux_,204) = DYNX(W_,9260);
-DYNX(Aux_,203) = DYNX(W_,9137);
-DYNX(Aux_,202) = DYNX(W_,9342);
-DYNX(Aux_,146) = DYNX(W_,9254);
-DYNX(Aux_,145) = DYNX(W_,9139);
-DYNX(Aux_,138) = DYNX(W_,9137);
-DYNX(Aux_,137) = DYNX(W_,9204);
-DYNX(Aux_,144) = DYNX(W_,9139);
-DYNX(Aux_,191) = DYNX(W_,9257);
-DYNX(Aux_,189) = DYNX(W_,9357);
-DYNX(Aux_,187) = DYNX(W_,9349);
-DYNX(Aux_,214) = DYNX(W_,9258);
-DYNX(Aux_,212) = DYNX(W_,9434);
-DYNX(Aux_,210) = DYNX(W_,9485);
-DYNX(Aux_,208) = DYNX(W_,9477);
-DYNX(Aux_,207) = DYNX(W_,9440);
-DYNX(Aux_,209) = DYNX(W_,9469);
-DYNX(Aux_,211) = DYNX(W_,9477);
-DYNX(Aux_,213) = DYNX(W_,9485);
-DYNX(Aux_,188) = DYNX(W_,9340);
-DYNX(Aux_,190) = DYNX(W_,9349);
-DYNX(Aux_,199) = DYNX(W_,9342);
-DYNX(Aux_,198) = DYNX(W_,9378);
-DYNX(Aux_,197) = DYNX(W_,9386);
-DYNX(Aux_,196) = DYNX(W_,9341);
-DYNX(Aux_,195) = DYNX(W_,9378);
-DYNX(Aux_,194) = DYNX(W_,9423);
-DYNX(Aux_,46) = DYNX(W_,9138);
-DYNX(Aux_,178) = DYNX(W_,9422);
-DYNX(Aux_,171) = DYNX(W_,9267);
-DYNX(Aux_,136) = DYNX(W_,9527);
-DYNX(Aux_,170) = DYNX(W_,9022);
-DYNX(Aux_,172) = DYNX(W_,9527);
-DYNX(Aux_,174) = DYNX(W_,9267);
-DYNX(Aux_,156) = DYNX(W_,9257);
-DYNX(Aux_,205) = DYNX(W_,9502);
-DYNX(W_,9219) = DYNX(Y_,28);
-DYNX(Aux_,160) = DYNX(W_,8512);
-DYNX(Aux_,158) = DYNX(W_,9537);
-DYNX(Aux_,219) = DYNX(W_,9542);
-DYNX(Aux_,215) = DYNX(W_,9606);
-DYNX(Aux_,221) = DYNX(W_,9651);
-DYNX(Aux_,164) = DYNX(W_,9606);
-DYNX(W_,8479) = DYNX(W_,8507);
-DYNX(W_,8480) = DYNX(W_,8508);
-DYNX(W_,8481) = DYNX(X_,10);
-DYNX(W_,8482) = DYNX(X_,13);
-DYNX(W_,8483) = DYNX(X_,9);
-DYNX(W_,8484) = DYNX(X_,12);
-DYNX(W_,8485) = DYNX(X_,14);
-DYNX(W_,8486) = DYNX(X_,11);
-DYNX(W_,9014) = DYNX(W_,8473);
-DYNX(W_,9015) = DYNX(W_,8474);
-DYNX(W_,9016) = DYNX(W_,8475);
-DYNX(W_,9023) = DYNX(W_,8473);
-DYNX(W_,9024) = DYNX(W_,8474);
-DYNX(W_,9025) = DYNX(W_,8475);
-DYNX(W_,9127) = DYNX(W_,8473);
-DYNX(W_,9128) = DYNX(W_,8474);
-DYNX(W_,9129) = DYNX(W_,8475);
-DYNX(W_,9130) = DYNX(W_,8508);
-DYNX(W_,9133) = DYNX(W_,8473);
-DYNX(W_,9134) = DYNX(W_,8474);
-DYNX(W_,9135) = DYNX(W_,8475);
-DYNX(W_,9136) = DYNX(W_,8508);
-DYNX(Aux_,139) = DYNX(W_,9202);
-DYNX(W_,9220) = DYNX(W_,8473);
-DYNX(W_,9221) = DYNX(W_,8474);
-DYNX(W_,9222) = DYNX(W_,8475);
-DYNX(W_,9223) = DYNX(W_,8508);
-DYNX(W_,9436) = DYNX(Y_,28);
-DYNX(W_,9524) = DYNX(Y_,29);
-DYNX(W_,9437) = DYNX(Y_,29);
-DYNX(W_,9525) = DYNX(Y_,30);
-DYNX(W_,9438) = DYNX(Y_,30);
-DYNX(W_,9439) = DYNX(Y_,28);
-DYNX(W_,9523) = DYNX(Y_,28);
-DYNX(W_,9528) = DYNX(W_,8473);
-DYNX(W_,9529) = DYNX(W_,8474);
-DYNX(W_,9530) = DYNX(W_,8475);
-DYNX(W_,9531) = DYNX(W_,8508);
-DYNX(W_,9692) = DYNX(W_,8508);
-DYNX(W_,9693) = DYNX(W_,8473);
-DYNX(W_,9694) = DYNX(W_,8474);
-DYNX(W_,9695) = DYNX(W_,8475);
-DYNX(W_,9699) = DYNX(W_,8508);
-DYNX(W_,9700) = DYNX(W_,8473);
-DYNX(W_,9701) = DYNX(W_,8474);
-DYNX(W_,9702) = DYNX(W_,8475);
-DYNX(W_,9751) = DYNX(W_,8473);
-DYNX(W_,9752) = DYNX(W_,8474);
-DYNX(W_,9753) = DYNX(W_,8475);
-DYNX(W_,9754) = DYNX(W_,8508);
-DYNX(Aux_,0) = DYNX(W_,9696);
-DYNX(Aux_,1) = DYNX(W_,9697);
-DYNX(Aux_,2) = DYNX(W_,9698);
+DYNX(Aux_,75) = DYNX(W_,9620);
+DYNX(Aux_,225) = DYNX(W_,9509);
+DYNX(Aux_,223) = DYNX(W_,9576);
+DYNX(Aux_,162) = DYNX(W_,8475);
+DYNX(Aux_,168) = DYNX(W_,9667);
+DYNX(Aux_,166) = DYNX(W_,9665);
+DYNX(Aux_,206) = DYNX(W_,9438);
+DYNX(Aux_,157) = DYNX(W_,9409);
+DYNX(Aux_,193) = DYNX(W_,9404);
+DYNX(Aux_,192) = DYNX(W_,9326);
+DYNX(Aux_,201) = DYNX(W_,9223);
+DYNX(Aux_,200) = DYNX(W_,9355);
+DYNX(Aux_,176) = DYNX(W_,9244);
+DYNX(Aux_,175) = DYNX(W_,9495);
+DYNX(Aux_,173) = DYNX(W_,9244);
+DYNX(Aux_,179) = DYNX(W_,9265);
+DYNX(Aux_,185) = DYNX(W_,9223);
+DYNX(Aux_,183) = DYNX(W_,9229);
+DYNX(Aux_,181) = DYNX(W_,9273);
+DYNX(Aux_,180) = DYNX(W_,9228);
+DYNX(Aux_,182) = DYNX(W_,9265);
+DYNX(Aux_,184) = DYNX(W_,9273);
+DYNX(Aux_,204) = DYNX(W_,9229);
+DYNX(Aux_,203) = DYNX(W_,9100);
+DYNX(Aux_,202) = DYNX(W_,9311);
+DYNX(Aux_,146) = DYNX(W_,9223);
+DYNX(Aux_,145) = DYNX(W_,9102);
+DYNX(Aux_,138) = DYNX(W_,9100);
+DYNX(Aux_,137) = DYNX(W_,9173);
+DYNX(Aux_,144) = DYNX(W_,9102);
+DYNX(Aux_,191) = DYNX(W_,9226);
+DYNX(Aux_,189) = DYNX(W_,9326);
+DYNX(Aux_,187) = DYNX(W_,9318);
+DYNX(Aux_,214) = DYNX(W_,9227);
+DYNX(Aux_,212) = DYNX(W_,9403);
+DYNX(Aux_,210) = DYNX(W_,9454);
+DYNX(Aux_,208) = DYNX(W_,9446);
+DYNX(Aux_,207) = DYNX(W_,9409);
+DYNX(Aux_,209) = DYNX(W_,9438);
+DYNX(Aux_,211) = DYNX(W_,9446);
+DYNX(Aux_,213) = DYNX(W_,9454);
+DYNX(Aux_,188) = DYNX(W_,9309);
+DYNX(Aux_,190) = DYNX(W_,9318);
+DYNX(Aux_,199) = DYNX(W_,9311);
+DYNX(Aux_,198) = DYNX(W_,9347);
+DYNX(Aux_,197) = DYNX(W_,9355);
+DYNX(Aux_,196) = DYNX(W_,9310);
+DYNX(Aux_,195) = DYNX(W_,9347);
+DYNX(Aux_,194) = DYNX(W_,9392);
+DYNX(Aux_,46) = DYNX(W_,9101);
+DYNX(Aux_,178) = DYNX(W_,9391);
+DYNX(Aux_,171) = DYNX(W_,9236);
+DYNX(Aux_,136) = DYNX(W_,9496);
+DYNX(Aux_,170) = DYNX(W_,8985);
+DYNX(Aux_,172) = DYNX(W_,9496);
+DYNX(Aux_,174) = DYNX(W_,9236);
+DYNX(Aux_,156) = DYNX(W_,9226);
+DYNX(Aux_,205) = DYNX(W_,9471);
+DYNX(W_,9188) = DYNX(Y_,28);
+DYNX(Aux_,160) = DYNX(W_,8475);
+DYNX(Aux_,158) = DYNX(W_,9506);
+DYNX(Aux_,219) = DYNX(W_,9511);
+DYNX(Aux_,215) = DYNX(W_,9575);
+DYNX(Aux_,221) = DYNX(W_,9620);
+DYNX(Aux_,164) = DYNX(W_,9575);
+DYNX(W_,8442) = DYNX(W_,8470);
+DYNX(W_,8443) = DYNX(W_,8471);
+DYNX(W_,8444) = DYNX(X_,10);
+DYNX(W_,8445) = DYNX(X_,13);
+DYNX(W_,8446) = DYNX(X_,9);
+DYNX(W_,8447) = DYNX(X_,12);
+DYNX(W_,8448) = DYNX(X_,14);
+DYNX(W_,8449) = DYNX(X_,11);
+DYNX(W_,8977) = DYNX(W_,8436);
+DYNX(W_,8978) = DYNX(W_,8437);
+DYNX(W_,8979) = DYNX(W_,8438);
+DYNX(W_,8986) = DYNX(W_,8436);
+DYNX(W_,8987) = DYNX(W_,8437);
+DYNX(W_,8988) = DYNX(W_,8438);
+DYNX(W_,9090) = DYNX(W_,8436);
+DYNX(W_,9091) = DYNX(W_,8437);
+DYNX(W_,9092) = DYNX(W_,8438);
+DYNX(W_,9093) = DYNX(W_,8471);
+DYNX(W_,9096) = DYNX(W_,8436);
+DYNX(W_,9097) = DYNX(W_,8437);
+DYNX(W_,9098) = DYNX(W_,8438);
+DYNX(W_,9099) = DYNX(W_,8471);
+DYNX(W_,9189) = DYNX(W_,8436);
+DYNX(W_,9190) = DYNX(W_,8437);
+DYNX(W_,9191) = DYNX(W_,8438);
+DYNX(W_,9192) = DYNX(W_,8471);
+DYNX(W_,9405) = DYNX(Y_,28);
+DYNX(W_,9493) = DYNX(Y_,29);
+DYNX(W_,9406) = DYNX(Y_,29);
+DYNX(W_,9494) = DYNX(Y_,30);
+DYNX(W_,9407) = DYNX(Y_,30);
+DYNX(W_,9408) = DYNX(Y_,28);
+DYNX(W_,9492) = DYNX(Y_,28);
+DYNX(W_,9497) = DYNX(W_,8436);
+DYNX(W_,9498) = DYNX(W_,8437);
+DYNX(W_,9499) = DYNX(W_,8438);
+DYNX(W_,9500) = DYNX(W_,8471);
+DYNX(W_,9661) = DYNX(W_,8471);
+DYNX(W_,9662) = DYNX(W_,8436);
+DYNX(W_,9663) = DYNX(W_,8437);
+DYNX(W_,9664) = DYNX(W_,8438);
+DYNX(W_,9668) = DYNX(W_,8471);
+DYNX(W_,9669) = DYNX(W_,8436);
+DYNX(W_,9670) = DYNX(W_,8437);
+DYNX(W_,9671) = DYNX(W_,8438);
+DYNX(W_,9720) = DYNX(W_,8436);
+DYNX(W_,9721) = DYNX(W_,8437);
+DYNX(W_,9722) = DYNX(W_,8438);
+DYNX(W_,9723) = DYNX(W_,8471);
+DYNX(Aux_,0) = DYNX(W_,9665);
+DYNX(Aux_,1) = DYNX(W_,9666);
+DYNX(Aux_,2) = DYNX(W_,9667);
DYNX(Aux_,3) = DYNX(X_,70);
-DYNX(Aux_,4) = DYNX(W_,9696);
-DYNX(Aux_,5) = DYNX(W_,9697);
-DYNX(Aux_,6) = DYNX(W_,9698);
+DYNX(Aux_,4) = DYNX(W_,9665);
+DYNX(Aux_,5) = DYNX(W_,9666);
+DYNX(Aux_,6) = DYNX(W_,9667);
DYNX(Aux_,7) = DYNX(X_,70);
-DYNX(Aux_,8) = DYNX(W_,9527);
-DYNX(Aux_,10) = DYNX(W_,9035);
-DYNX(Aux_,11) = DYNX(W_,9527);
-DYNX(Aux_,12) = DYNX(W_,9527);
-DYNX(DYNhelp,2210) = RealBmax( -DYNX(W_,9021), 0.0);
-DYNX(DYNhelp,2211) = RealBmax(DYNX(W_,9021), 0.0);
-DYNX(Aux_,241) = DYNX(DYNhelp,2210)+DYNX(DYNhelp,2211);
+DYNX(Aux_,8) = DYNX(W_,9496);
+DYNX(Aux_,10) = DYNX(W_,8998);
+DYNX(Aux_,11) = DYNX(W_,9496);
+DYNX(Aux_,12) = DYNX(W_,9496);
+DYNX(DYNhelp,2211) = RealBmax( -DYNX(W_,8984), 0.0);
+DYNX(DYNhelp,2212) = RealBmax(DYNX(W_,8984), 0.0);
+DYNX(Aux_,241) = DYNX(DYNhelp,2211)+DYNX(DYNhelp,2212);
DYNX(Aux_,242) = IF DYNX(Aux_,241) > 1.0000000000000001E-11 THEN 1.0 ELSE IF
DYNX(Aux_,241) > 0.0 THEN sqr(99999999999.99998*DYNX(Aux_,241))*(3.0-
199999999999.99997*DYNX(Aux_,241)) ELSE 0.0;
-DYNX(DYNhelp,2212) = 1.0-DYNX(Aux_,242);
-DYNX(DYNhelp,2213) = 1.0000000000000001E-11*DYNX(DYNhelp,2212);
-DYNX(DYNhelp,2214) = DYNX(Aux_,242)*DYNX(DYNhelp,2210)+DYNX(DYNhelp,2213);
-DYNX(DYNhelp,2215) = DYNX(Aux_,242)*DYNX(DYNhelp,2211)+DYNX(DYNhelp,2213);
-DYNX(DYNhelp,2216) = DYNX(DYNhelp,2214)+DYNX(DYNhelp,2215);
-DYNX(Aux_,13) = divGuarded(DYNX(DYNhelp,2214)*DYNX(W_,9527)+DYNX(DYNhelp,2215)*
- DYNX(W_,9035),"(stream_alpha15*max(DHW.port_b.m_flow, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15))*DHW.pump.port_b.h_outflow_inStream+(stream_alpha15*max(DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15))*DHW.pump.preSou.port_b.h_outflow",
- DYNX(DYNhelp,2216),"stream_alpha15*max(DHW.port_b.m_flow, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15)+stream_alpha15*max(DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15)");
-DYNX(Aux_,243) = DYNX(DYNhelp,2210)+DYNX(DYNhelp,2211);
+DYNX(DYNhelp,2213) = 1.0-DYNX(Aux_,242);
+DYNX(DYNhelp,2214) = 1.0000000000000001E-11*DYNX(DYNhelp,2213);
+DYNX(DYNhelp,2215) = DYNX(Aux_,242)*DYNX(DYNhelp,2211)+DYNX(DYNhelp,2214);
+DYNX(DYNhelp,2216) = DYNX(Aux_,242)*DYNX(DYNhelp,2212)+DYNX(DYNhelp,2214);
+DYNX(DYNhelp,2217) = DYNX(DYNhelp,2215)+DYNX(DYNhelp,2216);
+DYNX(Aux_,13) = divGuarded(DYNX(DYNhelp,2215)*DYNX(W_,9496)+DYNX(DYNhelp,2216)*
+ DYNX(W_,8998),"(stream_alpha15*max(DHW.port_b.m_flow, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15))*DHW.pump.port_b.h_outflow_inStream+(stream_alpha15*max(DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15))*DHW.pump.preSou.port_b.h_outflow",
+ DYNX(DYNhelp,2217),"stream_alpha15*max(DHW.port_b.m_flow, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15)+stream_alpha15*max(DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha15)");
+DYNX(Aux_,243) = DYNX(DYNhelp,2211)+DYNX(DYNhelp,2212);
DYNX(Aux_,244) = IF DYNX(Aux_,243) > 1.0000000000000001E-11 THEN 1.0 ELSE IF
DYNX(Aux_,243) > 0.0 THEN sqr(99999999999.99998*DYNX(Aux_,243))*(3.0-
199999999999.99997*DYNX(Aux_,243)) ELSE 0.0;
-DYNX(DYNhelp,2217) = 1.0-DYNX(Aux_,244);
-DYNX(DYNhelp,2218) = 1.0000000000000001E-11*DYNX(DYNhelp,2217);
-DYNX(DYNhelp,2219) = DYNX(Aux_,244)*DYNX(DYNhelp,2210)+DYNX(DYNhelp,2218);
-DYNX(DYNhelp,2220) = DYNX(Aux_,244)*DYNX(DYNhelp,2211)+DYNX(DYNhelp,2218);
-DYNX(DYNhelp,2221) = DYNX(DYNhelp,2219)+DYNX(DYNhelp,2220);
-DYNX(Aux_,14) = divGuarded(DYNX(DYNhelp,2219)*DYNX(W_,9527)+DYNX(DYNhelp,2220)*
- DYNX(W_,9035),"(stream_alpha17*max( -DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17))*DHW.pump.preSou.port_a.h_outflow+(stream_alpha17*max(DHW.pump.m_flow_actual, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17))*DHW.pump.senMasFlo.port_b.h_outflow",
- DYNX(DYNhelp,2221),"stream_alpha17*max( -DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17)+stream_alpha17*max(DHW.pump.m_flow_actual, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17)");
-DYNX(Aux_,15) = DYNX(W_,9526);
-DYNX(Aux_,16) = DYNX(W_,9137);
-DYNX(Aux_,17) = DYNX(W_,9137);
-DYNX(Aux_,18) = DYNX(W_,9204);
-DYNX(Aux_,23) = DYNX(W_,9202);
-DYNX(Aux_,25) = DYNX(W_,9202);
-DYNX(Aux_,27) = DYNX(W_,9204);
-DYNX(Aux_,30) = DYNX(W_,9203);
-DYNX(Aux_,31) = DYNX(W_,9139);
-DYNX(Aux_,32) = DYNX(W_,9139);
-DYNX(DYNhelp,2222) = RealBmax( -DYNX(W_,8336), 0.0);
-DYNX(Aux_,245) = DYNX(DYNhelp,2152)+DYNX(DYNhelp,2222);
+DYNX(DYNhelp,2218) = 1.0-DYNX(Aux_,244);
+DYNX(DYNhelp,2219) = 1.0000000000000001E-11*DYNX(DYNhelp,2218);
+DYNX(DYNhelp,2220) = DYNX(Aux_,244)*DYNX(DYNhelp,2211)+DYNX(DYNhelp,2219);
+DYNX(DYNhelp,2221) = DYNX(Aux_,244)*DYNX(DYNhelp,2212)+DYNX(DYNhelp,2219);
+DYNX(DYNhelp,2222) = DYNX(DYNhelp,2220)+DYNX(DYNhelp,2221);
+DYNX(Aux_,14) = divGuarded(DYNX(DYNhelp,2220)*DYNX(W_,9496)+DYNX(DYNhelp,2221)*
+ DYNX(W_,8998),"(stream_alpha17*max( -DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17))*DHW.pump.preSou.port_a.h_outflow+(stream_alpha17*max(DHW.pump.m_flow_actual, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17))*DHW.pump.senMasFlo.port_b.h_outflow",
+ DYNX(DYNhelp,2222),"stream_alpha17*max( -DHW.calcmFlow.m_flow_out, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17)+stream_alpha17*max(DHW.pump.m_flow_actual, 0.0)+1.0000000000000001E-11*(1.0-stream_alpha17)");
+DYNX(Aux_,15) = DYNX(W_,9495);
+DYNX(Aux_,16) = DYNX(W_,9100);
+DYNX(Aux_,17) = DYNX(W_,9100);
+DYNX(Aux_,18) = DYNX(W_,9173);
+DYNX(Aux_,23) = DYNX(W_,9171);
+DYNX(Aux_,25) = DYNX(W_,9171);
+DYNX(Aux_,27) = DYNX(W_,9173);
+DYNX(Aux_,30) = DYNX(W_,9172);
+DYNX(Aux_,31) = DYNX(W_,9102);
+DYNX(Aux_,32) = DYNX(W_,9102);
+DYNX(DYNhelp,2223) = RealBmax( -DYNX(W_,8296), 0.0);
+DYNX(Aux_,245) = DYNX(DYNhelp,2156)+DYNX(DYNhelp,2223);
DYNX(Aux_,246) = IF DYNX(Aux_,245) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,245) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,245))*(3.0-20000000000.0*DYNX(Aux_,245))
ELSE 0.0;
-DYNX(DYNhelp,2223) = 1.0-DYNX(Aux_,246);
-DYNX(DYNhelp,2224) = 1E-10*DYNX(DYNhelp,2223);
-DYNX(DYNhelp,2225) = DYNX(Aux_,246)*DYNX(DYNhelp,2152)+DYNX(DYNhelp,2224);
-DYNX(DYNhelp,2226) = DYNX(Aux_,246)*DYNX(DYNhelp,2222)+DYNX(DYNhelp,2224);
-DYNX(DYNhelp,2227) = DYNX(DYNhelp,2225)+DYNX(DYNhelp,2226);
-DYNX(Aux_,33) = divGuarded(DYNX(DYNhelp,2225)*DYNX(W_,9139)+DYNX(DYNhelp,2226)*
- DYNX(W_,9203),"(stream_alpha19*max( -hydraulic.generation.heatPump.port_a1.m_flow, 0.0)+1E-10*(1.0-stream_alpha19))*hydraulic.generation.heatPump.port_a1.h_outflow+(stream_alpha19*max(hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha19))*hydraulic.generation.pump.preSou.port_b.h_outflow",
- DYNX(DYNhelp,2227),"stream_alpha19*max( -hydraulic.generation.heatPump.port_a1.m_flow, 0.0)+1E-10*(1.0-stream_alpha19)+stream_alpha19*max(hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha19)");
-DYNX(Aux_,247) = DYNX(DYNhelp,2152)+DYNX(DYNhelp,2222);
+DYNX(DYNhelp,2224) = 1.0-DYNX(Aux_,246);
+DYNX(DYNhelp,2225) = 1E-10*DYNX(DYNhelp,2224);
+DYNX(DYNhelp,2226) = DYNX(Aux_,246)*DYNX(DYNhelp,2156)+DYNX(DYNhelp,2225);
+DYNX(DYNhelp,2227) = DYNX(Aux_,246)*DYNX(DYNhelp,2223)+DYNX(DYNhelp,2225);
+DYNX(DYNhelp,2228) = DYNX(DYNhelp,2226)+DYNX(DYNhelp,2227);
+DYNX(Aux_,33) = divGuarded(DYNX(DYNhelp,2226)*DYNX(W_,9102)+DYNX(DYNhelp,2227)*
+ DYNX(W_,9172),"(stream_alpha19*max( -hydraulic.generation.heatPump.port_a1.m_flow, 0.0)+1E-10*(1.0-stream_alpha19))*hydraulic.generation.heatPump.port_a1.h_outflow+(stream_alpha19*max(hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha19))*hydraulic.generation.pump.preSou.port_b.h_outflow",
+ DYNX(DYNhelp,2228),"stream_alpha19*max( -hydraulic.generation.heatPump.port_a1.m_flow, 0.0)+1E-10*(1.0-stream_alpha19)+stream_alpha19*max(hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha19)");
+DYNX(Aux_,247) = DYNX(DYNhelp,2156)+DYNX(DYNhelp,2223);
DYNX(Aux_,248) = IF DYNX(Aux_,247) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,247) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,247))*(3.0-20000000000.0*DYNX(Aux_,247))
ELSE 0.0;
-DYNX(DYNhelp,2228) = 1.0-DYNX(Aux_,248);
-DYNX(DYNhelp,2229) = 1E-10*DYNX(DYNhelp,2228);
-DYNX(DYNhelp,2230) = DYNX(Aux_,248)*DYNX(DYNhelp,2152)+DYNX(DYNhelp,2229);
-DYNX(DYNhelp,2231) = DYNX(Aux_,248)*DYNX(DYNhelp,2222)+DYNX(DYNhelp,2229);
-DYNX(DYNhelp,2232) = DYNX(DYNhelp,2230)+DYNX(DYNhelp,2231);
-DYNX(Aux_,34) = divGuarded(DYNX(DYNhelp,2230)*DYNX(W_,9139)+DYNX(DYNhelp,2231)*
- DYNX(W_,9203),"(stream_alpha21*max( -hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha21))*hydraulic.generation.pump.preSou.port_a.h_outflow+(stream_alpha21*max( -hydraulic.generation.pump.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha21))*hydraulic.generation.pump.senMasFlo.port_b.h_outflow",
- DYNX(DYNhelp,2232),"stream_alpha21*max( -hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha21)+stream_alpha21*max( -hydraulic.generation.pump.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha21)");
-DYNX(Aux_,249) = DYNX(DYNhelp,2164)+DYNX(DYNhelp,2152);
+DYNX(DYNhelp,2229) = 1.0-DYNX(Aux_,248);
+DYNX(DYNhelp,2230) = 1E-10*DYNX(DYNhelp,2229);
+DYNX(DYNhelp,2231) = DYNX(Aux_,248)*DYNX(DYNhelp,2156)+DYNX(DYNhelp,2230);
+DYNX(DYNhelp,2232) = DYNX(Aux_,248)*DYNX(DYNhelp,2223)+DYNX(DYNhelp,2230);
+DYNX(DYNhelp,2233) = DYNX(DYNhelp,2231)+DYNX(DYNhelp,2232);
+DYNX(Aux_,34) = divGuarded(DYNX(DYNhelp,2231)*DYNX(W_,9102)+DYNX(DYNhelp,2232)*
+ DYNX(W_,9172),"(stream_alpha21*max( -hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha21))*hydraulic.generation.pump.preSou.port_a.h_outflow+(stream_alpha21*max( -hydraulic.generation.pump.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha21))*hydraulic.generation.pump.senMasFlo.port_b.h_outflow",
+ DYNX(DYNhelp,2233),"stream_alpha21*max( -hydraulic.generation.pump.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha21)+stream_alpha21*max( -hydraulic.generation.pump.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha21)");
+DYNX(Aux_,249) = DYNX(DYNhelp,2168)+DYNX(DYNhelp,2156);
DYNX(Aux_,250) = IF DYNX(Aux_,249) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,249) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,249))*(3.0-20000000000.0*DYNX(Aux_,249))
ELSE 0.0;
-DYNX(DYNhelp,2233) = 1.0-DYNX(Aux_,250);
-DYNX(DYNhelp,2234) = 1E-10*DYNX(DYNhelp,2233);
-DYNX(DYNhelp,2235) = DYNX(Aux_,250)*DYNX(DYNhelp,2164)+DYNX(DYNhelp,2234);
-DYNX(DYNhelp,2236) = DYNX(Aux_,250)*DYNX(DYNhelp,2152)+DYNX(DYNhelp,2234);
-DYNX(DYNhelp,2237) = DYNX(DYNhelp,2235)+DYNX(DYNhelp,2236);
-DYNX(Aux_,35) = divGuarded(DYNX(DYNhelp,2235)*DYNX(W_,9255)+DYNX(DYNhelp,2236)*
- DYNX(W_,9203),"(stream_alpha23*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha23))*hydraulic.distribution.portGen_out[1].h_outflow+(stream_alpha23*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha23))*hydraulic.generation.pump.port_a.h_outflow",
- DYNX(DYNhelp,2237),"stream_alpha23*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha23)+stream_alpha23*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha23)");
-DYNX(Aux_,36) = DYNX(W_,9254);
-DYNX(Aux_,37) = DYNX(W_,9254);
-DYNX(Aux_,38) = DYNX(W_,9139);
-DYNX(Aux_,40) = DYNX(W_,9022);
-DYNX(Aux_,41) = DYNX(W_,9022);
-DYNX(Aux_,44) = DYNX(W_,9435);
-DYNX(Aux_,45) = DYNX(W_,9137);
-DYNX(Aux_,47) = DYNX(W_,9342);
-DYNX(Aux_,48) = DYNX(W_,9137);
-DYNX(Aux_,49) = DYNX(W_,9260);
-DYNX(Aux_,50) = DYNX(W_,9342);
-DYNX(Aux_,51) = DYNX(W_,9137);
-DYNX(Aux_,52) = DYNX(W_,9260);
-DYNX(Aux_,251) = DYNX(DYNhelp,2141)+DYNX(DYNhelp,1625);
+DYNX(DYNhelp,2234) = 1.0-DYNX(Aux_,250);
+DYNX(DYNhelp,2235) = 1E-10*DYNX(DYNhelp,2234);
+DYNX(DYNhelp,2236) = DYNX(Aux_,250)*DYNX(DYNhelp,2168)+DYNX(DYNhelp,2235);
+DYNX(DYNhelp,2237) = DYNX(Aux_,250)*DYNX(DYNhelp,2156)+DYNX(DYNhelp,2235);
+DYNX(DYNhelp,2238) = DYNX(DYNhelp,2236)+DYNX(DYNhelp,2237);
+DYNX(Aux_,35) = divGuarded(DYNX(DYNhelp,2236)*DYNX(W_,9224)+DYNX(DYNhelp,2237)*
+ DYNX(W_,9172),"(stream_alpha23*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha23))*hydraulic.distribution.portGen_out[1].h_outflow+(stream_alpha23*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha23))*hydraulic.generation.pump.port_a.h_outflow",
+ DYNX(DYNhelp,2238),"stream_alpha23*max(hydraulic.generation.portGen_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha23)+stream_alpha23*max( -hydraulic.generation.pump.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha23)");
+DYNX(Aux_,36) = DYNX(W_,9223);
+DYNX(Aux_,37) = DYNX(W_,9223);
+DYNX(Aux_,38) = DYNX(W_,9102);
+DYNX(Aux_,40) = DYNX(W_,8985);
+DYNX(Aux_,41) = DYNX(W_,8985);
+DYNX(Aux_,44) = DYNX(W_,9404);
+DYNX(Aux_,45) = DYNX(W_,9100);
+DYNX(Aux_,47) = DYNX(W_,9311);
+DYNX(Aux_,48) = DYNX(W_,9100);
+DYNX(Aux_,49) = DYNX(W_,9229);
+DYNX(Aux_,50) = DYNX(W_,9311);
+DYNX(Aux_,51) = DYNX(W_,9100);
+DYNX(Aux_,52) = DYNX(W_,9229);
+DYNX(Aux_,251) = DYNX(DYNhelp,2145)+DYNX(DYNhelp,1626);
DYNX(Aux_,252) = IF DYNX(Aux_,251) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,251) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,251))*(3.0-20000000000.0*DYNX(Aux_,251))
ELSE 0.0;
-DYNX(DYNhelp,2238) = 1.0-DYNX(Aux_,252);
-DYNX(DYNhelp,2239) = 1E-10*DYNX(DYNhelp,2238);
-DYNX(DYNhelp,2240) = DYNX(Aux_,252)*DYNX(DYNhelp,2141)+DYNX(DYNhelp,2239);
-DYNX(DYNhelp,2241) = DYNX(Aux_,252)*DYNX(DYNhelp,1625)+DYNX(DYNhelp,2239);
-DYNX(DYNhelp,2242) = DYNX(DYNhelp,2240)+DYNX(DYNhelp,2241);
-DYNX(Aux_,53) = divGuarded(DYNX(DYNhelp,2240)*DYNX(W_,9434)+DYNX(DYNhelp,2241)*
- DYNX(W_,9340),"(stream_alpha25*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha25))*hydraulic.transfer.portTra_out[1].h_outflow+(stream_alpha25*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha25))*hydraulic.distribution.stoBuf.port_a_consumer.h_outflow",
- DYNX(DYNhelp,2242),"stream_alpha25*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha25)+stream_alpha25*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha25)");
-DYNX(Aux_,54) = DYNX(W_,9258);
-DYNX(Aux_,55) = DYNX(W_,9502);
-DYNX(Aux_,56) = DYNX(W_,9257);
-DYNX(Aux_,57) = DYNX(W_,9257);
-DYNX(Aux_,58) = DYNX(W_,9435);
-DYNX(Aux_,59) = DYNX(W_,9440);
-DYNX(Aux_,60) = DYNX(W_,9440);
-DYNX(Aux_,253) = DYNX(DYNhelp,1625)+DYNX(DYNhelp,2141);
+DYNX(DYNhelp,2239) = 1.0-DYNX(Aux_,252);
+DYNX(DYNhelp,2240) = 1E-10*DYNX(DYNhelp,2239);
+DYNX(DYNhelp,2241) = DYNX(Aux_,252)*DYNX(DYNhelp,2145)+DYNX(DYNhelp,2240);
+DYNX(DYNhelp,2242) = DYNX(Aux_,252)*DYNX(DYNhelp,1626)+DYNX(DYNhelp,2240);
+DYNX(DYNhelp,2243) = DYNX(DYNhelp,2241)+DYNX(DYNhelp,2242);
+DYNX(Aux_,53) = divGuarded(DYNX(DYNhelp,2241)*DYNX(W_,9403)+DYNX(DYNhelp,2242)*
+ DYNX(W_,9309),"(stream_alpha25*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha25))*hydraulic.transfer.portTra_out[1].h_outflow+(stream_alpha25*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha25))*hydraulic.distribution.stoBuf.port_a_consumer.h_outflow",
+ DYNX(DYNhelp,2243),"stream_alpha25*max(hydraulic.distribution.portBui_in[1].m_flow, 0.0)+1E-10*(1.0-stream_alpha25)+stream_alpha25*max( -hydraulic.distribution.stoBuf.port_a_consumer.m_flow, 0.0)+1E-10*(1.0-stream_alpha25)");
+DYNX(Aux_,54) = DYNX(W_,9227);
+DYNX(Aux_,55) = DYNX(W_,9471);
+DYNX(Aux_,56) = DYNX(W_,9226);
+DYNX(Aux_,57) = DYNX(W_,9226);
+DYNX(Aux_,58) = DYNX(W_,9404);
+DYNX(Aux_,59) = DYNX(W_,9409);
+DYNX(Aux_,60) = DYNX(W_,9409);
+DYNX(Aux_,253) = DYNX(DYNhelp,1626)+DYNX(DYNhelp,2145);
DYNX(Aux_,254) = IF DYNX(Aux_,253) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,253) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,253))*(3.0-20000000000.0*DYNX(Aux_,253))
ELSE 0.0;
-DYNX(DYNhelp,2243) = 1.0-DYNX(Aux_,254);
-DYNX(DYNhelp,2244) = 1E-10*DYNX(DYNhelp,2243);
-DYNX(DYNhelp,2245) = DYNX(Aux_,254)*DYNX(DYNhelp,1625)+DYNX(DYNhelp,2244);
-DYNX(DYNhelp,2246) = DYNX(Aux_,254)*DYNX(DYNhelp,2141)+DYNX(DYNhelp,2244);
-DYNX(DYNhelp,2247) = DYNX(DYNhelp,2245)+DYNX(DYNhelp,2246);
-DYNX(Aux_,61) = divGuarded(DYNX(DYNhelp,2245)*DYNX(W_,9440)+DYNX(DYNhelp,2246)*
- DYNX(W_,9435),"(stream_alpha27*max( -hydraulic.transfer.rad[1].port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha27))*hydraulic.transfer.rad[1].port_a.h_outflow+(stream_alpha27*max(hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha27))*hydraulic.transfer.pumFixMFlo[1].preSou.port_b.h_outflow",
- DYNX(DYNhelp,2247),"stream_alpha27*max( -hydraulic.transfer.rad[1].port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha27)+stream_alpha27*max(hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha27)");
-DYNX(Aux_,255) = DYNX(DYNhelp,1625)+DYNX(DYNhelp,2141);
+DYNX(DYNhelp,2244) = 1.0-DYNX(Aux_,254);
+DYNX(DYNhelp,2245) = 1E-10*DYNX(DYNhelp,2244);
+DYNX(DYNhelp,2246) = DYNX(Aux_,254)*DYNX(DYNhelp,1626)+DYNX(DYNhelp,2245);
+DYNX(DYNhelp,2247) = DYNX(Aux_,254)*DYNX(DYNhelp,2145)+DYNX(DYNhelp,2245);
+DYNX(DYNhelp,2248) = DYNX(DYNhelp,2246)+DYNX(DYNhelp,2247);
+DYNX(Aux_,61) = divGuarded(DYNX(DYNhelp,2246)*DYNX(W_,9409)+DYNX(DYNhelp,2247)*
+ DYNX(W_,9404),"(stream_alpha27*max( -hydraulic.transfer.rad[1].port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha27))*hydraulic.transfer.rad[1].port_a.h_outflow+(stream_alpha27*max(hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha27))*hydraulic.transfer.pumFixMFlo[1].preSou.port_b.h_outflow",
+ DYNX(DYNhelp,2248),"stream_alpha27*max( -hydraulic.transfer.rad[1].port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha27)+stream_alpha27*max(hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha27)");
+DYNX(Aux_,255) = DYNX(DYNhelp,1626)+DYNX(DYNhelp,2145);
DYNX(Aux_,256) = IF DYNX(Aux_,255) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,255) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,255))*(3.0-20000000000.0*DYNX(Aux_,255))
ELSE 0.0;
-DYNX(DYNhelp,2248) = 1.0-DYNX(Aux_,256);
-DYNX(DYNhelp,2249) = 1E-10*DYNX(DYNhelp,2248);
-DYNX(DYNhelp,2250) = DYNX(Aux_,256)*DYNX(DYNhelp,1625)+DYNX(DYNhelp,2249);
-DYNX(DYNhelp,2251) = DYNX(Aux_,256)*DYNX(DYNhelp,2141)+DYNX(DYNhelp,2249);
-DYNX(DYNhelp,2252) = DYNX(DYNhelp,2250)+DYNX(DYNhelp,2251);
-DYNX(Aux_,62) = divGuarded(DYNX(DYNhelp,2250)*DYNX(W_,9440)+DYNX(DYNhelp,2251)*
- DYNX(W_,9435),"(stream_alpha29*max( -hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha29))*hydraulic.transfer.pumFixMFlo[1].preSou.port_a.h_outflow+(stream_alpha29*max(hydraulic.transfer.pumFixMFlo[1].m_flow_actual, 0.0)+1E-10*(1.0-stream_alpha29))*hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_b.h_outflow",
- DYNX(DYNhelp,2252),"stream_alpha29*max( -hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha29)+stream_alpha29*max(hydraulic.transfer.pumFixMFlo[1].m_flow_actual, 0.0)+1E-10*(1.0-stream_alpha29)");
-DYNX(Aux_,63) = DYNX(W_,9573);
-DYNX(Aux_,65) = DYNX(W_,9574);
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(54);
+DYNX(DYNhelp,2249) = 1.0-DYNX(Aux_,256);
+DYNX(DYNhelp,2250) = 1E-10*DYNX(DYNhelp,2249);
+DYNX(DYNhelp,2251) = DYNX(Aux_,256)*DYNX(DYNhelp,1626)+DYNX(DYNhelp,2250);
+DYNX(DYNhelp,2252) = DYNX(Aux_,256)*DYNX(DYNhelp,2145)+DYNX(DYNhelp,2250);
+DYNX(DYNhelp,2253) = DYNX(DYNhelp,2251)+DYNX(DYNhelp,2252);
+DYNX(Aux_,62) = divGuarded(DYNX(DYNhelp,2251)*DYNX(W_,9409)+DYNX(DYNhelp,2252)*
+ DYNX(W_,9404),"(stream_alpha29*max( -hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha29))*hydraulic.transfer.pumFixMFlo[1].preSou.port_a.h_outflow+(stream_alpha29*max(hydraulic.transfer.pumFixMFlo[1].m_flow_actual, 0.0)+1E-10*(1.0-stream_alpha29))*hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_b.h_outflow",
+ DYNX(DYNhelp,2253),"stream_alpha29*max( -hydraulic.transfer.gain[1].y, 0.0)+1E-10*(1.0-stream_alpha29)+stream_alpha29*max(hydraulic.transfer.pumFixMFlo[1].m_flow_actual, 0.0)+1E-10*(1.0-stream_alpha29)");
+DYNX(Aux_,63) = DYNX(W_,9542);
+DYNX(Aux_,65) = DYNX(W_,9543);
DYNX(Aux_,66) = DYNX(X_,66);
-DYNX(Aux_,67) = DYNX(W_,9574);
+DYNX(Aux_,67) = DYNX(W_,9543);
DYNX(Aux_,68) = DYNX(X_,66);
-DYNX(Aux_,69) = DYNX(W_,9573);
-DYNX(Aux_,71) = DYNX(W_,9606);
+DYNX(Aux_,69) = DYNX(W_,9542);
+DYNX(Aux_,71) = DYNX(W_,9575);
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(54);
DYNX(Aux_,72) = DYNX(X_,76);
-DYNX(Aux_,73) = DYNX(W_,9651);
+DYNX(Aux_,73) = DYNX(W_,9620);
DYNX(Aux_,74) = DYNX(X_,74);
-DYNX(Aux_,77) = DYNX(W_,9606);
+DYNX(Aux_,77) = DYNX(W_,9575);
DYNX(Aux_,78) = DYNX(X_,76);
-DYNX(Aux_,79) = DYNX(W_,8512);
+DYNX(Aux_,79) = DYNX(W_,8475);
DYNX(Aux_,80) = DYNX(X_,0);
-DYNX(Aux_,81) = DYNX(W_,9537);
-DYNX(Aux_,83) = DYNX(W_,9574);
+DYNX(Aux_,81) = DYNX(W_,9506);
+DYNX(Aux_,83) = DYNX(W_,9543);
DYNX(Aux_,84) = DYNX(X_,66);
-DYNX(Aux_,85) = DYNX(W_,8512);
+DYNX(Aux_,85) = DYNX(W_,8475);
DYNX(Aux_,86) = DYNX(X_,0);
-DYNX(Aux_,87) = DYNX(W_,8512);
+DYNX(Aux_,87) = DYNX(W_,8475);
DYNX(Aux_,88) = DYNX(X_,0);
-DYNX(DYNhelp,2253) = RealBmax( -DYNX(W_,8510), 0.0);
-DYNX(DYNhelp,2254) = RealBmax(DYNX(W_,8510), 0.0);
-DYNX(Aux_,257) = DYNX(DYNhelp,2253)+DYNX(DYNhelp,2254);
+DYNX(DYNhelp,2254) = RealBmax( -DYNX(W_,8473), 0.0);
+DYNX(DYNhelp,2255) = RealBmax(DYNX(W_,8473), 0.0);
+DYNX(Aux_,257) = DYNX(DYNhelp,2254)+DYNX(DYNhelp,2255);
DYNX(Aux_,258) = IF DYNX(Aux_,257) > 1.088888888888889E-11 THEN 1.0 ELSE IF
DYNX(Aux_,257) > 0.0 THEN sqr(91836734693.87753*DYNX(Aux_,257))*(3.0-
183673469387.75507*DYNX(Aux_,257)) ELSE 0.0;
-DYNX(DYNhelp,2255) = 1.0-DYNX(Aux_,258);
-DYNX(DYNhelp,2256) = 1.088888888888889E-11*DYNX(DYNhelp,2255);
-DYNX(DYNhelp,2257) = DYNX(Aux_,258)*DYNX(DYNhelp,2253)+DYNX(DYNhelp,2256);
-DYNX(DYNhelp,2258) = DYNX(Aux_,258)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2256);
-DYNX(DYNhelp,2259) = DYNX(DYNhelp,2257)+DYNX(DYNhelp,2258);
-DYNX(Aux_,89) = divGuarded(DYNX(DYNhelp,2257)*DYNX(W_,8512)+DYNX(DYNhelp,2258)*
- DYNX(W_,9574),"(stream_alpha31*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31))*ventilation.generation.fanFlow.port_b.h_outflow_inStream+(stream_alpha31*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31))*ventilation.generation.fanFlow.preSou.port_b.h_outflow",
- DYNX(DYNhelp,2259),"stream_alpha31*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31)+stream_alpha31*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31)");
-DYNX(Aux_,259) = DYNX(DYNhelp,2253)+DYNX(DYNhelp,2254);
+DYNX(DYNhelp,2256) = 1.0-DYNX(Aux_,258);
+DYNX(DYNhelp,2257) = 1.088888888888889E-11*DYNX(DYNhelp,2256);
+DYNX(DYNhelp,2258) = DYNX(Aux_,258)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2257);
+DYNX(DYNhelp,2259) = DYNX(Aux_,258)*DYNX(DYNhelp,2255)+DYNX(DYNhelp,2257);
+DYNX(DYNhelp,2260) = DYNX(DYNhelp,2258)+DYNX(DYNhelp,2259);
+DYNX(Aux_,89) = divGuarded(DYNX(DYNhelp,2258)*DYNX(W_,8475)+DYNX(DYNhelp,2259)*
+ DYNX(W_,9543),"(stream_alpha31*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31))*ventilation.generation.fanFlow.port_b.h_outflow_inStream+(stream_alpha31*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31))*ventilation.generation.fanFlow.preSou.port_b.h_outflow",
+ DYNX(DYNhelp,2260),"stream_alpha31*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31)+stream_alpha31*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha31)");
+DYNX(Aux_,259) = DYNX(DYNhelp,2254)+DYNX(DYNhelp,2255);
DYNX(Aux_,260) = IF DYNX(Aux_,259) > 1.088888888888889E-11 THEN 1.0 ELSE IF
DYNX(Aux_,259) > 0.0 THEN sqr(91836734693.87753*DYNX(Aux_,259))*(3.0-
183673469387.75507*DYNX(Aux_,259)) ELSE 0.0;
-DYNX(DYNhelp,2260) = 1.0-DYNX(Aux_,260);
-DYNX(DYNhelp,2261) = 1.088888888888889E-11*DYNX(DYNhelp,2260);
-DYNX(DYNhelp,2262) = DYNX(Aux_,260)*DYNX(DYNhelp,2253)+DYNX(DYNhelp,2261);
-DYNX(DYNhelp,2263) = DYNX(Aux_,260)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2261);
-DYNX(DYNhelp,2264) = DYNX(DYNhelp,2262)+DYNX(DYNhelp,2263);
-DYNX(Aux_,90) = divGuarded(DYNX(DYNhelp,2262)*DYNX(X_,0)+DYNX(DYNhelp,2263)*
+DYNX(DYNhelp,2261) = 1.0-DYNX(Aux_,260);
+DYNX(DYNhelp,2262) = 1.088888888888889E-11*DYNX(DYNhelp,2261);
+DYNX(DYNhelp,2263) = DYNX(Aux_,260)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2262);
+DYNX(DYNhelp,2264) = DYNX(Aux_,260)*DYNX(DYNhelp,2255)+DYNX(DYNhelp,2262);
+DYNX(DYNhelp,2265) = DYNX(DYNhelp,2263)+DYNX(DYNhelp,2264);
+DYNX(Aux_,90) = divGuarded(DYNX(DYNhelp,2263)*DYNX(X_,0)+DYNX(DYNhelp,2264)*
DYNX(X_,66),"(stream_alpha33*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha33))*building.thermalZone[1].ports[1].Xi_outflow[1]+(stream_alpha33*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha33))*ventilation.generation.hex.port_a1.Xi_outflow[1]",
- DYNX(DYNhelp,2264),"stream_alpha33*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha33)+stream_alpha33*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha33)");
-DYNX(Aux_,261) = DYNX(DYNhelp,2253)+DYNX(DYNhelp,2254);
+ DYNX(DYNhelp,2265),"stream_alpha33*max(ventilation.generation.fanFlow.port_b.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha33)+stream_alpha33*max(ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha33)");
+DYNX(Aux_,261) = DYNX(DYNhelp,2254)+DYNX(DYNhelp,2255);
DYNX(Aux_,262) = IF DYNX(Aux_,261) > 1.088888888888889E-11 THEN 1.0 ELSE IF
DYNX(Aux_,261) > 0.0 THEN sqr(91836734693.87753*DYNX(Aux_,261))*(3.0-
183673469387.75507*DYNX(Aux_,261)) ELSE 0.0;
-DYNX(DYNhelp,2265) = 1.0-DYNX(Aux_,262);
-DYNX(DYNhelp,2266) = 1.088888888888889E-11*DYNX(DYNhelp,2265);
-DYNX(DYNhelp,2267) = DYNX(Aux_,262)*DYNX(DYNhelp,2253)+DYNX(DYNhelp,2266);
-DYNX(DYNhelp,2268) = DYNX(Aux_,262)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2266);
-DYNX(DYNhelp,2269) = DYNX(DYNhelp,2267)+DYNX(DYNhelp,2268);
-DYNX(Aux_,91) = divGuarded(DYNX(DYNhelp,2267)*DYNX(W_,8512)+DYNX(DYNhelp,2268)*
- DYNX(W_,9574),"(stream_alpha35*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35))*ventilation.generation.fanFlow.preSou.port_a.h_outflow+(stream_alpha35*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35))*ventilation.generation.fanFlow.senMasFlo.port_b.h_outflow",
- DYNX(DYNhelp,2269),"stream_alpha35*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35)+stream_alpha35*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35)");
-DYNX(Aux_,263) = DYNX(DYNhelp,2253)+DYNX(DYNhelp,2254);
+DYNX(DYNhelp,2266) = 1.0-DYNX(Aux_,262);
+DYNX(DYNhelp,2267) = 1.088888888888889E-11*DYNX(DYNhelp,2266);
+DYNX(DYNhelp,2268) = DYNX(Aux_,262)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2267);
+DYNX(DYNhelp,2269) = DYNX(Aux_,262)*DYNX(DYNhelp,2255)+DYNX(DYNhelp,2267);
+DYNX(DYNhelp,2270) = DYNX(DYNhelp,2268)+DYNX(DYNhelp,2269);
+DYNX(Aux_,91) = divGuarded(DYNX(DYNhelp,2268)*DYNX(W_,8475)+DYNX(DYNhelp,2269)*
+ DYNX(W_,9543),"(stream_alpha35*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35))*ventilation.generation.fanFlow.preSou.port_a.h_outflow+(stream_alpha35*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35))*ventilation.generation.fanFlow.senMasFlo.port_b.h_outflow",
+ DYNX(DYNhelp,2270),"stream_alpha35*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35)+stream_alpha35*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha35)");
+DYNX(Aux_,263) = DYNX(DYNhelp,2254)+DYNX(DYNhelp,2255);
DYNX(Aux_,264) = IF DYNX(Aux_,263) > 1.088888888888889E-11 THEN 1.0 ELSE IF
DYNX(Aux_,263) > 0.0 THEN sqr(91836734693.87753*DYNX(Aux_,263))*(3.0-
183673469387.75507*DYNX(Aux_,263)) ELSE 0.0;
-DYNX(DYNhelp,2270) = 1.0-DYNX(Aux_,264);
-DYNX(DYNhelp,2271) = 1.088888888888889E-11*DYNX(DYNhelp,2270);
-DYNX(DYNhelp,2272) = DYNX(Aux_,264)*DYNX(DYNhelp,2253)+DYNX(DYNhelp,2271);
-DYNX(DYNhelp,2273) = DYNX(Aux_,264)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2271);
-DYNX(DYNhelp,2274) = DYNX(DYNhelp,2272)+DYNX(DYNhelp,2273);
-DYNX(Aux_,92) = divGuarded(DYNX(DYNhelp,2272)*DYNX(X_,0)+DYNX(DYNhelp,2273)*
+DYNX(DYNhelp,2271) = 1.0-DYNX(Aux_,264);
+DYNX(DYNhelp,2272) = 1.088888888888889E-11*DYNX(DYNhelp,2271);
+DYNX(DYNhelp,2273) = DYNX(Aux_,264)*DYNX(DYNhelp,2254)+DYNX(DYNhelp,2272);
+DYNX(DYNhelp,2274) = DYNX(Aux_,264)*DYNX(DYNhelp,2255)+DYNX(DYNhelp,2272);
+DYNX(DYNhelp,2275) = DYNX(DYNhelp,2273)+DYNX(DYNhelp,2274);
+DYNX(Aux_,92) = divGuarded(DYNX(DYNhelp,2273)*DYNX(X_,0)+DYNX(DYNhelp,2274)*
DYNX(X_,66),"(stream_alpha37*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha37))*building.thermalZone[1].ports[1].Xi_outflow[1]+(stream_alpha37*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha37))*ventilation.generation.hex.port_a1.Xi_outflow[1]",
- DYNX(DYNhelp,2274),"stream_alpha37*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha37)+stream_alpha37*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha37)");
-DYNX(Aux_,93) = DYNX(W_,8512);
+ DYNX(DYNhelp,2275),"stream_alpha37*max( -ventilation.generation.fanFlow.preSou.port_a.m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha37)+stream_alpha37*max( -ventilation.generation.fanFlow.vol.ports[2].m_flow, 0.0)+1.088888888888889E-11*(1.0-stream_alpha37)");
+DYNX(Aux_,93) = DYNX(W_,8475);
DYNX(Aux_,94) = DYNX(X_,0);
-DYNX(Aux_,95) = DYNX(W_,8512);
+DYNX(Aux_,95) = DYNX(W_,8475);
DYNX(Aux_,96) = DYNX(X_,0);
-DYNX(Aux_,97) = DYNX(W_,9698);
+DYNX(Aux_,97) = DYNX(W_,9667);
DYNX(Aux_,98) = DYNX(X_,70);
-DYNX(Aux_,99) = DYNX(W_,9606);
+DYNX(Aux_,99) = DYNX(W_,9575);
DYNX(Aux_,100) = DYNX(X_,76);
-DYNX(Aux_,101) = DYNX(W_,9606);
+DYNX(Aux_,101) = DYNX(W_,9575);
DYNX(Aux_,102) = DYNX(X_,76);
-DYNX(DYNhelp,2275) = RealBmax( -DYNX(W_,9604), 0.0);
-DYNX(DYNhelp,2276) = RealBmax(DYNX(W_,9604), 0.0);
-DYNX(Aux_,265) = DYNX(DYNhelp,2275)+DYNX(DYNhelp,2276);
+DYNX(DYNhelp,2276) = RealBmax( -DYNX(W_,9573), 0.0);
+DYNX(DYNhelp,2277) = RealBmax(DYNX(W_,9573), 0.0);
+DYNX(Aux_,265) = DYNX(DYNhelp,2276)+DYNX(DYNhelp,2277);
DYNX(Aux_,266) = IF DYNX(Aux_,265) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,265) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,265))*(3.0-20000000000.0*DYNX(Aux_,265))
ELSE 0.0;
-DYNX(DYNhelp,2277) = 1.0-DYNX(Aux_,266);
-DYNX(DYNhelp,2278) = 1E-10*DYNX(DYNhelp,2277);
-DYNX(DYNhelp,2279) = DYNX(Aux_,266)*DYNX(DYNhelp,2275)+DYNX(DYNhelp,2278);
-DYNX(DYNhelp,2280) = DYNX(Aux_,266)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2278);
-DYNX(DYNhelp,2281) = DYNX(DYNhelp,2279)+DYNX(DYNhelp,2280);
-DYNX(Aux_,103) = divGuarded(DYNX(DYNhelp,2279)*DYNX(W_,9606)+DYNX(DYNhelp,2280)*
- DYNX(W_,9698),"(stream_alpha39*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha39))*ventilation.generation.TExhIn.port_a.h_outflow+(stream_alpha39*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha39))*ventilation.generation.fanRet.preSou.port_b.h_outflow",
- DYNX(DYNhelp,2281),"stream_alpha39*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha39)+stream_alpha39*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha39)");
-DYNX(Aux_,267) = DYNX(DYNhelp,2275)+DYNX(DYNhelp,2276);
+DYNX(DYNhelp,2278) = 1.0-DYNX(Aux_,266);
+DYNX(DYNhelp,2279) = 1E-10*DYNX(DYNhelp,2278);
+DYNX(DYNhelp,2280) = DYNX(Aux_,266)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2279);
+DYNX(DYNhelp,2281) = DYNX(Aux_,266)*DYNX(DYNhelp,2277)+DYNX(DYNhelp,2279);
+DYNX(DYNhelp,2282) = DYNX(DYNhelp,2280)+DYNX(DYNhelp,2281);
+DYNX(Aux_,103) = divGuarded(DYNX(DYNhelp,2280)*DYNX(W_,9575)+DYNX(DYNhelp,2281)*
+ DYNX(W_,9667),"(stream_alpha39*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha39))*ventilation.generation.TExhIn.port_a.h_outflow+(stream_alpha39*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha39))*ventilation.generation.fanRet.preSou.port_b.h_outflow",
+ DYNX(DYNhelp,2282),"stream_alpha39*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha39)+stream_alpha39*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha39)");
+DYNX(Aux_,267) = DYNX(DYNhelp,2276)+DYNX(DYNhelp,2277);
DYNX(Aux_,268) = IF DYNX(Aux_,267) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,267) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,267))*(3.0-20000000000.0*DYNX(Aux_,267))
ELSE 0.0;
-DYNX(DYNhelp,2282) = 1.0-DYNX(Aux_,268);
-DYNX(DYNhelp,2283) = 1E-10*DYNX(DYNhelp,2282);
-DYNX(DYNhelp,2284) = DYNX(Aux_,268)*DYNX(DYNhelp,2275)+DYNX(DYNhelp,2283);
-DYNX(DYNhelp,2285) = DYNX(Aux_,268)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2283);
-DYNX(DYNhelp,2286) = DYNX(DYNhelp,2284)+DYNX(DYNhelp,2285);
-DYNX(Aux_,104) = divGuarded(DYNX(DYNhelp,2284)*DYNX(X_,76)+DYNX(DYNhelp,2285)*
+DYNX(DYNhelp,2283) = 1.0-DYNX(Aux_,268);
+DYNX(DYNhelp,2284) = 1E-10*DYNX(DYNhelp,2283);
+DYNX(DYNhelp,2285) = DYNX(Aux_,268)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2284);
+DYNX(DYNhelp,2286) = DYNX(Aux_,268)*DYNX(DYNhelp,2277)+DYNX(DYNhelp,2284);
+DYNX(DYNhelp,2287) = DYNX(DYNhelp,2285)+DYNX(DYNhelp,2286);
+DYNX(Aux_,104) = divGuarded(DYNX(DYNhelp,2285)*DYNX(X_,76)+DYNX(DYNhelp,2286)*
DYNX(X_,70),"(stream_alpha41*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha41))*ventilation.generation.hex.port_b2.Xi_outflow[1]+(stream_alpha41*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha41))*ventilation.portVent_out[1].Xi_outflow[1]",
- DYNX(DYNhelp,2286),"stream_alpha41*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha41)+stream_alpha41*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha41)");
-DYNX(Aux_,269) = DYNX(DYNhelp,2275)+DYNX(DYNhelp,2276);
+ DYNX(DYNhelp,2287),"stream_alpha41*max(ventilation.generation.fanRet.port_b.m_flow, 0.0)+1E-10*(1.0-stream_alpha41)+stream_alpha41*max(ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha41)");
+DYNX(Aux_,269) = DYNX(DYNhelp,2276)+DYNX(DYNhelp,2277);
DYNX(Aux_,270) = IF DYNX(Aux_,269) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,269) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,269))*(3.0-20000000000.0*DYNX(Aux_,269))
ELSE 0.0;
-DYNX(DYNhelp,2287) = 1.0-DYNX(Aux_,270);
-DYNX(DYNhelp,2288) = 1E-10*DYNX(DYNhelp,2287);
-DYNX(DYNhelp,2289) = DYNX(Aux_,270)*DYNX(DYNhelp,2275)+DYNX(DYNhelp,2288);
-DYNX(DYNhelp,2290) = DYNX(Aux_,270)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2288);
-DYNX(DYNhelp,2291) = DYNX(DYNhelp,2289)+DYNX(DYNhelp,2290);
-DYNX(Aux_,105) = divGuarded(DYNX(DYNhelp,2289)*DYNX(W_,9606)+DYNX(DYNhelp,2290)*
- DYNX(W_,9698),"(stream_alpha43*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha43))*ventilation.generation.fanRet.preSou.port_a.h_outflow+(stream_alpha43*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha43))*ventilation.generation.fanRet.senMasFlo.port_b.h_outflow",
- DYNX(DYNhelp,2291),"stream_alpha43*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha43)+stream_alpha43*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha43)");
-DYNX(Aux_,271) = DYNX(DYNhelp,2275)+DYNX(DYNhelp,2276);
+DYNX(DYNhelp,2288) = 1.0-DYNX(Aux_,270);
+DYNX(DYNhelp,2289) = 1E-10*DYNX(DYNhelp,2288);
+DYNX(DYNhelp,2290) = DYNX(Aux_,270)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2289);
+DYNX(DYNhelp,2291) = DYNX(Aux_,270)*DYNX(DYNhelp,2277)+DYNX(DYNhelp,2289);
+DYNX(DYNhelp,2292) = DYNX(DYNhelp,2290)+DYNX(DYNhelp,2291);
+DYNX(Aux_,105) = divGuarded(DYNX(DYNhelp,2290)*DYNX(W_,9575)+DYNX(DYNhelp,2291)*
+ DYNX(W_,9667),"(stream_alpha43*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha43))*ventilation.generation.fanRet.preSou.port_a.h_outflow+(stream_alpha43*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha43))*ventilation.generation.fanRet.senMasFlo.port_b.h_outflow",
+ DYNX(DYNhelp,2292),"stream_alpha43*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha43)+stream_alpha43*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha43)");
+DYNX(Aux_,271) = DYNX(DYNhelp,2276)+DYNX(DYNhelp,2277);
DYNX(Aux_,272) = IF DYNX(Aux_,271) > 1E-10 THEN 1.0 ELSE IF DYNX(Aux_,271) > 0.0
THEN sqr(10000000000.0*DYNX(Aux_,271))*(3.0-20000000000.0*DYNX(Aux_,271))
ELSE 0.0;
-DYNX(DYNhelp,2292) = 1.0-DYNX(Aux_,272);
-DYNX(DYNhelp,2293) = 1E-10*DYNX(DYNhelp,2292);
-DYNX(DYNhelp,2294) = DYNX(Aux_,272)*DYNX(DYNhelp,2275)+DYNX(DYNhelp,2293);
-DYNX(DYNhelp,2295) = DYNX(Aux_,272)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2293);
-DYNX(DYNhelp,2296) = DYNX(DYNhelp,2294)+DYNX(DYNhelp,2295);
-DYNX(Aux_,106) = divGuarded(DYNX(DYNhelp,2294)*DYNX(X_,76)+DYNX(DYNhelp,2295)*
+DYNX(DYNhelp,2293) = 1.0-DYNX(Aux_,272);
+DYNX(DYNhelp,2294) = 1E-10*DYNX(DYNhelp,2293);
+DYNX(DYNhelp,2295) = DYNX(Aux_,272)*DYNX(DYNhelp,2276)+DYNX(DYNhelp,2294);
+DYNX(DYNhelp,2296) = DYNX(Aux_,272)*DYNX(DYNhelp,2277)+DYNX(DYNhelp,2294);
+DYNX(DYNhelp,2297) = DYNX(DYNhelp,2295)+DYNX(DYNhelp,2296);
+DYNX(Aux_,106) = divGuarded(DYNX(DYNhelp,2295)*DYNX(X_,76)+DYNX(DYNhelp,2296)*
DYNX(X_,70),"(stream_alpha45*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha45))*ventilation.generation.hex.port_b2.Xi_outflow[1]+(stream_alpha45*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha45))*ventilation.portVent_out[1].Xi_outflow[1]",
- DYNX(DYNhelp,2296),"stream_alpha45*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha45)+stream_alpha45*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha45)");
-DYNX(Aux_,107) = DYNX(W_,9606);
+ DYNX(DYNhelp,2297),"stream_alpha45*max( -ventilation.generation.fanRet.preSou.port_a.m_flow, 0.0)+1E-10*(1.0-stream_alpha45)+stream_alpha45*max( -ventilation.generation.fanRet.vol.ports[2].m_flow, 0.0)+1E-10*(1.0-stream_alpha45)");
+DYNX(Aux_,107) = DYNX(W_,9575);
DYNX(Aux_,108) = DYNX(X_,76);
-DYNX(Aux_,111) = DYNX(W_,9542);
+DYNX(Aux_,111) = DYNX(W_,9511);
DYNX(Aux_,112) = DYNX(X_,76);
-DYNX(Aux_,113) = DYNX(W_,9651);
+DYNX(Aux_,113) = DYNX(W_,9620);
DYNX(Aux_,114) = DYNX(X_,74);
-DYNX(Aux_,115) = DYNX(W_,9607);
-DYNX(Aux_,116) = DYNX(W_,9608);
-DYNX(Aux_,117) = DYNX(W_,9540);
+DYNX(Aux_,115) = DYNX(W_,9576);
+DYNX(Aux_,116) = DYNX(W_,9577);
+DYNX(Aux_,117) = DYNX(W_,9509);
DYNX(Aux_,118) = DYNX(X_,74);
-DYNX(Aux_,119) = DYNX(W_,8512);
+DYNX(Aux_,119) = DYNX(W_,8475);
DYNX(Aux_,120) = DYNX(X_,0);
-DYNX(Aux_,121) = DYNX(W_,8512);
+DYNX(Aux_,121) = DYNX(W_,8475);
DYNX(Aux_,122) = DYNX(X_,0);
-DYNX(Aux_,123) = DYNX(W_,9696);
-DYNX(Aux_,124) = DYNX(W_,9697);
-DYNX(Aux_,125) = DYNX(W_,8512);
+DYNX(Aux_,123) = DYNX(W_,9665);
+DYNX(Aux_,124) = DYNX(W_,9666);
+DYNX(Aux_,125) = DYNX(W_,8475);
DYNX(Aux_,126) = DYNX(X_,0);
-DYNX(Aux_,127) = DYNX(W_,8512);
+DYNX(Aux_,127) = DYNX(W_,8475);
DYNX(Aux_,128) = DYNX(X_,0);
-DYNX(Aux_,129) = DYNX(W_,9698);
+DYNX(Aux_,129) = DYNX(W_,9667);
DYNX(Aux_,130) = DYNX(X_,70);
-DYNX(Aux_,131) = DYNX(W_,9696);
-DYNX(Aux_,132) = DYNX(W_,9697);
-DYNX(Aux_,133) = DYNX(W_,9698);
+DYNX(Aux_,131) = DYNX(W_,9665);
+DYNX(Aux_,132) = DYNX(W_,9666);
+DYNX(Aux_,133) = DYNX(W_,9667);
DYNX(Aux_,134) = DYNX(X_,70);
-DYNX(Aux_,147) = DYNX(W_,9022);
-DYNX(Aux_,149) = DYNX(W_,9422);
-DYNX(Aux_,150) = DYNX(W_,9254);
-DYNX(Aux_,152) = DYNX(W_,9435);
-DYNX(Aux_,153) = DYNX(W_,9423);
-DYNX(Aux_,154) = DYNX(W_,9254);
-DYNX(Aux_,155) = DYNX(W_,9258);
-DYNX(W_,8376) = DYNX(W_,8379);
-DYNX(W_,8364) = DYNX(W_,8381);
-DYNX(W_,8301) = sampleNew2(DYNX(DP_,295), DYNX(W_,878), 2);
-DYNX(W_,8307) = DYNX(W_,8283);
-DYNX(W_,8349) = NOT DYNX(W_,8347);
-DYNX(W_,9182) = 273.15+divGuarded(DYNX(W_,9140)-2501014.5*DYNX(X_,22),
- "hydraulic.generation.heatPump.eva.vol.hOut_internal-2501014.5*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]",1006
- *(1-DYNX(X_,22))+1860*DYNX(X_,22),"1006*(1-hydraulic.generation.heatPump.port_a2.Xi_outflow[1])+1860*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]");
-DYNX(W_,9190) = DYNX(W_,3299)-DYNX(W_,9182);
-DYNX(W_,8360) = NOT PRE(DYNX(W_,8360), 65) AND Greater(DYNX(W_,9190),
- "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u", 0,"0", 146)
- OR PRE(DYNX(W_,8360), 65) AND GreaterEqual(DYNX(W_,9190),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u",
- -0.05,"-0.05", 147);
-DYNX(W_,8357) = DYNX(W_,8360);
-DYNX(W_,9191) = DYNX(W_,9182)-DYNX(W_,3300);
-DYNX(W_,8361) = NOT PRE(DYNX(W_,8361), 66) AND Greater(DYNX(W_,9191),
- "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u", 0,"0", 148)
- OR PRE(DYNX(W_,8361), 66) AND GreaterEqual(DYNX(W_,9191),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u",
- -0.05,"-0.05", 149);
-DYNX(W_,8358) = DYNX(W_,8361);
-DYNX(W_,9189) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValueNoDer2(\nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID, \n1, \nhydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u)")
- Modelica_Blocks_Tables_Internal_getTable1DValueNoDer2_M(DymStruc0_construct(
- (Integer)(DYNX(W_,3293))), 1, DYNX(W_,9182)));
-PopModelContext();
-DYNX(W_,9196) = 273.15+0.0002390057361376673*DYNX(W_,9204);
-DYNX(W_,9192) = DYNX(W_,9189)-DYNX(W_,9196);
-DYNX(W_,8362) = NOT PRE(DYNX(W_,8362), 67) AND Greater(DYNX(W_,9192),
- "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u", 0,"0", 150)
- OR PRE(DYNX(W_,8362), 67) AND GreaterEqual(DYNX(W_,9192),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u",
- DYNX(W_,3307),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow",
- 151);
-DYNX(W_,8359) = DYNX(W_,8362);
-DYNX(W_,8385) = PRE(DYNX(W_,8385), 68);
+DYNX(Aux_,147) = DYNX(W_,8985);
+DYNX(Aux_,149) = DYNX(W_,9391);
+DYNX(Aux_,150) = DYNX(W_,9223);
+DYNX(Aux_,152) = DYNX(W_,9404);
+DYNX(Aux_,153) = DYNX(W_,9392);
+DYNX(Aux_,154) = DYNX(W_,9223);
+DYNX(Aux_,155) = DYNX(W_,9227);
+DYNX(W_,8339) = DYNX(W_,8342);
+DYNX(W_,8327) = DYNX(W_,8344);
+DYNX(W_,8261) = sampleNew2(DYNX(DP_,295), DYNX(W_,878), 2);
+DYNX(W_,8267) = DYNX(W_,8243);
+DYNX(W_,8311) = NOT DYNX(W_,8309);
+DYNX(W_,8348) = PRE(DYNX(W_,8348), 70);
beginwhenBlock
- whenModelica(( DYNX(W_,8378) AND NOT PRE(DYNX(W_,8378), 59) ), 45)
- DYNX(W_,8385) = IF DYNX(W_,8379) THEN 0 ELSE 1;
+ whenModelica(( DYNX(W_,8341) AND NOT PRE(DYNX(W_,8341), 64) ), 45)
+ DYNX(W_,8348) = IF DYNX(W_,8342) THEN 0 ELSE 1;
endwhenModelica()
- whenModelica(( DYNX(W_,8380) AND NOT PRE(DYNX(W_,8380), 60) ), 46)
- DYNX(W_,8385) = 0;
+ whenModelica(( DYNX(W_,8343) AND NOT PRE(DYNX(W_,8343), 65) ), 46)
+ DYNX(W_,8348) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8379) AND DYNX(W_,8378), 47)
- DYNX(W_,8385) = 0;
+ whenModelica(DYNX(W_,8342) AND DYNX(W_,8341), 47)
+ DYNX(W_,8348) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8381) AND DYNX(W_,8380), 48)
- DYNX(W_,8385) = 0;
+ whenModelica(DYNX(W_,8344) AND DYNX(W_,8343), 48)
+ DYNX(W_,8348) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8382), 49)
- DYNX(W_,8385) = 0;
+ whenModelica(DYNX(W_,8345), 49)
+ DYNX(W_,8348) = 0;
endwhenModelica()
- whenModelica(DYNX(W_,8383), 50)
- DYNX(W_,8385) = 0;
+ whenModelica(DYNX(W_,8346), 50)
+ DYNX(W_,8348) = 0;
endwhenModelica()
endwhenBlock
-DYNX(W_,8389) = NOT DYNX(W_,8387);
-DYNX(W_,8393) = NOT PRE(DYNX(W_,8393), 69) AND Greater(DYNX(Y_,14),
- "hydraulic.generation.heatPump.P", DYNX(W_,3390),"hydraulic.generation.heatPump.eff.hys.uHigh",
- 152) OR PRE(DYNX(W_,8393), 69) AND GreaterEqual(DYNX(Y_,14),"hydraulic.generation.heatPump.P",
- DYNX(W_,3389),"hydraulic.generation.heatPump.eff.hys.uLow", 153);
-DYNX(DYNhelp,2297) = 0.621964713077499*DYNX(W_,8491);
-DYNX(DYNhelp,2298) = DYNX(W_,8487)-35.719;
-DYNX(DYNhelp,2299) = 17.2799-divGuarded(4102.99,"4102.99",DYNX(DYNhelp,2298),
+DYNX(W_,8352) = NOT DYNX(W_,8350);
+DYNX(W_,8356) = NOT PRE(DYNX(W_,8356), 71) AND Greater(DYNX(Y_,14),
+ "hydraulic.generation.heatPump.P", DYNX(W_,3360),"hydraulic.generation.heatPump.eff.hys.uHigh",
+ 155) OR PRE(DYNX(W_,8356), 71) AND GreaterEqual(DYNX(Y_,14),"hydraulic.generation.heatPump.P",
+ DYNX(W_,3359),"hydraulic.generation.heatPump.eff.hys.uLow", 156);
+DYNX(DYNhelp,2298) = 0.621964713077499*DYNX(W_,8454);
+DYNX(DYNhelp,2299) = DYNX(W_,8450)-35.719;
+DYNX(DYNhelp,2300) = 17.2799-divGuarded(4102.99,"4102.99",DYNX(DYNhelp,2299),
"weaDat.tWetBul_TDryBulXi.TDryBul-35.719");
-DYNX(DYNhelp,2300) = exp(DYNX(DYNhelp,2299));
-DYNX(DYNhelp,2301) = 611.657*DYNX(DYNhelp,2300);
-DYNX(DYNhelp,2302) = DYNX(DYNhelp,2297)+divGuarded(DYNX(W_,8192),
- "weaDat.tWetBul_TDryBulXi.p",DYNX(DYNhelp,2301),"smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TDryBul-35.719)))")
- -DYNX(W_,8491);
-DYNX(W_,9748) = divGuarded(DYNX(DYNhelp,2297),"0.621964713077499*weaDat.tWetBul_TDryBulXi.phi",
- DYNX(DYNhelp,2302),"0.621964713077499*weaDat.tWetBul_TDryBulXi.phi+weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TDryBul-35.719)))-weaDat.tWetBul_TDryBulXi.phi");
+DYNX(DYNhelp,2301) = exp(DYNX(DYNhelp,2300));
+DYNX(DYNhelp,2302) = 611.657*DYNX(DYNhelp,2301);
+DYNX(DYNhelp,2303) = DYNX(DYNhelp,2298)+divGuarded(DYNX(W_,8152),
+ "weaDat.tWetBul_TDryBulXi.p",DYNX(DYNhelp,2302),"smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TDryBul-35.719)))")
+ -DYNX(W_,8454);
+DYNX(W_,9717) = divGuarded(DYNX(DYNhelp,2298),"0.621964713077499*weaDat.tWetBul_TDryBulXi.phi",
+ DYNX(DYNhelp,2303),"0.621964713077499*weaDat.tWetBul_TDryBulXi.phi+weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TDryBul-35.719)))-weaDat.tWetBul_TDryBulXi.phi");
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[9] */
@@ -23268,116 +23290,116 @@ DYNX(W_,9748) = divGuarded(DYNX(DYNhelp,2297),"0.621964713077499*weaDat.tWetBul_
const char*const varnames_[]={"building.weaBus.TWetBul"};
const double nominal_[]={300.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 18, -2, 2,
- DYNX(DYNhelp,2303), 39, DYNX(did_->helpvari_vec,464), 23);
-NonLinearSystemSave(DYNX(W_,8487), 0);
-NonLinearSystemSave(DYNX(W_,9748), 1);
-SetInitVectorNH(x__, 1, DYNX(W_,8488), Remember_(DYNX(W_,8488), 56));
+ DYNX(DYNhelp,2304), 39, DYNX(did_->helpvari_vec,464), 23);
+NonLinearSystemSave(DYNX(W_,8450), 0);
+NonLinearSystemSave(DYNX(W_,9717), 1);
+SetInitVectorNH(x__, 1, DYNX(W_,8451), Remember_(DYNX(W_,8451), 56));
Residues;
- DYNX(DYNhelp,2342) = DYNX(W_,8488)-35.719;
- DYNX(DYNhelp,2343) = divGuarded(4102.99,"4102.99",DYNX(DYNhelp,2342),
+ DYNX(DYNhelp,2343) = DYNX(W_,8451)-35.719;
+ DYNX(DYNhelp,2344) = divGuarded(4102.99,"4102.99",DYNX(DYNhelp,2343),
"weaDat.tWetBul_TDryBulXi.TWetBul-35.719");
- DYNX(DYNhelp,2344) = exp(17.2799-DYNX(DYNhelp,2343));
- DYNX(DYNhelp,2345) = 611.657*DYNX(DYNhelp,2344);
- DYNX(DYNhelp,2346) = divGuarded(DYNX(W_,8192),"weaDat.tWetBul_TDryBulXi.p",
- DYNX(DYNhelp,2345),"smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))")
+ DYNX(DYNhelp,2345) = exp(17.2799-DYNX(DYNhelp,2344));
+ DYNX(DYNhelp,2346) = 611.657*DYNX(DYNhelp,2345);
+ DYNX(DYNhelp,2347) = divGuarded(DYNX(W_,8152),"weaDat.tWetBul_TDryBulXi.p",
+ DYNX(DYNhelp,2346),"smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))")
-0.378035286922501;
- DYNX(W_,9749) = divGuarded(0.621964713077499,"0.621964713077499",
- DYNX(DYNhelp,2346),"weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))-0.378035286922501");
- DYNX(DYNhelp,2347) = 1-DYNX(W_,9748);
- DYNX(DYNhelp,2348) = DYNX(DYNhelp,2347)*DYNX(W_,9749);
- DYNX(DYNhelp,2349) = 1-DYNX(W_,9749);
- DYNX(DYNhelp,2350) = divinvGuarded(DYNX(DYNhelp,2349),"1-weaDat.tWetBul_TDryBulXi.XiSat");
- DYNX(W_,9750) = DYNX(DYNhelp,2350)*DYNX(DYNhelp,2348);
-DYNX(DYNhelp,2351) = DYNX(W_,8488)-273.15;
-DYNX(DYNhelp,2352) = 1006*DYNX(DYNhelp,2347);
-DYNX(DYNhelp,2353) = DYNX(W_,9748)-DYNX(W_,9750);
-DYNX(DYNhelp,2354) = DYNX(DYNhelp,2352)+DYNX(W_,9750)*1860+4184*DYNX(DYNhelp,2353);
-SetVector(residue__, 1, DYNX(DYNhelp,2351)*DYNX(DYNhelp,2354)-((DYNX(W_,8487)-
- 273.15)*(DYNX(DYNhelp,2352)+DYNX(W_,9748)*1860)+2501014.5*DYNX(DYNhelp,2353)));
+ DYNX(W_,9718) = divGuarded(0.621964713077499,"0.621964713077499",
+ DYNX(DYNhelp,2347),"weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))-0.378035286922501");
+ DYNX(DYNhelp,2348) = 1-DYNX(W_,9717);
+ DYNX(DYNhelp,2349) = DYNX(DYNhelp,2348)*DYNX(W_,9718);
+ DYNX(DYNhelp,2350) = 1-DYNX(W_,9718);
+ DYNX(DYNhelp,2351) = divinvGuarded(DYNX(DYNhelp,2350),"1-weaDat.tWetBul_TDryBulXi.XiSat");
+ DYNX(W_,9719) = DYNX(DYNhelp,2351)*DYNX(DYNhelp,2349);
+DYNX(DYNhelp,2352) = DYNX(W_,8451)-273.15;
+DYNX(DYNhelp,2353) = 1006*DYNX(DYNhelp,2348);
+DYNX(DYNhelp,2354) = DYNX(W_,9717)-DYNX(W_,9719);
+DYNX(DYNhelp,2355) = DYNX(DYNhelp,2353)+DYNX(W_,9719)*1860+4184*DYNX(DYNhelp,2354);
+SetVector(residue__, 1, DYNX(DYNhelp,2352)*DYNX(DYNhelp,2355)-((DYNX(W_,8450)-
+ 273.15)*(DYNX(DYNhelp,2353)+DYNX(W_,9717)*1860)+2501014.5*DYNX(DYNhelp,2354)));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-DYNX(DYNhelp,2355) = (-1.0)*DYNX(DYNhelp,2348);
-DYNX(DYNhelp,2356) = sqr(DYNX(DYNhelp,2349));
-DYNX(DYNhelp,2357) = divGuarded(DYNX(DYNhelp,2355),"(-1.0)*((1-weaDat.tWetBul_TDryBulXi.XiDryBul)*weaDat.tWetBul_TDryBulXi.XiSat)",
- DYNX(DYNhelp,2356),"(1-weaDat.tWetBul_TDryBulXi.XiSat)^2");
-DYNX(DYNhelp,2358) = sqr(DYNX(DYNhelp,2342));
-DYNX(DYNhelp,2359) = DYNX(W_,8192)*divGuarded(2509622.55443*DYNX(DYNhelp,2344),
+DYNX(DYNhelp,2356) = (-1.0)*DYNX(DYNhelp,2349);
+DYNX(DYNhelp,2357) = sqr(DYNX(DYNhelp,2350));
+DYNX(DYNhelp,2358) = divGuarded(DYNX(DYNhelp,2356),"(-1.0)*((1-weaDat.tWetBul_TDryBulXi.XiDryBul)*weaDat.tWetBul_TDryBulXi.XiSat)",
+ DYNX(DYNhelp,2357),"(1-weaDat.tWetBul_TDryBulXi.XiSat)^2");
+DYNX(DYNhelp,2359) = sqr(DYNX(DYNhelp,2343));
+DYNX(DYNhelp,2360) = DYNX(W_,8152)*divGuarded(2509622.55443*DYNX(DYNhelp,2345),
"2509622.55443*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719))",
- DYNX(DYNhelp,2358),"(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)^2");
-DYNX(DYNhelp,2360) = sqr(DYNX(DYNhelp,2346));
-DYNX(DYNhelp,2361) = sqr(DYNX(DYNhelp,2345));
-SetMatrixLeading(Jacobian__, 1, 1, 1, DYNX(DYNhelp,2354)+(DYNX(DYNhelp,2350)*
- DYNX(DYNhelp,2347)-DYNX(DYNhelp,2357))*(2501014.5-2324.0*DYNX(DYNhelp,2351))*
- divGuarded(divGuarded(0.621964713077499*DYNX(DYNhelp,2359),"0.621964713077499*(weaDat.tWetBul_TDryBulXi.p*smooth(98, 2509622.55443*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719))/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)^2))",
- DYNX(DYNhelp,2360),"(weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))-0.378035286922501)^2"),
+ DYNX(DYNhelp,2359),"(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)^2");
+DYNX(DYNhelp,2361) = sqr(DYNX(DYNhelp,2347));
+DYNX(DYNhelp,2362) = sqr(DYNX(DYNhelp,2346));
+SetMatrixLeading(Jacobian__, 1, 1, 1, DYNX(DYNhelp,2355)+(DYNX(DYNhelp,2351)*
+ DYNX(DYNhelp,2348)-DYNX(DYNhelp,2358))*(2501014.5-2324.0*DYNX(DYNhelp,2352))*
+ divGuarded(divGuarded(0.621964713077499*DYNX(DYNhelp,2360),"0.621964713077499*(weaDat.tWetBul_TDryBulXi.p*smooth(98, 2509622.55443*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719))/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)^2))",
+ DYNX(DYNhelp,2361),"(weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))-0.378035286922501)^2"),
"0.621964713077499*(weaDat.tWetBul_TDryBulXi.p*smooth(98, 2509622.55443*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719))/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)^2))/(weaDat.tWetBul_TDryBulXi.p/smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))-0.378035286922501)^2",
- DYNX(DYNhelp,2361),"smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))^2"));
+ DYNX(DYNhelp,2362),"smooth(99, 611.657*exp(17.2799-4102.99/(weaDat.tWetBul_TDryBulXi.TWetBul-35.719)))^2"));
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 18,
"Tag: simulation.nonlinear[9]");
-DYNX(W_,8488) = GetVector(x__, 1);
+DYNX(W_,8451) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 18);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9729) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n26, \nweaDat.datRea.u)")
+DYNX(W_,9698) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n26, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 26, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 26, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8495) = RealBmax(0, DYNX(W_,9729));
-DYNX(W_,9714) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n11, \nweaDat.datRea.u)")
+DYNX(W_,8458) = RealBmax(0, DYNX(W_,9698));
+DYNX(W_,9683) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n11, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 11, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 11, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9733) = 0.017453292519943295*DYNX(W_,9714);
-DYNX(DYNhelp,2362) = RealBmax(0, DYNX(W_,9733));
-DYNX(W_,8496) = RealBmin(6.283185307179586, DYNX(DYNhelp,2362));
-DYNX(W_,9719) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n16, \nweaDat.datRea.u)")
+DYNX(W_,9702) = 0.017453292519943295*DYNX(W_,9683);
+DYNX(DYNhelp,2363) = RealBmax(0, DYNX(W_,9702));
+DYNX(W_,8459) = RealBmin(6.283185307179586, DYNX(DYNhelp,2363));
+DYNX(W_,9688) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n16, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 16, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 16, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,8498) = RealBmax(0, DYNX(W_,9719));
-DYNX(W_,9716) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n13, \nweaDat.datRea.u)")
+DYNX(W_,8461) = RealBmax(0, DYNX(W_,9688));
+DYNX(W_,9685) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n13, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 13, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 13, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9732) = 0.1*DYNX(W_,9716);
-DYNX(DYNhelp,2363) = RealBmax(0, DYNX(W_,9732));
-DYNX(W_,8500) = RealBmin(1, DYNX(DYNhelp,2363));
-DYNX(W_,8501) = 1.5707963267948966-DYNX(W_,8504);
-DYNX(W_,8524) = DYNX(X_,2)*DYNX(X_,0);
-DYNX(W_,8526) = 1.1843079200592153E-05*DYNX(W_,8511);
-DYNX(W_,8530) = 287.0512249529787*DYNX(W_,8528)+461.5233290850878*DYNX(X_,0);
-DYNX(W_,8531) = divinvGuarded(55.508435061791985*DYNX(X_,0)+34.52428788658843*
- DYNX(W_,8528),"55.508435061791985*building.thermalZone[1].ports[1].Xi_outflow[1]+34.52428788658843*building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]");
-DYNX(W_,8532) = DYNX(W_,8527)-273.15;
-DYNX(W_,8533) = 1E-05*DYNX(W_,8511);
-DYNX(W_,8553) = 0.10323798460868301*DYNX(W_,8544)+0.026136198635109624*
- DYNX(W_,8542)+0.6388848555249019*DYNX(W_,8547)+0.11587048061565267*
- DYNX(W_,8549)+0.11587048061565267*DYNX(W_,8551);
-DYNX(W_,8555) = 0.10323798460868301*DYNX(W_,8544)+0.026136198635109624*
- DYNX(W_,8542)+0.6388848555249019*DYNX(W_,8547)+0.11587048061565267*
- DYNX(W_,8549)+0.11587048061565267*DYNX(W_,8551);
-DYNX(W_,8557) = 0.10323798460868301*DYNX(W_,8544)+0.026136198635109624*
- DYNX(W_,8542)+0.6388848555249019*DYNX(W_,8547)+0.11587048061565267*
- DYNX(W_,8549)+0.11587048061565267*DYNX(W_,8551);
-DYNX(W_,8559) = 0.10323798460868301*DYNX(W_,8544)+0.026136198635109624*
- DYNX(W_,8542)+0.6388848555249019*DYNX(W_,8547)+0.11587048061565267*
- DYNX(W_,8549)+0.11587048061565267*DYNX(W_,8551);
-DYNX(W_,8626) = DYNX(W_,517)*DYNX(W_,8473);
-DYNX(W_,8622) = IF GreaterS(DYNX(W_,8626),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
- 1E+60,"1E+60", 85) THEN 1E+60 ELSE IF LessS(DYNX(W_,8626),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
- 1E-15,"1E-15", 86) THEN 1E-15 ELSE DYNX(W_,8626);
-
-DYNX(Aux_,336) = 5.6703744191844314E-08*DYNX(W_,513)*DYNX(W_,8622);
+DYNX(W_,9701) = 0.1*DYNX(W_,9685);
+DYNX(DYNhelp,2364) = RealBmax(0, DYNX(W_,9701));
+DYNX(W_,8463) = RealBmin(1, DYNX(DYNhelp,2364));
+DYNX(W_,8464) = 1.5707963267948966-DYNX(W_,8467);
+DYNX(W_,8487) = DYNX(X_,2)*DYNX(X_,0);
+DYNX(W_,8489) = 1.1843079200592153E-05*DYNX(W_,8474);
+DYNX(W_,8493) = 287.0512249529787*DYNX(W_,8491)+461.5233290850878*DYNX(X_,0);
+DYNX(W_,8494) = divinvGuarded(55.508435061791985*DYNX(X_,0)+34.52428788658843*
+ DYNX(W_,8491),"55.508435061791985*building.thermalZone[1].ports[1].Xi_outflow[1]+34.52428788658843*building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]");
+DYNX(W_,8495) = DYNX(W_,8490)-273.15;
+DYNX(W_,8496) = 1E-05*DYNX(W_,8474);
+DYNX(W_,8516) = 0.10323798460868301*DYNX(W_,8507)+0.026136198635109624*
+ DYNX(W_,8505)+0.6388848555249019*DYNX(W_,8510)+0.11587048061565267*
+ DYNX(W_,8512)+0.11587048061565267*DYNX(W_,8514);
+DYNX(W_,8518) = 0.10323798460868301*DYNX(W_,8507)+0.026136198635109624*
+ DYNX(W_,8505)+0.6388848555249019*DYNX(W_,8510)+0.11587048061565267*
+ DYNX(W_,8512)+0.11587048061565267*DYNX(W_,8514);
+DYNX(W_,8520) = 0.10323798460868301*DYNX(W_,8507)+0.026136198635109624*
+ DYNX(W_,8505)+0.6388848555249019*DYNX(W_,8510)+0.11587048061565267*
+ DYNX(W_,8512)+0.11587048061565267*DYNX(W_,8514);
+DYNX(W_,8522) = 0.10323798460868301*DYNX(W_,8507)+0.026136198635109624*
+ DYNX(W_,8505)+0.6388848555249019*DYNX(W_,8510)+0.11587048061565267*
+ DYNX(W_,8512)+0.11587048061565267*DYNX(W_,8514);
+DYNX(W_,8589) = DYNX(W_,517)*DYNX(W_,8436);
+DYNX(W_,8585) = IF GreaterS(DYNX(W_,8589),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
+ 1E+60,"1E+60", 93) THEN 1E+60 ELSE IF LessS(DYNX(W_,8589),"building.thermalZone[1].humanSenHeaDependent.limiter.u",
+ 1E-15,"1E-15", 94) THEN 1E-15 ELSE DYNX(W_,8589);
+
+DYNX(Aux_,337) = 5.6703744191844314E-08*DYNX(W_,513)*DYNX(W_,8585);
/* Linear system of equations to solve. */
-DYNX(Aux_,337) = RememberSimple_(DYNX(Aux_,337), 57);
-SolveScalarLinear(DYNX(Aux_,336),"Nonlin_58.", -DYNX(W_,8624),"building.thermalZone[1].humanSenHeaDependent.radConvertor.convPort.Q_flow",
- DYNX(Aux_,337),"Nonlin_57.");
+DYNX(Aux_,338) = RememberSimple_(DYNX(Aux_,338), 57);
+SolveScalarLinear(DYNX(Aux_,337),"Nonlin_58.", -DYNX(W_,8587),"building.thermalZone[1].humanSenHeaDependent.radConvertor.convPort.Q_flow",
+ DYNX(Aux_,338),"Nonlin_57.");
/* End of Equation Block */
{ /* Non-linear system of equations to solve. */
@@ -23385,46 +23407,46 @@ SolveScalarLinear(DYNX(Aux_,336),"Nonlin_58.", -DYNX(W_,8624),"building.thermal
const char*const varnames_[]={"building.thermalZone[1].humanSenHeaDependent.radiativeHeat.port.T"};
const double nominal_[]={300.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 19, -2, 2,
- DYNX(DYNhelp,2364), 39, DYNX(did_->helpvari_vec,487), 23);
-NonLinearSystemSave(DYNX(Aux_,337), 0);
-NonLinearSystemSave(DYNX(W_,8477), 1);
-SetInitVectorNH(x__, 1, DYNX(W_,8621), Remember_(DYNX(W_,8621), 58));
+ DYNX(DYNhelp,2365), 39, DYNX(did_->helpvari_vec,487), 23);
+NonLinearSystemSave(DYNX(Aux_,338), 0);
+NonLinearSystemSave(DYNX(W_,8440), 1);
+SetInitVectorNH(x__, 1, DYNX(W_,8584), Remember_(DYNX(W_,8584), 58));
Residues;
-SetVector(residue__, 1, RealBmax(DYNX(W_,8621), 1)*RealBmax(DYNX(W_,8621), 1)*
- RealBmax(DYNX(W_,8621), 1)*RealBmax(DYNX(W_,8621), 1)-RealBmax(DYNX(W_,8477), 1)
- *RealBmax(DYNX(W_,8477), 1)*RealBmax(DYNX(W_,8477), 1)*RealBmax(DYNX(W_,8477),
- 1)-DYNX(Aux_,337));
+SetVector(residue__, 1, RealBmax(DYNX(W_,8584), 1)*RealBmax(DYNX(W_,8584), 1)*
+ RealBmax(DYNX(W_,8584), 1)*RealBmax(DYNX(W_,8584), 1)-RealBmax(DYNX(W_,8440), 1)
+ *RealBmax(DYNX(W_,8440), 1)*RealBmax(DYNX(W_,8440), 1)*RealBmax(DYNX(W_,8440),
+ 1)-DYNX(Aux_,338));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-SetMatrixLeading(Jacobian__, 1, 1, 1, (((IF DYNX(W_,8621) > 1 THEN 1.0 ELSE 0)*
- RealBmax(DYNX(W_,8621), 1)+RealBmax(DYNX(W_,8621), 1)*(IF DYNX(W_,8621) > 1
- THEN 1.0 ELSE 0))*RealBmax(DYNX(W_,8621), 1)+RealBmax(DYNX(W_,8621), 1)*
- RealBmax(DYNX(W_,8621), 1)*(IF DYNX(W_,8621) > 1 THEN 1.0 ELSE 0))*RealBmax(
- DYNX(W_,8621), 1)+RealBmax(DYNX(W_,8621), 1)*RealBmax(DYNX(W_,8621), 1)*
- RealBmax(DYNX(W_,8621), 1)*(IF DYNX(W_,8621) > 1 THEN 1.0 ELSE 0));
+SetMatrixLeading(Jacobian__, 1, 1, 1, (((IF DYNX(W_,8584) > 1 THEN 1.0 ELSE 0)*
+ RealBmax(DYNX(W_,8584), 1)+RealBmax(DYNX(W_,8584), 1)*(IF DYNX(W_,8584) > 1
+ THEN 1.0 ELSE 0))*RealBmax(DYNX(W_,8584), 1)+RealBmax(DYNX(W_,8584), 1)*
+ RealBmax(DYNX(W_,8584), 1)*(IF DYNX(W_,8584) > 1 THEN 1.0 ELSE 0))*RealBmax(
+ DYNX(W_,8584), 1)+RealBmax(DYNX(W_,8584), 1)*RealBmax(DYNX(W_,8584), 1)*
+ RealBmax(DYNX(W_,8584), 1)*(IF DYNX(W_,8584) > 1 THEN 1.0 ELSE 0));
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 19,
"Tag: simulation.nonlinear[11]");
-DYNX(W_,8621) = GetVector(x__, 1);
+DYNX(W_,8584) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 19);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,8635) = DYNX(W_,545)*DYNX(W_,8474);
-DYNX(W_,8631) = IF GreaterS(DYNX(W_,8635),"building.thermalZone[1].machinesSenHea.limiter.u",
- 1E+60,"1E+60", 87) THEN 1E+60 ELSE IF LessS(DYNX(W_,8635),"building.thermalZone[1].machinesSenHea.limiter.u",
- 1E-15,"1E-15", 88) THEN 1E-15 ELSE DYNX(W_,8635);
+DYNX(W_,8598) = DYNX(W_,545)*DYNX(W_,8437);
+DYNX(W_,8594) = IF GreaterS(DYNX(W_,8598),"building.thermalZone[1].machinesSenHea.limiter.u",
+ 1E+60,"1E+60", 95) THEN 1E+60 ELSE IF LessS(DYNX(W_,8598),"building.thermalZone[1].machinesSenHea.limiter.u",
+ 1E-15,"1E-15", 96) THEN 1E-15 ELSE DYNX(W_,8598);
-DYNX(Aux_,338) = 5.6703744191844314E-08*DYNX(W_,541)*DYNX(W_,8631);
+DYNX(Aux_,339) = 5.6703744191844314E-08*DYNX(W_,541)*DYNX(W_,8594);
/* Linear system of equations to solve. */
-DYNX(Aux_,339) = RememberSimple_(DYNX(Aux_,339), 59);
-SolveScalarLinear(DYNX(Aux_,338),"Nonlin_61.", -DYNX(W_,8633),"building.thermalZone[1].machinesSenHea.radConvertor.convPort.Q_flow",
- DYNX(Aux_,339),"Nonlin_60.");
+DYNX(Aux_,340) = RememberSimple_(DYNX(Aux_,340), 59);
+SolveScalarLinear(DYNX(Aux_,339),"Nonlin_61.", -DYNX(W_,8596),"building.thermalZone[1].machinesSenHea.radConvertor.convPort.Q_flow",
+ DYNX(Aux_,340),"Nonlin_60.");
/* End of Equation Block */
{ /* Non-linear system of equations to solve. */
@@ -23432,46 +23454,46 @@ SolveScalarLinear(DYNX(Aux_,338),"Nonlin_61.", -DYNX(W_,8633),"building.thermal
const char*const varnames_[]={"building.thermalZone[1].machinesSenHea.radiativeHeat.port.T"};
const double nominal_[]={300.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 20, -2, 2,
- DYNX(DYNhelp,2403), 39, DYNX(did_->helpvari_vec,510), 23);
-NonLinearSystemSave(DYNX(Aux_,339), 0);
-NonLinearSystemSave(DYNX(W_,8477), 1);
-SetInitVectorNH(x__, 1, DYNX(W_,8630), Remember_(DYNX(W_,8630), 60));
+ DYNX(DYNhelp,2404), 39, DYNX(did_->helpvari_vec,510), 23);
+NonLinearSystemSave(DYNX(Aux_,340), 0);
+NonLinearSystemSave(DYNX(W_,8440), 1);
+SetInitVectorNH(x__, 1, DYNX(W_,8593), Remember_(DYNX(W_,8593), 60));
Residues;
-SetVector(residue__, 1, RealBmax(DYNX(W_,8630), 1)*RealBmax(DYNX(W_,8630), 1)*
- RealBmax(DYNX(W_,8630), 1)*RealBmax(DYNX(W_,8630), 1)-RealBmax(DYNX(W_,8477), 1)
- *RealBmax(DYNX(W_,8477), 1)*RealBmax(DYNX(W_,8477), 1)*RealBmax(DYNX(W_,8477),
- 1)-DYNX(Aux_,339));
+SetVector(residue__, 1, RealBmax(DYNX(W_,8593), 1)*RealBmax(DYNX(W_,8593), 1)*
+ RealBmax(DYNX(W_,8593), 1)*RealBmax(DYNX(W_,8593), 1)-RealBmax(DYNX(W_,8440), 1)
+ *RealBmax(DYNX(W_,8440), 1)*RealBmax(DYNX(W_,8440), 1)*RealBmax(DYNX(W_,8440),
+ 1)-DYNX(Aux_,340));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-SetMatrixLeading(Jacobian__, 1, 1, 1, (((IF DYNX(W_,8630) > 1 THEN 1.0 ELSE 0)*
- RealBmax(DYNX(W_,8630), 1)+RealBmax(DYNX(W_,8630), 1)*(IF DYNX(W_,8630) > 1
- THEN 1.0 ELSE 0))*RealBmax(DYNX(W_,8630), 1)+RealBmax(DYNX(W_,8630), 1)*
- RealBmax(DYNX(W_,8630), 1)*(IF DYNX(W_,8630) > 1 THEN 1.0 ELSE 0))*RealBmax(
- DYNX(W_,8630), 1)+RealBmax(DYNX(W_,8630), 1)*RealBmax(DYNX(W_,8630), 1)*
- RealBmax(DYNX(W_,8630), 1)*(IF DYNX(W_,8630) > 1 THEN 1.0 ELSE 0));
+SetMatrixLeading(Jacobian__, 1, 1, 1, (((IF DYNX(W_,8593) > 1 THEN 1.0 ELSE 0)*
+ RealBmax(DYNX(W_,8593), 1)+RealBmax(DYNX(W_,8593), 1)*(IF DYNX(W_,8593) > 1
+ THEN 1.0 ELSE 0))*RealBmax(DYNX(W_,8593), 1)+RealBmax(DYNX(W_,8593), 1)*
+ RealBmax(DYNX(W_,8593), 1)*(IF DYNX(W_,8593) > 1 THEN 1.0 ELSE 0))*RealBmax(
+ DYNX(W_,8593), 1)+RealBmax(DYNX(W_,8593), 1)*RealBmax(DYNX(W_,8593), 1)*
+ RealBmax(DYNX(W_,8593), 1)*(IF DYNX(W_,8593) > 1 THEN 1.0 ELSE 0));
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 20,
"Tag: simulation.nonlinear[13]");
-DYNX(W_,8630) = GetVector(x__, 1);
+DYNX(W_,8593) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 20);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,8641) = DYNX(W_,566)*DYNX(W_,8475);
-DYNX(W_,8637) = IF GreaterS(DYNX(W_,8641),"building.thermalZone[1].lights.limiter.u",
- 1E+60,"1E+60", 89) THEN 1E+60 ELSE IF LessS(DYNX(W_,8641),"building.thermalZone[1].lights.limiter.u",
- 1E-15,"1E-15", 90) THEN 1E-15 ELSE DYNX(W_,8641);
+DYNX(W_,8604) = DYNX(W_,566)*DYNX(W_,8438);
+DYNX(W_,8600) = IF GreaterS(DYNX(W_,8604),"building.thermalZone[1].lights.limiter.u",
+ 1E+60,"1E+60", 97) THEN 1E+60 ELSE IF LessS(DYNX(W_,8604),"building.thermalZone[1].lights.limiter.u",
+ 1E-15,"1E-15", 98) THEN 1E-15 ELSE DYNX(W_,8604);
-DYNX(Aux_,340) = 5.6703744191844314E-08*DYNX(W_,561)*DYNX(W_,8637);
+DYNX(Aux_,341) = 5.6703744191844314E-08*DYNX(W_,561)*DYNX(W_,8600);
/* Linear system of equations to solve. */
-DYNX(Aux_,341) = RememberSimple_(DYNX(Aux_,341), 61);
-SolveScalarLinear(DYNX(Aux_,340),"Nonlin_64.", -DYNX(W_,8639),"building.thermalZone[1].lights.radConvertor.convPort.Q_flow",
- DYNX(Aux_,341),"Nonlin_63.");
+DYNX(Aux_,342) = RememberSimple_(DYNX(Aux_,342), 61);
+SolveScalarLinear(DYNX(Aux_,341),"Nonlin_64.", -DYNX(W_,8602),"building.thermalZone[1].lights.radConvertor.convPort.Q_flow",
+ DYNX(Aux_,342),"Nonlin_63.");
/* End of Equation Block */
{ /* Non-linear system of equations to solve. */
@@ -23479,41 +23501,41 @@ SolveScalarLinear(DYNX(Aux_,340),"Nonlin_64.", -DYNX(W_,8639),"building.thermal
const char*const varnames_[]={"building.thermalZone[1].lights.radiativeHeat.port.T"};
const double nominal_[]={300.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 21, -2, 2,
- DYNX(DYNhelp,2442), 39, DYNX(did_->helpvari_vec,533), 23);
-NonLinearSystemSave(DYNX(Aux_,341), 0);
-NonLinearSystemSave(DYNX(W_,8477), 1);
-SetInitVectorNH(x__, 1, DYNX(W_,8636), Remember_(DYNX(W_,8636), 62));
+ DYNX(DYNhelp,2443), 39, DYNX(did_->helpvari_vec,533), 23);
+NonLinearSystemSave(DYNX(Aux_,342), 0);
+NonLinearSystemSave(DYNX(W_,8440), 1);
+SetInitVectorNH(x__, 1, DYNX(W_,8599), Remember_(DYNX(W_,8599), 62));
Residues;
-SetVector(residue__, 1, RealBmax(DYNX(W_,8636), 1)*RealBmax(DYNX(W_,8636), 1)*
- RealBmax(DYNX(W_,8636), 1)*RealBmax(DYNX(W_,8636), 1)-RealBmax(DYNX(W_,8477), 1)
- *RealBmax(DYNX(W_,8477), 1)*RealBmax(DYNX(W_,8477), 1)*RealBmax(DYNX(W_,8477),
- 1)-DYNX(Aux_,341));
+SetVector(residue__, 1, RealBmax(DYNX(W_,8599), 1)*RealBmax(DYNX(W_,8599), 1)*
+ RealBmax(DYNX(W_,8599), 1)*RealBmax(DYNX(W_,8599), 1)-RealBmax(DYNX(W_,8440), 1)
+ *RealBmax(DYNX(W_,8440), 1)*RealBmax(DYNX(W_,8440), 1)*RealBmax(DYNX(W_,8440),
+ 1)-DYNX(Aux_,342));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-SetMatrixLeading(Jacobian__, 1, 1, 1, (((IF DYNX(W_,8636) > 1 THEN 1.0 ELSE 0)*
- RealBmax(DYNX(W_,8636), 1)+RealBmax(DYNX(W_,8636), 1)*(IF DYNX(W_,8636) > 1
- THEN 1.0 ELSE 0))*RealBmax(DYNX(W_,8636), 1)+RealBmax(DYNX(W_,8636), 1)*
- RealBmax(DYNX(W_,8636), 1)*(IF DYNX(W_,8636) > 1 THEN 1.0 ELSE 0))*RealBmax(
- DYNX(W_,8636), 1)+RealBmax(DYNX(W_,8636), 1)*RealBmax(DYNX(W_,8636), 1)*
- RealBmax(DYNX(W_,8636), 1)*(IF DYNX(W_,8636) > 1 THEN 1.0 ELSE 0));
+SetMatrixLeading(Jacobian__, 1, 1, 1, (((IF DYNX(W_,8599) > 1 THEN 1.0 ELSE 0)*
+ RealBmax(DYNX(W_,8599), 1)+RealBmax(DYNX(W_,8599), 1)*(IF DYNX(W_,8599) > 1
+ THEN 1.0 ELSE 0))*RealBmax(DYNX(W_,8599), 1)+RealBmax(DYNX(W_,8599), 1)*
+ RealBmax(DYNX(W_,8599), 1)*(IF DYNX(W_,8599) > 1 THEN 1.0 ELSE 0))*RealBmax(
+ DYNX(W_,8599), 1)+RealBmax(DYNX(W_,8599), 1)*RealBmax(DYNX(W_,8599), 1)*
+ RealBmax(DYNX(W_,8599), 1)*(IF DYNX(W_,8599) > 1 THEN 1.0 ELSE 0));
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 21,
"Tag: simulation.nonlinear[15]");
-DYNX(W_,8636) = GetVector(x__, 1);
+DYNX(W_,8599) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 21);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,8715) = DYNX(W_,8487)+DYNX(W_,8716)*(1-DYNX(DP_,258));
-DYNX(W_,8944) = DYNX(W_,8948)-DYNX(DP_,293);
-DYNX(W_,8951) = DYNX(W_,8949)-DYNX(W_,8507);
-DYNX(W_,8996) = -(DYNX(W_,8624)+DYNX(W_,8623));
-DYNX(W_,9032) = DYNX(DP_,359)*DYNX(W_,9030)-DYNX(W_,9031);
-DYNX(W_,9033) = 4184.0*DYNX(W_,9032)*DYNX(W_,9026)*DYNX(W_,9029);
-DYNX(W_,9039) = 0.0010044335697769957*DYNX(W_,9021);
+DYNX(W_,8678) = DYNX(W_,8450)+DYNX(W_,8679)*(1-DYNX(DP_,258));
+DYNX(W_,8907) = DYNX(W_,8911)-DYNX(DP_,293);
+DYNX(W_,8914) = DYNX(W_,8912)-DYNX(W_,8470);
+DYNX(W_,8959) = -(DYNX(W_,8587)+DYNX(W_,8586));
+DYNX(W_,8995) = DYNX(DP_,359)*DYNX(W_,8993)-DYNX(W_,8994);
+DYNX(W_,8996) = 4184.0*DYNX(W_,8995)*DYNX(W_,8989)*DYNX(W_,8992);
+DYNX(W_,9002) = 0.0010044335697769957*DYNX(W_,8984);
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[16] */
/* Introducing 1 common subexpressions used in 0 expressions */
@@ -23522,187 +23544,184 @@ DYNX(W_,9039) = 0.0010044335697769957*DYNX(W_,9021);
const char*const varnames_[]={"DHW.pump.y_actual"};
const double nominal_[]={1.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 22, -2, 1,
- DYNX(DYNhelp,2481), 37, DYNX(did_->helpvari_vec,556), 23);
-NonLinearSystemSave(DYNX(W_,9039), 0);
-SetInitVectorNH(x__, 1, DYNX(W_,9036), Remember_(DYNX(W_,9036), 63));
+ DYNX(DYNhelp,2482), 37, DYNX(did_->helpvari_vec,556), 23);
+NonLinearSystemSave(DYNX(W_,9002), 0);
+SetInitVectorNH(x__, 1, DYNX(W_,8999), Remember_(DYNX(W_,8999), 63));
Residues;
-DYNX(DYNhelp,2518) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9039),
- DYNX(W_,9036), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
+DYNX(DYNhelp,2519) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9002),
+ DYNX(W_,8999), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
0.0002736215586633885, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,1356),
1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(DYNX(W_,1355)))));
PopAllMarks();
-SetVector(residue__, 1, 104.15845936708862*DYNX(W_,9039)+DYNX(W_,1270)-
- DYNX(DYNhelp,2518));
+SetVector(residue__, 1, 104.15845936708862*DYNX(W_,9002)+DYNX(W_,1270)-
+ DYNX(DYNhelp,2519));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, -(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2, \n0.0, \n1.0, \n{0.0, 0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersInternal(\nn = 0, \nV_flow = {0.0, 0.0, 0.0, 0.0}, \ndp = {0.0, 0.0, 0.0, 0.0}\n))")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9039),
- DYNX(W_,9036), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9002),
+ DYNX(W_,8999), RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
0.0002736215586633885, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,1356),
1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(DYNX(W_,1355))),
- 0.0, 1.0, RealTemporaryDense( DymArrays110, 1, 4), 0.0, 0.0, DymStruc6_construct(
- RealTemporaryDense( DymArrays110, 1, 4), RealTemporaryDense( DymArrays110, 1, 4),
+ 0.0, 1.0, RealTemporaryDense( DymArrays109, 1, 4), 0.0, 0.0, DymStruc6_construct(
+ RealTemporaryDense( DymArrays109, 1, 4), RealTemporaryDense( DymArrays109, 1, 4),
0))));
PopAllMarks();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 22,
"Tag: simulation.nonlinear[16]");
-DYNX(W_,9036) = GetVector(x__, 1);
+DYNX(W_,8999) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 22);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9048) = IF DYNX(W_,1270)*DYNX(W_,9039) > 1.5596428843813143E-06 THEN
- DYNX(W_,1270)*DYNX(W_,9039) ELSE IF DYNX(W_,1270)*DYNX(W_,9039) <
- -1.5596428843813143E-06 THEN 0 ELSE 0.5*DYNX(W_,1270)*DYNX(W_,9039)-
- 160293.1045969354*DYNX(W_,1270)*DYNX(W_,9039)*(sqr(641172.4183877415*
- DYNX(W_,1270)*DYNX(W_,9039))-3)*DYNX(W_,1270)*DYNX(W_,9039);
-DYNX(W_,9049) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nDHW.pump.eff.powEu, \nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.powEuDer, \n0.05)")
+DYNX(W_,9011) = IF DYNX(W_,1270)*DYNX(W_,9002) > 1.5596428843813143E-06 THEN
+ DYNX(W_,1270)*DYNX(W_,9002) ELSE IF DYNX(W_,1270)*DYNX(W_,9002) <
+ -1.5596428843813143E-06 THEN 0 ELSE 0.5*DYNX(W_,1270)*DYNX(W_,9002)-
+ 160293.1045969354*DYNX(W_,1270)*DYNX(W_,9002)*(sqr(641172.4183877415*
+ DYNX(W_,1270)*DYNX(W_,9002))-3)*DYNX(W_,1270)*DYNX(W_,9002);
+DYNX(W_,9012) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nDHW.pump.eff.powEu, \nDHW.pump.eff.V_flow, \nDHW.pump.eff.r_N, \nDHW.pump.eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
RealTemporaryDense( &DYNX(W_,1432), 1, 11), RealTemporaryDense( &DYNX(W_,1421),
- 1, 11)), DYNX(W_,9039), DYNX(W_,9036), RealTemporaryDense( &DYNX(W_,1443), 1,
+ 1, 11)), DYNX(W_,9002), DYNX(W_,8999), RealTemporaryDense( &DYNX(W_,1443), 1,
11), 0.05));
PopAllMarks();
-DYNX(W_,9041) = divGuarded(DYNX(W_,9048),"DHW.pump.eff.WFlo",IF DYNX(W_,9049)-
- 3.1192857687626286E-06 > 1.5596428843813143E-06 THEN DYNX(W_,9049) ELSE IF
- DYNX(W_,9049)-3.1192857687626286E-06 < -1.5596428843813143E-06 THEN
+DYNX(W_,9004) = divGuarded(DYNX(W_,9011),"DHW.pump.eff.WFlo",IF DYNX(W_,9012)-
+ 3.1192857687626286E-06 > 1.5596428843813143E-06 THEN DYNX(W_,9012) ELSE IF
+ DYNX(W_,9012)-3.1192857687626286E-06 < -1.5596428843813143E-06 THEN
3.1192857687626286E-06 ELSE 1.5596428843813143E-06+160293.1045969354*(
- DYNX(W_,9049)-3.1192857687626286E-06)*(sqr(641172.4183877415*(DYNX(W_,9049)-
- 3.1192857687626286E-06))-3)*(3.1192857687626286E-06-DYNX(W_,9049))+0.5*
- DYNX(W_,9049),"smooth(1, smooth(1, (if noEvent(DHW.pump.eff.P_internal-3.1192857687626286E-06 > 1.5596428843813143E-06) then DHW.pump.eff.P_internal else (if noEvent(DHW.pump.eff.P_internal-3.1192857687626286E-06 < -1.5596428843813143E-06) then 3.1192857687626286E-06 else 1.5596428843813143E-06+160293.1045969354*((DHW.pump.eff.P_internal-3.1192857687626286E-06)*((641172.4183877415*(DHW.pump.eff.P_internal-3.1...");
-DYNX(W_,9051) = IF DYNX(W_,1317) THEN divGuarded(DYNX(W_,9049),"DHW.pump.eff.WHyd",
+ DYNX(W_,9012)-3.1192857687626286E-06)*(sqr(641172.4183877415*(DYNX(W_,9012)-
+ 3.1192857687626286E-06))-3)*(3.1192857687626286E-06-DYNX(W_,9012))+0.5*
+ DYNX(W_,9012),"smooth(1, smooth(1, (if noEvent(DHW.pump.eff.P_internal-3.1192857687626286E-06 > 1.5596428843813143E-06) then DHW.pump.eff.P_internal else (if noEvent(DHW.pump.eff.P_internal-3.1192857687626286E-06 < -1.5596428843813143E-06) then 3.1192857687626286E-06 else 1.5596428843813143E-06+160293.1045969354*((DHW.pump.eff.P_internal-3.1192857687626286E-06)*((641172.4183877415*(DHW.pump.eff.P_internal-3.1...");
+DYNX(W_,9014) = IF DYNX(W_,1317) THEN divGuarded(DYNX(W_,9012),"DHW.pump.eff.WHyd",
DYNX(W_,1298),"DHW.pump.eff.per.WMot_nominal") ELSE 1;
-BreakSectionFunctionEnd()
-BreakSectionFunctionStart(55);
-DYNX(W_,9042) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nDHW.pump.eff.per.motorEfficiency_yMot_generic, \nDHW.pump.eff.yMot, \nDHW.pump.eff.motDer_yMot_generic)")
+DYNX(W_,9005) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nDHW.pump.eff.per.motorEfficiency_yMot_generic, \nDHW.pump.eff.yMot, \nDHW.pump.eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
DymStruc4_construct(RealTemporaryDense( &DYNX(W_,1308), 1, 9),
- RealTemporaryDense( &DYNX(W_,1299), 1, 9)), DYNX(W_,9051), RealTemporaryDense(
+ RealTemporaryDense( &DYNX(W_,1299), 1, 9)), DYNX(W_,9014), RealTemporaryDense(
&DYNX(W_,1335), 1, 9)));
PopAllMarks();
-DYNX(W_,9040) = DYNX(W_,9041)*DYNX(W_,9042);
-DYNX(W_,9037) = divGuarded(DYNX(W_,9048),"DHW.pump.eff.WFlo",IF DYNX(W_,9040)-
- 0.01 > 0.001 THEN DYNX(W_,9040) ELSE IF DYNX(W_,9040)-0.01 < -0.001 THEN 0.01
- ELSE 0.005+250.0*(DYNX(W_,9040)-0.01)*(sqr(1000.0*(DYNX(W_,9040)-0.01))-3)*(
- 0.01-DYNX(W_,9040))+0.5*DYNX(W_,9040),"smooth(1, smooth(1, (if noEvent(DHW.pump.eff.eta-0.01 > 0.001) then DHW.pump.eff.eta else (if noEvent(DHW.pump.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((DHW.pump.eff.eta-0.01)*((1000.0*(DHW.pump.eff.eta-0.01))^2-3)*(0.01-DHW.pump.eff.eta))+0.5*DHW.pump.eff.eta))))");
-DYNX(W_,9038) = 273.15+0.0002390057361376673*DYNX(W_,9035);
-DYNX(W_,9044) = DYNX(W_,9043)-273.15;
-DYNX(W_,9047) = 0.0010044335697769957*DYNX(W_,9021);
-DYNX(W_,9050) = 3654.6827848101266*DYNX(W_,9039);
-DYNX(DYNhelp,2519) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n1, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
+DYNX(W_,9003) = DYNX(W_,9004)*DYNX(W_,9005);
+DYNX(W_,9000) = divGuarded(DYNX(W_,9011),"DHW.pump.eff.WFlo",IF DYNX(W_,9003)-
+ 0.01 > 0.001 THEN DYNX(W_,9003) ELSE IF DYNX(W_,9003)-0.01 < -0.001 THEN 0.01
+ ELSE 0.005+250.0*(DYNX(W_,9003)-0.01)*(sqr(1000.0*(DYNX(W_,9003)-0.01))-3)*(
+ 0.01-DYNX(W_,9003))+0.5*DYNX(W_,9003),"smooth(1, smooth(1, (if noEvent(DHW.pump.eff.eta-0.01 > 0.001) then DHW.pump.eff.eta else (if noEvent(DHW.pump.eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((DHW.pump.eff.eta-0.01)*((1000.0*(DHW.pump.eff.eta-0.01))^2-3)*(0.01-DHW.pump.eff.eta))+0.5*DHW.pump.eff.eta))))");
+DYNX(W_,9001) = 273.15+0.0002390057361376673*DYNX(W_,8998);
+DYNX(W_,9007) = DYNX(W_,9006)-273.15;
+DYNX(W_,9010) = 0.0010044335697769957*DYNX(W_,8984);
+DYNX(W_,9013) = 3654.6827848101266*DYNX(W_,9002);
+DYNX(DYNhelp,2520) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n1, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), 1, DYNX(W_,9054), DYNX(W_,8313), PRE(DYNX(W_,8313),
+ (Integer)(DYNX(W_,1978))), 1, DYNX(W_,9017), DYNX(W_,8273), PRE(DYNX(W_,8273),
0)));
PopModelContext();
-DYNX(W_,9052) = DYNX(W_,1974)+DYNX(DYNhelp,2519);
-DYNX(DYNhelp,2520) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n3, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
+DYNX(W_,9015) = DYNX(W_,1974)+DYNX(DYNhelp,2520);
+DYNX(DYNhelp,2521) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTimeTableValueNoDer(\nDHW.combiTimeTableDHWInput.tableID, \n3, \nDHW.combiTimeTableDHWInput.timeScaled, \nDHW.combiTimeTableDHWInput.nextTimeEventScaled, \npre(DHW.combiTimeTableDHWInput.nextTimeEventScaled))")
Modelica_Blocks_Tables_Internal_getTimeTableValueNoDer_M(DymStruc0_construct(
- (Integer)(DYNX(W_,1978))), 3, DYNX(W_,9054), DYNX(W_,8313), PRE(DYNX(W_,8313),
+ (Integer)(DYNX(W_,1978))), 3, DYNX(W_,9017), DYNX(W_,8273), PRE(DYNX(W_,8273),
0)));
PopModelContext();
-DYNX(W_,9053) = DYNX(W_,1976)+DYNX(DYNhelp,2520);
-DYNX(W_,9055) = IF DYNX(W_,9058) <= 0.01 THEN 0 ELSE divGuarded(DYNX(W_,9066),
- "electrical.generation.pVSystem[1].iVCharacteristics.P_mod",DYNX(W_,9058)*
+DYNX(W_,9016) = DYNX(W_,1976)+DYNX(DYNhelp,2521);
+DYNX(W_,9018) = IF DYNX(W_,9021) <= 0.01 THEN 0 ELSE divGuarded(DYNX(W_,9029),
+ "electrical.generation.pVSystem[1].iVCharacteristics.P_mod",DYNX(W_,9021)*
DYNX(W_,2170),"electrical.generation.pVSystem[1].iVCharacteristics.radTil*electrical.generation.pVSystem[1].iVCharacteristics.A_pan");
-DYNX(W_,9089) = IF DYNX(W_,9092) <= 0.01 THEN 0 ELSE divGuarded(DYNX(W_,9100),
- "electrical.generation.pVSystem[2].iVCharacteristics.P_mod",DYNX(W_,9092)*
+DYNX(W_,9052) = IF DYNX(W_,9055) <= 0.01 THEN 0 ELSE divGuarded(DYNX(W_,9063),
+ "electrical.generation.pVSystem[2].iVCharacteristics.P_mod",DYNX(W_,9055)*
DYNX(W_,2298),"electrical.generation.pVSystem[2].iVCharacteristics.radTil*electrical.generation.pVSystem[2].iVCharacteristics.A_pan");
-DYNX(W_,8341) = DYNX(W_,8339)-DYNX(W_,8340);
-DYNX(W_,9141) = 273.15+0.0002390057361376673*DYNX(W_,9204);
-DYNX(W_,9142) = 273.15+0.0002390057361376673*DYNX(W_,9137);
-DYNX(W_,9143) = 273.15+divGuarded(DYNX(W_,9202)-2501014.5*DYNX(DP_,1067),
+DYNX(W_,8302) = DYNX(W_,8300)-DYNX(W_,8301);
+DYNX(W_,9104) = 273.15+0.0002390057361376673*DYNX(W_,9173);
+DYNX(W_,9105) = 273.15+0.0002390057361376673*DYNX(W_,9100);
+DYNX(W_,9106) = 273.15+divGuarded(DYNX(W_,9171)-2501014.5*DYNX(DP_,1073),
"hydraulic.generation.bouEva.ports[1].h_outflow-2501014.5*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]",1006
- *(1-DYNX(DP_,1067))+1860*DYNX(DP_,1067),"1006*(1-hydraulic.generation.bouEva.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]");
-DYNX(W_,9151) = DYNX(W_,2593)*DYNX(W_,9161);
-DYNX(W_,8342) = IF Equal(DYNX(W_,8343), DYNX(DP_,894), 154) THEN
- 0.4838709677419355*DYNX(DP_,894) ELSE IF DYNX(W_,8343) == 2 THEN
- 0.7894736842105263*DYNX(DP_,894) ELSE DYNX(DP_,894);
-DYNX(W_,9149) = DYNX(W_,9151)*DYNX(W_,8342);
-DYNX(W_,8344) = DYNX(W_,8339)-DYNX(W_,8340);
-DYNX(W_,9163) = DYNX(W_,9162)-273.15;
-DYNX(W_,8345) = 1E-05*DYNX(W_,8340);
-DYNX(W_,9168) = DYNX(W_,3116)*DYNX(X_,22);
-DYNX(W_,9172) = 287.0512249529787*DYNX(W_,9170)+461.5233290850878*DYNX(X_,22);
-DYNX(W_,9173) = divinvGuarded(55.508435061791985*DYNX(X_,22)+34.52428788658843*
- DYNX(W_,9170),"55.508435061791985*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]+34.52428788658843*hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]");
-DYNX(W_,9174) = DYNX(W_,9169)-273.15;
-DYNX(W_,9198) = IF DYNX(Y_,14) > DYNX(W_,3393) OR DYNX(Y_,14) < -DYNX(W_,3393)
+ *(1-DYNX(DP_,1073))+1860*DYNX(DP_,1073),"1006*(1-hydraulic.generation.bouEva.ports[1].Xi_outflow[1])+1860*hydraulic.generation.bouEva.ports[1].Xi_outflow[1]");
+BreakSectionFunctionEnd()
+BreakSectionFunctionStart(55);
+DYNX(W_,8306) = DYNX(W_,8300)-DYNX(W_,8301);
+DYNX(W_,9130) = DYNX(W_,9129)-273.15;
+DYNX(W_,8307) = 1E-05*DYNX(W_,8301);
+DYNX(W_,9135) = DYNX(W_,3091)*DYNX(X_,22);
+DYNX(W_,9139) = 287.0512249529787*DYNX(W_,9137)+461.5233290850878*DYNX(X_,22);
+DYNX(W_,9140) = divinvGuarded(55.508435061791985*DYNX(X_,22)+34.52428788658843*
+ DYNX(W_,9137),"55.508435061791985*hydraulic.generation.heatPump.port_a2.Xi_outflow[1]+34.52428788658843*hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]");
+DYNX(W_,9141) = DYNX(W_,9136)-273.15;
+DYNX(W_,9165) = IF DYNX(Y_,14) > DYNX(W_,3361) OR DYNX(Y_,14) < -DYNX(W_,3361)
THEN divinvGuarded(DYNX(Y_,14),"hydraulic.generation.heatPump.P") ELSE IF
- DYNX(Y_,14) < 0.5*DYNX(W_,3393) AND DYNX(Y_,14) > (-0.5)*DYNX(W_,3393) THEN
- divGuarded(DYNX(Y_,14),"hydraulic.generation.heatPump.P",DYNX(W_,3393)*
- DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta*hydraulic.generation.heatPump.eff.invXReg.delta")
+ DYNX(Y_,14) < 0.5*DYNX(W_,3361) AND DYNX(Y_,14) > (-0.5)*DYNX(W_,3361) THEN
+ divGuarded(DYNX(Y_,14),"hydraulic.generation.heatPump.P",DYNX(W_,3361)*
+ DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta*hydraulic.generation.heatPump.eff.invXReg.delta")
ELSE (PushModelContext(1,"AixLib.Utilities.Math.Functions.BaseClasses.smoothTransition(hydraulic.generation.heatPump.P, hydraulic.generation.heatPump.eff.invXReg.delta, 1/hydraulic.generation.heatPump.eff.invXReg.delta, (-15)/hydraulic.generation.heatPump.eff.invXReg.delta, 119*(1/hydraulic.generation.heatPump.eff.invXReg.delta)^2, (-361)*(1/hydraulic.generation.heatPump.eff.invXReg.delta)^3, 534*(1/hydraulic.generation...")
AixLib_Utilities_Math_Functions_BaseClasses_smoothTransition(DYNX(Y_,14),
- DYNX(W_,3393), divinvGuarded(DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta"),
- divGuarded(-15,"-15",DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta"),
- 119*sqr(divinvGuarded(DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta")),
- (-361)*powUnguarded(divinvGuarded(DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta"),
- 3), 534*powUnguarded(divinvGuarded(DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta"),
- 4), (-380)*powUnguarded(divinvGuarded(DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta"),
- 5), 104*powUnguarded(divinvGuarded(DYNX(W_,3393),"hydraulic.generation.heatPump.eff.invXReg.delta"),
+ DYNX(W_,3361), divinvGuarded(DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta"),
+ divGuarded(-15,"-15",DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta"),
+ 119*sqr(divinvGuarded(DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta")),
+ (-361)*powUnguarded(divinvGuarded(DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta"),
+ 3), 534*powUnguarded(divinvGuarded(DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta"),
+ 4), (-380)*powUnguarded(divinvGuarded(DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta"),
+ 5), 104*powUnguarded(divinvGuarded(DYNX(W_,3361),"hydraulic.generation.heatPump.eff.invXReg.delta"),
6)));
PopModelContext();
-DYNX(W_,9199) = IF DYNX(Y_,12) >= 0 THEN DYNX(Y_,12) ELSE -DYNX(Y_,12);
-DYNX(W_,9200) = DYNX(W_,9199)*DYNX(W_,9198);
-DYNX(W_,9201) = IF DYNX(W_,8393) THEN DYNX(W_,9200) ELSE 0.0;
-DYNX(W_,9205) = 273.15+0.0002390057361376673*DYNX(W_,9203);
-DYNX(W_,8401) = DYNX(W_,3815)-DYNX(W_,8339);
-DYNX(W_,9207) = DYNX(W_,9206)-273.15;
-DYNX(W_,8402) = (-0.0010044335697769957)*DYNX(W_,8336);
-DYNX(W_,8403) = DYNX(W_,8339)-DYNX(W_,3815);
-DYNX(W_,8406) = 1081.4759734403235*DYNX(W_,8396);
-DYNX(W_,8414) = DYNX(W_,8340)-DYNX(W_,8337);
-DYNX(W_,9213) = 273.15+0.0002390057361376673*DYNX(W_,9137);
-DYNX(W_,9215) = DYNX(W_,9214)-273.15;
-DYNX(W_,8415) = 1E-05*DYNX(W_,8337);
-DYNX(W_,9224) = DYNX(W_,8283)-DYNX(W_,8507);
-DYNX(W_,9239) = DYNX(W_,9234)-DYNX(X_,27);
-DYNX(W_,9245) = DYNX(DP_,1175)*DYNX(X_,27);
-DYNX(DYNhelp,2521) = RealBmin(DYNX(W_,8425), DYNX(W_,8441));
-DYNX(W_,8442) = RealBmin(DYNX(DYNhelp,2521), 0.0);
-DYNX(W_,9252) = DYNX(W_,4300)+DYNX(W_,9250);
-DYNX(W_,8450) = DYNX(W_,4301)+DYNX(W_,8440);
-DYNX(W_,9253) = IF DYNX(W_,8447) THEN DYNX(W_,8450) ELSE DYNX(W_,9252);
-DYNX(W_,9263) = DYNX(W_,9262)-273.15;
-DYNX(W_,9271) = DYNX(W_,9270)-273.15;
-DYNX(W_,9279) = DYNX(W_,9278)-273.15;
-DYNX(W_,9285) = DYNX(W_,9284)-273.15;
-DYNX(W_,9292) = DYNX(W_,9291)-273.15;
-DYNX(W_,9300) = DYNX(W_,9299)-273.15;
-DYNX(W_,9308) = DYNX(W_,9307)-273.15;
-DYNX(W_,9315) = DYNX(W_,9314)-273.15;
-DYNX(W_,9345) = DYNX(W_,9344)-273.15;
-DYNX(W_,9353) = DYNX(W_,9352)-273.15;
-DYNX(W_,9361) = DYNX(W_,9360)-273.15;
-DYNX(W_,9367) = DYNX(W_,9366)-273.15;
-DYNX(W_,9374) = DYNX(W_,9373)-273.15;
-DYNX(W_,9382) = DYNX(W_,9381)-273.15;
-DYNX(W_,9390) = DYNX(W_,9389)-273.15;
-DYNX(W_,9397) = DYNX(W_,9396)-273.15;
-DYNX(W_,9424) = 273.15+0.0002390057361376673*DYNX(W_,9254);
-DYNX(W_,9426) = DYNX(W_,9425)-273.15;
-DYNX(W_,8463) = 1E-05*DYNX(W_,8337);
-DYNX(W_,9441) = -(DYNX(W_,8476)+DYNX(W_,8478));
-DYNX(W_,9442) = DYNX(W_,8507)-DYNX(W_,9462);
-DYNX(W_,9443) = DYNX(W_,8507)-DYNX(W_,9470);
-DYNX(W_,9444) = DYNX(W_,8507)-DYNX(W_,9478);
-DYNX(W_,9445) = DYNX(W_,8507)-DYNX(W_,9486);
-DYNX(W_,9446) = DYNX(W_,8507)-DYNX(W_,9493);
-DYNX(W_,9447) = DYNX(W_,8477)-DYNX(W_,9462);
-DYNX(W_,9448) = DYNX(W_,8477)-DYNX(W_,9470);
-DYNX(W_,9449) = DYNX(W_,8477)-DYNX(W_,9478);
-DYNX(W_,9450) = DYNX(W_,8477)-DYNX(W_,9486);
-DYNX(W_,9451) = DYNX(W_,8477)-DYNX(W_,9493);
+DYNX(W_,9166) = IF DYNX(Y_,12) >= 0 THEN DYNX(Y_,12) ELSE -DYNX(Y_,12);
+DYNX(W_,9167) = DYNX(W_,9166)*DYNX(W_,9165);
+DYNX(W_,9168) = IF DYNX(W_,8356) THEN DYNX(W_,9167) ELSE 0.0;
+DYNX(W_,9169) = IF DYNX(W_,8299) THEN 0.0 ELSE DYNX(W_,9168);
+DYNX(W_,9170) = IF DYNX(W_,8299) THEN DYNX(W_,9168) ELSE 0.0;
+DYNX(W_,9174) = 273.15+0.0002390057361376673*DYNX(W_,9172);
+DYNX(W_,8364) = DYNX(W_,3777)-DYNX(W_,8300);
+DYNX(W_,9176) = DYNX(W_,9175)-273.15;
+DYNX(W_,8365) = (-0.0010044335697769957)*DYNX(W_,8296);
+DYNX(W_,8366) = DYNX(W_,8300)-DYNX(W_,3777);
+DYNX(W_,8369) = 1081.4759734403235*DYNX(W_,8359);
+DYNX(W_,8377) = DYNX(W_,8301)-DYNX(W_,8297);
+DYNX(W_,9182) = 273.15+0.0002390057361376673*DYNX(W_,9100);
+DYNX(W_,9184) = DYNX(W_,9183)-273.15;
+DYNX(W_,8378) = 1E-05*DYNX(W_,8297);
+DYNX(W_,9193) = DYNX(W_,8243)-DYNX(W_,8470);
+DYNX(W_,9208) = DYNX(W_,9203)-DYNX(X_,27);
+DYNX(W_,9214) = DYNX(DP_,1181)*DYNX(X_,27);
+DYNX(DYNhelp,2522) = RealBmin(DYNX(W_,8388), DYNX(W_,8404));
+DYNX(W_,8405) = RealBmin(DYNX(DYNhelp,2522), 0.0);
+DYNX(W_,9221) = DYNX(W_,4260)+DYNX(W_,9219);
+DYNX(W_,8413) = DYNX(W_,4261)+DYNX(W_,8403);
+DYNX(W_,9222) = IF DYNX(W_,8410) THEN DYNX(W_,8413) ELSE DYNX(W_,9221);
+DYNX(W_,9232) = DYNX(W_,9231)-273.15;
+DYNX(W_,9240) = DYNX(W_,9239)-273.15;
+DYNX(W_,9248) = DYNX(W_,9247)-273.15;
+DYNX(W_,9254) = DYNX(W_,9253)-273.15;
+DYNX(W_,9261) = DYNX(W_,9260)-273.15;
+DYNX(W_,9269) = DYNX(W_,9268)-273.15;
+DYNX(W_,9277) = DYNX(W_,9276)-273.15;
+DYNX(W_,9284) = DYNX(W_,9283)-273.15;
+DYNX(W_,9314) = DYNX(W_,9313)-273.15;
+DYNX(W_,9322) = DYNX(W_,9321)-273.15;
+DYNX(W_,9330) = DYNX(W_,9329)-273.15;
+DYNX(W_,9336) = DYNX(W_,9335)-273.15;
+DYNX(W_,9343) = DYNX(W_,9342)-273.15;
+DYNX(W_,9351) = DYNX(W_,9350)-273.15;
+DYNX(W_,9359) = DYNX(W_,9358)-273.15;
+DYNX(W_,9366) = DYNX(W_,9365)-273.15;
+DYNX(W_,9393) = 273.15+0.0002390057361376673*DYNX(W_,9223);
+DYNX(W_,9395) = DYNX(W_,9394)-273.15;
+DYNX(W_,8426) = 1E-05*DYNX(W_,8297);
+DYNX(W_,9410) = -(DYNX(W_,8439)+DYNX(W_,8441));
+DYNX(W_,9411) = DYNX(W_,8470)-DYNX(W_,9431);
+DYNX(W_,9412) = DYNX(W_,8470)-DYNX(W_,9439);
+DYNX(W_,9413) = DYNX(W_,8470)-DYNX(W_,9447);
+DYNX(W_,9414) = DYNX(W_,8470)-DYNX(W_,9455);
+DYNX(W_,9415) = DYNX(W_,8470)-DYNX(W_,9462);
+DYNX(W_,9416) = DYNX(W_,8440)-DYNX(W_,9431);
+DYNX(W_,9417) = DYNX(W_,8440)-DYNX(W_,9439);
+DYNX(W_,9418) = DYNX(W_,8440)-DYNX(W_,9447);
+DYNX(W_,9419) = DYNX(W_,8440)-DYNX(W_,9455);
+DYNX(W_,9420) = DYNX(W_,8440)-DYNX(W_,9462);
+DYNX(W_,9434) = DYNX(W_,9433)-273.15;
+DYNX(W_,9442) = DYNX(W_,9441)-273.15;
+DYNX(W_,9450) = DYNX(W_,9449)-273.15;
+DYNX(W_,9458) = DYNX(W_,9457)-273.15;
DYNX(W_,9465) = DYNX(W_,9464)-273.15;
-DYNX(W_,9473) = DYNX(W_,9472)-273.15;
-DYNX(W_,9481) = DYNX(W_,9480)-273.15;
-DYNX(W_,9489) = DYNX(W_,9488)-273.15;
-DYNX(W_,9496) = DYNX(W_,9495)-273.15;
-DYNX(W_,9506) = (-0.0010044335697769957)*DYNX(W_,9256);
-DYNX(W_,9518) = DYNX(W_,5781)-DYNX(W_,9500);
+DYNX(W_,9475) = (-0.0010044335697769957)*DYNX(W_,9225);
+DYNX(W_,9487) = DYNX(W_,5741)-DYNX(W_,9469);
{ /* Non-linear system of equations to solve. */
/* Tag: simulation.nonlinear[17] */
/* Introducing 1 common subexpressions used in 0 expressions */
@@ -23711,259 +23730,254 @@ DYNX(W_,9518) = DYNX(W_,5781)-DYNX(W_,9500);
const char*const varnames_[]={"hydraulic.transfer.pumFixMFlo[1].y_actual"};
const double nominal_[]={1.0};
NonLinearSystemOfEquationsNH(Jacobian__, residue__, x__, 1, 0, 0, 23, -2, 2,
- DYNX(DYNhelp,2522), 39, DYNX(did_->helpvari_vec,579), 23);
-NonLinearSystemSave(DYNX(W_,9506), 0);
-NonLinearSystemSave(DYNX(W_,9518), 1);
-SetInitVectorNH(x__, 1, DYNX(W_,9503), Remember_(DYNX(W_,9503), 64));
+ DYNX(DYNhelp,2523), 39, DYNX(did_->helpvari_vec,579), 23);
+NonLinearSystemSave(DYNX(W_,9475), 0);
+NonLinearSystemSave(DYNX(W_,9487), 1);
+SetInitVectorNH(x__, 1, DYNX(W_,9472), Remember_(DYNX(W_,9472), 64));
Residues;
-DYNX(DYNhelp,2561) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9506),
- DYNX(W_,9503), RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
- 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6514),
- 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(DYNX(W_,6513)))));
+DYNX(DYNhelp,2562) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(DYNX(W_,9475),
+ DYNX(W_,9472), RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
+ 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6474),
+ 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(DYNX(W_,6473)))));
PopAllMarks();
-SetVector(residue__, 1, 5527.368392700377*DYNX(W_,9506)+DYNX(W_,9518)-
- DYNX(DYNhelp,2561));
+SetVector(residue__, 1, 5527.368392700377*DYNX(W_,9475)+DYNX(W_,9487)-
+ DYNX(DYNhelp,2562));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, -(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure:der(\nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2, \n0.0, \n1.0, \n{0.0, 0.0, 0.0, 0.0}, \n0.0, \n0.0, \nIBPSA.Fluid.Movers.BaseClasses.Characteristics.flowParametersIn...")
- IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9506),
- DYNX(W_,9503), RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
- 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6514),
- 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(DYNX(W_,6513))),
- 0.0, 1.0, RealTemporaryDense( DymArrays110, 1, 4), 0.0, 0.0, DymStruc6_construct(
- RealTemporaryDense( DymArrays110, 1, 4), RealTemporaryDense( DymArrays110, 1, 4),
+ IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure__der(DYNX(W_,9475),
+ DYNX(W_,9472), RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
+ 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6474),
+ 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(DYNX(W_,6473))),
+ 0.0, 1.0, RealTemporaryDense( DymArrays109, 1, 4), 0.0, 0.0, DymStruc6_construct(
+ RealTemporaryDense( DymArrays109, 1, 4), RealTemporaryDense( DymArrays109, 1, 4),
0))));
PopAllMarks();
SolveNonLinearSystemOfEquationsNH(Jacobian__, 0, 0, 0, residue__, x__, 23,
"Tag: simulation.nonlinear[17]");
-DYNX(W_,9503) = GetVector(x__, 1);
+DYNX(W_,9472) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsNH(residue__, x__, 23);
/* End of Non-Linear Equation Block */ }
-DYNX(W_,9519) = IF DYNX(W_,9518)*DYNX(W_,9506) > 0.0008348528686029941 THEN
- DYNX(W_,9518)*DYNX(W_,9506) ELSE IF DYNX(W_,9518)*DYNX(W_,9506) <
- -0.0008348528686029941 THEN 0 ELSE 0.5*DYNX(W_,9518)*DYNX(W_,9506)-
- 299.45396296995295*DYNX(W_,9518)*DYNX(W_,9506)*(sqr(1197.8158518798118*
- DYNX(W_,9518)*DYNX(W_,9506))-3)*DYNX(W_,9518)*DYNX(W_,9506);
-DYNX(W_,9520) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.transfer.pumFixMFlo[1].eff.powEu, \nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.powEuDer, \n0.05)")
+DYNX(W_,9488) = IF DYNX(W_,9487)*DYNX(W_,9475) > 0.0008348528686029941 THEN
+ DYNX(W_,9487)*DYNX(W_,9475) ELSE IF DYNX(W_,9487)*DYNX(W_,9475) <
+ -0.0008348528686029941 THEN 0 ELSE 0.5*DYNX(W_,9487)*DYNX(W_,9475)-
+ 299.45396296995295*DYNX(W_,9487)*DYNX(W_,9475)*(sqr(1197.8158518798118*
+ DYNX(W_,9487)*DYNX(W_,9475))-3)*DYNX(W_,9487)*DYNX(W_,9475);
+DYNX(W_,9489) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.power(\nhydraulic.transfer.pumFixMFlo[1].eff.powEu, \nhydraulic.transfer.pumFixMFlo[1].eff.V_flow, \nhydraulic.transfer.pumFixMFlo[1].eff.r_N, \nhydraulic.transfer.pumFixMFlo[1].eff.powEuDer, \n0.05)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_power(DymStruc3_construct(
- RealTemporaryDense( &DYNX(W_,6590), 1, 11), RealTemporaryDense( &DYNX(W_,6579),
- 1, 11)), DYNX(W_,9506), DYNX(W_,9503), RealTemporaryDense( &DYNX(W_,6601), 1,
+ RealTemporaryDense( &DYNX(W_,6550), 1, 11), RealTemporaryDense( &DYNX(W_,6539),
+ 1, 11)), DYNX(W_,9475), DYNX(W_,9472), RealTemporaryDense( &DYNX(W_,6561), 1,
11), 0.05));
PopAllMarks();
-DYNX(W_,9509) = divGuarded(DYNX(W_,9519),"hydraulic.transfer.pumFixMFlo[1].eff.WFlo",
- IF DYNX(W_,9520)-0.0016697057372059882 > 0.0008348528686029941 THEN
- DYNX(W_,9520) ELSE IF DYNX(W_,9520)-0.0016697057372059882 < -0.0008348528686029941
+DYNX(W_,9478) = divGuarded(DYNX(W_,9488),"hydraulic.transfer.pumFixMFlo[1].eff.WFlo",
+ IF DYNX(W_,9489)-0.0016697057372059882 > 0.0008348528686029941 THEN
+ DYNX(W_,9489) ELSE IF DYNX(W_,9489)-0.0016697057372059882 < -0.0008348528686029941
THEN 0.0016697057372059882 ELSE 0.0008348528686029941+299.45396296995295*(
- DYNX(W_,9520)-0.0016697057372059882)*(sqr(1197.8158518798118*(DYNX(W_,9520)-
- 0.0016697057372059882))-3)*(0.0016697057372059882-DYNX(W_,9520))+0.5*
- DYNX(W_,9520),"smooth(1, smooth(1, (if noEvent(hydraulic.transfer.pumFixMFlo[1].eff.P_internal-0.0016697057372059882 > 0.0008348528686029941) then hydraulic.transfer.pumFixMFlo[1].eff.P_internal else (if noEvent(hydraulic.transfer.pumFixMFlo[1].eff.P_internal-0.0016697057372059882 < -0.0008348528686029941) then 0.0016697057372059882 else 0.0008348528686029941+299.45396296995295*((hydraulic.transfer.pumFixMFlo...");
-DYNX(W_,9522) = IF DYNX(W_,6475) THEN divGuarded(DYNX(W_,9520),"hydraulic.transfer.pumFixMFlo[1].eff.WHyd",
- DYNX(W_,6456),"hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal") ELSE 1;
-DYNX(W_,9510) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic, \nhydraulic.transfer.pumFixMFlo[1].eff.yMot, \nhydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic)")
+ DYNX(W_,9489)-0.0016697057372059882)*(sqr(1197.8158518798118*(DYNX(W_,9489)-
+ 0.0016697057372059882))-3)*(0.0016697057372059882-DYNX(W_,9489))+0.5*
+ DYNX(W_,9489),"smooth(1, smooth(1, (if noEvent(hydraulic.transfer.pumFixMFlo[1].eff.P_internal-0.0016697057372059882 > 0.0008348528686029941) then hydraulic.transfer.pumFixMFlo[1].eff.P_internal else (if noEvent(hydraulic.transfer.pumFixMFlo[1].eff.P_internal-0.0016697057372059882 < -0.0008348528686029941) then 0.0016697057372059882 else 0.0008348528686029941+299.45396296995295*((hydraulic.transfer.pumFixMFlo...");
+DYNX(W_,9491) = IF DYNX(W_,6435) THEN divGuarded(DYNX(W_,9489),"hydraulic.transfer.pumFixMFlo[1].eff.WHyd",
+ DYNX(W_,6416),"hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal") ELSE 1;
+DYNX(W_,9479) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.efficiency_yMot(\nhydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic, \nhydraulic.transfer.pumFixMFlo[1].eff.yMot, \nhydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_efficiencyx_0yMot(
- DymStruc4_construct(RealTemporaryDense( &DYNX(W_,6466), 1, 9),
- RealTemporaryDense( &DYNX(W_,6457), 1, 9)), DYNX(W_,9522), RealTemporaryDense(
- &DYNX(W_,6493), 1, 9)));
+ DymStruc4_construct(RealTemporaryDense( &DYNX(W_,6426), 1, 9),
+ RealTemporaryDense( &DYNX(W_,6417), 1, 9)), DYNX(W_,9491), RealTemporaryDense(
+ &DYNX(W_,6453), 1, 9)));
PopAllMarks();
-DYNX(W_,9508) = DYNX(W_,9509)*DYNX(W_,9510);
-DYNX(W_,9504) = divGuarded(DYNX(W_,9519),"hydraulic.transfer.pumFixMFlo[1].eff.WFlo",
- IF DYNX(W_,9508)-0.01 > 0.001 THEN DYNX(W_,9508) ELSE IF DYNX(W_,9508)-0.01 <
- -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9508)-0.01)*(sqr(1000.0*(
- DYNX(W_,9508)-0.01))-3)*(0.01-DYNX(W_,9508))+0.5*DYNX(W_,9508),
+DYNX(W_,9477) = DYNX(W_,9478)*DYNX(W_,9479);
+DYNX(W_,9473) = divGuarded(DYNX(W_,9488),"hydraulic.transfer.pumFixMFlo[1].eff.WFlo",
+ IF DYNX(W_,9477)-0.01 > 0.001 THEN DYNX(W_,9477) ELSE IF DYNX(W_,9477)-0.01 <
+ -0.001 THEN 0.01 ELSE 0.005+250.0*(DYNX(W_,9477)-0.01)*(sqr(1000.0*(
+ DYNX(W_,9477)-0.01))-3)*(0.01-DYNX(W_,9477))+0.5*DYNX(W_,9477),
"smooth(1, smooth(1, (if noEvent(hydraulic.transfer.pumFixMFlo[1].eff.eta-0.01 > 0.001) then hydraulic.transfer.pumFixMFlo[1].eff.eta else (if noEvent(hydraulic.transfer.pumFixMFlo[1].eff.eta-0.01 < -0.001) then 0.01 else 0.005+250.0*((hydraulic.transfer.pumFixMFlo[1].eff.eta-0.01)*((1000.0*(hydraulic.transfer.pumFixMFlo[1].eff.eta-0.01))^2-3)*(0.01-hydraulic.transfer.pumFixMFlo[1].eff.eta))+0.5...");
-DYNX(W_,9505) = 273.15+0.0002390057361376673*DYNX(W_,9435);
-DYNX(W_,9507) = DYNX(W_,5781)-DYNX(W_,9500);
-DYNX(W_,9513) = DYNX(W_,9512)-273.15;
-DYNX(W_,9514) = 1E-05*DYNX(W_,9500);
-DYNX(W_,9517) = (-0.0010044335697769957)*DYNX(W_,9256);
-DYNX(W_,9521) = 1150.7188605350957*DYNX(W_,9506);
-DYNX(W_,9535) = DYNX(W_,9574)-DYNX(W_,9552)*DYNX(W_,9554);
-DYNX(W_,9543) = DYNX(W_,8192)-DYNX(W_,9536);
-DYNX(W_,9544) = DYNX(W_,9539)-DYNX(W_,9541);
-DYNX(W_,9547) = 1-DYNX(X_,66);
-DYNX(W_,9549) = 1-DYNX(X_,76);
-DYNX(W_,9551) = 1-DYNX(X_,74);
-DYNX(W_,9553) = DYNX(W_,8192)-DYNX(W_,9536);
-DYNX(W_,9556) = IF DYNX(W_,9534) > 1.088888888888889E-08 THEN DYNX(W_,9537)
- ELSE IF DYNX(W_,9534) < -1.088888888888889E-08 THEN DYNX(W_,9535) ELSE
- 22959183.673469387*DYNX(W_,9534)*(sqr(91836734.69387755*DYNX(W_,9534))-3)*(
- DYNX(W_,9535)-DYNX(W_,9537))+0.5*(DYNX(W_,9537)+DYNX(W_,9535));
-DYNX(W_,9557) = IF DYNX(W_,9534) > 1.088888888888889E-08 THEN DYNX(DP_,1349)
- ELSE IF DYNX(W_,9534) < -1.088888888888889E-08 THEN DYNX(X_,66) ELSE
- 22959183.673469387*DYNX(W_,9534)*(sqr(91836734.69387755*DYNX(W_,9534))-3)*(
- DYNX(X_,66)-DYNX(DP_,1349))+0.5*(DYNX(DP_,1349)+DYNX(X_,66));
-DYNX(W_,9558) = DYNX(W_,9539)-DYNX(W_,9541);
-DYNX(W_,9561) = IF DYNX(W_,9538) > 1.088888888888889E-08 THEN DYNX(W_,9542)
- ELSE IF DYNX(W_,9538) < -1.088888888888889E-08 THEN DYNX(W_,9540) ELSE
- 22959183.673469387*DYNX(W_,9538)*(sqr(91836734.69387755*DYNX(W_,9538))-3)*(
- DYNX(W_,9540)-DYNX(W_,9542))+0.5*(DYNX(W_,9542)+DYNX(W_,9540));
-DYNX(W_,9562) = IF DYNX(W_,9538) > 1.088888888888889E-08 THEN DYNX(X_,76) ELSE
- IF DYNX(W_,9538) < -1.088888888888889E-08 THEN DYNX(X_,74) ELSE
- 22959183.673469387*DYNX(W_,9538)*(sqr(91836734.69387755*DYNX(W_,9538))-3)*(
+DYNX(W_,9474) = 273.15+0.0002390057361376673*DYNX(W_,9404);
+DYNX(W_,9476) = DYNX(W_,5741)-DYNX(W_,9469);
+DYNX(W_,9482) = DYNX(W_,9481)-273.15;
+DYNX(W_,9483) = 1E-05*DYNX(W_,9469);
+DYNX(W_,9486) = (-0.0010044335697769957)*DYNX(W_,9225);
+DYNX(W_,9490) = 1150.7188605350957*DYNX(W_,9475);
+DYNX(W_,9504) = DYNX(W_,9543)-DYNX(W_,9521)*DYNX(W_,9523);
+DYNX(W_,9512) = DYNX(W_,8152)-DYNX(W_,9505);
+DYNX(W_,9513) = DYNX(W_,9508)-DYNX(W_,9510);
+DYNX(W_,9516) = 1-DYNX(X_,66);
+DYNX(W_,9518) = 1-DYNX(X_,76);
+DYNX(W_,9520) = 1-DYNX(X_,74);
+DYNX(W_,9522) = DYNX(W_,8152)-DYNX(W_,9505);
+DYNX(W_,9525) = IF DYNX(W_,9503) > 1.088888888888889E-08 THEN DYNX(W_,9506)
+ ELSE IF DYNX(W_,9503) < -1.088888888888889E-08 THEN DYNX(W_,9504) ELSE
+ 22959183.673469387*DYNX(W_,9503)*(sqr(91836734.69387755*DYNX(W_,9503))-3)*(
+ DYNX(W_,9504)-DYNX(W_,9506))+0.5*(DYNX(W_,9506)+DYNX(W_,9504));
+DYNX(W_,9526) = IF DYNX(W_,9503) > 1.088888888888889E-08 THEN DYNX(DP_,1355)
+ ELSE IF DYNX(W_,9503) < -1.088888888888889E-08 THEN DYNX(X_,66) ELSE
+ 22959183.673469387*DYNX(W_,9503)*(sqr(91836734.69387755*DYNX(W_,9503))-3)*(
+ DYNX(X_,66)-DYNX(DP_,1355))+0.5*(DYNX(DP_,1355)+DYNX(X_,66));
+DYNX(W_,9527) = DYNX(W_,9508)-DYNX(W_,9510);
+DYNX(W_,9530) = IF DYNX(W_,9507) > 1.088888888888889E-08 THEN DYNX(W_,9511)
+ ELSE IF DYNX(W_,9507) < -1.088888888888889E-08 THEN DYNX(W_,9509) ELSE
+ 22959183.673469387*DYNX(W_,9507)*(sqr(91836734.69387755*DYNX(W_,9507))-3)*(
+ DYNX(W_,9509)-DYNX(W_,9511))+0.5*(DYNX(W_,9511)+DYNX(W_,9509));
+DYNX(W_,9531) = IF DYNX(W_,9507) > 1.088888888888889E-08 THEN DYNX(X_,76) ELSE
+ IF DYNX(W_,9507) < -1.088888888888889E-08 THEN DYNX(X_,74) ELSE
+ 22959183.673469387*DYNX(W_,9507)*(sqr(91836734.69387755*DYNX(W_,9507))-3)*(
DYNX(X_,74)-DYNX(X_,76))+0.5*(DYNX(X_,76)+DYNX(X_,74));
-DYNX(W_,9575) = 273.15+divGuarded(DYNX(W_,9574)-2501014.5*DYNX(X_,66),
+DYNX(W_,9544) = 273.15+divGuarded(DYNX(W_,9543)-2501014.5*DYNX(X_,66),
"ventilation.generation.fanFlow.vol.hOut_internal-2501014.5*ventilation.generation.hex.port_a1.Xi_outflow[1]",1006
*(1-DYNX(X_,66))+1860*DYNX(X_,66),"1006*(1-ventilation.generation.hex.port_a1.Xi_outflow[1])+1860*ventilation.generation.hex.port_a1.Xi_outflow[1]");
-DYNX(W_,9581) = DYNX(W_,9536)-DYNX(W_,9533);
-DYNX(W_,9582) = DYNX(X_,68)*DYNX(X_,66);
-DYNX(W_,9583) = 1.1843079200592153E-05*DYNX(W_,9536);
-DYNX(W_,9587) = 287.0512249529787*DYNX(W_,9585)+461.5233290850878*DYNX(X_,66);
-DYNX(W_,9588) = divinvGuarded(55.508435061791985*DYNX(X_,66)+34.52428788658843*
- DYNX(W_,9585),"55.508435061791985*ventilation.generation.hex.port_a1.Xi_outflow[1]+34.52428788658843*ventilation.generation.fanFlow.vol.dynBal.medium.X[2]");
-DYNX(W_,9589) = DYNX(W_,9584)-273.15;
-DYNX(W_,9590) = 1E-05*DYNX(W_,9536);
-DYNX(W_,9597) = divGuarded(DYNX(W_,8510),"ventilation.generation.fanFlow.preSou.port_a.m_flow",
- IF DYNX(W_,8510) > 2.177777777777778E-05 THEN 1.1843079200592153E-05*
- DYNX(W_,9536) ELSE IF DYNX(W_,8510) < -2.177777777777778E-05 THEN
- 1.1843079200592153E-05*DYNX(W_,9533) ELSE 11479.591836734693*DYNX(W_,8510)*(
- sqr(45918.36734693877*DYNX(W_,8510))-3)*(1.1843079200592153E-05*DYNX(W_,9533)-
- 1.1843079200592153E-05*DYNX(W_,9536))+0.5*(1.1843079200592153E-05*
- DYNX(W_,9536)+1.1843079200592153E-05*DYNX(W_,9533)),"smooth(1, (if noEvent(ventilation.generation.fanFlow.preSou.port_a.m_flow > 2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanFlow.preSou.port_a.p) else (if noEvent(ventilation.generation.fanFlow.preSou.port_a.m_flow < -2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanFlow.preSou.port_b.p) else 11479.591836734693*(ventil...");
-DYNX(W_,9599) = DYNX(W_,9533)-DYNX(W_,9536);
-DYNX(W_,9602) = 5.5102040816326525*DYNX(W_,9576);
-DYNX(W_,9615) = 273.15+divGuarded(DYNX(W_,9698)-2501014.5*DYNX(X_,70),
+DYNX(W_,9550) = DYNX(W_,9505)-DYNX(W_,9502);
+DYNX(W_,9551) = DYNX(X_,68)*DYNX(X_,66);
+DYNX(W_,9552) = 1.1843079200592153E-05*DYNX(W_,9505);
+DYNX(W_,9556) = 287.0512249529787*DYNX(W_,9554)+461.5233290850878*DYNX(X_,66);
+DYNX(W_,9557) = divinvGuarded(55.508435061791985*DYNX(X_,66)+34.52428788658843*
+ DYNX(W_,9554),"55.508435061791985*ventilation.generation.hex.port_a1.Xi_outflow[1]+34.52428788658843*ventilation.generation.fanFlow.vol.dynBal.medium.X[2]");
+DYNX(W_,9558) = DYNX(W_,9553)-273.15;
+DYNX(W_,9559) = 1E-05*DYNX(W_,9505);
+DYNX(W_,9566) = divGuarded(DYNX(W_,8473),"ventilation.generation.fanFlow.preSou.port_a.m_flow",
+ IF DYNX(W_,8473) > 2.177777777777778E-05 THEN 1.1843079200592153E-05*
+ DYNX(W_,9505) ELSE IF DYNX(W_,8473) < -2.177777777777778E-05 THEN
+ 1.1843079200592153E-05*DYNX(W_,9502) ELSE 11479.591836734693*DYNX(W_,8473)*(
+ sqr(45918.36734693877*DYNX(W_,8473))-3)*(1.1843079200592153E-05*DYNX(W_,9502)-
+ 1.1843079200592153E-05*DYNX(W_,9505))+0.5*(1.1843079200592153E-05*
+ DYNX(W_,9505)+1.1843079200592153E-05*DYNX(W_,9502)),"smooth(1, (if noEvent(ventilation.generation.fanFlow.preSou.port_a.m_flow > 2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanFlow.preSou.port_a.p) else (if noEvent(ventilation.generation.fanFlow.preSou.port_a.m_flow < -2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanFlow.preSou.port_b.p) else 11479.591836734693*(ventil...");
+DYNX(W_,9568) = DYNX(W_,9502)-DYNX(W_,9505);
+DYNX(W_,9571) = 5.5102040816326525*DYNX(W_,9545);
+DYNX(W_,9584) = 273.15+divGuarded(DYNX(W_,9667)-2501014.5*DYNX(X_,70),
"ventilation.generation.fanRet.vol.hOut_internal-2501014.5*ventilation.portVent_out[1].Xi_outflow[1]",1006
*(1-DYNX(X_,70))+1860*DYNX(X_,70),"1006*(1-ventilation.portVent_out[1].Xi_outflow[1])+1860*ventilation.portVent_out[1].Xi_outflow[1]");
-DYNX(W_,9621) = DYNX(W_,9532)-DYNX(W_,9605);
-DYNX(W_,9622) = DYNX(X_,72)*DYNX(X_,70);
-DYNX(W_,9623) = 1.1843079200592153E-05*DYNX(W_,9532);
-DYNX(W_,9627) = 287.0512249529787*DYNX(W_,9625)+461.5233290850878*DYNX(X_,70);
-DYNX(W_,9628) = divinvGuarded(55.508435061791985*DYNX(X_,70)+34.52428788658843*
- DYNX(W_,9625),"55.508435061791985*ventilation.portVent_out[1].Xi_outflow[1]+34.52428788658843*ventilation.generation.fanRet.vol.dynBal.medium.X[2]");
-DYNX(W_,9629) = DYNX(W_,9624)-273.15;
-DYNX(W_,9630) = 1E-05*DYNX(W_,9532);
-DYNX(W_,9637) = divGuarded(DYNX(W_,9604),"ventilation.generation.fanRet.preSou.port_a.m_flow",
- IF DYNX(W_,9604) > 2.177777777777778E-05 THEN 1.1843079200592153E-05*
- DYNX(W_,9532) ELSE IF DYNX(W_,9604) < -2.177777777777778E-05 THEN
- 1.1843079200592153E-05*DYNX(W_,9605) ELSE 11479.591836734693*DYNX(W_,9604)*(
- sqr(45918.36734693877*DYNX(W_,9604))-3)*(1.1843079200592153E-05*DYNX(W_,9605)-
- 1.1843079200592153E-05*DYNX(W_,9532))+0.5*(1.1843079200592153E-05*
- DYNX(W_,9532)+1.1843079200592153E-05*DYNX(W_,9605)),"smooth(1, (if noEvent(ventilation.generation.fanRet.preSou.port_a.m_flow > 2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanRet.preSou.port_a.p) else (if noEvent(ventilation.generation.fanRet.preSou.port_a.m_flow < -2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanRet.preSou.port_b.p) else 11479.591836734693*(ventilatio...");
-DYNX(W_,9639) = DYNX(W_,9605)-DYNX(W_,9532);
-DYNX(W_,9642) = 5.5102040816326525*DYNX(W_,9616);
-DYNX(W_,9654) = 273.15+divGuarded(DYNX(W_,9651)-2501014.5*DYNX(X_,74),
+DYNX(W_,9590) = DYNX(W_,9501)-DYNX(W_,9574);
+DYNX(W_,9591) = DYNX(X_,72)*DYNX(X_,70);
+DYNX(W_,9592) = 1.1843079200592153E-05*DYNX(W_,9501);
+DYNX(W_,9596) = 287.0512249529787*DYNX(W_,9594)+461.5233290850878*DYNX(X_,70);
+DYNX(W_,9597) = divinvGuarded(55.508435061791985*DYNX(X_,70)+34.52428788658843*
+ DYNX(W_,9594),"55.508435061791985*ventilation.portVent_out[1].Xi_outflow[1]+34.52428788658843*ventilation.generation.fanRet.vol.dynBal.medium.X[2]");
+DYNX(W_,9598) = DYNX(W_,9593)-273.15;
+DYNX(W_,9599) = 1E-05*DYNX(W_,9501);
+DYNX(W_,9606) = divGuarded(DYNX(W_,9573),"ventilation.generation.fanRet.preSou.port_a.m_flow",
+ IF DYNX(W_,9573) > 2.177777777777778E-05 THEN 1.1843079200592153E-05*
+ DYNX(W_,9501) ELSE IF DYNX(W_,9573) < -2.177777777777778E-05 THEN
+ 1.1843079200592153E-05*DYNX(W_,9574) ELSE 11479.591836734693*DYNX(W_,9573)*(
+ sqr(45918.36734693877*DYNX(W_,9573))-3)*(1.1843079200592153E-05*DYNX(W_,9574)-
+ 1.1843079200592153E-05*DYNX(W_,9501))+0.5*(1.1843079200592153E-05*
+ DYNX(W_,9501)+1.1843079200592153E-05*DYNX(W_,9574)),"smooth(1, (if noEvent(ventilation.generation.fanRet.preSou.port_a.m_flow > 2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanRet.preSou.port_a.p) else (if noEvent(ventilation.generation.fanRet.preSou.port_a.m_flow < -2.177777777777778E-05) then smooth(5, 1.1843079200592153E-05*ventilation.generation.fanRet.preSou.port_b.p) else 11479.591836734693*(ventilatio...");
+DYNX(W_,9608) = DYNX(W_,9574)-DYNX(W_,9501);
+DYNX(W_,9611) = 5.5102040816326525*DYNX(W_,9585);
+DYNX(W_,9623) = 273.15+divGuarded(DYNX(W_,9620)-2501014.5*DYNX(X_,74),
"ventilation.generation.threeWayValve_b.vol.hOut_internal-2501014.5*ventilation.generation.hex.port_a2.Xi_outflow[1]",1006
*(1-DYNX(X_,74))+1860*DYNX(X_,74),"1006*(1-ventilation.generation.hex.port_a2.Xi_outflow[1])+1860*ventilation.generation.hex.port_a2.Xi_outflow[1]");
-DYNX(W_,9655) = DYNX(W_,7803)*DYNX(X_,74);
-DYNX(W_,9659) = 287.0512249529787*DYNX(W_,9657)+461.5233290850878*DYNX(X_,74);
-DYNX(W_,9660) = divinvGuarded(55.508435061791985*DYNX(X_,74)+34.52428788658843*
- DYNX(W_,9657),"55.508435061791985*ventilation.generation.hex.port_a2.Xi_outflow[1]+34.52428788658843*ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]");
-DYNX(W_,9661) = DYNX(W_,9656)-273.15;
-DYNX(W_,9672) = 273.15+divGuarded(DYNX(W_,9606)-2501014.5*DYNX(X_,76),
+DYNX(W_,9624) = DYNX(W_,7763)*DYNX(X_,74);
+DYNX(W_,9628) = 287.0512249529787*DYNX(W_,9626)+461.5233290850878*DYNX(X_,74);
+DYNX(W_,9629) = divinvGuarded(55.508435061791985*DYNX(X_,74)+34.52428788658843*
+ DYNX(W_,9626),"55.508435061791985*ventilation.generation.hex.port_a2.Xi_outflow[1]+34.52428788658843*ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]");
+DYNX(W_,9630) = DYNX(W_,9625)-273.15;
+DYNX(W_,9641) = 273.15+divGuarded(DYNX(W_,9575)-2501014.5*DYNX(X_,76),
"ventilation.generation.threeWayValve_a.vol.hOut_internal-2501014.5*ventilation.generation.hex.port_b2.Xi_outflow[1]",1006
*(1-DYNX(X_,76))+1860*DYNX(X_,76),"1006*(1-ventilation.generation.hex.port_b2.Xi_outflow[1])+1860*ventilation.generation.hex.port_b2.Xi_outflow[1]");
-DYNX(W_,9673) = DYNX(X_,78)*DYNX(X_,76);
-DYNX(W_,9674) = 1.1843079200592153E-05*DYNX(W_,9605);
-DYNX(W_,9678) = 287.0512249529787*DYNX(W_,9676)+461.5233290850878*DYNX(X_,76);
-DYNX(W_,9679) = divinvGuarded(55.508435061791985*DYNX(X_,76)+34.52428788658843*
- DYNX(W_,9676),"55.508435061791985*ventilation.generation.hex.port_b2.Xi_outflow[1]+34.52428788658843*ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]");
-DYNX(W_,9680) = DYNX(W_,9675)-273.15;
-DYNX(W_,9681) = 1E-05*DYNX(W_,9605);
-DYNX(W_,9707) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n4, \nweaDat.datRea.u)")
+DYNX(W_,9642) = DYNX(X_,78)*DYNX(X_,76);
+DYNX(W_,9643) = 1.1843079200592153E-05*DYNX(W_,9574);
+DYNX(W_,9647) = 287.0512249529787*DYNX(W_,9645)+461.5233290850878*DYNX(X_,76);
+DYNX(W_,9648) = divinvGuarded(55.508435061791985*DYNX(X_,76)+34.52428788658843*
+ DYNX(W_,9645),"55.508435061791985*ventilation.generation.hex.port_b2.Xi_outflow[1]+34.52428788658843*ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]");
+DYNX(W_,9649) = DYNX(W_,9644)-273.15;
+DYNX(W_,9650) = 1E-05*DYNX(W_,9574);
+DYNX(W_,9676) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n4, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 4, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 4, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9708) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n5, \nweaDat.datRea.u)")
+DYNX(W_,9677) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n5, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 5, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 5, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9709) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n6, \nweaDat.datRea.u)")
+DYNX(W_,9678) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n6, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 6, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 6, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9710) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n7, \nweaDat.datRea.u)")
+DYNX(W_,9679) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n7, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 7, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 7, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9711) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n8, \nweaDat.datRea.u)")
+DYNX(W_,9680) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n8, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 8, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 8, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9712) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n9, \nweaDat.datRea.u)")
+DYNX(W_,9681) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n9, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 9, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 9, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9713) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n10, \nweaDat.datRea.u)")
+DYNX(W_,9682) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n10, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 10, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 10, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9718) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n15, \nweaDat.datRea.u)")
+DYNX(W_,9687) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n15, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 15, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 15, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9720) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n17, \nweaDat.datRea.u)")
+DYNX(W_,9689) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n17, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 17, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 17, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9721) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n18, \nweaDat.datRea.u)")
+DYNX(W_,9690) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n18, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 18, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 18, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9722) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n19, \nweaDat.datRea.u)")
+DYNX(W_,9691) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n19, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 19, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 19, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9723) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n20, \nweaDat.datRea.u)")
+DYNX(W_,9692) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n20, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 20, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 20, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9724) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n21, \nweaDat.datRea.u)")
+DYNX(W_,9693) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n21, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 21, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 21, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9725) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n22, \nweaDat.datRea.u)")
+DYNX(W_,9694) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n22, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 22, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 22, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9726) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n23, \nweaDat.datRea.u)")
+DYNX(W_,9695) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n23, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 23, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 23, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9727) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n24, \nweaDat.datRea.u)")
+DYNX(W_,9696) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n24, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 24, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 24, DYNX(W_,9672)));
PopModelContext();
-DYNX(W_,9728) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n25, \nweaDat.datRea.u)")
+DYNX(W_,9697) = (PushModelContext(1,"Modelica.Blocks.Tables.Internal.getTable1DValue(\nweaDat.datRea.tableID, \n25, \nweaDat.datRea.u)")
Modelica_Blocks_Tables_Internal_getTable1DValue_M(DymStruc0_construct(
- (Integer)(DYNX(W_,8190))), 25, DYNX(W_,9703)));
+ (Integer)(DYNX(W_,8150))), 25, DYNX(W_,9672)));
PopModelContext();
-DYNX(DYNhelp,2562) = (PushModelContext(1,"Modelica.Math.BooleanVectors.anyTrue(hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.u)")
- Modelica_Math_BooleanVectors_anyTrue(IntegerTemporaryDense( &DYNX(W_,8357), 1,
- 3)));
-PopAllMarks();
-DYNX(W_,8356) = NOT DYNX(DYNhelp,2562);
beginwhenBlock
-whenModelicaS(DYNX(W_,8301))
- DYNX(W_,8302) = LessEqual(DYNTime,"time", DYNX(DP_,295)+DYNX(W_,878)/(double)(2),
+whenModelicaS(DYNX(W_,8261))
+ DYNX(W_,8262) = LessEqual(DYNTime,"time", DYNX(DP_,295)+DYNX(W_,878)/(double)(2),
"building.thermalZone[1].ventCont.dEMA.sampler.startTime+building.thermalZone[1].ventCont.dEMA.sampler.samplePeriod/2",
- 155);
+ 157);
endwhenModelica()
endwhenBlock
beginwhenBlock
-whenModelicaS(DYNX(W_,8301))
- DYNX(W_,8303) = DYNX(W_,8947);
+whenModelicaS(DYNX(W_,8261))
+ DYNX(W_,8263) = DYNX(W_,8910);
endwhenModelica()
endwhenBlock
beginwhenBlock
-whenModelica(DYNX(W_,8349), 51)
- DYNX(W_,8348) = 1+PRE(DYNX(W_,8348), 70);
+whenModelica(DYNX(W_,8311), 51)
+ DYNX(W_,8310) = 1+PRE(DYNX(W_,8310), 72);
endwhenModelica()
endwhenBlock
beginwhenBlock
-whenModelica(DYNX(W_,8389), 52)
- DYNX(W_,8388) = 1+PRE(DYNX(W_,8388), 71);
+whenModelica(DYNX(W_,8352), 52)
+ DYNX(W_,8351) = 1+PRE(DYNX(W_,8351), 73);
endwhenModelica()
endwhenBlock
@@ -23973,22 +23987,22 @@ DefaultSection
CrossingSection
/* Start of reinit equations */
beginwhenBlock
-whenModelica(DYNX(W_,8421), 53)
+whenModelica(DYNX(W_,8384), 53)
reinit(DYNX(X_,38), 0.0);
endwhenModelica()
endwhenBlock
beginwhenBlock
-whenModelica(DYNX(W_,8419), 54)
- reinit(DYNX(X_,31), DYNX(DP_,1118));
+whenModelica(DYNX(W_,8382), 54)
+ reinit(DYNX(X_,31), DYNX(DP_,1124));
endwhenModelica()
endwhenBlock
beginwhenBlock
-whenModelica(DYNX(W_,8412), 55)
- reinit(DYNX(X_,28), DYNX(DP_,1101));
+whenModelica(DYNX(W_,8375), 55)
+ reinit(DYNX(X_,28), DYNX(DP_,1107));
endwhenModelica()
endwhenBlock
@@ -24063,80 +24077,80 @@ DeclareVariable("building.use_ventilation", "=false to disable ventilation suppl
DeclareVariable("building.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
27, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.useProBus.intGains[1]", "Connector of Real input signal",\
- 8473, 0.0, 0.0,1.0,0.0,0,520)
+ 8436, 0.0, 0.0,1.0,0.0,0,520)
DeclareVariable("building.useProBus.intGains[2]", "Connector of Real input signal",\
- 8474, 0.0, 0.0,1.0,0.0,0,520)
+ 8437, 0.0, 0.0,1.0,0.0,0,520)
DeclareVariable("building.useProBus.intGains[3]", "Connector of Real input signal",\
- 8475, 0.0, 0.0,1.0,0.0,0,520)
-DeclareVariable("building.useProBus.TZoneSet[1]", "Zone set temperature [K]", 8283,\
+ 8438, 0.0, 0.0,1.0,0.0,0,520)
+DeclareVariable("building.useProBus.TZoneSet[1]", "Zone set temperature [K]", 8243,\
0.0, 0.0,0.0,0.0,0,648)
DeclareAlias2("building.heatPortCon[1].T", "Port temperature [K|degC]", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.heatPortCon[1].Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 8476, 0.0, 0.0,0.0,0.0,0,776)
-DeclareVariable("building.heatPortRad[1].T", "Port temperature [K|degC]", 8477, \
+ 8439, 0.0, 0.0,0.0,0.0,0,776)
+DeclareVariable("building.heatPortRad[1].T", "Port temperature [K|degC]", 8440, \
288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.heatPortRad[1].Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 8478, 0.0, 0.0,0.0,0.0,0,776)
+ 8441, 0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.outBusDem.TZone[1]", "Indoor air temperature [K|degC]",\
- 8479, 0.0, 0.0,0.0,0.0,0,520)
+ 8442, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("building.outBusDem.TZoneOpe[1]", "Connector of Real output signal [K|degC]",\
- 8480, 0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("building.outBusDem.dTComCoo[1]", "K*s discomfort", 8481, 0.0, \
+ 8443, 0.0, 0.0,0.0,0.0,0,520)
+DeclareVariable("building.outBusDem.dTComCoo[1]", "K*s discomfort", 8444, 0.0, \
0.0,0.0,0.0,0,520)
-DeclareVariable("building.outBusDem.dTComCooOpe[1]", "K*s discomfort", 8482, 0.0,\
+DeclareVariable("building.outBusDem.dTComCooOpe[1]", "K*s discomfort", 8445, 0.0,\
0.0,0.0,0.0,0,520)
-DeclareVariable("building.outBusDem.dTComHea[1]", "K*s discomfort", 8483, 0.0, \
+DeclareVariable("building.outBusDem.dTComHea[1]", "K*s discomfort", 8446, 0.0, \
0.0,0.0,0.0,0,520)
-DeclareVariable("building.outBusDem.dTComHeaOpe[1]", "K*s discomfort", 8484, 0.0,\
+DeclareVariable("building.outBusDem.dTComHeaOpe[1]", "K*s discomfort", 8447, 0.0,\
0.0,0.0,0.0,0,520)
-DeclareVariable("building.outBusDem.dTCtrlHeaOpe[1]", "K*s control deviation", 8485,\
+DeclareVariable("building.outBusDem.dTCtrlHeaOpe[1]", "K*s control deviation", 8448,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("building.outBusDem.dTCtrl[1]", "K*s control deviation", 8486, \
+DeclareVariable("building.outBusDem.dTCtrl[1]", "K*s control deviation", 8449, \
0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("building.portVent_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 132)
+ "building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 132)
DeclareAlias2("building.portVent_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.portVent_in[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.portVent_in[1].Xi_outflow[1]", "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareAlias2("building.portVent_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", 1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", 1, 5, 8476, 132)
DeclareAlias2("building.portVent_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.portVent_out[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.portVent_out[1].Xi_outflow[1]", "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
-DeclareVariable("building.weaBus.TDryBul", "Dry bulb temperature [K|degC]", 8487,\
+DeclareVariable("building.weaBus.TDryBul", "Dry bulb temperature [K|degC]", 8450,\
293.15, 0.0,1E+100,300.0,0,520)
-DeclareVariable("building.weaBus.TWetBul", "Wet bulb temperature [K|degC]", 8488,\
+DeclareVariable("building.weaBus.TWetBul", "Wet bulb temperature [K|degC]", 8451,\
293.15, 0.0,1E+100,300.0,0,584)
-DeclareVariable("building.weaBus.TDewPoi", "Dew point temperature [K|degC]", 8489,\
+DeclareVariable("building.weaBus.TDewPoi", "Dew point temperature [K|degC]", 8452,\
288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- 8490, 288.15, 0.0,1E+100,300.0,0,520)
-DeclareVariable("building.weaBus.relHum", "Relative humidity [1]", 8491, 0.0, \
+ 8453, 288.15, 0.0,1E+100,300.0,0,520)
+DeclareVariable("building.weaBus.relHum", "Relative humidity [1]", 8454, 0.0, \
0.0,1.0,0.0,0,520)
DeclareVariable("building.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- 8492, 0.0, 0.0,0.0,0.0,0,520)
+ 8455, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("building.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- 8493, 0.0, 0.0,0.0,0.0,0,520)
+ 8456, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("building.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- 8494, 0.0, 0.0,0.0,0.0,0,520)
+ 8457, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("building.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- 8495, 0.0, 0.0,1E+100,100.0,0,520)
-DeclareVariable("building.weaBus.winDir", "Wind direction [rad|deg]", 8496, 0.0,\
+ 8458, 0.0, 0.0,1E+100,100.0,0,520)
+DeclareVariable("building.weaBus.winDir", "Wind direction [rad|deg]", 8459, 0.0,\
0.0,0.0,0.0,0,520)
-DeclareVariable("building.weaBus.winSpe", "Wind speed [m/s]", 8497, 0.0, \
+DeclareVariable("building.weaBus.winSpe", "Wind speed [m/s]", 8460, 0.0, \
0.0,0.0,0.0,0,520)
-DeclareVariable("building.weaBus.ceiHei", "Cloud cover ceiling height [m]", 8498,\
+DeclareVariable("building.weaBus.ceiHei", "Cloud cover ceiling height [m]", 8461,\
0.0, 0.0,1E+100,0.0,0,520)
-DeclareVariable("building.weaBus.nOpa", "Opaque sky cover [1]", 8499, 0.0, 0.0,\
+DeclareVariable("building.weaBus.nOpa", "Opaque sky cover [1]", 8462, 0.0, 0.0,\
1.0,0.0,0,520)
-DeclareVariable("building.weaBus.nTot", "Total sky cover [1]", 8500, 0.0, \
+DeclareVariable("building.weaBus.nTot", "Total sky cover [1]", 8463, 0.0, \
0.0,0.0,0.0,0,520)
DeclareVariable("building.weaBus.lat", "Latitude of the location [rad|deg]", 28,\
0.9116922633158369, 0.0,0.0,0.0,0,521)
@@ -24145,25 +24159,25 @@ DeclareVariable("building.weaBus.lon", "Longitude of the location [rad|deg]", 29
DeclareVariable("building.weaBus.alt", "Location altitude above sea level [m]", 30,\
0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.weaBus.pAtm", "Atmospheric pressure [Pa|bar]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 4)
-DeclareVariable("building.weaBus.solAlt", "Solar altitude angle [rad|deg]", 8501,\
+"weaDat.pAtmSel.p", 1, 5, 8152, 4)
+DeclareVariable("building.weaBus.solAlt", "Solar altitude angle [rad|deg]", 8464,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("building.weaBus.solDec", "Solar declination angle [rad|deg]", 8502,\
+DeclareVariable("building.weaBus.solDec", "Solar declination angle [rad|deg]", 8465,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("building.weaBus.solHouAng", "Solar hour angle [rad|deg]", 8503,\
+DeclareVariable("building.weaBus.solHouAng", "Solar hour angle [rad|deg]", 8466,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("building.weaBus.solZen", "Solar zenith angle [rad|deg]", 8504, \
+DeclareVariable("building.weaBus.solZen", "Solar zenith angle [rad|deg]", 8467, \
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("building.weaBus.solTim", "Solar time [s]", 8505, 0.0, 0.0,0.0,\
+DeclareVariable("building.weaBus.solTim", "Solar time [s]", 8468, 0.0, 0.0,0.0,\
0.0,0,520)
-DeclareVariable("building.weaBus.cloTim", "Model time [s]", 8506, 0.0, 0.0,0.0,\
+DeclareVariable("building.weaBus.cloTim", "Model time [s]", 8469, 0.0, 0.0,0.0,\
0.0,0,520)
DeclareVariable("building.buiMeaBus.TZoneMea[1]", "Indoor air temperature [K|degC]",\
- 8507, 300.0, 1.0,10000.0,300.0,0,520)
+ 8470, 300.0, 1.0,10000.0,300.0,0,520)
DeclareVariable("building.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 8508, 0.0, 0.0,0.0,0.0,0,520)
+ 8471, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("building.internalElectricalPin.PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 8509, 0.0, 0.0,0.0,0.0,0,520)
+ 8472, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("building.internalElectricalPin.PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
31, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("building.rho", "Density of medium / fluid in heat distribution system [kg/m3|g/cm3]",\
@@ -25006,39 +25020,39 @@ DeclareVariable("building.thermalZone[1].use_C_flow", "Set to true to enable inp
DeclareVariable("building.thermalZone[1].use_moisture_balance", "If true, input connector QLat_flow is enabled and room air computes moisture balance [:#(type=Boolean)]",\
226, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].intGains[1]", "Input profiles for internal gains persons, machines, light",\
- "building.useProBus.intGains[1]", 1, 5, 8473, 0)
+ "building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareAlias2("building.thermalZone[1].intGains[2]", "Input profiles for internal gains persons, machines, light",\
- "building.useProBus.intGains[2]", 1, 5, 8474, 0)
+ "building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareAlias2("building.thermalZone[1].intGains[3]", "Input profiles for internal gains persons, machines, light",\
- "building.useProBus.intGains[3]", 1, 5, 8475, 0)
+ "building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareAlias2("building.thermalZone[1].weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("building.thermalZone[1].weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("building.thermalZone[1].weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("building.thermalZone[1].weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].weaBus.winDir", "Wind direction [rad|deg]",\
- "building.weaBus.winDir", 1, 5, 8496, 4)
+ "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].weaBus.lat", "Latitude of the location [rad|deg]",\
227, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].weaBus.lon", "Longitude of the location [rad|deg]",\
@@ -25046,33 +25060,33 @@ DeclareVariable("building.thermalZone[1].weaBus.lon", "Longitude of the location
DeclareVariable("building.thermalZone[1].weaBus.alt", "Location altitude above sea level [m]",\
229, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
+"building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("building.thermalZone[1].ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 8510, 0, -100000.0,100000.0,0.1088888888888889,0,776)
+ 8473, 0, -100000.0,100000.0,0.1088888888888889,0,776)
DeclareVariable("building.thermalZone[1].ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 8511, 0.0, 0.0,100000000.0,100000.0,0,520)
+ 8474, 0.0, 0.0,100000000.0,100000.0,0,520)
DeclareVariable("building.thermalZone[1].ports[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 8512, 45300.945, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 8475, 45300.945, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("building.thermalZone[1].ports[1].Xi_outflow[1]", "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareVariable("building.thermalZone[1].ports[2].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 8513, 0, -100000.0,100000.0,0.1088888888888889,0,776)
+ 8476, 0, -100000.0,100000.0,0.1088888888888889,0,776)
DeclareAlias2("building.thermalZone[1].ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.thermalZone[1].ports[2].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.thermalZone[1].ports[2].Xi_outflow[1]", "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareVariable("building.thermalZone[1].ROM.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
@@ -25158,20 +25172,20 @@ DeclareVariable("building.thermalZone[1].ROM.use_moisture_balance", \
DeclareVariable("building.thermalZone[1].ROM.use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
268, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].ROM.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 132)
+ "building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 132)
DeclareAlias2("building.thermalZone[1].ROM.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.thermalZone[1].ROM.ports[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.thermalZone[1].ROM.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareAlias2("building.thermalZone[1].ROM.ports[2].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", 1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", 1, 5, 8476, 132)
DeclareAlias2("building.thermalZone[1].ROM.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.thermalZone[1].ROM.ports[2].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.thermalZone[1].ROM.ports[2].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
@@ -25340,34 +25354,34 @@ DeclareVariable("building.thermalZone[1].ROM.zoneInd", "index of this zone [:#(t
DeclareVariable("building.thermalZone[1].ROM.ATotIze", "Sum of interzonal element areas [m2]",\
336, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.solRad[1]", "Solar radiation transmitted through windows [W/m2]",\
- 8514, 0.0, 0.0,0.0,0.0,0,512)
+ 8477, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.solRad[2]", "Solar radiation transmitted through windows [W/m2]",\
- 8515, 0.0, 0.0,0.0,0.0,0,512)
+ 8478, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.solRad[3]", "Solar radiation transmitted through windows [W/m2]",\
- 8516, 0.0, 0.0,0.0,0.0,0,512)
+ 8479, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.solRad[4]", "Solar radiation transmitted through windows [W/m2]",\
- 8517, 0.0, 0.0,0.0,0.0,0,512)
+ 8480, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].ROM.TAir", "Indoor air temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.thermalZone[1].ROM.TRad", "Mean indoor radiation temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 0)
+ "building.heatPortRad[1].T", 1, 5, 8440, 0)
DeclareVariable("building.thermalZone[1].ROM.extWall.T", "Port temperature [K|degC]",\
- 8518, 288.15, 0.0,1E+100,300.0,0,584)
+ 8481, 288.15, 0.0,1E+100,300.0,0,584)
DeclareVariable("building.thermalZone[1].ROM.extWall.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 8519, 0.0, 0.0,0.0,0.0,0,776)
+ 8482, 0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.window.T", "Port temperature [K|degC]",\
- 8520, 288.15, 0.0,1E+100,300.0,0,584)
+ 8483, 288.15, 0.0,1E+100,300.0,0,584)
DeclareVariable("building.thermalZone[1].ROM.window.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 8521, 0.0, 0.0,0.0,0.0,0,776)
+ 8484, 0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.intGainsConv.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].ROM.intGainsConv.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8522,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8485,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.intGainsRad.T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 4)
+ "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareVariable("building.thermalZone[1].ROM.intGainsRad.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8523,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8486,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.volAir.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
@@ -25417,38 +25431,38 @@ DeclareVariable("building.thermalZone[1].ROM.volAir.V", "Volume [m3]", 354, \
640.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 132)
+"building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 132)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[2].m_flow", 1, 5, 8513, 132)
+"building.thermalZone[1].ports[2].m_flow", 1, 5, 8476, 132)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("building.thermalZone[1].ROM.volAir.ports[2].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareAlias2("building.thermalZone[1].ROM.volAir.T", "Temperature of the fluid [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.thermalZone[1].ROM.volAir.U", "Internal energy of the component [J]",\
"building.thermalZone[1].ROM.volAir.dynBal.U", 1, 1, 1, 0)
DeclareAlias2("building.thermalZone[1].ROM.volAir.p", "Pressure of the fluid [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 0)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 0)
DeclareAlias2("building.thermalZone[1].ROM.volAir.m", "Mass of the component [kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.m", 1, 1, 2, 0)
DeclareAlias2("building.thermalZone[1].ROM.volAir.Xi[1]", "Species concentration of the fluid [1]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 0)
DeclareVariable("building.thermalZone[1].ROM.volAir.mXi[1]", "Species mass of the component [kg]",\
- 8524, 0.0, 0.0,1E+100,0.0,0,512)
+ 8487, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.volAir.rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
355, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.volAir.state_default.p", \
@@ -25479,39 +25493,39 @@ DeclareVariable("building.thermalZone[1].ROM.volAir.useSteadyStateTwoPort", \
365, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("building.thermalZone[1].ROM.volAir.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 1024)
+"building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.XiOut_internal[1]", \
"Internal connector for leaving species concentration of the component [1]", \
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.preTem.port.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1, 5, 8525, 1156)
+"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1, 5, 8488, 1156)
DeclareAlias2("building.thermalZone[1].ROM.volAir.preTem.T", "[K]", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1024)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.portT.y", "Value of Real output",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1024)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1,\
- 5, 8525, 1024)
+ 5, 8488, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1, 5, 8525, 1156)
+"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1, 5, 8488, 1156)
DeclareAlias2("building.thermalZone[1].ROM.volAir.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", -1, 5, 8525, 1156)
+"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", -1, 5, 8488, 1156)
DeclareVariable("building.thermalZone[1].ROM.volAir.use_C_flow", \
"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 366,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].ROM.volAir.heatPort.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].ROM.volAir.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8525,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8488,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
@@ -25555,9 +25569,9 @@ DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.use_C_flow", \
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1, 5, 8525, 1024)
+"building.thermalZone[1].ROM.volAir.heatPort.Q_flow", 1, 5, 8488, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 1024)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.XiOut[1]", \
"Leaving species concentration of the component [1]", "building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1,\
1, 0, 1024)
@@ -25565,30 +25579,30 @@ DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.UOut", "Internal energy
"building.thermalZone[1].ROM.volAir.dynBal.U", 1, 1, 1, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.mXiOut[1]", \
"Species mass of the component [kg]", "building.thermalZone[1].ROM.volAir.mXi[1]", 1,\
- 5, 8524, 1024)
+ 5, 8487, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.mOut", "Mass of the component [kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.m", 1, 1, 2, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 1156)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "building.thermalZone[1].ports[1].p", 1,\
- 5, 8511, 1028)
+ 5, 8474, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 1028)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[2].m_flow", 1, 5, 8513, 1156)
+"building.thermalZone[1].ports[2].m_flow", 1, 5, 8476, 1156)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "building.thermalZone[1].ports[1].p", 1,\
- 5, 8511, 1028)
+ 5, 8474, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 1028)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 1028)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1028)
@@ -25600,51 +25614,51 @@ DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.standardOrderC
383, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "building.thermalZone[1].ports[1].p", 1,\
- 5, 8511, 1024)
+ 5, 8474, 1024)
DeclareState("building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", \
"Structurally independent mass fractions [1]", 0, 0.0, 0.0,1.0,0.01,0,2592)
DeclareDerivative("building.thermalZone[1].ROM.volAir.dynBal.medium.der(Xi[1])",\
"der(Structurally independent mass fractions) [s-1]", 0, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "building.thermalZone[1].ports[1].h_outflow", 1,\
- 5, 8512, 1024)
+ 5, 8475, 1024)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 8526, 0.0, 0.0,100000.0,1.0,0,2560)
+"Density of medium [kg/m3|g/cm3]", 8489, 0.0, 0.0,100000.0,1.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 8527, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 8490, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1024)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 8528, 0.0, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 8491, 0.0, 0.0,\
1.0,1.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.u", \
-"Specific internal energy of medium [J/kg]", 8529, 0.0, -100000000.0,100000000.0,\
+"Specific internal energy of medium [J/kg]", 8492, 0.0, -100000000.0,100000000.0,\
1000000.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 8530, 1000.0, 0.0,\
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 8493, 1000.0, 0.0,\
10000000.0,1000.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 8531, 0.032, 0.001,0.25,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 8494, 0.032, 0.001,0.25,\
0.032,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "building.thermalZone[1].ports[1].p", 1,\
- 5, 8511, 1024)
+ 5, 8474, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "building.thermalZone[1].ROM.volAir.dynBal.medium.T", 1,\
- 5, 8527, 1024)
+ 5, 8490, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.state.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.medium.state.X[2]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]", 1, 5, 8528, 1024)
+"building.thermalZone[1].ROM.volAir.dynBal.medium.X[2]", 1, 5, 8491, 1024)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 8532, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 8495, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 8533, 0.0, 0.0,0.0,0.0,0,2560)
+"Absolute pressure of medium in [bar] [bar]", 8496, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.medium.dT", \
-"Temperature difference used to compute enthalpy [K,]", 8534, 20.0, 0.0,0.0,0.0,\
+"Temperature difference used to compute enthalpy [K,]", 8497, 20.0, 0.0,0.0,0.0,\
0,2560)
DeclareState("building.thermalZone[1].ROM.volAir.dynBal.U", "Internal energy of fluid [J]",\
1, 0.0, 0.0,0.0,100000.0,0,2592)
@@ -25656,14 +25670,14 @@ DeclareDerivative("building.thermalZone[1].ROM.volAir.dynBal.der(m)", \
"der(Mass of fluid) [kg/s]", 2, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.mXi[1]", \
"Masses of independent components in the fluid [kg]", "building.thermalZone[1].ROM.volAir.mXi[1]", 1,\
- 5, 8524, 1024)
+ 5, 8487, 1024)
DeclareAlias2("building.thermalZone[1].ROM.volAir.dynBal.mb_flow", \
"Mass flows across boundaries [kg/s]", "building.thermalZone[1].ROM.volAir.dynBal.der(m)", 1,\
6, 2, 1024)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.mbXi_flow[1]", \
-"Substance mass flows across boundaries [kg/s]", 8535, 0.0, 0.0,0.0,0.0,0,2560)
+"Substance mass flows across boundaries [kg/s]", 8498, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 8536, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 8499, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.fluidVolume", \
"Volume [m3]", 384, 640.0, 0.0,0.0,0.0,0,2561)
@@ -25671,13 +25685,13 @@ DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.CSen", \
"Aditional heat capacity for implementing mFactor [J/K]", 385, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.ports_H_flow[1]", \
-"[W]", 8537, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 8500, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.ports_H_flow[2]", \
-"[W]", 8538, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 8501, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.ports_mXi_flow[1, 1]",\
- "[kg/s]", 8539, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 8502, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.ports_mXi_flow[2, 1]",\
- "[kg/s]", 8540, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 8503, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.cp_default", \
"Heat capacity, to compute additional dry mass [J/(kg.K)]", 386, 1014.54, \
0.0,0.0,0.0,0,2561)
@@ -25708,83 +25722,83 @@ DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal._simplify_mWat_flow",
DeclareVariable("building.thermalZone[1].ROM.volAir.dynBal.mWat_flow_internal", \
"Needed to connect to conditional connector [kg/s]", 397, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.resWin.Q_flow", "Heat flow rate from port_a -> port_b [W]",\
- "building.thermalZone[1].ROM.window.Q_flow", 1, 5, 8521, 0)
+ "building.thermalZone[1].ROM.window.Q_flow", 1, 5, 8484, 0)
DeclareVariable("building.thermalZone[1].ROM.resWin.dT", "port_a.T - port_b.T [K,]",\
- 8541, 0.0, 0.0,0.0,0.0,0,512)
+ 8504, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].ROM.resWin.port_a.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.window.T", 1, 5, 8520, 4)
+ "building.thermalZone[1].ROM.window.T", 1, 5, 8483, 4)
DeclareAlias2("building.thermalZone[1].ROM.resWin.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.window.Q_flow", 1, 5, 8521, 132)
+"building.thermalZone[1].ROM.window.Q_flow", 1, 5, 8484, 132)
DeclareVariable("building.thermalZone[1].ROM.resWin.port_b.T", "Port temperature [K|degC]",\
- 8542, 288.15, 0.0,1E+100,300.0,0,520)
+ 8505, 288.15, 0.0,1E+100,300.0,0,520)
DeclareAlias2("building.thermalZone[1].ROM.resWin.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8521, 132)
+"building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8484, 132)
DeclareVariable("building.thermalZone[1].ROM.resWin.R", "Constant thermal resistance of material [K/W]",\
398, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("building.thermalZone[1].ROM.convHeatSol.T_ref", \
"Reference temperature [K|degC]", 208, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("building.thermalZone[1].ROM.convHeatSol.alpha", \
"Temperature coefficient of heat flow rate [1/K]", 399, 0, 0.0,0.0,0.0,0,513)
-DeclareVariable("building.thermalZone[1].ROM.convHeatSol.Q_flow", "[W]", 8543, \
+DeclareVariable("building.thermalZone[1].ROM.convHeatSol.Q_flow", "[W]", 8506, \
0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].ROM.convHeatSol.port.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.thermalZone[1].ROM.convHeatSol.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convHeatSol.Q_flow", -1, 5, 8543, 132)
+"building.thermalZone[1].ROM.convHeatSol.Q_flow", -1, 5, 8506, 132)
DeclareParameter("building.thermalZone[1].ROM.radHeatSol[1].T_ref", \
"Reference temperature [K|degC]", 209, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("building.thermalZone[1].ROM.radHeatSol[1].alpha", \
"Temperature coefficient of heat flow rate [1/K]", 400, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[1].Q_flow", "[W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow", 1, 5, 8554, 0)
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow", 1, 5, 8517, 0)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[1].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].T", 1,\
- 5, 8553, 4)
+ 5, 8516, 4)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[1].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow", -1, 5, 8554,\
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow", -1, 5, 8517,\
132)
DeclareParameter("building.thermalZone[1].ROM.radHeatSol[2].T_ref", \
"Reference temperature [K|degC]", 210, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("building.thermalZone[1].ROM.radHeatSol[2].alpha", \
"Temperature coefficient of heat flow rate [1/K]", 401, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[2].Q_flow", "[W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow", 1, 5, 8556, 0)
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow", 1, 5, 8519, 0)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[2].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].T", 1,\
- 5, 8555, 4)
+ 5, 8518, 4)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[2].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow", -1, 5, 8556,\
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow", -1, 5, 8519,\
132)
DeclareParameter("building.thermalZone[1].ROM.radHeatSol[3].T_ref", \
"Reference temperature [K|degC]", 211, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("building.thermalZone[1].ROM.radHeatSol[3].alpha", \
"Temperature coefficient of heat flow rate [1/K]", 402, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[3].Q_flow", "[W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow", 1, 5, 8558, 0)
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow", 1, 5, 8521, 0)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[3].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].T", 1,\
- 5, 8557, 4)
+ 5, 8520, 4)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[3].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow", -1, 5, 8558,\
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow", -1, 5, 8521,\
132)
DeclareParameter("building.thermalZone[1].ROM.radHeatSol[4].T_ref", \
"Reference temperature [K|degC]", 212, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("building.thermalZone[1].ROM.radHeatSol[4].alpha", \
"Temperature coefficient of heat flow rate [1/K]", 403, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[4].Q_flow", "[W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow", 1, 5, 8560, 0)
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow", 1, 5, 8523, 0)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[4].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].T", 1,\
- 5, 8559, 4)
+ 5, 8522, 4)
DeclareAlias2("building.thermalZone[1].ROM.radHeatSol[4].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow", -1, 5, 8560,\
+"building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow", -1, 5, 8523,\
132)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.nOut", \
"Number of splitter outputs [:#(type=Integer)]", 404, 5, 0.0,0.0,0.0,0,517)
@@ -25806,35 +25820,35 @@ DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.splitFactor[5
"Matrix of split factor for outputs (between 0 and 1 for each row)", 410, \
0.11108017817371936, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterIntGains.portIn[1].T", \
-"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8477, 4)
+"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterIntGains.portIn[1].Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.intGainsRad.Q_flow", 1, 5, 8523, 132)
+"building.thermalZone[1].ROM.intGainsRad.Q_flow", 1, 5, 8486, 132)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T",\
- "Port temperature [K|degC]", 8544, 288.15, 0.0,1E+100,300.0,0,520)
+ "Port temperature [K|degC]", 8507, 288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8545,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8508,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[2].T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5,\
- 8542, 4)
+ 8505, 4)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[2].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8546,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8509,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T",\
- "Port temperature [K|degC]", 8547, 288.15, 0.0,1E+100,300.0,0,520)
+ "Port temperature [K|degC]", 8510, 288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8548,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8511,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T",\
- "Port temperature [K|degC]", 8549, 288.15, 0.0,1E+100,300.0,0,584)
+ "Port temperature [K|degC]", 8512, 288.15, 0.0,1E+100,300.0,0,584)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8550,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8513,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T",\
- "Port temperature [K|degC]", 8551, 288.15, 0.0,1E+100,300.0,0,584)
+ "Port temperature [K|degC]", 8514, 288.15, 0.0,1E+100,300.0,0,584)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8552,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8515,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.nOut", \
"Number of splitter outputs [:#(type=Integer)]", 411, 5, 0.0,0.0,0.0,0,517)
@@ -25901,54 +25915,54 @@ DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.splitFactor[5,
"Matrix of split factor for outputs (between 0 and 1 for each row)", 432, \
0.11587048061565267, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].T", \
-"Port temperature [K|degC]", 8553, 288.15, 0.0,1E+100,300.0,0,520)
+"Port temperature [K|degC]", 8516, 288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8554,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8517,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].T", \
-"Port temperature [K|degC]", 8555, 288.15, 0.0,1E+100,300.0,0,520)
+"Port temperature [K|degC]", 8518, 288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8556,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8519,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].T", \
-"Port temperature [K|degC]", 8557, 288.15, 0.0,1E+100,300.0,0,520)
+"Port temperature [K|degC]", 8520, 288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8558,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8521,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].T", \
-"Port temperature [K|degC]", 8559, 288.15, 0.0,1E+100,300.0,0,520)
+"Port temperature [K|degC]", 8522, 288.15, 0.0,1E+100,300.0,0,520)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8560,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8523,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[1].T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 4)
+ 5, 8507, 4)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[1].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8561,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8524,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[2].T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5,\
- 8542, 4)
+ 8505, 4)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[2].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8562,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8525,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[3].T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 4)
+ 5, 8510, 4)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[3].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8563,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8526,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[4].T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1,\
- 5, 8549, 4)
+ 5, 8512, 4)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[4].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8564,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8527,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[5].T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1,\
- 5, 8551, 4)
+ 5, 8514, 4)
DeclareVariable("building.thermalZone[1].ROM.thermSplitterSolRad.portOut[5].Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8565,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8528,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.n", "Number of RC-elements [:#(type=Integer)]",\
433, 1, 1.0,1E+100,0.0,0,517)
@@ -25964,15 +25978,15 @@ DeclareVariable("building.thermalZone[1].ROM.extWallRC.CExt[1]", \
DeclareVariable("building.thermalZone[1].ROM.extWallRC.T_start", \
"Initial temperature of capacities [K|degC]", 437, 288.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.port_a.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1, 5, 8544, 4)
+ "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1, 5, 8507, 4)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8566,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8529,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.port_b.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.extWall.T", 1, 5, 8518, 4)
+ "building.thermalZone[1].ROM.extWall.T", 1, 5, 8481, 4)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWall.Q_flow", 1, 5, 8519, 132)
+"building.thermalZone[1].ROM.extWall.Q_flow", 1, 5, 8482, 132)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].C", \
"Heat capacity of element (= cp*m) [J/K]", 438, 0.0, 0.0,0.0,0.0,0,513)
DeclareState("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].T", \
@@ -25980,185 +25994,185 @@ DeclareState("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].T", \
DeclareDerivative("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].der(T)",\
"der(Temperature of element) [K/s]", 3, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].der_T", \
-"Time derivative of temperature (= der(T)) [K/s]", 8567, 0, 0.0,0.0,0.0,0,528)
+"Time derivative of temperature (= der(T)) [K/s]", 8530, 0, 0.0,0.0,0.0,0,528)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.extWallRC.thermCapExt[1].T", 1,\
1, 3, 4)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermCapExt[1].port.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8568,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8531,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExt[1].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.extWallRC.port_a.Q_flow", 1,\
- 5, 8566, 1024)
+ 5, 8529, 1024)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermResExt[1].dT", \
-"port_a.T - port_b.T [K,]", 8569, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8532, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExt[1].port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 1028)
+ 5, 8507, 1028)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExt[1].port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWallRC.port_a.Q_flow", 1, 5, 8566, 1156)
+"building.thermalZone[1].ROM.extWallRC.port_a.Q_flow", 1, 5, 8529, 1156)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExt[1].port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.extWallRC.thermCapExt[1].T", 1,\
1, 3, 1028)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExt[1].port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWallRC.port_a.Q_flow", -1, 5, 8566, 1156)
+"building.thermalZone[1].ROM.extWallRC.port_a.Q_flow", -1, 5, 8529, 1156)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermResExt[1].R", \
"Constant thermal resistance of material [K/W]", 439, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExtRem.Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.extWall.Q_flow", -1,\
- 5, 8519, 1024)
+ 5, 8482, 1024)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermResExtRem.dT", \
-"port_a.T - port_b.T [K,]", 8570, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8533, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExtRem.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.extWallRC.thermCapExt[1].T", 1,\
1, 3, 1028)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExtRem.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8519, 1156)
+"building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8482, 1156)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExtRem.port_b.T", \
-"Port temperature [K|degC]", "building.thermalZone[1].ROM.extWall.T", 1, 5, 8518,\
+"Port temperature [K|degC]", "building.thermalZone[1].ROM.extWall.T", 1, 5, 8481,\
1028)
DeclareAlias2("building.thermalZone[1].ROM.extWallRC.thermResExtRem.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWall.Q_flow", 1, 5, 8519, 1156)
+"building.thermalZone[1].ROM.extWall.Q_flow", 1, 5, 8482, 1156)
DeclareVariable("building.thermalZone[1].ROM.extWallRC.thermResExtRem.R", \
"Constant thermal resistance of material [K/W]", 440, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.convExtWall.Q_flow", \
-"Heat flow rate from solid -> fluid [W]", 8571, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from solid -> fluid [W]", 8534, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.convExtWall.dT", "= solid.T - fluid.T [K,]",\
- 8572, 0, 0.0,0.0,0.0,0,2624)
+ 8535, 0, 0.0,0.0,0.0,0,2624)
DeclareAlias2("building.thermalZone[1].ROM.convExtWall.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].ROM.hConExtWall_const.k", 1, 5, 441, 1024)
DeclareAlias2("building.thermalZone[1].ROM.convExtWall.solid.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 1028)
+ 5, 8507, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convExtWall.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convExtWall.Q_flow", 1, 5, 8571, 1156)
+"building.thermalZone[1].ROM.convExtWall.Q_flow", 1, 5, 8534, 1156)
DeclareAlias2("building.thermalZone[1].ROM.convExtWall.fluid.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convExtWall.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convExtWall.Q_flow", -1, 5, 8571, 1156)
+"building.thermalZone[1].ROM.convExtWall.Q_flow", -1, 5, 8534, 1156)
DeclareVariable("building.thermalZone[1].ROM.hConExtWall_const.k", \
"Constant output value", 441, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.hConExtWall_const.y", \
"Connector of Real output signal", "building.thermalZone[1].ROM.hConExtWall_const.k", 1,\
5, 441, 1024)
DeclareVariable("building.thermalZone[1].ROM.convWin.Q_flow", "Heat flow rate from solid -> fluid [W]",\
- 8573, 0.0, 0.0,0.0,0.0,0,2560)
+ 8536, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.convWin.dT", "= solid.T - fluid.T [K,]",\
- 8574, 0.0, 0.0,0.0,0.0,0,2560)
+ 8537, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.convWin.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].ROM.hConWin_const.k", 1, 5, 305, 1024)
DeclareAlias2("building.thermalZone[1].ROM.convWin.solid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5, 8542, 1028)
+ "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5, 8505, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convWin.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convWin.Q_flow", 1, 5, 8573, 1156)
+"building.thermalZone[1].ROM.convWin.Q_flow", 1, 5, 8536, 1156)
DeclareAlias2("building.thermalZone[1].ROM.convWin.fluid.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convWin.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convWin.Q_flow", -1, 5, 8573, 1156)
+"building.thermalZone[1].ROM.convWin.Q_flow", -1, 5, 8536, 1156)
DeclareVariable("building.thermalZone[1].ROM.eRadSol[1].k", "Gain value multiplied with input signal [m2]",\
442, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[1].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[1]", 1, 5, 8514, 1024)
+ "building.thermalZone[1].ROM.solRad[1]", 1, 5, 8477, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[1].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow", 1, 5, 8554,\
+ "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[1].Q_flow", 1, 5, 8517,\
1024)
DeclareVariable("building.thermalZone[1].ROM.eRadSol[2].k", "Gain value multiplied with input signal [m2]",\
443, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[2].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[2]", 1, 5, 8515, 1024)
+ "building.thermalZone[1].ROM.solRad[2]", 1, 5, 8478, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[2].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow", 1, 5, 8556,\
+ "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[2].Q_flow", 1, 5, 8519,\
1024)
DeclareVariable("building.thermalZone[1].ROM.eRadSol[3].k", "Gain value multiplied with input signal [m2]",\
444, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[3].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[3]", 1, 5, 8516, 1024)
+ "building.thermalZone[1].ROM.solRad[3]", 1, 5, 8479, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[3].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow", 1, 5, 8558,\
+ "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[3].Q_flow", 1, 5, 8521,\
1024)
DeclareVariable("building.thermalZone[1].ROM.eRadSol[4].k", "Gain value multiplied with input signal [m2]",\
445, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[4].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[4]", 1, 5, 8517, 1024)
+ "building.thermalZone[1].ROM.solRad[4]", 1, 5, 8480, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eRadSol[4].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow", 1, 5, 8560,\
+ "building.thermalZone[1].ROM.thermSplitterSolRad.portIn[4].Q_flow", 1, 5, 8523,\
1024)
DeclareVariable("building.thermalZone[1].ROM.eConvSol[1].k", "Gain value multiplied with input signal [m2]",\
446, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[1].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[1]", 1, 5, 8514, 1024)
+ "building.thermalZone[1].ROM.solRad[1]", 1, 5, 8477, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[1].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.sumSolRad.u[1]", 1, 5, 8577, 1024)
+ "building.thermalZone[1].ROM.sumSolRad.u[1]", 1, 5, 8540, 1024)
DeclareVariable("building.thermalZone[1].ROM.eConvSol[2].k", "Gain value multiplied with input signal [m2]",\
447, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[2].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[2]", 1, 5, 8515, 1024)
+ "building.thermalZone[1].ROM.solRad[2]", 1, 5, 8478, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[2].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.sumSolRad.u[2]", 1, 5, 8578, 1024)
+ "building.thermalZone[1].ROM.sumSolRad.u[2]", 1, 5, 8541, 1024)
DeclareVariable("building.thermalZone[1].ROM.eConvSol[3].k", "Gain value multiplied with input signal [m2]",\
448, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[3].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[3]", 1, 5, 8516, 1024)
+ "building.thermalZone[1].ROM.solRad[3]", 1, 5, 8479, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[3].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.sumSolRad.u[3]", 1, 5, 8579, 1024)
+ "building.thermalZone[1].ROM.sumSolRad.u[3]", 1, 5, 8542, 1024)
DeclareVariable("building.thermalZone[1].ROM.eConvSol[4].k", "Gain value multiplied with input signal [m2]",\
449, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[4].u", "Input signal connector [W/m2]",\
- "building.thermalZone[1].ROM.solRad[4]", 1, 5, 8517, 1024)
+ "building.thermalZone[1].ROM.solRad[4]", 1, 5, 8480, 1024)
DeclareAlias2("building.thermalZone[1].ROM.eConvSol[4].y", "Output signal connector [W]",\
- "building.thermalZone[1].ROM.sumSolRad.u[4]", 1, 5, 8580, 1024)
+ "building.thermalZone[1].ROM.sumSolRad.u[4]", 1, 5, 8543, 1024)
DeclareVariable("building.thermalZone[1].ROM.resExtWallWin.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8575, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8538, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resExtWallWin.dT", "port_a.T - port_b.T [K,]",\
- 8576, 0.0, 0.0,0.0,0.0,0,2560)
+ 8539, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallWin.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5,\
- 8542, 1028)
+ 8505, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallWin.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallWin.Q_flow", 1, 5, 8575, 1156)
+"building.thermalZone[1].ROM.resExtWallWin.Q_flow", 1, 5, 8538, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallWin.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 1028)
+ 5, 8507, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallWin.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallWin.Q_flow", -1, 5, 8575, 1156)
+"building.thermalZone[1].ROM.resExtWallWin.Q_flow", -1, 5, 8538, 1156)
DeclareVariable("building.thermalZone[1].ROM.resExtWallWin.G", "Constant thermal conductance of material [W/K]",\
450, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.senTAir.T", "Absolute temperature as output signal [K]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1024)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1024)
DeclareAlias2("building.thermalZone[1].ROM.senTAir.port.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareVariable("building.thermalZone[1].ROM.senTAir.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", 451,\
0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("building.thermalZone[1].ROM.senTRad.T", "Absolute temperature as output signal [K]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 1024)
+ "building.heatPortRad[1].T", 1, 5, 8440, 1024)
DeclareAlias2("building.thermalZone[1].ROM.senTRad.port.T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 1028)
+ "building.heatPortRad[1].T", 1, 5, 8440, 1028)
DeclareVariable("building.thermalZone[1].ROM.senTRad.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", 452,\
0, 0.0,0.0,0.0,0,2825)
DeclareVariable("building.thermalZone[1].ROM.sumSolRad.nin", "Number of inputs [:#(type=Integer)]",\
453, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("building.thermalZone[1].ROM.sumSolRad.u[1]", "Connector of Real input signals",\
- 8577, 0.0, 0.0,0.0,0.0,0,2560)
+ 8540, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.sumSolRad.u[2]", "Connector of Real input signals",\
- 8578, 0.0, 0.0,0.0,0.0,0,2560)
+ 8541, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.sumSolRad.u[3]", "Connector of Real input signals",\
- 8579, 0.0, 0.0,0.0,0.0,0,2560)
+ 8542, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.sumSolRad.u[4]", "Connector of Real input signals",\
- 8580, 0.0, 0.0,0.0,0.0,0,2560)
+ 8543, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.sumSolRad.y", "Connector of Real output signal",\
- "building.thermalZone[1].ROM.convHeatSol.Q_flow", 1, 5, 8543, 1024)
+ "building.thermalZone[1].ROM.convHeatSol.Q_flow", 1, 5, 8506, 1024)
DeclareParameter("building.thermalZone[1].ROM.sumSolRad.k[1]", "Optional: sum coefficients",\
213, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].ROM.sumSolRad.k[2]", "Optional: sum coefficients",\
@@ -26178,9 +26192,9 @@ DeclareVariable("building.thermalZone[1].ROM.intWallRC.CInt[1]", \
DeclareVariable("building.thermalZone[1].ROM.intWallRC.T_start", \
"Initial temperature of capacities [K|degC]", 457, 288.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.port_a.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1, 5, 8547, 4)
+ "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1, 5, 8510, 4)
DeclareVariable("building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8581,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8544,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.intWallRC.thermCapInt[1].C", \
"Heat capacity of element (= cp*m) [J/K]", 458, 0.0, 0.0,0.0,0.0,0,513)
@@ -26189,93 +26203,93 @@ DeclareState("building.thermalZone[1].ROM.intWallRC.thermCapInt[1].T", \
DeclareDerivative("building.thermalZone[1].ROM.intWallRC.thermCapInt[1].der(T)",\
"der(Temperature of element) [K/s]", 4, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.intWallRC.thermCapInt[1].der_T", \
-"Time derivative of temperature (= der(T)) [K/s]", 8582, 0, 0.0,0.0,0.0,0,528)
+"Time derivative of temperature (= der(T)) [K/s]", 8545, 0, 0.0,0.0,0.0,0,528)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermCapInt[1].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.intWallRC.thermCapInt[1].T", 1,\
1, 4, 4)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermCapInt[1].port.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", 1, 5, 8581, 132)
+"building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", 1, 5, 8544, 132)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermResInt[1].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", 1,\
- 5, 8581, 1024)
+ 5, 8544, 1024)
DeclareVariable("building.thermalZone[1].ROM.intWallRC.thermResInt[1].dT", \
-"port_a.T - port_b.T [K,]", 8583, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8546, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermResInt[1].port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 1028)
+ 5, 8510, 1028)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermResInt[1].port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", 1, 5, 8581, 1156)
+"building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", 1, 5, 8544, 1156)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermResInt[1].port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.intWallRC.thermCapInt[1].T", 1,\
1, 4, 1028)
DeclareAlias2("building.thermalZone[1].ROM.intWallRC.thermResInt[1].port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", -1, 5, 8581, 1156)
+"building.thermalZone[1].ROM.intWallRC.port_a.Q_flow", -1, 5, 8544, 1156)
DeclareVariable("building.thermalZone[1].ROM.intWallRC.thermResInt[1].R", \
"Constant thermal resistance of material [K/W]", 459, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.convIntWall.Q_flow", \
-"Heat flow rate from solid -> fluid [W]", 8584, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from solid -> fluid [W]", 8547, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.convIntWall.dT", "= solid.T - fluid.T [K,]",\
- 8585, 0, 0.0,0.0,0.0,0,2624)
+ 8548, 0, 0.0,0.0,0.0,0,2624)
DeclareAlias2("building.thermalZone[1].ROM.convIntWall.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].ROM.hConIntWall.k", 1, 5, 460, 1024)
DeclareAlias2("building.thermalZone[1].ROM.convIntWall.solid.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 1028)
+ 5, 8510, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convIntWall.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convIntWall.Q_flow", 1, 5, 8584, 1156)
+"building.thermalZone[1].ROM.convIntWall.Q_flow", 1, 5, 8547, 1156)
DeclareAlias2("building.thermalZone[1].ROM.convIntWall.fluid.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convIntWall.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convIntWall.Q_flow", -1, 5, 8584, 1156)
+"building.thermalZone[1].ROM.convIntWall.Q_flow", -1, 5, 8547, 1156)
DeclareVariable("building.thermalZone[1].ROM.hConIntWall.k", "Constant output value",\
460, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.hConIntWall.y", "Connector of Real output signal",\
"building.thermalZone[1].ROM.hConIntWall.k", 1, 5, 460, 1024)
DeclareVariable("building.thermalZone[1].ROM.resExtWallIntWall.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8586, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8549, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resExtWallIntWall.dT", \
-"port_a.T - port_b.T [K,]", 8587, 0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8550, 0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallIntWall.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 1028)
+ 5, 8507, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallIntWall.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallIntWall.Q_flow", 1, 5, 8586, 1156)
+"building.thermalZone[1].ROM.resExtWallIntWall.Q_flow", 1, 5, 8549, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallIntWall.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 1028)
+ 5, 8510, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallIntWall.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallIntWall.Q_flow", -1, 5, 8586, 1156)
+"building.thermalZone[1].ROM.resExtWallIntWall.Q_flow", -1, 5, 8549, 1156)
DeclareVariable("building.thermalZone[1].ROM.resExtWallIntWall.G", \
"Constant thermal conductance of material [W/K]", 461, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.resIntWallWin.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8588, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8551, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resIntWallWin.dT", "port_a.T - port_b.T [K,]",\
- 8589, 0, 0.0,0.0,0.0,0,2560)
+ 8552, 0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallWin.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5,\
- 8542, 1028)
+ 8505, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallWin.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resIntWallWin.Q_flow", 1, 5, 8588, 1156)
+"building.thermalZone[1].ROM.resIntWallWin.Q_flow", 1, 5, 8551, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallWin.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 1028)
+ 5, 8510, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallWin.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resIntWallWin.Q_flow", -1, 5, 8588, 1156)
+"building.thermalZone[1].ROM.resIntWallWin.Q_flow", -1, 5, 8551, 1156)
DeclareVariable("building.thermalZone[1].ROM.resIntWallWin.G", "Constant thermal conductance of material [W/K]",\
462, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.floor.T", "Port temperature [K|degC]",\
463, 286.15, 0.0,1E+100,300.0,0,521)
DeclareVariable("building.thermalZone[1].ROM.floor.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 8590, 0.0, 0.0,0.0,0.0,0,776)
+ 8553, 0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.floorRC.n", "Number of RC-elements [:#(type=Integer)]",\
464, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("building.thermalZone[1].ROM.floorRC.RExt[1]", "Vector of resistors, from port_a to port_b [K/W]",\
@@ -26287,15 +26301,15 @@ DeclareVariable("building.thermalZone[1].ROM.floorRC.CExt[1]", "Vector of heat c
DeclareVariable("building.thermalZone[1].ROM.floorRC.T_start", "Initial temperature of capacities [K|degC]",\
468, 288.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.port_a.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1, 5, 8549, 4)
+ "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1, 5, 8512, 4)
DeclareVariable("building.thermalZone[1].ROM.floorRC.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8591,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8554,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.floorRC.port_b.T", "Port temperature [K|degC]",\
469, 286.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.floor.Q_flow", 1, 5, 8590, 132)
+"building.thermalZone[1].ROM.floor.Q_flow", 1, 5, 8553, 132)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermCapExt[1].C", \
"Heat capacity of element (= cp*m) [J/K]", 470, 0.0, 0.0,0.0,0.0,0,513)
DeclareState("building.thermalZone[1].ROM.floorRC.thermCapExt[1].T", \
@@ -26303,128 +26317,128 @@ DeclareState("building.thermalZone[1].ROM.floorRC.thermCapExt[1].T", \
DeclareDerivative("building.thermalZone[1].ROM.floorRC.thermCapExt[1].der(T)", \
"der(Temperature of element) [K/s]", 5, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermCapExt[1].der_T", \
-"Time derivative of temperature (= der(T)) [K/s]", 8592, 0, 0.0,0.0,0.0,0,528)
+"Time derivative of temperature (= der(T)) [K/s]", 8555, 0, 0.0,0.0,0.0,0,528)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermCapExt[1].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.floorRC.thermCapExt[1].T", 1,\
1, 5, 4)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermCapExt[1].port.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8593,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8556,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExt[1].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.floorRC.port_a.Q_flow", 1,\
- 5, 8591, 1024)
+ 5, 8554, 1024)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermResExt[1].dT", \
-"port_a.T - port_b.T [K,]", 8594, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8557, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExt[1].port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1,\
- 5, 8549, 1028)
+ 5, 8512, 1028)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExt[1].port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.floorRC.port_a.Q_flow", 1, 5, 8591, 1156)
+"building.thermalZone[1].ROM.floorRC.port_a.Q_flow", 1, 5, 8554, 1156)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExt[1].port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.floorRC.thermCapExt[1].T", 1,\
1, 5, 1028)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExt[1].port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.floorRC.port_a.Q_flow", -1, 5, 8591, 1156)
+"building.thermalZone[1].ROM.floorRC.port_a.Q_flow", -1, 5, 8554, 1156)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermResExt[1].R", \
"Constant thermal resistance of material [K/W]", 471, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExtRem.Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.floor.Q_flow", -1,\
- 5, 8590, 1024)
+ 5, 8553, 1024)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermResExtRem.dT", \
-"port_a.T - port_b.T [K,]", 8595, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8558, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExtRem.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.floorRC.thermCapExt[1].T", 1,\
1, 5, 1028)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExtRem.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.floor.Q_flow", -1, 5, 8590, 1156)
+"building.thermalZone[1].ROM.floor.Q_flow", -1, 5, 8553, 1156)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermResExtRem.port_b.T", \
"Port temperature [K|degC]", 472, 286.15, 0.0,1E+100,300.0,0,2569)
DeclareAlias2("building.thermalZone[1].ROM.floorRC.thermResExtRem.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.floor.Q_flow", 1, 5, 8590, 1156)
+"building.thermalZone[1].ROM.floor.Q_flow", 1, 5, 8553, 1156)
DeclareVariable("building.thermalZone[1].ROM.floorRC.thermResExtRem.R", \
"Constant thermal resistance of material [K/W]", 473, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.convFloor.Q_flow", "Heat flow rate from solid -> fluid [W]",\
- 8596, 0.0, 0.0,0.0,0.0,0,2560)
+ 8559, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.convFloor.dT", "= solid.T - fluid.T [K,]",\
- 8597, 0.0, 0.0,0.0,0.0,0,2560)
+ 8560, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.convFloor.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].ROM.hConFloor_const.k", 1, 5, 474, 1024)
DeclareAlias2("building.thermalZone[1].ROM.convFloor.solid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1, 5, 8549, 1028)
+ "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1, 5, 8512, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convFloor.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convFloor.Q_flow", 1, 5, 8596, 1156)
+"building.thermalZone[1].ROM.convFloor.Q_flow", 1, 5, 8559, 1156)
DeclareAlias2("building.thermalZone[1].ROM.convFloor.fluid.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convFloor.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convFloor.Q_flow", -1, 5, 8596, 1156)
+"building.thermalZone[1].ROM.convFloor.Q_flow", -1, 5, 8559, 1156)
DeclareVariable("building.thermalZone[1].ROM.hConFloor_const.k", \
"Constant output value", 474, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.hConFloor_const.y", "Connector of Real output signal",\
"building.thermalZone[1].ROM.hConFloor_const.k", 1, 5, 474, 1024)
DeclareVariable("building.thermalZone[1].ROM.resExtWallFloor.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8598, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8561, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resExtWallFloor.dT", \
-"port_a.T - port_b.T [K,]", 8599, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8562, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallFloor.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 1028)
+ 5, 8507, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallFloor.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallFloor.Q_flow", 1, 5, 8598, 1156)
+"building.thermalZone[1].ROM.resExtWallFloor.Q_flow", 1, 5, 8561, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallFloor.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1,\
- 5, 8549, 1028)
+ 5, 8512, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallFloor.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallFloor.Q_flow", -1, 5, 8598, 1156)
+"building.thermalZone[1].ROM.resExtWallFloor.Q_flow", -1, 5, 8561, 1156)
DeclareVariable("building.thermalZone[1].ROM.resExtWallFloor.G", \
"Constant thermal conductance of material [W/K]", 475, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.resIntWallFloor.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8600, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8563, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resIntWallFloor.dT", \
-"port_a.T - port_b.T [K,]", 8601, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8564, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallFloor.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 1028)
+ 5, 8510, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallFloor.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resIntWallFloor.Q_flow", 1, 5, 8600, 1156)
+"building.thermalZone[1].ROM.resIntWallFloor.Q_flow", 1, 5, 8563, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallFloor.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1,\
- 5, 8549, 1028)
+ 5, 8512, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resIntWallFloor.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resIntWallFloor.Q_flow", -1, 5, 8600, 1156)
+"building.thermalZone[1].ROM.resIntWallFloor.Q_flow", -1, 5, 8563, 1156)
DeclareVariable("building.thermalZone[1].ROM.resIntWallFloor.G", \
"Constant thermal conductance of material [W/K]", 476, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.resFloorWin.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8602, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8565, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resFloorWin.dT", "port_a.T - port_b.T [K,]",\
- 8603, 0.0, 0.0,0.0,0.0,0,2560)
+ 8566, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resFloorWin.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5,\
- 8542, 1028)
+ 8505, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resFloorWin.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resFloorWin.Q_flow", 1, 5, 8602, 1156)
+"building.thermalZone[1].ROM.resFloorWin.Q_flow", 1, 5, 8565, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resFloorWin.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1,\
- 5, 8549, 1028)
+ 5, 8512, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resFloorWin.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resFloorWin.Q_flow", -1, 5, 8602, 1156)
+"building.thermalZone[1].ROM.resFloorWin.Q_flow", -1, 5, 8565, 1156)
DeclareVariable("building.thermalZone[1].ROM.resFloorWin.G", "Constant thermal conductance of material [W/K]",\
477, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.roof.T", "Port temperature [K|degC]",\
- 8604, 288.15, 0.0,1E+100,300.0,0,584)
+ 8567, 288.15, 0.0,1E+100,300.0,0,584)
DeclareVariable("building.thermalZone[1].ROM.roof.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 8605, 0.0, 0.0,0.0,0.0,0,776)
+ 8568, 0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].ROM.roofRC.n", "Number of RC-elements [:#(type=Integer)]",\
478, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("building.thermalZone[1].ROM.roofRC.RExt[1]", "Vector of resistors, from port_a to port_b [K/W]",\
@@ -26436,15 +26450,15 @@ DeclareVariable("building.thermalZone[1].ROM.roofRC.CExt[1]", "Vector of heat ca
DeclareVariable("building.thermalZone[1].ROM.roofRC.T_start", "Initial temperature of capacities [K|degC]",\
482, 288.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.port_a.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1, 5, 8551, 4)
+ "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1, 5, 8514, 4)
DeclareVariable("building.thermalZone[1].ROM.roofRC.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8606,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8569,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.port_b.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.roof.T", 1, 5, 8604, 4)
+ "building.thermalZone[1].ROM.roof.T", 1, 5, 8567, 4)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roof.Q_flow", 1, 5, 8605, 132)
+"building.thermalZone[1].ROM.roof.Q_flow", 1, 5, 8568, 132)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermCapExt[1].C", \
"Heat capacity of element (= cp*m) [J/K]", 483, 0.0, 0.0,0.0,0.0,0,513)
DeclareState("building.thermalZone[1].ROM.roofRC.thermCapExt[1].T", \
@@ -26452,140 +26466,140 @@ DeclareState("building.thermalZone[1].ROM.roofRC.thermCapExt[1].T", \
DeclareDerivative("building.thermalZone[1].ROM.roofRC.thermCapExt[1].der(T)", \
"der(Temperature of element) [K/s]", 6, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermCapExt[1].der_T", \
-"Time derivative of temperature (= der(T)) [K/s]", 8607, 0, 0.0,0.0,0.0,0,528)
+"Time derivative of temperature (= der(T)) [K/s]", 8570, 0, 0.0,0.0,0.0,0,528)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermCapExt[1].port.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.roofRC.thermCapExt[1].T", 1,\
1, 6, 4)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermCapExt[1].port.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 8608,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 8571,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExt[1].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.roofRC.port_a.Q_flow", 1,\
- 5, 8606, 1024)
+ 5, 8569, 1024)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermResExt[1].dT", \
-"port_a.T - port_b.T [K,]", 8609, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8572, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExt[1].port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1,\
- 5, 8551, 1028)
+ 5, 8514, 1028)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExt[1].port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roofRC.port_a.Q_flow", 1, 5, 8606, 1156)
+"building.thermalZone[1].ROM.roofRC.port_a.Q_flow", 1, 5, 8569, 1156)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExt[1].port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.roofRC.thermCapExt[1].T", 1,\
1, 6, 1028)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExt[1].port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roofRC.port_a.Q_flow", -1, 5, 8606, 1156)
+"building.thermalZone[1].ROM.roofRC.port_a.Q_flow", -1, 5, 8569, 1156)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermResExt[1].R", \
"Constant thermal resistance of material [K/W]", 484, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExtRem.Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "building.thermalZone[1].ROM.roof.Q_flow", -1,\
- 5, 8605, 1024)
+ 5, 8568, 1024)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermResExtRem.dT", \
-"port_a.T - port_b.T [K,]", 8610, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8573, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExtRem.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.roofRC.thermCapExt[1].T", 1,\
1, 6, 1028)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExtRem.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8605, 1156)
+"building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8568, 1156)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExtRem.port_b.T", \
-"Port temperature [K|degC]", "building.thermalZone[1].ROM.roof.T", 1, 5, 8604, 1028)
+"Port temperature [K|degC]", "building.thermalZone[1].ROM.roof.T", 1, 5, 8567, 1028)
DeclareAlias2("building.thermalZone[1].ROM.roofRC.thermResExtRem.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roof.Q_flow", 1, 5, 8605, 1156)
+"building.thermalZone[1].ROM.roof.Q_flow", 1, 5, 8568, 1156)
DeclareVariable("building.thermalZone[1].ROM.roofRC.thermResExtRem.R", \
"Constant thermal resistance of material [K/W]", 485, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.convRoof.Q_flow", "Heat flow rate from solid -> fluid [W]",\
- 8611, 0.0, 0.0,0.0,0.0,0,2560)
+ 8574, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.convRoof.dT", "= solid.T - fluid.T [K,]",\
- 8612, 0.0, 0.0,0.0,0.0,0,2560)
+ 8575, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.convRoof.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].ROM.hConRoof_const.k", 1, 5, 486, 1024)
DeclareAlias2("building.thermalZone[1].ROM.convRoof.solid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1, 5, 8551, 1028)
+ "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1, 5, 8514, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convRoof.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convRoof.Q_flow", 1, 5, 8611, 1156)
+"building.thermalZone[1].ROM.convRoof.Q_flow", 1, 5, 8574, 1156)
DeclareAlias2("building.thermalZone[1].ROM.convRoof.fluid.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("building.thermalZone[1].ROM.convRoof.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.convRoof.Q_flow", -1, 5, 8611, 1156)
+"building.thermalZone[1].ROM.convRoof.Q_flow", -1, 5, 8574, 1156)
DeclareVariable("building.thermalZone[1].ROM.hConRoof_const.k", "Constant output value",\
486, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ROM.hConRoof_const.y", "Connector of Real output signal",\
"building.thermalZone[1].ROM.hConRoof_const.k", 1, 5, 486, 1024)
DeclareVariable("building.thermalZone[1].ROM.resIntRoof.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8613, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8576, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resIntRoof.dT", "port_a.T - port_b.T [K,]",\
- 8614, 0.0, 0.0,0.0,0.0,0,2560)
+ 8577, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resIntRoof.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1,\
- 5, 8551, 1028)
+ 5, 8514, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resIntRoof.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resIntRoof.Q_flow", 1, 5, 8613, 1156)
+"building.thermalZone[1].ROM.resIntRoof.Q_flow", 1, 5, 8576, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resIntRoof.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[3].T", 1,\
- 5, 8547, 1028)
+ 5, 8510, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resIntRoof.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resIntRoof.Q_flow", -1, 5, 8613, 1156)
+"building.thermalZone[1].ROM.resIntRoof.Q_flow", -1, 5, 8576, 1156)
DeclareVariable("building.thermalZone[1].ROM.resIntRoof.G", "Constant thermal conductance of material [W/K]",\
487, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.resRoofWin.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8615, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8578, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resRoofWin.dT", "port_a.T - port_b.T [K,]",\
- 8616, 0.0, 0.0,0.0,0.0,0,2560)
+ 8579, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resRoofWin.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.resWin.port_b.T", 1, 5,\
- 8542, 1028)
+ 8505, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resRoofWin.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resRoofWin.Q_flow", 1, 5, 8615, 1156)
+"building.thermalZone[1].ROM.resRoofWin.Q_flow", 1, 5, 8578, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resRoofWin.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1,\
- 5, 8551, 1028)
+ 5, 8514, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resRoofWin.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resRoofWin.Q_flow", -1, 5, 8615, 1156)
+"building.thermalZone[1].ROM.resRoofWin.Q_flow", -1, 5, 8578, 1156)
DeclareVariable("building.thermalZone[1].ROM.resRoofWin.G", "Constant thermal conductance of material [W/K]",\
488, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.resRoofFloor.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8617, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8580, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resRoofFloor.dT", "port_a.T - port_b.T [K,]",\
- 8618, 0.0, 0.0,0.0,0.0,0,2560)
+ 8581, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resRoofFloor.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1,\
- 5, 8551, 1028)
+ 5, 8514, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resRoofFloor.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resRoofFloor.Q_flow", 1, 5, 8617, 1156)
+"building.thermalZone[1].ROM.resRoofFloor.Q_flow", 1, 5, 8580, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resRoofFloor.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[4].T", 1,\
- 5, 8549, 1028)
+ 5, 8512, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resRoofFloor.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resRoofFloor.Q_flow", -1, 5, 8617, 1156)
+"building.thermalZone[1].ROM.resRoofFloor.Q_flow", -1, 5, 8580, 1156)
DeclareVariable("building.thermalZone[1].ROM.resRoofFloor.G", "Constant thermal conductance of material [W/K]",\
489, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ROM.resExtWallRoof.Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 8619, 0.0, 0.0,0.0,0.0,0,2560)
+"Heat flow rate from port_a -> port_b [W]", 8582, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].ROM.resExtWallRoof.dT", \
-"port_a.T - port_b.T [K,]", 8620, 0.0, 0.0,0.0,0.0,0,2560)
+"port_a.T - port_b.T [K,]", 8583, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallRoof.port_a.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[1].T", 1,\
- 5, 8544, 1028)
+ 5, 8507, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallRoof.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallRoof.Q_flow", 1, 5, 8619, 1156)
+"building.thermalZone[1].ROM.resExtWallRoof.Q_flow", 1, 5, 8582, 1156)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallRoof.port_b.T", \
"Port temperature [K|degC]", "building.thermalZone[1].ROM.thermSplitterIntGains.portOut[5].T", 1,\
- 5, 8551, 1028)
+ 5, 8514, 1028)
DeclareAlias2("building.thermalZone[1].ROM.resExtWallRoof.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.resExtWallRoof.Q_flow", -1, 5, 8619, 1156)
+"building.thermalZone[1].ROM.resExtWallRoof.Q_flow", -1, 5, 8582, 1156)
DeclareVariable("building.thermalZone[1].ROM.resExtWallRoof.G", "Constant thermal conductance of material [W/K]",\
490, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].ATot", "Total area of elements in the zone",\
@@ -26660,48 +26674,48 @@ DeclareVariable("building.thermalZone[1].hConWin.k", "Constant output value", 50
DeclareAlias2("building.thermalZone[1].hConWin.y", "Connector of Real output signal",\
"building.thermalZone[1].hConWin.k", 1, 5, 507, 1024)
DeclareAlias2("building.thermalZone[1].TAir", "Indoor air temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.thermalZone[1].TRad", "Mean indoor radiation temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 0)
+ "building.heatPortRad[1].T", 1, 5, 8440, 0)
DeclareAlias2("building.thermalZone[1].intGainsConv.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.thermalZone[1].intGainsConv.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortCon[1].Q_flow", 1, 5, 8476, 132)
+ "building.heatPortCon[1].Q_flow", 1, 5, 8439, 132)
DeclareAlias2("building.thermalZone[1].intGainsRad.T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 4)
+ "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.thermalZone[1].intGainsRad.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortRad[1].Q_flow", 1, 5, 8478, 132)
+ "building.heatPortRad[1].Q_flow", 1, 5, 8441, 132)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.ratioConv", \
"Ratio convective to total heat release", 508, 0.0, 0.0,1.0,0.0,0,513)
DeclareParameter("building.thermalZone[1].humanSenHeaDependent.emissivity", \
"Emissivity of radiative heat source surface [1]", 231, 0.98, 0.0,1.0,0.0,0,560)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.uRel", \
"Relative input related to max. value (might be a ratio related to number of people [-] or room area and specific heat flow [W/m2] or maximal heat flow [W] []",\
- "building.useProBus.intGains[1]", 1, 5, 8473, 0)
+ "building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.convectiveHeat.T_ref",\
"Reference temperature [K|degC]", 509, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.convectiveHeat.alpha",\
"Temperature coefficient of heat flow rate [1/K]", 510, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.convectiveHeat.Q_flow",\
- "[W]", "building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow", -1, 5, 8623,\
+ "[W]", "building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow", -1, 5, 8586,\
0)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.convectiveHeat.port.T",\
- "Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.convectiveHeat.port.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow", 1, 5, 8623, 132)
+"building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow", 1, 5, 8586, 132)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radiativeHeat.T_ref",\
"Reference temperature [K|degC]", 511, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radiativeHeat.alpha",\
"Temperature coefficient of heat flow rate [1/K]", 512, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radiativeHeat.Q_flow",\
- "[W]", "building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", -1, 5, 8624,\
+ "[W]", "building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", -1, 5, 8587,\
0)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radiativeHeat.port.T",\
- "Port temperature [K|degC]", 8621, 288.15, 0.0,1E+100,300.0,0,584)
+ "Port temperature [K|degC]", 8584, 288.15, 0.0,1E+100,300.0,0,584)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radiativeHeat.port.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", 1, 5, 8624, 132)
+"building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", 1, 5, 8587, 132)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radConvertor.eps",\
"Emissivity [1]", 513, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("building.thermalZone[1].humanSenHeaDependent.radConvertor.T_ref",\
@@ -26717,42 +26731,42 @@ DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radConvertor.radCa
515, 1, 1.0,4.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radConvertor.convPort.T",\
"Port temperature [K|degC]", "building.thermalZone[1].humanSenHeaDependent.radiativeHeat.port.T", 1,\
- 5, 8621, 4)
+ 5, 8584, 4)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radConvertor.convPort.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", -1, 5, 8624, 132)
+"building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", -1, 5, 8587, 132)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radConvertor.A_in", \
"Area of radiation exchange connector [m2]", "building.thermalZone[1].humanSenHeaDependent.radConvertor.A_in_internal", 1,\
- 5, 8622, 0)
+ 5, 8585, 0)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radConvertor.radPort.T",\
- "Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8477, 4)
+ "Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radConvertor.radPort.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", 1, 5, 8624, 132)
+"building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", 1, 5, 8587, 132)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radConvertor.A_in_internal",\
- "Needed to connect to conditional connector [m2]", 8622, 0.0, 0.0,0.0,0.0,0,2560)
+ "Needed to connect to conditional connector [m2]", 8585, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.convHeat.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8623,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8586,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.radHeat.T", \
-"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8477, 4)
+"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8624,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8587,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.gain.k", \
"Gain value multiplied with input signal [1]", 516, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.gain.u", \
-"Input signal connector", "building.useProBus.intGains[1]", 1, 5, 8473, 0)
+"Input signal connector", "building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.gain.y", \
-"Output signal connector", 8625, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 8588, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.gainSurfaces.k", \
"Gain value multiplied with input signal [1]", 517, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.gainSurfaces.u", \
-"Input signal connector", "building.useProBus.intGains[1]", 1, 5, 8473, 0)
+"Input signal connector", "building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.gainSurfaces.y", \
-"Output signal connector", 8626, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 8589, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.limiter.uMax", \
"Upper limits of input signals", 518, 1E+60, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.limiter.uMin", \
@@ -26765,40 +26779,40 @@ DeclareVariable("building.thermalZone[1].humanSenHeaDependent.limiter.homotopyTy
521, 2, 1.0,4.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.limiter.u", \
"Connector of Real input signal", "building.thermalZone[1].humanSenHeaDependent.gainSurfaces.y", 1,\
- 5, 8626, 0)
+ 5, 8589, 0)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.limiter.y", \
"Connector of Real output signal", "building.thermalZone[1].humanSenHeaDependent.radConvertor.A_in_internal", 1,\
- 5, 8622, 0)
+ 5, 8585, 0)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.limiter.simplifiedExpr",\
"Simplified expression for homotopy-based initialization", "building.thermalZone[1].humanSenHeaDependent.gainSurfaces.y", 1,\
- 5, 8626, 1024)
+ 5, 8589, 1024)
DeclareParameter("building.thermalZone[1].humanSenHeaDependent.productHeatOutput.significantDigits",\
"Number of significant digits to be shown in dynamic diagram layer for y [:#(type=Integer)]",\
234, 3, 1.0,1E+100,0.0,0,2612)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.productHeatOutput.nu",\
"Number of input connections [:#(type=Integer)]", 522, 2, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.productHeatOutput.u[1]",\
- "", "building.thermalZone[1].humanSenHeaDependent.gain.y", 1, 5, 8625, 1024)
+ "", "building.thermalZone[1].humanSenHeaDependent.gain.y", 1, 5, 8588, 1024)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.productHeatOutput.u[2]",\
- "", 8627, 0.0, 0.0,0.0,0.0,0,2560)
+ "", 8590, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.productHeatOutput.y",\
- "[W]", 8628, 0.0, 0.0,0.0,0.0,0,2560)
+ "[W]", 8591, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.gainConv.k", \
"Gain value multiplied with input signal [1]", 523, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.gainConv.u", \
"Input signal connector", "building.thermalZone[1].humanSenHeaDependent.productHeatOutput.y", 1,\
- 5, 8628, 1024)
+ 5, 8591, 1024)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.gainConv.y", \
"Output signal connector", "building.thermalZone[1].humanSenHeaDependent.convHeat.Q_flow", -1,\
- 5, 8623, 1024)
+ 5, 8586, 1024)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.gainRad.k", \
"Gain value multiplied with input signal [1]", 524, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.gainRad.u", \
"Input signal connector", "building.thermalZone[1].humanSenHeaDependent.productHeatOutput.y", 1,\
- 5, 8628, 1024)
+ 5, 8591, 1024)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.gainRad.y", \
"Output signal connector", "building.thermalZone[1].humanSenHeaDependent.radHeat.Q_flow", -1,\
- 5, 8624, 1024)
+ 5, 8587, 1024)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.specificPersons", \
"Specific persons per square metre room area [1/(m.m)]", 525, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.roomArea", \
@@ -26807,20 +26821,20 @@ DeclareVariable("building.thermalZone[1].humanSenHeaDependent.specificHeatPerPer
"Specific heat output per person [W]", 527, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.temperatureSensor.T",\
"Absolute temperature as output signal [K]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 0)
+ 5, 8470, 0)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.temperatureSensor.port.T",\
- "Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.temperatureSensor.port.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", 528,\
0.0, 0.0,0.0,0.0,0,777)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.to_degC.u", \
"Connector of Real input signal to be converted [K]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 0)
+ 5, 8470, 0)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.to_degC.y", \
"Connector of Real output signal containing input signal u in another unit [degC]",\
- 8629, 0.0, 0.0,0.0,0.0,0,512)
+ 8592, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.TRoom.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.TRoom.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", 529,\
0, 0.0,0.0,0.0,0,777)
@@ -26835,10 +26849,10 @@ DeclareVariable("building.thermalZone[1].humanSenHeaDependent.temperatureDepende
"Activity degree of persons in room in met", 531, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.temperatureDependentHeatOutputSIA2024_1.T",\
"Room temperature used for heat output calculation", "building.thermalZone[1].humanSenHeaDependent.to_degC.y", 1,\
- 5, 8629, 0)
+ 5, 8592, 0)
DeclareAlias2("building.thermalZone[1].humanSenHeaDependent.temperatureDependentHeatOutputSIA2024_1.heatOutput",\
"", "building.thermalZone[1].humanSenHeaDependent.productHeatOutput.u[2]", 1, 5,\
- 8627, 0)
+ 8590, 0)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.temperatureDependentHeatOutputSIA2024_1.HeatPerMet",\
"Heat per m\302\262 for 1 met [W/(m.m)]", 532, 58, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].humanSenHeaDependent.temperatureDependentHeatOutputSIA2024_1.BodySurface",\
@@ -26852,29 +26866,29 @@ DeclareVariable("building.thermalZone[1].machinesSenHea.ratioConv", \
DeclareParameter("building.thermalZone[1].machinesSenHea.emissivity", \
"Emissivity of radiative heat source surface [1]", 237, 0.98, 0.0,1.0,0.0,0,560)
DeclareAlias2("building.thermalZone[1].machinesSenHea.uRel", "Relative input related to max. value (might be a ratio related to number of people [-] or room area and specific heat flow [W/m2] or maximal heat flow [W] []",\
- "building.useProBus.intGains[2]", 1, 5, 8474, 0)
+ "building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareVariable("building.thermalZone[1].machinesSenHea.convectiveHeat.T_ref", \
"Reference temperature [K|degC]", 537, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.thermalZone[1].machinesSenHea.convectiveHeat.alpha", \
"Temperature coefficient of heat flow rate [1/K]", 538, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].machinesSenHea.convectiveHeat.Q_flow", \
-"[W]", "building.thermalZone[1].machinesSenHea.convHeat.Q_flow", -1, 5, 8632, 0)
+"[W]", "building.thermalZone[1].machinesSenHea.convHeat.Q_flow", -1, 5, 8595, 0)
DeclareAlias2("building.thermalZone[1].machinesSenHea.convectiveHeat.port.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.thermalZone[1].machinesSenHea.convectiveHeat.port.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].machinesSenHea.convHeat.Q_flow", 1, 5, 8632, 132)
+"building.thermalZone[1].machinesSenHea.convHeat.Q_flow", 1, 5, 8595, 132)
DeclareVariable("building.thermalZone[1].machinesSenHea.radiativeHeat.T_ref", \
"Reference temperature [K|degC]", 539, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.thermalZone[1].machinesSenHea.radiativeHeat.alpha", \
"Temperature coefficient of heat flow rate [1/K]", 540, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radiativeHeat.Q_flow", \
-"[W]", "building.thermalZone[1].machinesSenHea.radHeat.Q_flow", -1, 5, 8633, 0)
+"[W]", "building.thermalZone[1].machinesSenHea.radHeat.Q_flow", -1, 5, 8596, 0)
DeclareVariable("building.thermalZone[1].machinesSenHea.radiativeHeat.port.T", \
-"Port temperature [K|degC]", 8630, 288.15, 0.0,1E+100,300.0,0,584)
+"Port temperature [K|degC]", 8593, 288.15, 0.0,1E+100,300.0,0,584)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radiativeHeat.port.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].machinesSenHea.radHeat.Q_flow", 1, 5, 8633, 132)
+"building.thermalZone[1].machinesSenHea.radHeat.Q_flow", 1, 5, 8596, 132)
DeclareVariable("building.thermalZone[1].machinesSenHea.radConvertor.eps", \
"Emissivity [1]", 541, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("building.thermalZone[1].machinesSenHea.radConvertor.T_ref", \
@@ -26890,42 +26904,42 @@ DeclareVariable("building.thermalZone[1].machinesSenHea.radConvertor.radCalcMeth
543, 1, 1.0,4.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radConvertor.convPort.T", \
"Port temperature [K|degC]", "building.thermalZone[1].machinesSenHea.radiativeHeat.port.T", 1,\
- 5, 8630, 4)
+ 5, 8593, 4)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radConvertor.convPort.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].machinesSenHea.radHeat.Q_flow", -1, 5, 8633, 132)
+"building.thermalZone[1].machinesSenHea.radHeat.Q_flow", -1, 5, 8596, 132)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radConvertor.A_in", \
"Area of radiation exchange connector [m2]", "building.thermalZone[1].machinesSenHea.radConvertor.A_in_internal", 1,\
- 5, 8631, 0)
+ 5, 8594, 0)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radConvertor.radPort.T", \
-"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8477, 4)
+"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radConvertor.radPort.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].machinesSenHea.radHeat.Q_flow", 1, 5, 8633, 132)
+"building.thermalZone[1].machinesSenHea.radHeat.Q_flow", 1, 5, 8596, 132)
DeclareVariable("building.thermalZone[1].machinesSenHea.radConvertor.A_in_internal",\
- "Needed to connect to conditional connector [m2]", 8631, 0.0, 0.0,0.0,0.0,0,2560)
+ "Needed to connect to conditional connector [m2]", 8594, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].machinesSenHea.convHeat.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].machinesSenHea.convHeat.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8632,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8595,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].machinesSenHea.radHeat.T", \
-"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8477, 4)
+"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareVariable("building.thermalZone[1].machinesSenHea.radHeat.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8633,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8596,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].machinesSenHea.gain.k", \
"Gain value multiplied with input signal [1]", 544, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].machinesSenHea.gain.u", "Input signal connector",\
- "building.useProBus.intGains[2]", 1, 5, 8474, 0)
+ "building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareVariable("building.thermalZone[1].machinesSenHea.gain.y", \
-"Output signal connector", 8634, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 8597, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].machinesSenHea.gainSurfaces.k", \
"Gain value multiplied with input signal [1]", 545, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].machinesSenHea.gainSurfaces.u", \
-"Input signal connector", "building.useProBus.intGains[2]", 1, 5, 8474, 0)
+"Input signal connector", "building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareVariable("building.thermalZone[1].machinesSenHea.gainSurfaces.y", \
-"Output signal connector", 8635, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 8598, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].machinesSenHea.limiter.uMax", \
"Upper limits of input signals", 546, 1E+60, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].machinesSenHea.limiter.uMin", \
@@ -26938,38 +26952,38 @@ DeclareVariable("building.thermalZone[1].machinesSenHea.limiter.homotopyType", \
549, 2, 1.0,4.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].machinesSenHea.limiter.u", \
"Connector of Real input signal", "building.thermalZone[1].machinesSenHea.gainSurfaces.y", 1,\
- 5, 8635, 0)
+ 5, 8598, 0)
DeclareAlias2("building.thermalZone[1].machinesSenHea.limiter.y", \
"Connector of Real output signal", "building.thermalZone[1].machinesSenHea.radConvertor.A_in_internal", 1,\
- 5, 8631, 0)
+ 5, 8594, 0)
DeclareAlias2("building.thermalZone[1].machinesSenHea.limiter.simplifiedExpr", \
"Simplified expression for homotopy-based initialization", "building.thermalZone[1].machinesSenHea.gainSurfaces.y", 1,\
- 5, 8635, 1024)
+ 5, 8598, 1024)
DeclareParameter("building.thermalZone[1].machinesSenHea.productHeatOutput.significantDigits",\
"Number of significant digits to be shown in dynamic diagram layer for y [:#(type=Integer)]",\
240, 3, 1.0,1E+100,0.0,0,2612)
DeclareVariable("building.thermalZone[1].machinesSenHea.productHeatOutput.nu", \
"Number of input connections [:#(type=Integer)]", 550, 1, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("building.thermalZone[1].machinesSenHea.productHeatOutput.u[1]", \
-"", "building.thermalZone[1].machinesSenHea.gain.y", 1, 5, 8634, 1024)
+"", "building.thermalZone[1].machinesSenHea.gain.y", 1, 5, 8597, 1024)
DeclareAlias2("building.thermalZone[1].machinesSenHea.productHeatOutput.y", \
-"[W]", "building.thermalZone[1].machinesSenHea.gain.y", 1, 5, 8634, 1024)
+"[W]", "building.thermalZone[1].machinesSenHea.gain.y", 1, 5, 8597, 1024)
DeclareVariable("building.thermalZone[1].machinesSenHea.gainConv.k", \
"Gain value multiplied with input signal [1]", 551, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].machinesSenHea.gainConv.u", \
"Input signal connector", "building.thermalZone[1].machinesSenHea.gain.y", 1, 5,\
- 8634, 1024)
+ 8597, 1024)
DeclareAlias2("building.thermalZone[1].machinesSenHea.gainConv.y", \
"Output signal connector", "building.thermalZone[1].machinesSenHea.convHeat.Q_flow", -1,\
- 5, 8632, 1024)
+ 5, 8595, 1024)
DeclareVariable("building.thermalZone[1].machinesSenHea.gainRad.k", \
"Gain value multiplied with input signal [1]", 552, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].machinesSenHea.gainRad.u", \
"Input signal connector", "building.thermalZone[1].machinesSenHea.gain.y", 1, 5,\
- 8634, 1024)
+ 8597, 1024)
DeclareAlias2("building.thermalZone[1].machinesSenHea.gainRad.y", \
"Output signal connector", "building.thermalZone[1].machinesSenHea.radHeat.Q_flow", -1,\
- 5, 8633, 1024)
+ 5, 8596, 1024)
DeclareVariable("building.thermalZone[1].machinesSenHea.intGainsMachinesRoomAreaSpecific",\
"Heat flow from machines per square meter room [W/m2]", 553, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].machinesSenHea.areaSurfaceMachinesTotal",\
@@ -26987,29 +27001,29 @@ DeclareVariable("building.thermalZone[1].lights.ratioConv", "Ratio convective to
DeclareParameter("building.thermalZone[1].lights.emissivity", "Emissivity of radiative heat source surface [1]",\
243, 0.98, 0.0,1.0,0.0,0,560)
DeclareAlias2("building.thermalZone[1].lights.uRel", "Relative input related to max. value (might be a ratio related to number of people [-] or room area and specific heat flow [W/m2] or maximal heat flow [W] []",\
- "building.useProBus.intGains[3]", 1, 5, 8475, 0)
+ "building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareVariable("building.thermalZone[1].lights.convectiveHeat.T_ref", \
"Reference temperature [K|degC]", 557, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.thermalZone[1].lights.convectiveHeat.alpha", \
"Temperature coefficient of heat flow rate [1/K]", 558, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].lights.convectiveHeat.Q_flow", "[W]", \
-"building.thermalZone[1].lights.convHeat.Q_flow", -1, 5, 8638, 0)
+"building.thermalZone[1].lights.convHeat.Q_flow", -1, 5, 8601, 0)
DeclareAlias2("building.thermalZone[1].lights.convectiveHeat.port.T", \
-"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"Port temperature [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.thermalZone[1].lights.convectiveHeat.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].lights.convHeat.Q_flow", 1, 5, 8638, 132)
+"building.thermalZone[1].lights.convHeat.Q_flow", 1, 5, 8601, 132)
DeclareVariable("building.thermalZone[1].lights.radiativeHeat.T_ref", \
"Reference temperature [K|degC]", 559, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("building.thermalZone[1].lights.radiativeHeat.alpha", \
"Temperature coefficient of heat flow rate [1/K]", 560, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].lights.radiativeHeat.Q_flow", "[W]", \
-"building.thermalZone[1].lights.radHeat.Q_flow", -1, 5, 8639, 0)
+"building.thermalZone[1].lights.radHeat.Q_flow", -1, 5, 8602, 0)
DeclareVariable("building.thermalZone[1].lights.radiativeHeat.port.T", \
-"Port temperature [K|degC]", 8636, 288.15, 0.0,1E+100,300.0,0,584)
+"Port temperature [K|degC]", 8599, 288.15, 0.0,1E+100,300.0,0,584)
DeclareAlias2("building.thermalZone[1].lights.radiativeHeat.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].lights.radHeat.Q_flow", 1, 5, 8639, 132)
+"building.thermalZone[1].lights.radHeat.Q_flow", 1, 5, 8602, 132)
DeclareVariable("building.thermalZone[1].lights.radConvertor.eps", \
"Emissivity [1]", 561, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("building.thermalZone[1].lights.radConvertor.T_ref", \
@@ -27025,42 +27039,42 @@ DeclareVariable("building.thermalZone[1].lights.radConvertor.radCalcMethod", \
564, 1, 1.0,4.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].lights.radConvertor.convPort.T", \
"Port temperature [K|degC]", "building.thermalZone[1].lights.radiativeHeat.port.T", 1,\
- 5, 8636, 4)
+ 5, 8599, 4)
DeclareAlias2("building.thermalZone[1].lights.radConvertor.convPort.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].lights.radHeat.Q_flow", -1, 5, 8639, 132)
+"building.thermalZone[1].lights.radHeat.Q_flow", -1, 5, 8602, 132)
DeclareAlias2("building.thermalZone[1].lights.radConvertor.A_in", \
"Area of radiation exchange connector [m2]", "building.thermalZone[1].lights.radConvertor.A_in_internal", 1,\
- 5, 8637, 0)
+ 5, 8600, 0)
DeclareAlias2("building.thermalZone[1].lights.radConvertor.radPort.T", \
-"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8477, 4)
+"Port temperature [K|degC]", "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.thermalZone[1].lights.radConvertor.radPort.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].lights.radHeat.Q_flow", 1, 5, 8639, 132)
+"building.thermalZone[1].lights.radHeat.Q_flow", 1, 5, 8602, 132)
DeclareVariable("building.thermalZone[1].lights.radConvertor.A_in_internal", \
-"Needed to connect to conditional connector [m2]", 8637, 0.0, 0.0,0.0,0.0,0,2560)
+"Needed to connect to conditional connector [m2]", 8600, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].lights.convHeat.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("building.thermalZone[1].lights.convHeat.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8638,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8601,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("building.thermalZone[1].lights.radHeat.T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 4)
+ "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareVariable("building.thermalZone[1].lights.radHeat.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 8639,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 8602,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("building.thermalZone[1].lights.gain.k", "Gain value multiplied with input signal [1]",\
565, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].lights.gain.u", "Input signal connector",\
- "building.useProBus.intGains[3]", 1, 5, 8475, 0)
+ "building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareVariable("building.thermalZone[1].lights.gain.y", "Output signal connector",\
- 8640, 0.0, 0.0,0.0,0.0,0,512)
+ 8603, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].lights.gainSurfaces.k", \
"Gain value multiplied with input signal [1]", 566, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].lights.gainSurfaces.u", "Input signal connector",\
- "building.useProBus.intGains[3]", 1, 5, 8475, 0)
+ "building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareVariable("building.thermalZone[1].lights.gainSurfaces.y", \
-"Output signal connector", 8641, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 8604, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].lights.limiter.uMax", "Upper limits of input signals",\
567, 1E+60, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].lights.limiter.uMin", "Lower limits of input signals",\
@@ -27072,33 +27086,33 @@ DeclareVariable("building.thermalZone[1].lights.limiter.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
570, 2, 1.0,4.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].lights.limiter.u", "Connector of Real input signal",\
- "building.thermalZone[1].lights.gainSurfaces.y", 1, 5, 8641, 0)
+ "building.thermalZone[1].lights.gainSurfaces.y", 1, 5, 8604, 0)
DeclareAlias2("building.thermalZone[1].lights.limiter.y", "Connector of Real output signal",\
- "building.thermalZone[1].lights.radConvertor.A_in_internal", 1, 5, 8637, 0)
+ "building.thermalZone[1].lights.radConvertor.A_in_internal", 1, 5, 8600, 0)
DeclareAlias2("building.thermalZone[1].lights.limiter.simplifiedExpr", \
"Simplified expression for homotopy-based initialization", "building.thermalZone[1].lights.gainSurfaces.y", 1,\
- 5, 8641, 1024)
+ 5, 8604, 1024)
DeclareParameter("building.thermalZone[1].lights.productHeatOutput.significantDigits",\
"Number of significant digits to be shown in dynamic diagram layer for y [:#(type=Integer)]",\
245, 3, 1.0,1E+100,0.0,0,2612)
DeclareVariable("building.thermalZone[1].lights.productHeatOutput.nu", \
"Number of input connections [:#(type=Integer)]", 571, 1, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("building.thermalZone[1].lights.productHeatOutput.u[1]", "", \
-"building.thermalZone[1].lights.gain.y", 1, 5, 8640, 1024)
+"building.thermalZone[1].lights.gain.y", 1, 5, 8603, 1024)
DeclareAlias2("building.thermalZone[1].lights.productHeatOutput.y", "[W]", \
-"building.thermalZone[1].lights.gain.y", 1, 5, 8640, 1024)
+"building.thermalZone[1].lights.gain.y", 1, 5, 8603, 1024)
DeclareVariable("building.thermalZone[1].lights.gainConv.k", "Gain value multiplied with input signal [1]",\
572, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].lights.gainConv.u", "Input signal connector",\
- "building.thermalZone[1].lights.gain.y", 1, 5, 8640, 1024)
+ "building.thermalZone[1].lights.gain.y", 1, 5, 8603, 1024)
DeclareAlias2("building.thermalZone[1].lights.gainConv.y", "Output signal connector",\
- "building.thermalZone[1].lights.convHeat.Q_flow", -1, 5, 8638, 1024)
+ "building.thermalZone[1].lights.convHeat.Q_flow", -1, 5, 8601, 1024)
DeclareVariable("building.thermalZone[1].lights.gainRad.k", "Gain value multiplied with input signal [1]",\
573, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].lights.gainRad.u", "Input signal connector",\
- "building.thermalZone[1].lights.gain.y", 1, 5, 8640, 1024)
+ "building.thermalZone[1].lights.gain.y", 1, 5, 8603, 1024)
DeclareAlias2("building.thermalZone[1].lights.gainRad.y", "Output signal connector",\
- "building.thermalZone[1].lights.radHeat.Q_flow", -1, 5, 8639, 1024)
+ "building.thermalZone[1].lights.radHeat.Q_flow", -1, 5, 8602, 1024)
DeclareVariable("building.thermalZone[1].lights.roomArea", "Area of room [m2]", 574,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].lights.lightingPowerRoomAreaSpecific", \
@@ -27110,45 +27124,45 @@ DeclareVariable("building.thermalZone[1].corGMod.n", "Vector size for input and
DeclareVariable("building.thermalZone[1].corGMod.UWin", "Thermal transmission coefficient of whole window [W/(m2.K)]",\
578, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].corGMod.HSkyDifTil[1]", "Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- "building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", 1, 5, 8724, 0)
+ "building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", 1, 5, 8687, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HSkyDifTil[2]", "Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- "building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", 1, 5, 8767, 0)
+ "building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", 1, 5, 8730, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HSkyDifTil[3]", "Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- "building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", 1, 5, 8810, 0)
+ "building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", 1, 5, 8773, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HSkyDifTil[4]", "Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- "building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", 1, 5, 8853, 0)
+ "building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", 1, 5, 8816, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HDirTil[1]", "Direct solar radiation on a tilted surface per unit area [W/m2]",\
- "building.thermalZone[1].HDirTilWall[1].H", 1, 5, 8891, 0)
+ "building.thermalZone[1].HDirTilWall[1].H", 1, 5, 8854, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HDirTil[2]", "Direct solar radiation on a tilted surface per unit area [W/m2]",\
- "building.thermalZone[1].HDirTilWall[2].H", 1, 5, 8900, 0)
+ "building.thermalZone[1].HDirTilWall[2].H", 1, 5, 8863, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HDirTil[3]", "Direct solar radiation on a tilted surface per unit area [W/m2]",\
- "building.thermalZone[1].HDirTilWall[3].H", 1, 5, 8909, 0)
+ "building.thermalZone[1].HDirTilWall[3].H", 1, 5, 8872, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HDirTil[4]", "Direct solar radiation on a tilted surface per unit area [W/m2]",\
- "building.thermalZone[1].HDirTilWall[4].H", 1, 5, 8918, 0)
+ "building.thermalZone[1].HDirTilWall[4].H", 1, 5, 8881, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HGroDifTil[1]", "Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- "building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", 1, 5, 8723, 0)
+ "building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", 1, 5, 8686, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HGroDifTil[2]", "Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- "building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", 1, 5, 8766, 0)
+ "building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", 1, 5, 8729, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HGroDifTil[3]", "Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- "building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", 1, 5, 8809, 0)
+ "building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", 1, 5, 8772, 0)
DeclareAlias2("building.thermalZone[1].corGMod.HGroDifTil[4]", "Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- "building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", 1, 5, 8852, 0)
+ "building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", 1, 5, 8815, 0)
DeclareAlias2("building.thermalZone[1].corGMod.inc[1]", "Incidence angles [rad|deg]",\
- "building.thermalZone[1].HDirTilWall[1].inc", 1, 5, 8892, 0)
+ "building.thermalZone[1].HDirTilWall[1].inc", 1, 5, 8855, 0)
DeclareAlias2("building.thermalZone[1].corGMod.inc[2]", "Incidence angles [rad|deg]",\
- "building.thermalZone[1].HDirTilWall[2].inc", 1, 5, 8901, 0)
+ "building.thermalZone[1].HDirTilWall[2].inc", 1, 5, 8864, 0)
DeclareAlias2("building.thermalZone[1].corGMod.inc[3]", "Incidence angles [rad|deg]",\
- "building.thermalZone[1].HDirTilWall[3].inc", 1, 5, 8910, 0)
+ "building.thermalZone[1].HDirTilWall[3].inc", 1, 5, 8873, 0)
DeclareAlias2("building.thermalZone[1].corGMod.inc[4]", "Incidence angles [rad|deg]",\
- "building.thermalZone[1].HDirTilWall[4].inc", 1, 5, 8919, 0)
+ "building.thermalZone[1].HDirTilWall[4].inc", 1, 5, 8882, 0)
DeclareVariable("building.thermalZone[1].corGMod.solarRadWinTrans[1]", \
-"transmitted solar radiation through windows [W/m2]", 8642, 0.0, 0.0,0.0,0.0,0,512)
+"transmitted solar radiation through windows [W/m2]", 8605, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].corGMod.solarRadWinTrans[2]", \
-"transmitted solar radiation through windows [W/m2]", 8643, 0.0, 0.0,0.0,0.0,0,512)
+"transmitted solar radiation through windows [W/m2]", 8606, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].corGMod.solarRadWinTrans[3]", \
-"transmitted solar radiation through windows [W/m2]", 8644, 0.0, 0.0,0.0,0.0,0,512)
+"transmitted solar radiation through windows [W/m2]", 8607, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].corGMod.solarRadWinTrans[4]", \
-"transmitted solar radiation through windows [W/m2]", 8645, 0.0, 0.0,0.0,0.0,0,512)
+"transmitted solar radiation through windows [W/m2]", 8608, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("building.thermalZone[1].corGMod.A0", "Constant 0 to calculate reference transmission",\
246, 0.918, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].corGMod.A1", "Constant 1 to calculate reference transmission",\
@@ -27194,117 +27208,117 @@ DeclareVariable("building.thermalZone[1].corGMod.CorG_diff", "Transmission coeff
DeclareVariable("building.thermalZone[1].corGMod.CorG_gr", "Transmission coefficient correction factor for irradiations from ground [1]",\
590, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].corGMod.Ta_dir[1]", "Energetic degree of transmission for direct radiation [1]",\
- 8646, 0.0, 0.0,0.0,0.0,0,2560)
+ 8609, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta_dir[2]", "Energetic degree of transmission for direct radiation [1]",\
- 8647, 0.0, 0.0,0.0,0.0,0,2560)
+ 8610, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta_dir[3]", "Energetic degree of transmission for direct radiation [1]",\
- 8648, 0.0, 0.0,0.0,0.0,0,2560)
+ 8611, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta_dir[4]", "Energetic degree of transmission for direct radiation [1]",\
- 8649, 0.0, 0.0,0.0,0.0,0,2560)
+ 8612, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Tai_dir[1]", "Pure degree of transmission for direct radiation [1]",\
- 8650, 0.0, 0.0,0.0,0.0,0,2560)
+ 8613, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Tai_dir[2]", "Pure degree of transmission for direct radiation [1]",\
- 8651, 0.0, 0.0,0.0,0.0,0,2560)
+ 8614, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Tai_dir[3]", "Pure degree of transmission for direct radiation [1]",\
- 8652, 0.0, 0.0,0.0,0.0,0,2560)
+ 8615, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Tai_dir[4]", "Pure degree of transmission for direct radiation [1]",\
- 8653, 0.0, 0.0,0.0,0.0,0,2560)
+ 8616, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta1_dir[1]", "Pure degree of transmission for single pane window [1]",\
- 8654, 0.0, 0.0,0.0,0.0,0,2560)
+ 8617, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta1_dir[2]", "Pure degree of transmission for single pane window [1]",\
- 8655, 0.0, 0.0,0.0,0.0,0,2560)
+ 8618, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta1_dir[3]", "Pure degree of transmission for single pane window [1]",\
- 8656, 0.0, 0.0,0.0,0.0,0,2560)
+ 8619, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta1_dir[4]", "Pure degree of transmission for single pane window [1]",\
- 8657, 0.0, 0.0,0.0,0.0,0,2560)
+ 8620, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_T1_dir[1]", \
-"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8658,\
+"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8621,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_T1_dir[2]", \
-"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8659,\
+"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8622,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_T1_dir[3]", \
-"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8660,\
+"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8623,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_T1_dir[4]", \
-"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8661,\
+"Part of degree of transmission for single pane window related to Ta1_dir [1]", 8624,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_11_dir[1]", \
-"Part of degree of transmission for single pane window related to T1_dir [1]", 8662,\
+"Part of degree of transmission for single pane window related to T1_dir [1]", 8625,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_11_dir[2]", \
-"Part of degree of transmission for single pane window related to T1_dir [1]", 8663,\
+"Part of degree of transmission for single pane window related to T1_dir [1]", 8626,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_11_dir[3]", \
-"Part of degree of transmission for single pane window related to T1_dir [1]", 8664,\
+"Part of degree of transmission for single pane window related to T1_dir [1]", 8627,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_11_dir[4]", \
-"Part of degree of transmission for single pane window related to T1_dir [1]", 8665,\
+"Part of degree of transmission for single pane window related to T1_dir [1]", 8628,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_1_dir[1]", "Degree of reflection for single pane window [1]",\
- 8666, 0.0, 0.0,0.0,0.0,0,2560)
+ 8629, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_1_dir[2]", "Degree of reflection for single pane window [1]",\
- 8667, 0.0, 0.0,0.0,0.0,0,2560)
+ 8630, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_1_dir[3]", "Degree of reflection for single pane window [1]",\
- 8668, 0.0, 0.0,0.0,0.0,0,2560)
+ 8631, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.rho_1_dir[4]", "Degree of reflection for single pane window [1]",\
- 8669, 0.0, 0.0,0.0,0.0,0,2560)
+ 8632, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.XN2_dir[1]", "Calculation factor to simplify equations [1]",\
- 8670, 0.0, 0.0,0.0,0.0,0,2560)
+ 8633, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.XN2_dir[2]", "Calculation factor to simplify equations [1]",\
- 8671, 0.0, 0.0,0.0,0.0,0,2560)
+ 8634, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.XN2_dir[3]", "Calculation factor to simplify equations [1]",\
- 8672, 0.0, 0.0,0.0,0.0,0,2560)
+ 8635, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.XN2_dir[4]", "Calculation factor to simplify equations [1]",\
- 8673, 0.0, 0.0,0.0,0.0,0,2560)
+ 8636, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta2_dir[1]", "Energetic dregree of transmission for second pane [1]",\
- 8674, 0.0, 0.0,0.0,0.0,0,2560)
+ 8637, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta2_dir[2]", "Energetic dregree of transmission for second pane [1]",\
- 8675, 0.0, 0.0,0.0,0.0,0,2560)
+ 8638, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta2_dir[3]", "Energetic dregree of transmission for second pane [1]",\
- 8676, 0.0, 0.0,0.0,0.0,0,2560)
+ 8639, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Ta2_dir[4]", "Energetic dregree of transmission for second pane [1]",\
- 8677, 0.0, 0.0,0.0,0.0,0,2560)
+ 8640, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.a1_dir[1]", "Degree of absorption for single pane window [1]",\
- 8678, 0.0, 0.0,0.0,0.0,0,2560)
+ 8641, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.a1_dir[2]", "Degree of absorption for single pane window [1]",\
- 8679, 0.0, 0.0,0.0,0.0,0,2560)
+ 8642, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.a1_dir[3]", "Degree of absorption for single pane window [1]",\
- 8680, 0.0, 0.0,0.0,0.0,0,2560)
+ 8643, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.a1_dir[4]", "Degree of absorption for single pane window [1]",\
- 8681, 0.0, 0.0,0.0,0.0,0,2560)
+ 8644, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q21_dir[1]", "Coefficient of heat transfer for exterior pane of double pane window",\
- 8682, 0.0, 0.0,0.0,0.0,0,2560)
+ 8645, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q21_dir[2]", "Coefficient of heat transfer for exterior pane of double pane window",\
- 8683, 0.0, 0.0,0.0,0.0,0,2560)
+ 8646, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q21_dir[3]", "Coefficient of heat transfer for exterior pane of double pane window",\
- 8684, 0.0, 0.0,0.0,0.0,0,2560)
+ 8647, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q21_dir[4]", "Coefficient of heat transfer for exterior pane of double pane window",\
- 8685, 0.0, 0.0,0.0,0.0,0,2560)
+ 8648, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q22_dir[1]", "Coefficient of heat transfer for interior pane of double pane window",\
- 8686, 0.0, 0.0,0.0,0.0,0,2560)
+ 8649, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q22_dir[2]", "Coefficient of heat transfer for interior pane of double pane window",\
- 8687, 0.0, 0.0,0.0,0.0,0,2560)
+ 8650, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q22_dir[3]", "Coefficient of heat transfer for interior pane of double pane window",\
- 8688, 0.0, 0.0,0.0,0.0,0,2560)
+ 8651, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Q22_dir[4]", "Coefficient of heat transfer for interior pane of double pane window",\
- 8689, 0.0, 0.0,0.0,0.0,0,2560)
+ 8652, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Qsek2_dir[1]", "Overall coefficient of heat transfer for double pane window",\
- 8690, 0.0, 0.0,0.0,0.0,0,2560)
+ 8653, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Qsek2_dir[2]", "Overall coefficient of heat transfer for double pane window",\
- 8691, 0.0, 0.0,0.0,0.0,0,2560)
+ 8654, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Qsek2_dir[3]", "Overall coefficient of heat transfer for double pane window",\
- 8692, 0.0, 0.0,0.0,0.0,0,2560)
+ 8655, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.Qsek2_dir[4]", "Overall coefficient of heat transfer for double pane window",\
- 8693, 0.0, 0.0,0.0,0.0,0,2560)
+ 8656, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.CorG_dir[1]", "Transmission coefficient correction factor for direct radiation [1]",\
- 8694, 0.0, 0.0,0.0,0.0,0,2560)
+ 8657, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.CorG_dir[2]", "Transmission coefficient correction factor for direct radiation [1]",\
- 8695, 0.0, 0.0,0.0,0.0,0,2560)
+ 8658, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.CorG_dir[3]", "Transmission coefficient correction factor for direct radiation [1]",\
- 8696, 0.0, 0.0,0.0,0.0,0,2560)
+ 8659, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].corGMod.CorG_dir[4]", "Transmission coefficient correction factor for direct radiation [1]",\
- 8697, 0.0, 0.0,0.0,0.0,0,2560)
+ 8660, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].eqAirTempWall.aExt", "Coefficient of absorption of exterior walls (outdoor) [1]",\
591, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].eqAirTempWall.n", "Number of orientations (without ground) [:#(type=Integer)]",\
@@ -27341,58 +27355,58 @@ DeclareVariable("building.thermalZone[1].eqAirTempWall.TGroundFromInput", \
"Set to true to use TGro_in input connector instead of TGro constant [:#(type=Boolean)]",\
605, true, 0.0,0.0,0.0,0,515)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWall[1]", \
-"Equivalent wall temperature [K|degC]", 8698, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent wall temperature [K|degC]", 8661, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWall[2]", \
-"Equivalent wall temperature [K|degC]", 8699, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent wall temperature [K|degC]", 8662, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWall[3]", \
-"Equivalent wall temperature [K|degC]", 8700, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent wall temperature [K|degC]", 8663, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWall[4]", \
-"Equivalent wall temperature [K|degC]", 8701, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent wall temperature [K|degC]", 8664, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWin[1]", \
-"Equivalent window temperature [K|degC]", 8702, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent window temperature [K|degC]", 8665, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWin[2]", \
-"Equivalent window temperature [K|degC]", 8703, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent window temperature [K|degC]", 8666, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWin[3]", \
-"Equivalent window temperature [K|degC]", 8704, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent window temperature [K|degC]", 8667, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqWin[4]", \
-"Equivalent window temperature [K|degC]", 8705, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent window temperature [K|degC]", 8668, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.delTEqLW", \
-"Equivalent long wave temperature [K,]", 8706, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent long wave temperature [K,]", 8669, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.delTEqLWWin", \
-"Equivalent long wave temperature for windows [K,]", 8707, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent long wave temperature for windows [K,]", 8670, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.delTEqSW[1]", \
-"Equivalent short wave temperature [K,]", 8708, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent short wave temperature [K,]", 8671, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.delTEqSW[2]", \
-"Equivalent short wave temperature [K,]", 8709, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent short wave temperature [K,]", 8672, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.delTEqSW[3]", \
-"Equivalent short wave temperature [K,]", 8710, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent short wave temperature [K,]", 8673, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.delTEqSW[4]", \
-"Equivalent short wave temperature [K,]", 8711, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent short wave temperature [K,]", 8674, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].eqAirTempWall.HSol[1]", "Solar radiation per unit area [W/m2]",\
- "building.thermalZone[1].solRadWall[1].y", 1, 5, 9001, 0)
+ "building.thermalZone[1].solRadWall[1].y", 1, 5, 8964, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempWall.HSol[2]", "Solar radiation per unit area [W/m2]",\
- "building.thermalZone[1].solRadWall[2].y", 1, 5, 9002, 0)
+ "building.thermalZone[1].solRadWall[2].y", 1, 5, 8965, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempWall.HSol[3]", "Solar radiation per unit area [W/m2]",\
- "building.thermalZone[1].solRadWall[3].y", 1, 5, 9003, 0)
+ "building.thermalZone[1].solRadWall[3].y", 1, 5, 8966, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempWall.HSol[4]", "Solar radiation per unit area [W/m2]",\
- "building.thermalZone[1].solRadWall[4].y", 1, 5, 9004, 0)
+ "building.thermalZone[1].solRadWall[4].y", 1, 5, 8967, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempWall.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 0)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempWall.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqAir", "Equivalent air temperature [K|degC]",\
- 8712, 288.15, 0.0,1E+100,300.0,0,512)
+ 8675, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempWall.sunblind[1]", \
-"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8284,\
+"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8244,\
0.0, 0.0,1.0,0.0,0,640)
DeclareVariable("building.thermalZone[1].eqAirTempWall.sunblind[2]", \
-"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8285,\
+"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8245,\
0.0, 0.0,1.0,0.0,0,640)
DeclareVariable("building.thermalZone[1].eqAirTempWall.sunblind[3]", \
-"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8286,\
+"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8246,\
0.0, 0.0,1.0,0.0,0,640)
DeclareVariable("building.thermalZone[1].eqAirTempWall.sunblind[4]", \
-"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8287,\
+"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", 8247,\
0.0, 0.0,1.0,0.0,0,640)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TGro_in", \
"Temperature of the ground in contact with floor plate [K|degC]", 606, 286.15, \
@@ -27410,7 +27424,7 @@ DeclareVariable("building.thermalZone[1].eqAirTempWall.hConWinOut", \
"Windows' convective coefficient of heat transfer (outdoor) [W/(m2.K)]", 611, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].eqAirTempWall.TEqAirWin", \
-"Equivalent air temperature for windows (no short-wave radiation) [K]", 8713, \
+"Equivalent air temperature for windows (no short-wave radiation) [K]", 8676, \
288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempRoof.aExt", "Coefficient of absorption of exterior walls (outdoor) [1]",\
612, 0.0, 0.0,0.0,0.0,0,513)
@@ -27436,24 +27450,24 @@ DeclareVariable("building.thermalZone[1].eqAirTempRoof.TGroundFromInput", \
"Set to true to use TGro_in input connector instead of TGro constant [:#(type=Boolean)]",\
620, true, 0.0,0.0,0.0,0,515)
DeclareVariable("building.thermalZone[1].eqAirTempRoof.TEqWall[1]", \
-"Equivalent wall temperature [K|degC]", 8714, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent wall temperature [K|degC]", 8677, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempRoof.TEqWin[1]", \
-"Equivalent window temperature [K|degC]", 8715, 288.15, 0.0,1E+100,300.0,0,512)
+"Equivalent window temperature [K|degC]", 8678, 288.15, 0.0,1E+100,300.0,0,512)
DeclareVariable("building.thermalZone[1].eqAirTempRoof.delTEqLW", \
-"Equivalent long wave temperature [K,]", 8716, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent long wave temperature [K,]", 8679, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].eqAirTempRoof.delTEqLWWin", \
"Equivalent long wave temperature for windows [K,]", "building.thermalZone[1].eqAirTempRoof.delTEqLW", 1,\
- 5, 8716, 0)
+ 5, 8679, 0)
DeclareVariable("building.thermalZone[1].eqAirTempRoof.delTEqSW[1]", \
-"Equivalent short wave temperature [K,]", 8717, 0.0, 0.0,0.0,0.0,0,512)
+"Equivalent short wave temperature [K,]", 8680, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].eqAirTempRoof.HSol[1]", "Solar radiation per unit area [W/m2]",\
- "building.thermalZone[1].solRadRoof[1].y", 1, 5, 9000, 0)
+ "building.thermalZone[1].solRadRoof[1].y", 1, 5, 8963, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempRoof.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 0)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 0)
DeclareAlias2("building.thermalZone[1].eqAirTempRoof.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("building.thermalZone[1].eqAirTempRoof.TEqAir", "Equivalent air temperature [K|degC]",\
- 8718, 288.15, 0.0,1E+100,300.0,0,512)
+ 8681, 288.15, 0.0,1E+100,300.0,0,512)
DeclareAlias2("building.thermalZone[1].eqAirTempRoof.sunblind[1]", \
"Opening factor of sunblinds for each direction (0 - open to 1 - closed) [1]", \
"building.thermalZone[1].constSunblindRoof[1].k", 1, 7, 258, 0)
@@ -27476,38 +27490,38 @@ DeclareAlias2("building.thermalZone[1].constSunblindRoof[1].y", "Connector of Re
DeclareVariable("building.thermalZone[1].HDifTilWall[1].til", "Surface tilt [rad|deg]",\
626, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].H", "Radiation per unit area [W/m2]",\
- 8719, 0.0, 0.0,0.0,0.0,0,512)
+ 8682, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].weaBus.lat", \
"Latitude of the location [rad|deg]", 627, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].weaBus.lon", \
@@ -27515,19 +27529,19 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[1].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[1].weaBus.alt", \
"Location altitude above sea level [m]", 629, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareParameter("building.thermalZone[1].HDifTilWall[1].rho", "Ground reflectance [1]",\
259, 0.2, 0.0,1.0,0.0,0,560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].azi", "Surface azimuth [rad|deg]",\
@@ -27540,49 +27554,49 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[1].outGroCon", \
true, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky", \
-"building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", 1, 5, 8724, 0)
+"building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", 1, 5, 8687, 0)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground", \
-"building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", 1, 5, 8723, 0)
+"building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", 1, 5, 8686, 0)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.rho", \
"Ground reflectance", 633, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.til", \
"Surface tilt angle [rad|deg]", 634, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.briCof1", \
-"Brightening Coeffcient F1", 8720, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F1", 8683, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.briCof2", \
-"Brightening Coeffcient F2", 8721, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F2", 8684, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].HDifTil.HDifHor", \
-"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].HDifTil.HGloHor", \
-"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493, 1024)
+"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].HDifTil.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.incAng", \
-"Solar incidence angle on the surface [rad|deg]", 8722, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar incidence angle on the surface [rad|deg]", 8685, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- 8723, 0.0, 0.0,0.0,0.0,0,2560)
+ 8686, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- 8724, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.a", "", 8725, \
+ 8687, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.a", "", 8688, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.b", "", 8726, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.b", "", 8689, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].HDifTil.bMin", \
"Lower bound for b", 635, 0.08715574274765814, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyCle.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyCle.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyCle.HDirNor", \
-"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyCle.skyCle", \
-"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8727, 0.0, 0.0,0.0,\
+"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8690, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyCle.hSmall", \
"Small radiation for regularization [W/m2]", 636, 5E-05, 0.0,0.0,0.0,0,2561)
@@ -27591,130 +27605,130 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyCle.deltaX", \
DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyCle.k", \
"Constant factor", 638, 1.040895310738997, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyCle.tmp1", \
-"Intermediate variable", 8728, 0.0, 0.0,0.0,0.0,0,2560)
+"Intermediate variable", 8691, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyCle.HDifHorBou", \
-"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8729, 0.0, \
+"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8692, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].briCoe.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].briCoe.skyCle", \
"Sky clearness. skyCle=1: overcast sky; skyCle=8 clear sky", "building.thermalZone[1].HDifTilWall[1].skyCle.skyCle", 1,\
- 5, 8727, 1024)
+ 5, 8690, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.skyBri", \
-"Sky brightness [0,1] []", 8730, 0.0, 0.0,0.0,0.0,0,2560)
+"Sky brightness [0,1] []", 8693, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].briCoe.F1", \
"Circumsolar brightening coefficient", "building.thermalZone[1].HDifTilWall[1].HDifTil.briCof1", 1,\
- 5, 8720, 1024)
+ 5, 8683, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].briCoe.F2", \
"Horizon brightening coefficient", "building.thermalZone[1].HDifTilWall[1].HDifTil.briCof2", 1,\
- 5, 8721, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F11", "", 8731, \
+ 5, 8684, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F11", "", 8694, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F12", "", 8732, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F12", "", 8695, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F13", "", 8733, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F13", "", 8696, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F21", "", 8734, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F21", "", 8697, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F22", "", 8735, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F22", "", 8698, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F23", "", 8736, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.F23", "", 8699, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.d", "", 639, 0.01,\
0.0,0.0,0.0,0,2561)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a1", "", 8737, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a1", "", 8700, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a2", "", 8738, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a2", "", 8701, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a3", "", 8739, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a3", "", 8702, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a4", "", 8740, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a4", "", 8703, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a5", "", 8741, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a5", "", 8704, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a6", "", 8742, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a6", "", 8705, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a7", "", 8743, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a7", "", 8706, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a8", "", 8744, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.a8", "", 8707, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].briCoe.b1", "", \
-"building.thermalZone[1].HDifTilWall[1].briCoe.a1", 1, 5, 8737, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b2", "", 8745, \
+"building.thermalZone[1].HDifTilWall[1].briCoe.a1", 1, 5, 8700, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b2", "", 8708, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b3", "", 8746, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b3", "", 8709, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b4", "", 8747, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b4", "", 8710, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b5", "", 8748, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b5", "", 8711, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b6", "", 8749, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b6", "", 8712, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b7", "", 8750, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[1].briCoe.b7", "", 8713, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].briCoe.b8", "", \
-"building.thermalZone[1].HDifTilWall[1].briCoe.a8", 1, 5, 8744, 1024)
+"building.thermalZone[1].HDifTilWall[1].briCoe.a8", 1, 5, 8707, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].relAirMas.alt", \
"location altitude [m]", 640, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].relAirMas.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].relAirMas.relAirMas", \
-"Relative air mass", 8751, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative air mass", 8714, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].relAirMas.zenLim", \
-"Zenith angle bounded from above by 90 degree", 8752, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle bounded from above by 90 degree", 8715, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].relAirMas.zenDeg", \
-"Zenith angle in degree", 8753, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle in degree", 8716, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyBri.relAirMas", \
"Relative air mass", "building.thermalZone[1].HDifTilWall[1].relAirMas.relAirMas", 1,\
- 5, 8751, 1024)
+ 5, 8714, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyBri.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyBri.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].skyBri.skyBri", \
-"Sky brightness", "building.thermalZone[1].HDifTilWall[1].briCoe.skyBri", 1, 5, 8730,\
+"Sky brightness", "building.thermalZone[1].HDifTilWall[1].briCoe.skyBri", 1, 5, 8693,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].skyBri.extRadCor", \
-"Correction for extraterrestrial radiation", 8754, 0.0, 0.0,0.0,0.0,0,2560)
+"Correction for extraterrestrial radiation", 8717, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.azi", \
"Surface azimuth [rad|deg]", 641, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.til", \
"Surface tilt [rad|deg]", 642, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDifTilWall[1].HDifTil.incAng", 1,\
- 5, 8722, 1024)
+ 5, 8685, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 643, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.lon", \
@@ -27722,46 +27736,46 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 645, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDifTilWall[1].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 260, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[1].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 261, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8755, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8718, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.lenWea", \
"Length of weather data [s]", 646, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
647, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.tNext", \
-"Start time of next period [s]", 8288, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8248, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8756, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8719, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.k1", \
"Constant", 648, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.decAng.k2", \
"Constant", 649, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8757, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8720, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
650, 0.0, 0.0,0.0,0.0,0,2561)
@@ -27770,33 +27784,33 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.til", \
651, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDifTilWall[1].incAng.solHouAng.solHouAng", 1,\
- 5, 8757, 1024)
+ 5, 8720, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDifTilWall[1].incAng.decAng.decAng", 1,\
- 5, 8756, 1024)
+ 5, 8719, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDifTilWall[1].HDifTil.incAng", 1,\
- 5, 8722, 1024)
+ 5, 8685, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.lat", \
"Latitude [rad|deg]", 652, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8758, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8721, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.dec_s", \
-"Sine of declination angle", 8759, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8722, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8760, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8723, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8761, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8724, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.lat_c", \
"Cosine of latitude", 653, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[1].incAng.incAng.lat_s", \
"Sine of latitude", 654, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].add.u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", 1, 5, 8724, 1024)
+ "building.thermalZone[1].HDifTilWall[1].HDifTil.HSkyDifTil", 1, 5, 8687, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].add.u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", 1, 5, 8723, 1024)
+ "building.thermalZone[1].HDifTilWall[1].HDifTil.HGroDifTil", 1, 5, 8686, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[1].add.y", "Connector of Real output signal",\
- "building.thermalZone[1].HDifTilWall[1].H", 1, 5, 8719, 1024)
+ "building.thermalZone[1].HDifTilWall[1].H", 1, 5, 8682, 1024)
DeclareParameter("building.thermalZone[1].HDifTilWall[1].add.k1", \
"Gain of input signal 1", 262, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[1].add.k2", \
@@ -27804,38 +27818,38 @@ DeclareParameter("building.thermalZone[1].HDifTilWall[1].add.k2", \
DeclareVariable("building.thermalZone[1].HDifTilWall[2].til", "Surface tilt [rad|deg]",\
655, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].H", "Radiation per unit area [W/m2]",\
- 8762, 0.0, 0.0,0.0,0.0,0,512)
+ 8725, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].weaBus.lat", \
"Latitude of the location [rad|deg]", 656, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].weaBus.lon", \
@@ -27843,19 +27857,19 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[2].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[2].weaBus.alt", \
"Location altitude above sea level [m]", 658, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareParameter("building.thermalZone[1].HDifTilWall[2].rho", "Ground reflectance [1]",\
264, 0.2, 0.0,1.0,0.0,0,560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].azi", "Surface azimuth [rad|deg]",\
@@ -27868,49 +27882,49 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[2].outGroCon", \
true, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky", \
-"building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", 1, 5, 8767, 0)
+"building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", 1, 5, 8730, 0)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground", \
-"building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", 1, 5, 8766, 0)
+"building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", 1, 5, 8729, 0)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.rho", \
"Ground reflectance", 662, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.til", \
"Surface tilt angle [rad|deg]", 663, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.briCof1", \
-"Brightening Coeffcient F1", 8763, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F1", 8726, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.briCof2", \
-"Brightening Coeffcient F2", 8764, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F2", 8727, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].HDifTil.HDifHor", \
-"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].HDifTil.HGloHor", \
-"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493, 1024)
+"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].HDifTil.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.incAng", \
-"Solar incidence angle on the surface [rad|deg]", 8765, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar incidence angle on the surface [rad|deg]", 8728, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- 8766, 0.0, 0.0,0.0,0.0,0,2560)
+ 8729, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- 8767, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.a", "", 8768, \
+ 8730, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.a", "", 8731, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.b", "", 8769, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.b", "", 8732, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].HDifTil.bMin", \
"Lower bound for b", 664, 0.08715574274765814, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyCle.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyCle.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyCle.HDirNor", \
-"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyCle.skyCle", \
-"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8770, 0.0, 0.0,0.0,\
+"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8733, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyCle.hSmall", \
"Small radiation for regularization [W/m2]", 665, 5E-05, 0.0,0.0,0.0,0,2561)
@@ -27919,130 +27933,130 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyCle.deltaX", \
DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyCle.k", \
"Constant factor", 667, 1.040895310738997, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyCle.tmp1", \
-"Intermediate variable", 8771, 0.0, 0.0,0.0,0.0,0,2560)
+"Intermediate variable", 8734, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyCle.HDifHorBou", \
-"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8772, 0.0, \
+"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8735, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].briCoe.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].briCoe.skyCle", \
"Sky clearness. skyCle=1: overcast sky; skyCle=8 clear sky", "building.thermalZone[1].HDifTilWall[2].skyCle.skyCle", 1,\
- 5, 8770, 1024)
+ 5, 8733, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.skyBri", \
-"Sky brightness [0,1] []", 8773, 0.0, 0.0,0.0,0.0,0,2560)
+"Sky brightness [0,1] []", 8736, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].briCoe.F1", \
"Circumsolar brightening coefficient", "building.thermalZone[1].HDifTilWall[2].HDifTil.briCof1", 1,\
- 5, 8763, 1024)
+ 5, 8726, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].briCoe.F2", \
"Horizon brightening coefficient", "building.thermalZone[1].HDifTilWall[2].HDifTil.briCof2", 1,\
- 5, 8764, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F11", "", 8774, \
+ 5, 8727, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F11", "", 8737, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F12", "", 8775, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F12", "", 8738, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F13", "", 8776, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F13", "", 8739, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F21", "", 8777, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F21", "", 8740, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F22", "", 8778, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F22", "", 8741, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F23", "", 8779, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.F23", "", 8742, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.d", "", 668, 0.01,\
0.0,0.0,0.0,0,2561)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a1", "", 8780, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a1", "", 8743, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a2", "", 8781, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a2", "", 8744, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a3", "", 8782, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a3", "", 8745, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a4", "", 8783, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a4", "", 8746, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a5", "", 8784, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a5", "", 8747, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a6", "", 8785, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a6", "", 8748, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a7", "", 8786, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a7", "", 8749, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a8", "", 8787, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.a8", "", 8750, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].briCoe.b1", "", \
-"building.thermalZone[1].HDifTilWall[2].briCoe.a1", 1, 5, 8780, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b2", "", 8788, \
+"building.thermalZone[1].HDifTilWall[2].briCoe.a1", 1, 5, 8743, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b2", "", 8751, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b3", "", 8789, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b3", "", 8752, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b4", "", 8790, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b4", "", 8753, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b5", "", 8791, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b5", "", 8754, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b6", "", 8792, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b6", "", 8755, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b7", "", 8793, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[2].briCoe.b7", "", 8756, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].briCoe.b8", "", \
-"building.thermalZone[1].HDifTilWall[2].briCoe.a8", 1, 5, 8787, 1024)
+"building.thermalZone[1].HDifTilWall[2].briCoe.a8", 1, 5, 8750, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].relAirMas.alt", \
"location altitude [m]", 669, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].relAirMas.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].relAirMas.relAirMas", \
-"Relative air mass", 8794, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative air mass", 8757, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].relAirMas.zenLim", \
-"Zenith angle bounded from above by 90 degree", 8795, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle bounded from above by 90 degree", 8758, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].relAirMas.zenDeg", \
-"Zenith angle in degree", 8796, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle in degree", 8759, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyBri.relAirMas", \
"Relative air mass", "building.thermalZone[1].HDifTilWall[2].relAirMas.relAirMas", 1,\
- 5, 8794, 1024)
+ 5, 8757, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyBri.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyBri.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].skyBri.skyBri", \
-"Sky brightness", "building.thermalZone[1].HDifTilWall[2].briCoe.skyBri", 1, 5, 8773,\
+"Sky brightness", "building.thermalZone[1].HDifTilWall[2].briCoe.skyBri", 1, 5, 8736,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].skyBri.extRadCor", \
-"Correction for extraterrestrial radiation", 8797, 0.0, 0.0,0.0,0.0,0,2560)
+"Correction for extraterrestrial radiation", 8760, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.azi", \
"Surface azimuth [rad|deg]", 670, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.til", \
"Surface tilt [rad|deg]", 671, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDifTilWall[2].HDifTil.incAng", 1,\
- 5, 8765, 1024)
+ 5, 8728, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 672, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.lon", \
@@ -28050,46 +28064,46 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 674, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDifTilWall[2].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 265, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[2].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 266, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8798, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8761, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.lenWea", \
"Length of weather data [s]", 675, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
676, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.tNext", \
-"Start time of next period [s]", 8289, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8249, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8799, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8762, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.k1", \
"Constant", 677, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.decAng.k2", \
"Constant", 678, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8800, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8763, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
679, 0.0, 0.0,0.0,0.0,0,2561)
@@ -28098,33 +28112,33 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.til", \
680, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDifTilWall[2].incAng.solHouAng.solHouAng", 1,\
- 5, 8800, 1024)
+ 5, 8763, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDifTilWall[2].incAng.decAng.decAng", 1,\
- 5, 8799, 1024)
+ 5, 8762, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDifTilWall[2].HDifTil.incAng", 1,\
- 5, 8765, 1024)
+ 5, 8728, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.lat", \
"Latitude [rad|deg]", 681, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8801, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8764, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.dec_s", \
-"Sine of declination angle", 8802, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8765, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8803, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8766, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8804, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8767, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.lat_c", \
"Cosine of latitude", 682, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[2].incAng.incAng.lat_s", \
"Sine of latitude", 683, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].add.u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", 1, 5, 8767, 1024)
+ "building.thermalZone[1].HDifTilWall[2].HDifTil.HSkyDifTil", 1, 5, 8730, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].add.u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", 1, 5, 8766, 1024)
+ "building.thermalZone[1].HDifTilWall[2].HDifTil.HGroDifTil", 1, 5, 8729, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[2].add.y", "Connector of Real output signal",\
- "building.thermalZone[1].HDifTilWall[2].H", 1, 5, 8762, 1024)
+ "building.thermalZone[1].HDifTilWall[2].H", 1, 5, 8725, 1024)
DeclareParameter("building.thermalZone[1].HDifTilWall[2].add.k1", \
"Gain of input signal 1", 267, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[2].add.k2", \
@@ -28132,38 +28146,38 @@ DeclareParameter("building.thermalZone[1].HDifTilWall[2].add.k2", \
DeclareVariable("building.thermalZone[1].HDifTilWall[3].til", "Surface tilt [rad|deg]",\
684, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].H", "Radiation per unit area [W/m2]",\
- 8805, 0.0, 0.0,0.0,0.0,0,512)
+ 8768, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].weaBus.lat", \
"Latitude of the location [rad|deg]", 685, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].weaBus.lon", \
@@ -28171,19 +28185,19 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[3].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[3].weaBus.alt", \
"Location altitude above sea level [m]", 687, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareParameter("building.thermalZone[1].HDifTilWall[3].rho", "Ground reflectance [1]",\
269, 0.2, 0.0,1.0,0.0,0,560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].azi", "Surface azimuth [rad|deg]",\
@@ -28196,49 +28210,49 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[3].outGroCon", \
true, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky", \
-"building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", 1, 5, 8810, 0)
+"building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", 1, 5, 8773, 0)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground", \
-"building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", 1, 5, 8809, 0)
+"building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", 1, 5, 8772, 0)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.rho", \
"Ground reflectance", 691, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.til", \
"Surface tilt angle [rad|deg]", 692, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.briCof1", \
-"Brightening Coeffcient F1", 8806, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F1", 8769, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.briCof2", \
-"Brightening Coeffcient F2", 8807, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F2", 8770, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].HDifTil.HDifHor", \
-"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].HDifTil.HGloHor", \
-"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493, 1024)
+"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].HDifTil.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.incAng", \
-"Solar incidence angle on the surface [rad|deg]", 8808, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar incidence angle on the surface [rad|deg]", 8771, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- 8809, 0.0, 0.0,0.0,0.0,0,2560)
+ 8772, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- 8810, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.a", "", 8811, \
+ 8773, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.a", "", 8774, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.b", "", 8812, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.b", "", 8775, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].HDifTil.bMin", \
"Lower bound for b", 693, 0.08715574274765814, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyCle.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyCle.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyCle.HDirNor", \
-"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyCle.skyCle", \
-"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8813, 0.0, 0.0,0.0,\
+"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8776, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyCle.hSmall", \
"Small radiation for regularization [W/m2]", 694, 5E-05, 0.0,0.0,0.0,0,2561)
@@ -28247,130 +28261,130 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyCle.deltaX", \
DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyCle.k", \
"Constant factor", 696, 1.040895310738997, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyCle.tmp1", \
-"Intermediate variable", 8814, 0.0, 0.0,0.0,0.0,0,2560)
+"Intermediate variable", 8777, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyCle.HDifHorBou", \
-"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8815, 0.0, \
+"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8778, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].briCoe.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].briCoe.skyCle", \
"Sky clearness. skyCle=1: overcast sky; skyCle=8 clear sky", "building.thermalZone[1].HDifTilWall[3].skyCle.skyCle", 1,\
- 5, 8813, 1024)
+ 5, 8776, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.skyBri", \
-"Sky brightness [0,1] []", 8816, 0.0, 0.0,0.0,0.0,0,2560)
+"Sky brightness [0,1] []", 8779, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].briCoe.F1", \
"Circumsolar brightening coefficient", "building.thermalZone[1].HDifTilWall[3].HDifTil.briCof1", 1,\
- 5, 8806, 1024)
+ 5, 8769, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].briCoe.F2", \
"Horizon brightening coefficient", "building.thermalZone[1].HDifTilWall[3].HDifTil.briCof2", 1,\
- 5, 8807, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F11", "", 8817, \
+ 5, 8770, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F11", "", 8780, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F12", "", 8818, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F12", "", 8781, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F13", "", 8819, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F13", "", 8782, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F21", "", 8820, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F21", "", 8783, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F22", "", 8821, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F22", "", 8784, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F23", "", 8822, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.F23", "", 8785, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.d", "", 697, 0.01,\
0.0,0.0,0.0,0,2561)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a1", "", 8823, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a1", "", 8786, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a2", "", 8824, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a2", "", 8787, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a3", "", 8825, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a3", "", 8788, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a4", "", 8826, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a4", "", 8789, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a5", "", 8827, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a5", "", 8790, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a6", "", 8828, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a6", "", 8791, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a7", "", 8829, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a7", "", 8792, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a8", "", 8830, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.a8", "", 8793, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].briCoe.b1", "", \
-"building.thermalZone[1].HDifTilWall[3].briCoe.a1", 1, 5, 8823, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b2", "", 8831, \
+"building.thermalZone[1].HDifTilWall[3].briCoe.a1", 1, 5, 8786, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b2", "", 8794, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b3", "", 8832, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b3", "", 8795, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b4", "", 8833, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b4", "", 8796, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b5", "", 8834, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b5", "", 8797, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b6", "", 8835, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b6", "", 8798, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b7", "", 8836, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[3].briCoe.b7", "", 8799, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].briCoe.b8", "", \
-"building.thermalZone[1].HDifTilWall[3].briCoe.a8", 1, 5, 8830, 1024)
+"building.thermalZone[1].HDifTilWall[3].briCoe.a8", 1, 5, 8793, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].relAirMas.alt", \
"location altitude [m]", 698, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].relAirMas.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].relAirMas.relAirMas", \
-"Relative air mass", 8837, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative air mass", 8800, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].relAirMas.zenLim", \
-"Zenith angle bounded from above by 90 degree", 8838, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle bounded from above by 90 degree", 8801, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].relAirMas.zenDeg", \
-"Zenith angle in degree", 8839, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle in degree", 8802, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyBri.relAirMas", \
"Relative air mass", "building.thermalZone[1].HDifTilWall[3].relAirMas.relAirMas", 1,\
- 5, 8837, 1024)
+ 5, 8800, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyBri.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyBri.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].skyBri.skyBri", \
-"Sky brightness", "building.thermalZone[1].HDifTilWall[3].briCoe.skyBri", 1, 5, 8816,\
+"Sky brightness", "building.thermalZone[1].HDifTilWall[3].briCoe.skyBri", 1, 5, 8779,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].skyBri.extRadCor", \
-"Correction for extraterrestrial radiation", 8840, 0.0, 0.0,0.0,0.0,0,2560)
+"Correction for extraterrestrial radiation", 8803, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.azi", \
"Surface azimuth [rad|deg]", 699, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.til", \
"Surface tilt [rad|deg]", 700, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDifTilWall[3].HDifTil.incAng", 1,\
- 5, 8808, 1024)
+ 5, 8771, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 701, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.lon", \
@@ -28378,46 +28392,46 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 703, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDifTilWall[3].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 270, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[3].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 271, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8841, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8804, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.lenWea", \
"Length of weather data [s]", 704, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
705, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.tNext", \
-"Start time of next period [s]", 8290, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8250, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8842, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8805, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.k1", \
"Constant", 706, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.decAng.k2", \
"Constant", 707, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8843, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8806, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
708, 0.0, 0.0,0.0,0.0,0,2561)
@@ -28426,33 +28440,33 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.til", \
709, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDifTilWall[3].incAng.solHouAng.solHouAng", 1,\
- 5, 8843, 1024)
+ 5, 8806, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDifTilWall[3].incAng.decAng.decAng", 1,\
- 5, 8842, 1024)
+ 5, 8805, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDifTilWall[3].HDifTil.incAng", 1,\
- 5, 8808, 1024)
+ 5, 8771, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.lat", \
"Latitude [rad|deg]", 710, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8844, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8807, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.dec_s", \
-"Sine of declination angle", 8845, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8808, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8846, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8809, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8847, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8810, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.lat_c", \
"Cosine of latitude", 711, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[3].incAng.incAng.lat_s", \
"Sine of latitude", 712, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].add.u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", 1, 5, 8810, 1024)
+ "building.thermalZone[1].HDifTilWall[3].HDifTil.HSkyDifTil", 1, 5, 8773, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].add.u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", 1, 5, 8809, 1024)
+ "building.thermalZone[1].HDifTilWall[3].HDifTil.HGroDifTil", 1, 5, 8772, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[3].add.y", "Connector of Real output signal",\
- "building.thermalZone[1].HDifTilWall[3].H", 1, 5, 8805, 1024)
+ "building.thermalZone[1].HDifTilWall[3].H", 1, 5, 8768, 1024)
DeclareParameter("building.thermalZone[1].HDifTilWall[3].add.k1", \
"Gain of input signal 1", 272, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[3].add.k2", \
@@ -28460,38 +28474,38 @@ DeclareParameter("building.thermalZone[1].HDifTilWall[3].add.k2", \
DeclareVariable("building.thermalZone[1].HDifTilWall[4].til", "Surface tilt [rad|deg]",\
713, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].H", "Radiation per unit area [W/m2]",\
- 8848, 0.0, 0.0,0.0,0.0,0,512)
+ 8811, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].weaBus.lat", \
"Latitude of the location [rad|deg]", 714, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].weaBus.lon", \
@@ -28499,19 +28513,19 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[4].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[4].weaBus.alt", \
"Location altitude above sea level [m]", 716, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareParameter("building.thermalZone[1].HDifTilWall[4].rho", "Ground reflectance [1]",\
274, 0.2, 0.0,1.0,0.0,0,560)
EndNonAlias(0)
@@ -28527,49 +28541,49 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[4].outGroCon", \
true, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky", \
-"building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", 1, 5, 8853, 0)
+"building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", 1, 5, 8816, 0)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground", \
-"building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", 1, 5, 8852, 0)
+"building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", 1, 5, 8815, 0)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.rho", \
"Ground reflectance", 720, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.til", \
"Surface tilt angle [rad|deg]", 721, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.briCof1", \
-"Brightening Coeffcient F1", 8849, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F1", 8812, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.briCof2", \
-"Brightening Coeffcient F2", 8850, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F2", 8813, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].HDifTil.HDifHor", \
-"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].HDifTil.HGloHor", \
-"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493, 1024)
+"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].HDifTil.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.incAng", \
-"Solar incidence angle on the surface [rad|deg]", 8851, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar incidence angle on the surface [rad|deg]", 8814, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- 8852, 0.0, 0.0,0.0,0.0,0,2560)
+ 8815, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- 8853, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.a", "", 8854, \
+ 8816, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.a", "", 8817, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.b", "", 8855, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.b", "", 8818, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].HDifTil.bMin", \
"Lower bound for b", 722, 0.08715574274765814, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyCle.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyCle.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyCle.HDirNor", \
-"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyCle.skyCle", \
-"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8856, 0.0, 0.0,0.0,\
+"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8819, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyCle.hSmall", \
"Small radiation for regularization [W/m2]", 723, 5E-05, 0.0,0.0,0.0,0,2561)
@@ -28578,130 +28592,130 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyCle.deltaX", \
DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyCle.k", \
"Constant factor", 725, 1.040895310738997, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyCle.tmp1", \
-"Intermediate variable", 8857, 0.0, 0.0,0.0,0.0,0,2560)
+"Intermediate variable", 8820, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyCle.HDifHorBou", \
-"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8858, 0.0, \
+"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8821, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].briCoe.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].briCoe.skyCle", \
"Sky clearness. skyCle=1: overcast sky; skyCle=8 clear sky", "building.thermalZone[1].HDifTilWall[4].skyCle.skyCle", 1,\
- 5, 8856, 1024)
+ 5, 8819, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.skyBri", \
-"Sky brightness [0,1] []", 8859, 0.0, 0.0,0.0,0.0,0,2560)
+"Sky brightness [0,1] []", 8822, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].briCoe.F1", \
"Circumsolar brightening coefficient", "building.thermalZone[1].HDifTilWall[4].HDifTil.briCof1", 1,\
- 5, 8849, 1024)
+ 5, 8812, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].briCoe.F2", \
"Horizon brightening coefficient", "building.thermalZone[1].HDifTilWall[4].HDifTil.briCof2", 1,\
- 5, 8850, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F11", "", 8860, \
+ 5, 8813, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F11", "", 8823, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F12", "", 8861, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F12", "", 8824, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F13", "", 8862, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F13", "", 8825, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F21", "", 8863, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F21", "", 8826, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F22", "", 8864, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F22", "", 8827, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F23", "", 8865, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.F23", "", 8828, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.d", "", 726, 0.01,\
0.0,0.0,0.0,0,2561)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a1", "", 8866, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a1", "", 8829, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a2", "", 8867, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a2", "", 8830, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a3", "", 8868, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a3", "", 8831, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a4", "", 8869, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a4", "", 8832, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a5", "", 8870, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a5", "", 8833, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a6", "", 8871, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a6", "", 8834, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a7", "", 8872, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a7", "", 8835, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a8", "", 8873, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.a8", "", 8836, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].briCoe.b1", "", \
-"building.thermalZone[1].HDifTilWall[4].briCoe.a1", 1, 5, 8866, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b2", "", 8874, \
+"building.thermalZone[1].HDifTilWall[4].briCoe.a1", 1, 5, 8829, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b2", "", 8837, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b3", "", 8875, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b3", "", 8838, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b4", "", 8876, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b4", "", 8839, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b5", "", 8877, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b5", "", 8840, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b6", "", 8878, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b6", "", 8841, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b7", "", 8879, \
+DeclareVariable("building.thermalZone[1].HDifTilWall[4].briCoe.b7", "", 8842, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].briCoe.b8", "", \
-"building.thermalZone[1].HDifTilWall[4].briCoe.a8", 1, 5, 8873, 1024)
+"building.thermalZone[1].HDifTilWall[4].briCoe.a8", 1, 5, 8836, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].relAirMas.alt", \
"location altitude [m]", 727, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].relAirMas.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].relAirMas.relAirMas", \
-"Relative air mass", 8880, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative air mass", 8843, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].relAirMas.zenLim", \
-"Zenith angle bounded from above by 90 degree", 8881, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle bounded from above by 90 degree", 8844, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].relAirMas.zenDeg", \
-"Zenith angle in degree", 8882, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle in degree", 8845, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyBri.relAirMas", \
"Relative air mass", "building.thermalZone[1].HDifTilWall[4].relAirMas.relAirMas", 1,\
- 5, 8880, 1024)
+ 5, 8843, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyBri.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyBri.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].skyBri.skyBri", \
-"Sky brightness", "building.thermalZone[1].HDifTilWall[4].briCoe.skyBri", 1, 5, 8859,\
+"Sky brightness", "building.thermalZone[1].HDifTilWall[4].briCoe.skyBri", 1, 5, 8822,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].skyBri.extRadCor", \
-"Correction for extraterrestrial radiation", 8883, 0.0, 0.0,0.0,0.0,0,2560)
+"Correction for extraterrestrial radiation", 8846, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.azi", \
"Surface azimuth [rad|deg]", 728, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.til", \
"Surface tilt [rad|deg]", 729, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDifTilWall[4].HDifTil.incAng", 1,\
- 5, 8851, 1024)
+ 5, 8814, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 730, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.lon", \
@@ -28709,46 +28723,46 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 732, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDifTilWall[4].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 275, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[4].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 276, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8884, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8847, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.lenWea", \
"Length of weather data [s]", 733, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
734, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.tNext", \
-"Start time of next period [s]", 8291, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8251, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8885, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8848, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.k1", \
"Constant", 735, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.decAng.k2", \
"Constant", 736, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8886, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8849, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
737, 0.0, 0.0,0.0,0.0,0,2561)
@@ -28757,33 +28771,33 @@ DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.til", \
738, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDifTilWall[4].incAng.solHouAng.solHouAng", 1,\
- 5, 8886, 1024)
+ 5, 8849, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDifTilWall[4].incAng.decAng.decAng", 1,\
- 5, 8885, 1024)
+ 5, 8848, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDifTilWall[4].HDifTil.incAng", 1,\
- 5, 8851, 1024)
+ 5, 8814, 1024)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.lat", \
"Latitude [rad|deg]", 739, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8887, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8850, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.dec_s", \
-"Sine of declination angle", 8888, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8851, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8889, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8852, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8890, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8853, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.lat_c", \
"Cosine of latitude", 740, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilWall[4].incAng.incAng.lat_s", \
"Sine of latitude", 741, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].add.u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", 1, 5, 8853, 1024)
+ "building.thermalZone[1].HDifTilWall[4].HDifTil.HSkyDifTil", 1, 5, 8816, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].add.u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", 1, 5, 8852, 1024)
+ "building.thermalZone[1].HDifTilWall[4].HDifTil.HGroDifTil", 1, 5, 8815, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilWall[4].add.y", "Connector of Real output signal",\
- "building.thermalZone[1].HDifTilWall[4].H", 1, 5, 8848, 1024)
+ "building.thermalZone[1].HDifTilWall[4].H", 1, 5, 8811, 1024)
DeclareParameter("building.thermalZone[1].HDifTilWall[4].add.k1", \
"Gain of input signal 1", 277, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilWall[4].add.k2", \
@@ -28791,38 +28805,38 @@ DeclareParameter("building.thermalZone[1].HDifTilWall[4].add.k2", \
DeclareVariable("building.thermalZone[1].HDirTilWall[1].til", "Surface tilt [rad|deg]",\
742, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].H", "Radiation per unit area [W/m2]",\
- 8891, 0.0, 0.0,0.0,0.0,0,512)
+ 8854, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].weaBus.lat", \
"Latitude of the location [rad|deg]", 743, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].weaBus.lon", \
@@ -28830,61 +28844,61 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[1].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[1].weaBus.alt", \
"Location altitude above sea level [m]", 745, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].azi", "Surface azimuth [rad|deg]",\
746, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].inc", "Incidence angle [rad|deg]",\
- 8892, 0.0, 0.0,0.0,0.0,0,512)
+ 8855, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.azi", \
"Surface azimuth [rad|deg]", 747, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.til", \
"Surface tilt [rad|deg]", 748, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDirTilWall[1].inc", 1, 5,\
- 8892, 1024)
+ 8855, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 749, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.lon", \
@@ -28892,46 +28906,46 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 751, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDirTilWall[1].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 279, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDirTilWall[1].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 280, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8893, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8856, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.lenWea", \
"Length of weather data [s]", 752, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
753, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.tNext", \
-"Start time of next period [s]", 8292, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8252, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8894, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8857, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.k1", \
"Constant", 754, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.decAng.k2", \
"Constant", 755, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8895, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8858, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
756, 0.0, 0.0,0.0,0.0,0,2561)
@@ -28940,70 +28954,70 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.til", \
757, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDirTilWall[1].incAng.solHouAng.solHouAng", 1,\
- 5, 8895, 1024)
+ 5, 8858, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDirTilWall[1].incAng.decAng.decAng", 1,\
- 5, 8894, 1024)
+ 5, 8857, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDirTilWall[1].inc", 1,\
- 5, 8892, 1024)
+ 5, 8855, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.lat", \
"Latitude [rad|deg]", 758, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8896, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8859, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.dec_s", \
-"Sine of declination angle", 8897, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8860, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8898, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8861, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8899, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8862, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.lat_c", \
"Cosine of latitude", 759, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[1].incAng.incAng.lat_s", \
"Sine of latitude", 760, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].HDirTil.incAng", \
"Incidence angle of the sun beam on a tilted surface [rad|deg]", \
-"building.thermalZone[1].HDirTilWall[1].inc", 1, 5, 8892, 1024)
+"building.thermalZone[1].HDirTilWall[1].inc", 1, 5, 8855, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].HDirTil.HDirNor", \
-"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492, 1024)
+"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[1].HDirTil.HDirTil", \
"Direct solar irradiation on a tilted surface [W/m2]", "building.thermalZone[1].HDirTilWall[1].H", 1,\
- 5, 8891, 1024)
+ 5, 8854, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].til", "Surface tilt [rad|deg]",\
761, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].H", "Radiation per unit area [W/m2]",\
- 8900, 0.0, 0.0,0.0,0.0,0,512)
+ 8863, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].weaBus.lat", \
"Latitude of the location [rad|deg]", 762, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].weaBus.lon", \
@@ -29011,61 +29025,61 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[2].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[2].weaBus.alt", \
"Location altitude above sea level [m]", 764, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].azi", "Surface azimuth [rad|deg]",\
765, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].inc", "Incidence angle [rad|deg]",\
- 8901, 0.0, 0.0,0.0,0.0,0,512)
+ 8864, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.azi", \
"Surface azimuth [rad|deg]", 766, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.til", \
"Surface tilt [rad|deg]", 767, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDirTilWall[2].inc", 1, 5,\
- 8901, 1024)
+ 8864, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 768, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.lon", \
@@ -29073,46 +29087,46 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 770, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDirTilWall[2].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 281, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDirTilWall[2].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 282, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8902, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8865, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.lenWea", \
"Length of weather data [s]", 771, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
772, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.tNext", \
-"Start time of next period [s]", 8293, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8253, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8903, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8866, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.k1", \
"Constant", 773, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.decAng.k2", \
"Constant", 774, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8904, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8867, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
775, 0.0, 0.0,0.0,0.0,0,2561)
@@ -29121,70 +29135,70 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.til", \
776, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDirTilWall[2].incAng.solHouAng.solHouAng", 1,\
- 5, 8904, 1024)
+ 5, 8867, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDirTilWall[2].incAng.decAng.decAng", 1,\
- 5, 8903, 1024)
+ 5, 8866, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDirTilWall[2].inc", 1,\
- 5, 8901, 1024)
+ 5, 8864, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.lat", \
"Latitude [rad|deg]", 777, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8905, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8868, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.dec_s", \
-"Sine of declination angle", 8906, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8869, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8907, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8870, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8908, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8871, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.lat_c", \
"Cosine of latitude", 778, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[2].incAng.incAng.lat_s", \
"Sine of latitude", 779, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].HDirTil.incAng", \
"Incidence angle of the sun beam on a tilted surface [rad|deg]", \
-"building.thermalZone[1].HDirTilWall[2].inc", 1, 5, 8901, 1024)
+"building.thermalZone[1].HDirTilWall[2].inc", 1, 5, 8864, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].HDirTil.HDirNor", \
-"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492, 1024)
+"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[2].HDirTil.HDirTil", \
"Direct solar irradiation on a tilted surface [W/m2]", "building.thermalZone[1].HDirTilWall[2].H", 1,\
- 5, 8900, 1024)
+ 5, 8863, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].til", "Surface tilt [rad|deg]",\
780, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].H", "Radiation per unit area [W/m2]",\
- 8909, 0.0, 0.0,0.0,0.0,0,512)
+ 8872, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].weaBus.lat", \
"Latitude of the location [rad|deg]", 781, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].weaBus.lon", \
@@ -29192,61 +29206,61 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[3].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[3].weaBus.alt", \
"Location altitude above sea level [m]", 783, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].azi", "Surface azimuth [rad|deg]",\
784, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].inc", "Incidence angle [rad|deg]",\
- 8910, 0.0, 0.0,0.0,0.0,0,512)
+ 8873, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.azi", \
"Surface azimuth [rad|deg]", 785, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.til", \
"Surface tilt [rad|deg]", 786, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDirTilWall[3].inc", 1, 5,\
- 8910, 1024)
+ 8873, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 787, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.lon", \
@@ -29254,46 +29268,46 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 789, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDirTilWall[3].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 283, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDirTilWall[3].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 284, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8911, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8874, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.lenWea", \
"Length of weather data [s]", 790, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
791, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.tNext", \
-"Start time of next period [s]", 8294, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8254, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8912, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8875, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.k1", \
"Constant", 792, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.decAng.k2", \
"Constant", 793, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8913, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8876, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
794, 0.0, 0.0,0.0,0.0,0,2561)
@@ -29302,70 +29316,70 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.til", \
795, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDirTilWall[3].incAng.solHouAng.solHouAng", 1,\
- 5, 8913, 1024)
+ 5, 8876, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDirTilWall[3].incAng.decAng.decAng", 1,\
- 5, 8912, 1024)
+ 5, 8875, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDirTilWall[3].inc", 1,\
- 5, 8910, 1024)
+ 5, 8873, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.lat", \
"Latitude [rad|deg]", 796, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8914, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8877, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.dec_s", \
-"Sine of declination angle", 8915, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8878, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8916, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8879, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8917, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8880, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.lat_c", \
"Cosine of latitude", 797, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[3].incAng.incAng.lat_s", \
"Sine of latitude", 798, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].HDirTil.incAng", \
"Incidence angle of the sun beam on a tilted surface [rad|deg]", \
-"building.thermalZone[1].HDirTilWall[3].inc", 1, 5, 8910, 1024)
+"building.thermalZone[1].HDirTilWall[3].inc", 1, 5, 8873, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].HDirTil.HDirNor", \
-"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492, 1024)
+"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[3].HDirTil.HDirTil", \
"Direct solar irradiation on a tilted surface [W/m2]", "building.thermalZone[1].HDirTilWall[3].H", 1,\
- 5, 8909, 1024)
+ 5, 8872, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].til", "Surface tilt [rad|deg]",\
799, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].H", "Radiation per unit area [W/m2]",\
- 8918, 0.0, 0.0,0.0,0.0,0,512)
+ 8881, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].weaBus.lat", \
"Latitude of the location [rad|deg]", 800, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].weaBus.lon", \
@@ -29373,61 +29387,61 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[4].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[4].weaBus.alt", \
"Location altitude above sea level [m]", 802, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].azi", "Surface azimuth [rad|deg]",\
803, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].inc", "Incidence angle [rad|deg]",\
- 8919, 0.0, 0.0,0.0,0.0,0,512)
+ 8882, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.azi", \
"Surface azimuth [rad|deg]", 804, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.til", \
"Surface tilt [rad|deg]", 805, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDirTilWall[4].inc", 1, 5,\
- 8919, 1024)
+ 8882, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 806, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.lon", \
@@ -29435,46 +29449,46 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 808, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDirTilWall[4].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 285, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDirTilWall[4].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 286, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8920, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8883, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.lenWea", \
"Length of weather data [s]", 809, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
810, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.tNext", \
-"Start time of next period [s]", 8295, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8255, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8921, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8884, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.k1", \
"Constant", 811, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.decAng.k2", \
"Constant", 812, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8922, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8885, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
813, 0.0, 0.0,0.0,0.0,0,2561)
@@ -29483,70 +29497,70 @@ DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.til", \
814, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDirTilWall[4].incAng.solHouAng.solHouAng", 1,\
- 5, 8922, 1024)
+ 5, 8885, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDirTilWall[4].incAng.decAng.decAng", 1,\
- 5, 8921, 1024)
+ 5, 8884, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDirTilWall[4].inc", 1,\
- 5, 8919, 1024)
+ 5, 8882, 1024)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.lat", \
"Latitude [rad|deg]", 815, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8923, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8886, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.dec_s", \
-"Sine of declination angle", 8924, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8887, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8925, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8888, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8926, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8889, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.lat_c", \
"Cosine of latitude", 816, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilWall[4].incAng.incAng.lat_s", \
"Sine of latitude", 817, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].HDirTil.incAng", \
"Incidence angle of the sun beam on a tilted surface [rad|deg]", \
-"building.thermalZone[1].HDirTilWall[4].inc", 1, 5, 8919, 1024)
+"building.thermalZone[1].HDirTilWall[4].inc", 1, 5, 8882, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].HDirTil.HDirNor", \
-"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492, 1024)
+"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilWall[4].HDirTil.HDirTil", \
"Direct solar irradiation on a tilted surface [W/m2]", "building.thermalZone[1].HDirTilWall[4].H", 1,\
- 5, 8918, 1024)
+ 5, 8881, 1024)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].til", "Surface tilt [rad|deg]",\
818, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].H", "Radiation per unit area [W/m2]",\
- 8927, 0.0, 0.0,0.0,0.0,0,512)
+ 8890, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].weaBus.lat", \
"Latitude of the location [rad|deg]", 819, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].weaBus.lon", \
@@ -29554,61 +29568,61 @@ DeclareVariable("building.thermalZone[1].HDirTilRoof[1].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].weaBus.alt", \
"Location altitude above sea level [m]", 821, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].azi", "Surface azimuth [rad|deg]",\
822, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].inc", "Incidence angle [rad|deg]",\
- 8928, 0.0, 0.0,0.0,0.0,0,512)
+ 8891, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.azi", \
"Surface azimuth [rad|deg]", 823, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.til", \
"Surface tilt [rad|deg]", 824, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDirTilRoof[1].inc", 1, 5,\
- 8928, 1024)
+ 8891, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 825, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.lon", \
@@ -29616,46 +29630,46 @@ DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 827, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 287, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 288, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8929, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8892, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.lenWea", \
"Length of weather data [s]", 828, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
829, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.tNext", \
-"Start time of next period [s]", 8296, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8256, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8930, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8893, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.k1", \
"Constant", 830, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.decAng.k2", \
"Constant", 831, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8931, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8894, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
832, 0.0, 0.0,0.0,0.0,0,2561)
@@ -29664,35 +29678,35 @@ DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.til", \
833, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDirTilRoof[1].incAng.solHouAng.solHouAng", 1,\
- 5, 8931, 1024)
+ 5, 8894, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDirTilRoof[1].incAng.decAng.decAng", 1,\
- 5, 8930, 1024)
+ 5, 8893, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDirTilRoof[1].inc", 1,\
- 5, 8928, 1024)
+ 5, 8891, 1024)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.lat", \
"Latitude [rad|deg]", 834, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8932, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8895, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.dec_s", \
-"Sine of declination angle", 8933, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8896, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8934, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8897, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8935, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8898, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.lat_c", \
"Cosine of latitude", 835, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDirTilRoof[1].incAng.incAng.lat_s", \
"Sine of latitude", 836, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].HDirTil.incAng", \
"Incidence angle of the sun beam on a tilted surface [rad|deg]", \
-"building.thermalZone[1].HDirTilRoof[1].inc", 1, 5, 8928, 1024)
+"building.thermalZone[1].HDirTilRoof[1].inc", 1, 5, 8891, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].HDirTil.HDirNor", \
-"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492, 1024)
+"Direct normal radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455, 1024)
DeclareAlias2("building.thermalZone[1].HDirTilRoof[1].HDirTil.HDirTil", \
"Direct solar irradiation on a tilted surface [W/m2]", "building.thermalZone[1].HDirTilRoof[1].H", 1,\
- 5, 8927, 1024)
+ 5, 8890, 1024)
DeclareVariable("building.thermalZone[1].simpleExternalShading.nOrientations", \
"Number of orientations (without ground) [:#(type=Integer)]", 837, 4, 0.0,0.0,\
0.0,0,517)
@@ -29716,82 +29730,82 @@ DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[1].u1
"Connector of first Real input signal", "building.thermalZone[1].simpleExternalShading.gValueShading[1].k", 1,\
5, 850, 0)
DeclareVariable("building.thermalZone[1].simpleExternalShading.switchShading[1].u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 8297, false, 0.0,0.0,\
+ "Connector of Boolean input signal [:#(type=Boolean)]", 8257, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[1].u3",\
"Connector of second Real input signal", "building.thermalZone[1].simpleExternalShading.noShading[1].k", 1,\
7, 289, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[1].y",\
"Connector of Real output signal", "building.thermalZone[1].eqAirTempWall.sunblind[1]", 1,\
- 5, 8284, 0)
+ 5, 8244, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[2].u1",\
"Connector of first Real input signal", "building.thermalZone[1].simpleExternalShading.gValueShading[2].k", 1,\
5, 851, 0)
DeclareVariable("building.thermalZone[1].simpleExternalShading.switchShading[2].u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 8298, false, 0.0,0.0,\
+ "Connector of Boolean input signal [:#(type=Boolean)]", 8258, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[2].u3",\
"Connector of second Real input signal", "building.thermalZone[1].simpleExternalShading.noShading[2].k", 1,\
7, 290, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[2].y",\
"Connector of Real output signal", "building.thermalZone[1].eqAirTempWall.sunblind[2]", 1,\
- 5, 8285, 0)
+ 5, 8245, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[3].u1",\
"Connector of first Real input signal", "building.thermalZone[1].simpleExternalShading.gValueShading[3].k", 1,\
5, 852, 0)
DeclareVariable("building.thermalZone[1].simpleExternalShading.switchShading[3].u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 8299, false, 0.0,0.0,\
+ "Connector of Boolean input signal [:#(type=Boolean)]", 8259, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[3].u3",\
"Connector of second Real input signal", "building.thermalZone[1].simpleExternalShading.noShading[3].k", 1,\
7, 291, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[3].y",\
"Connector of Real output signal", "building.thermalZone[1].eqAirTempWall.sunblind[3]", 1,\
- 5, 8286, 0)
+ 5, 8246, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[4].u1",\
"Connector of first Real input signal", "building.thermalZone[1].simpleExternalShading.gValueShading[4].k", 1,\
5, 853, 0)
DeclareVariable("building.thermalZone[1].simpleExternalShading.switchShading[4].u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 8300, false, 0.0,0.0,\
+ "Connector of Boolean input signal [:#(type=Boolean)]", 8260, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[4].u3",\
"Connector of second Real input signal", "building.thermalZone[1].simpleExternalShading.noShading[4].k", 1,\
7, 292, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.switchShading[4].y",\
"Connector of Real output signal", "building.thermalZone[1].eqAirTempWall.sunblind[4]", 1,\
- 5, 8287, 0)
+ 5, 8247, 0)
DeclareVariable("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].threshold",\
"Comparison with respect to threshold", 846, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].u",\
"Connector of Real input signal", "building.thermalZone[1].solRadWall[1].y", 1,\
- 5, 9001, 0)
+ 5, 8964, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[1].y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "building.thermalZone[1].simpleExternalShading.switchShading[1].u2", 1,\
- 5, 8297, 65)
+ 5, 8257, 65)
DeclareVariable("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].threshold",\
"Comparison with respect to threshold", 847, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].u",\
"Connector of Real input signal", "building.thermalZone[1].solRadWall[2].y", 1,\
- 5, 9002, 0)
+ 5, 8965, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[2].y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "building.thermalZone[1].simpleExternalShading.switchShading[2].u2", 1,\
- 5, 8298, 65)
+ 5, 8258, 65)
DeclareVariable("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].threshold",\
"Comparison with respect to threshold", 848, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].u",\
"Connector of Real input signal", "building.thermalZone[1].solRadWall[3].y", 1,\
- 5, 9003, 0)
+ 5, 8966, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[3].y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "building.thermalZone[1].simpleExternalShading.switchShading[3].u2", 1,\
- 5, 8299, 65)
+ 5, 8259, 65)
DeclareVariable("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].threshold",\
"Comparison with respect to threshold", 849, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].u",\
"Connector of Real input signal", "building.thermalZone[1].solRadWall[4].y", 1,\
- 5, 9004, 0)
+ 5, 8967, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.greaterShadingThreshold[4].y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "building.thermalZone[1].simpleExternalShading.switchShading[4].u2", 1,\
- 5, 8300, 65)
+ 5, 8260, 65)
DeclareParameter("building.thermalZone[1].simpleExternalShading.noShading[1].k",\
"Constant output value", 289, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.noShading[1].y", \
@@ -29834,88 +29848,88 @@ DeclareAlias2("building.thermalZone[1].simpleExternalShading.gValueShading[4].y"
5, 853, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[1].u1", \
"Connector of Real input signal 1", "building.thermalZone[1].corGMod.solarRadWinTrans[1]", 1,\
- 5, 8642, 0)
+ 5, 8605, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[1].u2", \
"Connector of Real input signal 2", "building.thermalZone[1].eqAirTempWall.sunblind[1]", 1,\
- 5, 8284, 0)
+ 5, 8244, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[1].y", \
"Connector of Real output signal", "building.thermalZone[1].ROM.solRad[1]", 1, 5,\
- 8514, 0)
+ 8477, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[2].u1", \
"Connector of Real input signal 1", "building.thermalZone[1].corGMod.solarRadWinTrans[2]", 1,\
- 5, 8643, 0)
+ 5, 8606, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[2].u2", \
"Connector of Real input signal 2", "building.thermalZone[1].eqAirTempWall.sunblind[2]", 1,\
- 5, 8285, 0)
+ 5, 8245, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[2].y", \
"Connector of Real output signal", "building.thermalZone[1].ROM.solRad[2]", 1, 5,\
- 8515, 0)
+ 8478, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[3].u1", \
"Connector of Real input signal 1", "building.thermalZone[1].corGMod.solarRadWinTrans[3]", 1,\
- 5, 8644, 0)
+ 5, 8607, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[3].u2", \
"Connector of Real input signal 2", "building.thermalZone[1].eqAirTempWall.sunblind[3]", 1,\
- 5, 8286, 0)
+ 5, 8246, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[3].y", \
"Connector of Real output signal", "building.thermalZone[1].ROM.solRad[3]", 1, 5,\
- 8516, 0)
+ 8479, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[4].u1", \
"Connector of Real input signal 1", "building.thermalZone[1].corGMod.solarRadWinTrans[4]", 1,\
- 5, 8645, 0)
+ 5, 8608, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[4].u2", \
"Connector of Real input signal 2", "building.thermalZone[1].eqAirTempWall.sunblind[4]", 1,\
- 5, 8287, 0)
+ 5, 8247, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.product[4].y", \
"Connector of Real output signal", "building.thermalZone[1].ROM.solRad[4]", 1, 5,\
- 8517, 0)
+ 8480, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.corrIrr[1]", \
"Corrected solar irradiation with external shading.", "building.thermalZone[1].ROM.solRad[1]", 1,\
- 5, 8514, 0)
+ 5, 8477, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.corrIrr[2]", \
"Corrected solar irradiation with external shading.", "building.thermalZone[1].ROM.solRad[2]", 1,\
- 5, 8515, 0)
+ 5, 8478, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.corrIrr[3]", \
"Corrected solar irradiation with external shading.", "building.thermalZone[1].ROM.solRad[3]", 1,\
- 5, 8516, 0)
+ 5, 8479, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.corrIrr[4]", \
"Corrected solar irradiation with external shading.", "building.thermalZone[1].ROM.solRad[4]", 1,\
- 5, 8517, 0)
+ 5, 8480, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadTot[1]", \
"Total solar irradiation on tilted surface.", "building.thermalZone[1].solRadWall[1].y", 1,\
- 5, 9001, 0)
+ 5, 8964, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadTot[2]", \
"Total solar irradiation on tilted surface.", "building.thermalZone[1].solRadWall[2].y", 1,\
- 5, 9002, 0)
+ 5, 8965, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadTot[3]", \
"Total solar irradiation on tilted surface.", "building.thermalZone[1].solRadWall[3].y", 1,\
- 5, 9003, 0)
+ 5, 8966, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadTot[4]", \
"Total solar irradiation on tilted surface.", "building.thermalZone[1].solRadWall[4].y", 1,\
- 5, 9004, 0)
+ 5, 8967, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadWin[1]", \
"Solar irradiation to be corrected with external shading.", "building.thermalZone[1].corGMod.solarRadWinTrans[1]", 1,\
- 5, 8642, 0)
+ 5, 8605, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadWin[2]", \
"Solar irradiation to be corrected with external shading.", "building.thermalZone[1].corGMod.solarRadWinTrans[2]", 1,\
- 5, 8643, 0)
+ 5, 8606, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadWin[3]", \
"Solar irradiation to be corrected with external shading.", "building.thermalZone[1].corGMod.solarRadWinTrans[3]", 1,\
- 5, 8644, 0)
+ 5, 8607, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.solRadWin[4]", \
"Solar irradiation to be corrected with external shading.", "building.thermalZone[1].corGMod.solarRadWinTrans[4]", 1,\
- 5, 8645, 0)
+ 5, 8608, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.shadingFactor[1]", \
"Shading factors with external shading.", "building.thermalZone[1].eqAirTempWall.sunblind[1]", 1,\
- 5, 8284, 0)
+ 5, 8244, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.shadingFactor[2]", \
"Shading factors with external shading.", "building.thermalZone[1].eqAirTempWall.sunblind[2]", 1,\
- 5, 8285, 0)
+ 5, 8245, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.shadingFactor[3]", \
"Shading factors with external shading.", "building.thermalZone[1].eqAirTempWall.sunblind[3]", 1,\
- 5, 8286, 0)
+ 5, 8246, 0)
DeclareAlias2("building.thermalZone[1].simpleExternalShading.shadingFactor[4]", \
"Shading factors with external shading.", "building.thermalZone[1].eqAirTempWall.sunblind[4]", 1,\
- 5, 8287, 0)
+ 5, 8247, 0)
DeclareVariable("building.thermalZone[1].ventCont.useConstantOutput", \
"provide constant ACH(=baseACH), false = no user induced infiltration (window opening) [:#(type=Boolean)]",\
854, false, 0.0,0.0,0.0,0,515)
@@ -29942,48 +29956,48 @@ DeclareVariable("building.thermalZone[1].ventCont.winterReduction[2]", \
DeclareVariable("building.thermalZone[1].ventCont.winterReduction[3]", \
"reduction factor of userACH for cold weather.", 864, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].ventCont.userACH", "additional ACH value for max. user window opening activity",\
- 8936, 0.0, 0.0,0.0,0.0,0,512)
+ 8899, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.dToh", "relative overheating",\
- 8937, 0.0, 0.0,0.0,0.0,0,512)
+ 8900, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.overheatingACH", \
-"additional ACH value when overheating appears", 8938, 0.0, 0.0,0.0,0.0,0,512)
+"additional ACH value when overheating appears", 8901, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.dTamb", "relative summer (0: winter, 1: summer)",\
- 8939, 0.0, 0.0,0.0,0.0,0,512)
+ 8902, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.dTmin", "relative winter (0: transition start (10 degC), 1: winter end (0 degC)",\
- 8940, 0.0, 0.0,0.0,0.0,0,512)
+ 8903, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.redFac", "reduction factor of user ventilation for cold outside air temperatures.",\
- 8941, 0.0, 0.0,0.0,0.0,0,512)
+ 8904, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.summerACH", "additional ACH due to summer temperature",\
- 8942, 0.0, 0.0,0.0,0.0,0,512)
+ 8905, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].ventCont.relOccupation", "relative occupation",\
- "building.useProBus.intGains[1]", 1, 5, 8473, 0)
-DeclareVariable("building.thermalZone[1].ventCont.y", "", 8943, 0.0, 0.0,0.0,0.0,\
+ "building.useProBus.intGains[1]", 1, 5, 8436, 0)
+DeclareVariable("building.thermalZone[1].ventCont.y", "", 8906, 0.0, 0.0,0.0,0.0,\
0,512)
DeclareAlias2("building.thermalZone[1].ventCont.Tambient", "ambient Temperature",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("building.thermalZone[1].ventCont.Tzone", "zone temperature", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.nin", \
"Number of inputs [:#(type=Integer)]", 865, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.nout", \
"Number of outputs [:#(type=Integer)]", 866, 3, 0.0,0.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].ventCont.optimalTemp.u[1]", \
"Connector of Real input signals", "building.thermalZone[1].ventCont.Tamb_mean", 1,\
- 5, 8947, 0)
+ 5, 8910, 0)
DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.u[2]", \
"Connector of Real input signals", 867, 0.5, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.y[1]", \
-"Connector of Real output signals", 8944, 0.0, 0.0,0.0,0.0,0,512)
+"Connector of Real output signals", 8907, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.y[2]", \
-"Connector of Real output signals", 8945, 0.0, 0.0,0.0,0.0,0,512)
+"Connector of Real output signals", 8908, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].ventCont.optimalTemp.y[3]", \
"Connector of Real output signals", "building.thermalZone[1].ventCont.Top", 1, 5,\
- 8948, 0)
+ 8911, 0)
DeclareParameter("building.thermalZone[1].ventCont.optimalTemp.cat", \
"offset for quality category. cat I: 1 K, cat. II: 2 K, cat. III: 3 K. [K,]", 293,\
2, 0.0,0.0,0.0,0,560)
DeclareAlias2("building.thermalZone[1].ventCont.optimalTemp.Topt", "[K;degC]", \
-"building.thermalZone[1].ventCont.Top", 1, 5, 8948, 0)
+"building.thermalZone[1].ventCont.Top", 1, 5, 8911, 0)
DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.Tclomax", \
"mean outdoor air temperature when max clo value of 1.0 will be reached [K|degC]",\
868, 273.15, 0.0,1E+100,300.0,0,2561)
@@ -29993,13 +30007,13 @@ DeclareVariable("building.thermalZone[1].ventCont.optimalTemp.Tclomin", \
DeclareVariable("building.thermalZone[1].ventCont.dEMA.nout", "Number of outputs [:#(type=Integer)]",\
870, 2, 0.0,0.0,0.0,0,517)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.u", "Connector of Real input signal",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.y[1]", "Connector of Real output signals",\
- "building.thermalZone[1].ventCont.dEMA.sampler.y", 1, 5, 8303, 64)
+ "building.thermalZone[1].ventCont.dEMA.sampler.y", 1, 5, 8263, 64)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.y[2]", "Connector of Real output signals",\
- "building.thermalZone[1].ventCont.Tamb_mean", 1, 5, 8947, 0)
+ "building.thermalZone[1].ventCont.Tamb_mean", 1, 5, 8910, 0)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.ExpAVG.u", "Connector of Real input signal",\
- "building.weaBus.TDryBul", 1, 5, 8487, 1024)
+ "building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.ExpAVG.y", "Connector of Real output signal",\
"building.thermalZone[1].ventCont.dEMA.ExpAVG.x[1]", 1, 1, 7, 1024)
DeclareVariable("building.thermalZone[1].ventCont.dEMA.ExpAVG.n", \
@@ -30030,15 +30044,15 @@ DeclareVariable("building.thermalZone[1].ventCont.dEMA.sampler.samplePeriod", \
DeclareParameter("building.thermalZone[1].ventCont.dEMA.sampler.startTime", \
"First sample time instant [s]", 295, 0, 0.0,0.0,0.0,0,2608)
DeclareVariable("building.thermalZone[1].ventCont.dEMA.sampler.sampleTrigger", \
-"True, if sample time instant [:#(type=Boolean)]", 8301, false, 0.0,0.0,0.0,0,2690)
+"True, if sample time instant [:#(type=Boolean)]", 8261, false, 0.0,0.0,0.0,0,2690)
DeclareVariable("building.thermalZone[1].ventCont.dEMA.sampler.firstTrigger", \
-"Rising edge signals first sample instant [:#(type=Boolean)]", 8302, false, \
+"Rising edge signals first sample instant [:#(type=Boolean)]", 8262, false, \
0.0,0.0,0.0,0,2706)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.sampler.u", \
"Connector of Real input signal", "building.thermalZone[1].ventCont.Tamb_mean", 1,\
- 5, 8947, 1024)
+ 5, 8910, 1024)
DeclareVariable("building.thermalZone[1].ventCont.dEMA.sampler.y", \
-"Connector of Real output signal", 8303, 0.0, 0.0,0.0,0.0,0,2688)
+"Connector of Real output signal", 8263, 0.0, 0.0,0.0,0.0,0,2688)
DeclareParameter("building.thermalZone[1].ventCont.dEMA.period", "[s]", 296, 345600,\
0.0,0.0,0.0,0,560)
DeclareParameter("building.thermalZone[1].ventCont.dEMA.sampleTime", "[s]", 297,\
@@ -30079,91 +30093,91 @@ DeclareParameter("building.thermalZone[1].ventCont.dEMA.gain.k", \
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.gain.u", "Input signal connector",\
"building.thermalZone[1].ventCont.dEMA.ExpAVG.x[1]", 1, 1, 7, 1024)
DeclareVariable("building.thermalZone[1].ventCont.dEMA.gain.y", "Output signal connector",\
- 8946, 0.0, 0.0,0.0,0.0,0,2560)
+ 8909, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.DEMAcont.u1", \
-"Commanded input", "building.thermalZone[1].ventCont.dEMA.gain.y", 1, 5, 8946, 0)
+"Commanded input", "building.thermalZone[1].ventCont.dEMA.gain.y", 1, 5, 8909, 0)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.DEMAcont.u2", \
"Feedback input", "building.thermalZone[1].ventCont.dEMA.ExpAVG1.x[1]", 1, 1, 8,\
0)
DeclareAlias2("building.thermalZone[1].ventCont.dEMA.DEMAcont.y", "", \
-"building.thermalZone[1].ventCont.Tamb_mean", 1, 5, 8947, 0)
+"building.thermalZone[1].ventCont.Tamb_mean", 1, 5, 8910, 0)
DeclareVariable("building.thermalZone[1].ventCont.Tamb_mean", "mean outdoor temperature",\
- 8947, 0.0, 0.0,0.0,0.0,0,512)
+ 8910, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].ventCont.Tmean_start", "Start value of EMA",\
887, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("building.thermalZone[1].ventCont.Top", "optimal temperature", 8948,\
+DeclareVariable("building.thermalZone[1].ventCont.Top", "optimal temperature", 8911,\
288.15, 0.0,1E+100,300.0,0,512)
DeclareAlias2("building.thermalZone[1].mixedTemp.temperature_flow1", \
-"Temperature volume flow 1 [K]", "building.weaBus.TDryBul", 1, 5, 8487, 0)
+"Temperature volume flow 1 [K]", "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("building.thermalZone[1].mixedTemp.temperature_flow2", \
-"Temperature volume flow 2 [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 0)
+"Temperature volume flow 2 [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("building.thermalZone[1].mixedTemp.mixedTemperatureOut", \
-"Output for the mixed temperature [K|degC]", 8949, 288.15, 0.0,1E+100,300.0,0,512)
+"Output for the mixed temperature [K|degC]", 8912, 288.15, 0.0,1E+100,300.0,0,512)
DeclareAlias2("building.thermalZone[1].mixedTemp.flowRate_flow1", \
"Flow rate volume flow 1", "building.constVentRate[1].k", 1, 5, 923, 0)
DeclareAlias2("building.thermalZone[1].mixedTemp.flowRate_flow2", \
-"Flow rate volume flow 2", "building.thermalZone[1].ventCont.y", 1, 5, 8943, 0)
+"Flow rate volume flow 2", "building.thermalZone[1].ventCont.y", 1, 5, 8906, 0)
DeclareVariable("building.thermalZone[1].airExc.Q_flow", "Heat flow rate from port_a -> port_b [W]",\
- 8950, 0.0, 0.0,0.0,0.0,0,512)
+ 8913, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].airExc.dT", "port_a.T - port_b.T [K,]",\
- 8951, 0.0, 0.0,0.0,0.0,0,512)
+ 8914, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].airExc.port_a.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].mixedTemp.mixedTemperatureOut", 1, 5, 8949, 4)
+ "building.thermalZone[1].mixedTemp.mixedTemperatureOut", 1, 5, 8912, 4)
DeclareAlias2("building.thermalZone[1].airExc.port_a.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].airExc.Q_flow", 1, 5, 8950, 132)
+ "building.thermalZone[1].airExc.Q_flow", 1, 5, 8913, 132)
DeclareAlias2("building.thermalZone[1].airExc.port_b.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.thermalZone[1].airExc.port_b.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].airExc.Q_flow", -1, 5, 8950, 132)
+ "building.thermalZone[1].airExc.Q_flow", -1, 5, 8913, 132)
DeclareVariable("building.thermalZone[1].airExc.V", "Volume of the room [m3]", 888,\
640.0, 0.0,0.0,0.0,0,513)
DeclareParameter("building.thermalZone[1].airExc.c", "Specific heat capacity of air [J/(kg.K)]",\
300, 1000, 0.0,0.0,0.0,0,560)
DeclareParameter("building.thermalZone[1].airExc.rho", "Air density [kg/m3|g/cm3]",\
301, 1.25, 0.0,1E+100,0.0,0,560)
-DeclareVariable("building.thermalZone[1].airExc.ventRate", "[1/h]", 8952, 0.0, \
+DeclareVariable("building.thermalZone[1].airExc.ventRate", "[1/h]", 8915, 0.0, \
0.0,0.0,0.0,0,512)
DeclareVariable("building.thermalZone[1].airExc.hToS", "conversion factor from hours to seconds [s/h]",\
889, 3600, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].ventTemp", "Ventilation and infiltration temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("building.thermalZone[1].ventRate", "Ventilation and infiltration rate [1/h]",\
"building.constVentRate[1].k", 1, 5, 923, 0)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].til", "Surface tilt [rad|deg]",\
890, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].H", "Radiation per unit area [W/m2]",\
- 8953, 0.0, 0.0,0.0,0.0,0,512)
+ 8916, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 4)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 4)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].weaBus.lat", \
"Latitude of the location [rad|deg]", 891, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].weaBus.lon", \
@@ -30171,19 +30185,19 @@ DeclareVariable("building.thermalZone[1].HDifTilRoof[1].weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].weaBus.alt", \
"Location altitude above sea level [m]", 893, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareParameter("building.thermalZone[1].HDifTilRoof[1].rho", "Ground reflectance [1]",\
302, 0.2, 0.0,1.0,0.0,0,560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].azi", "Surface azimuth [rad|deg]",\
@@ -30199,40 +30213,40 @@ DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.rho", \
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.til", \
"Surface tilt angle [rad|deg]", 898, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof1", \
-"Brightening Coeffcient F1", 8954, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F1", 8917, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof2", \
-"Brightening Coeffcient F2", 8955, 0.0, 0.0,0.0,0.0,0,2560)
+"Brightening Coeffcient F2", 8918, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].HDifTil.HDifHor", \
-"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].HDifTil.HGloHor", \
-"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493, 1024)
+"Global horizontal radiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].HDifTil.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.incAng", \
-"Solar incidence angle on the surface [rad|deg]", 8956, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar incidence angle on the surface [rad|deg]", 8919, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.HGroDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the ground [W/m2]",\
- 8957, 0.0, 0.0,0.0,0.0,0,2560)
+ 8920, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.HSkyDifTil", \
"Hemispherical diffuse solar irradiation on a tilted surface from the sky [W/m2]",\
- 8958, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.a", "", 8959, \
+ 8921, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.a", "", 8922, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.b", "", 8960, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.b", "", 8923, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].HDifTil.bMin", \
"Lower bound for b", 899, 0.08715574274765814, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyCle.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyCle.HDirNor", \
-"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Horizontal global solar radiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyCle.skyCle", \
-"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8961, 0.0, 0.0,0.0,\
+"Sky clearness. skyCle=1: overast sky; skyCle=8: clear sky", 8924, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyCle.hSmall", \
"Small radiation for regularization [W/m2]", 900, 5E-05, 0.0,0.0,0.0,0,2561)
@@ -30241,130 +30255,130 @@ DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyCle.deltaX", \
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyCle.k", \
"Constant factor", 902, 1.040895310738997, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyCle.tmp1", \
-"Intermediate variable", 8962, 0.0, 0.0,0.0,0.0,0,2560)
+"Intermediate variable", 8925, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyCle.HDifHorBou", \
-"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8963, 0.0, \
+"Diffuse horizontal irradiation, bounded away from zero [W/m2]", 8926, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].briCoe.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].briCoe.skyCle", \
"Sky clearness. skyCle=1: overcast sky; skyCle=8 clear sky", "building.thermalZone[1].HDifTilRoof[1].skyCle.skyCle", 1,\
- 5, 8961, 1024)
+ 5, 8924, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.skyBri", \
-"Sky brightness [0,1] []", 8964, 0.0, 0.0,0.0,0.0,0,2560)
+"Sky brightness [0,1] []", 8927, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].briCoe.F1", \
"Circumsolar brightening coefficient", "building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof1", 1,\
- 5, 8954, 1024)
+ 5, 8917, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].briCoe.F2", \
"Horizon brightening coefficient", "building.thermalZone[1].HDifTilRoof[1].HDifTil.briCof2", 1,\
- 5, 8955, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F11", "", 8965, \
+ 5, 8918, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F11", "", 8928, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F12", "", 8966, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F12", "", 8929, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F13", "", 8967, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F13", "", 8930, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F21", "", 8968, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F21", "", 8931, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F22", "", 8969, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F22", "", 8932, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F23", "", 8970, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.F23", "", 8933, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.d", "", 903, 0.01,\
0.0,0.0,0.0,0,2561)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a1", "", 8971, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a1", "", 8934, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a2", "", 8972, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a2", "", 8935, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a3", "", 8973, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a3", "", 8936, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a4", "", 8974, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a4", "", 8937, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a5", "", 8975, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a5", "", 8938, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a6", "", 8976, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a6", "", 8939, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a7", "", 8977, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a7", "", 8940, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a8", "", 8978, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.a8", "", 8941, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].briCoe.b1", "", \
-"building.thermalZone[1].HDifTilRoof[1].briCoe.a1", 1, 5, 8971, 1024)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b2", "", 8979, \
+"building.thermalZone[1].HDifTilRoof[1].briCoe.a1", 1, 5, 8934, 1024)
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b2", "", 8942, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b3", "", 8980, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b3", "", 8943, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b4", "", 8981, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b4", "", 8944, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b5", "", 8982, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b5", "", 8945, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b6", "", 8983, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b6", "", 8946, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b7", "", 8984, \
+DeclareVariable("building.thermalZone[1].HDifTilRoof[1].briCoe.b7", "", 8947, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].briCoe.b8", "", \
-"building.thermalZone[1].HDifTilRoof[1].briCoe.a8", 1, 5, 8978, 1024)
+"building.thermalZone[1].HDifTilRoof[1].briCoe.a8", 1, 5, 8941, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].relAirMas.alt", \
"location altitude [m]", 904, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].relAirMas.zen", \
-"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1024)
+"Zenith angle of the sun beam [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].relAirMas.relAirMas", \
-"Relative air mass", 8985, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative air mass", 8948, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].relAirMas.zenLim", \
-"Zenith angle bounded from above by 90 degree", 8986, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle bounded from above by 90 degree", 8949, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].relAirMas.zenDeg", \
-"Zenith angle in degree", 8987, 0.0, 0.0,0.0,0.0,0,2560)
+"Zenith angle in degree", 8950, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyBri.relAirMas", \
"Relative air mass", "building.thermalZone[1].HDifTilRoof[1].relAirMas.relAirMas", 1,\
- 5, 8985, 1024)
+ 5, 8948, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyBri.HDifHor", \
-"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Horizontal diffuse solar radiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyBri.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].skyBri.skyBri", \
-"Sky brightness", "building.thermalZone[1].HDifTilRoof[1].briCoe.skyBri", 1, 5, 8964,\
+"Sky brightness", "building.thermalZone[1].HDifTilRoof[1].briCoe.skyBri", 1, 5, 8927,\
1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].skyBri.extRadCor", \
-"Correction for extraterrestrial radiation", 8988, 0.0, 0.0,0.0,0.0,0,2560)
+"Correction for extraterrestrial radiation", 8951, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.azi", \
"Surface azimuth [rad|deg]", 905, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.til", \
"Surface tilt [rad|deg]", 906, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.y", \
"Incidence angle [rad|deg]", "building.thermalZone[1].HDifTilRoof[1].HDifTil.incAng", 1,\
- 5, 8956, 1024)
+ 5, 8919, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 1028)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 1028)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 1028)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 1028)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 1028)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 1028)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 1028)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 1028)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 1028)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.nOpa", \
-"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8499, 1028)
+"Opaque sky cover [1]", "building.weaBus.nOpa", 1, 5, 8462, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.nTot", \
-"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8500, 1028)
+"Total sky cover [1]", "building.weaBus.nTot", 1, 5, 8463, 1028)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.lat", \
"Latitude of the location [rad|deg]", 907, 0.9116922633158369, 0.0,0.0,0.0,0,2569)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.lon", \
@@ -30372,46 +30386,46 @@ DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.lon", \
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.alt", \
"Location altitude above sea level [m]", 909, 0.0, 0.0,1E+100,0.0,0,2569)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.pAtm", \
-"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+"Atmospheric pressure [Pa|bar]", "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 1028)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 1028)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 1028)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 1028)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1028)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1028)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1028)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1028)
DeclareParameter("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 303, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 304, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.modTimAux", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.calTimAux",\
- "Calendar time [s]", 8989, 0.0, 0.0,0.0,0.0,0,2560)
+ "Calendar time [s]", 8952, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.lenWea", \
"Length of weather data [s]", 910, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
911, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.tNext", \
-"Start time of next period [s]", 8304, 0, 0.0,0.0,0.0,0,2704)
+"Start time of next period [s]", 8264, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.nDay", \
-"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8506, 1024)
+"Day number with units of seconds [s]", "building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.decAng", \
-"Solar declination angle [rad|deg]", 8990, 0.0, 0.0,0.0,0.0,0,2560)
+"Solar declination angle [rad|deg]", 8953, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.k1", \
"Constant", 912, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.decAng.k2", \
"Constant", 913, 0.017202423838958484, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.solHouAng.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 1024)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 8991, 0.0, 0.0,0.0,0.0,0,2560)
+ "Solar hour angle [rad|deg]", 8954, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.azi", \
"Surface azimuth. azi=-90 degree if surface outward unit normal points toward east; azi=0 if it points toward south [rad|deg]",\
914, 0.0, 0.0,0.0,0.0,0,2561)
@@ -30420,186 +30434,186 @@ DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.til", \
915, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.solHouAng", \
"Solar hour angle [rad]", "building.thermalZone[1].HDifTilRoof[1].incAng.solHouAng.solHouAng", 1,\
- 5, 8991, 1024)
+ 5, 8954, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.decAng", \
"Declination [rad]", "building.thermalZone[1].HDifTilRoof[1].incAng.decAng.decAng", 1,\
- 5, 8990, 1024)
+ 5, 8953, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.incAng", \
"Incidence angle on a tilted surface [rad|deg]", "building.thermalZone[1].HDifTilRoof[1].HDifTil.incAng", 1,\
- 5, 8956, 1024)
+ 5, 8919, 1024)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.lat", \
"Latitude [rad|deg]", 916, 0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_c", \
-"Cosine of declination angle", 8992, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of declination angle", 8955, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.dec_s", \
-"Sine of declination angle", 8993, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of declination angle", 8956, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.sol_c", \
-"Cosine of solar hour angle", 8994, 0.0, 0.0,0.0,0.0,0,2560)
+"Cosine of solar hour angle", 8957, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.sol_s", \
-"Sine of solar hour angle", 8995, 0.0, 0.0,0.0,0.0,0,2560)
+"Sine of solar hour angle", 8958, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.lat_c", \
"Cosine of latitude", 917, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("building.thermalZone[1].HDifTilRoof[1].incAng.incAng.lat_s", \
"Sine of latitude", 918, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].add.u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDifTilRoof[1].HDifTil.HSkyDifTil", 1, 5, 8958, 1024)
+ "building.thermalZone[1].HDifTilRoof[1].HDifTil.HSkyDifTil", 1, 5, 8921, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].add.u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilRoof[1].HDifTil.HGroDifTil", 1, 5, 8957, 1024)
+ "building.thermalZone[1].HDifTilRoof[1].HDifTil.HGroDifTil", 1, 5, 8920, 1024)
DeclareAlias2("building.thermalZone[1].HDifTilRoof[1].add.y", "Connector of Real output signal",\
- "building.thermalZone[1].HDifTilRoof[1].H", 1, 5, 8953, 1024)
+ "building.thermalZone[1].HDifTilRoof[1].H", 1, 5, 8916, 1024)
DeclareParameter("building.thermalZone[1].HDifTilRoof[1].add.k1", \
"Gain of input signal 1", 305, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].HDifTilRoof[1].add.k2", \
"Gain of input signal 2", 306, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].QIntGains_flow[1]", "Heat flow based on internal gains from lights[1], machines[2], and persons[3] [W]",\
- "building.multiSumEle.u[1]", 1, 5, 9006, 0)
+ "building.multiSumEle.u[1]", 1, 5, 8969, 0)
DeclareAlias2("building.thermalZone[1].QIntGains_flow[2]", "Heat flow based on internal gains from lights[1], machines[2], and persons[3] [W]",\
- "building.multiSumEle.u[2]", 1, 5, 9007, 0)
+ "building.multiSumEle.u[2]", 1, 5, 8970, 0)
DeclareVariable("building.thermalZone[1].QIntGains_flow[3]", "Heat flow based on internal gains from lights[1], machines[2], and persons[3] [W]",\
- 8996, 0.0, 0.0,0.0,0.0,0,512)
+ 8959, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.thermalZone[1].theConRoof.Q_flow", "Heat flow rate from solid -> fluid [W]",\
- "building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8605, 1024)
+ "building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8568, 1024)
DeclareVariable("building.thermalZone[1].theConRoof.dT", "= solid.T - fluid.T [K,]",\
- 8997, 0.0, 0.0,0.0,0.0,0,2560)
+ 8960, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].theConRoof.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].hConRoof.k", 1, 5, 498, 1024)
DeclareAlias2("building.thermalZone[1].theConRoof.solid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.roof.T", 1, 5, 8604, 1028)
+ "building.thermalZone[1].ROM.roof.T", 1, 5, 8567, 1028)
DeclareAlias2("building.thermalZone[1].theConRoof.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8605, 1156)
+"building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8568, 1156)
DeclareAlias2("building.thermalZone[1].theConRoof.fluid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].eqAirTempRoof.TEqAir", 1, 5, 8718, 1028)
+ "building.thermalZone[1].eqAirTempRoof.TEqAir", 1, 5, 8681, 1028)
DeclareAlias2("building.thermalZone[1].theConRoof.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.roof.Q_flow", 1, 5, 8605, 1156)
+"building.thermalZone[1].ROM.roof.Q_flow", 1, 5, 8568, 1156)
DeclareAlias2("building.thermalZone[1].preTemRoof.port.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].eqAirTempRoof.TEqAir", 1, 5, 8718, 1028)
+ "building.thermalZone[1].eqAirTempRoof.TEqAir", 1, 5, 8681, 1028)
DeclareAlias2("building.thermalZone[1].preTemRoof.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8605, 1156)
+ "building.thermalZone[1].ROM.roof.Q_flow", -1, 5, 8568, 1156)
DeclareAlias2("building.thermalZone[1].preTemRoof.T", "[K]", "building.thermalZone[1].eqAirTempRoof.TEqAir", 1,\
- 5, 8718, 1024)
+ 5, 8681, 1024)
DeclareVariable("building.thermalZone[1].preTemFloor.port.T", "Port temperature [K|degC]",\
919, 286.15, 0.0,1E+100,300.0,0,2569)
DeclareAlias2("building.thermalZone[1].preTemFloor.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.floor.Q_flow", -1, 5, 8590, 1156)
+"building.thermalZone[1].ROM.floor.Q_flow", -1, 5, 8553, 1156)
DeclareVariable("building.thermalZone[1].preTemFloor.T", "[K]", 920, 286.15, \
0.0,0.0,0.0,0,2561)
DeclareAlias2("building.thermalZone[1].theConWall.Q_flow", "Heat flow rate from solid -> fluid [W]",\
- "building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8519, 1024)
+ "building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8482, 1024)
DeclareVariable("building.thermalZone[1].theConWall.dT", "= solid.T - fluid.T [K,]",\
- 8998, 0.0, 0.0,0.0,0.0,0,2560)
+ 8961, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].theConWall.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].hConWall.k", 1, 5, 506, 1024)
DeclareAlias2("building.thermalZone[1].theConWall.solid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.extWall.T", 1, 5, 8518, 1028)
+ "building.thermalZone[1].ROM.extWall.T", 1, 5, 8481, 1028)
DeclareAlias2("building.thermalZone[1].theConWall.solid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8519, 1156)
+"building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8482, 1156)
DeclareAlias2("building.thermalZone[1].theConWall.fluid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].eqAirTempWall.TEqAir", 1, 5, 8712, 1028)
+ "building.thermalZone[1].eqAirTempWall.TEqAir", 1, 5, 8675, 1028)
DeclareAlias2("building.thermalZone[1].theConWall.fluid.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.thermalZone[1].ROM.extWall.Q_flow", 1, 5, 8519, 1156)
+"building.thermalZone[1].ROM.extWall.Q_flow", 1, 5, 8482, 1156)
DeclareAlias2("building.thermalZone[1].theConWin.Q_flow", "Heat flow rate from solid -> fluid [W]",\
- "building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8521, 1024)
+ "building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8484, 1024)
DeclareVariable("building.thermalZone[1].theConWin.dT", "= solid.T - fluid.T [K,]",\
- 8999, 0.0, 0.0,0.0,0.0,0,2560)
+ 8962, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("building.thermalZone[1].theConWin.Gc", "Signal representing the convective thermal conductance in [W/K] [W/K]",\
"building.thermalZone[1].hConWin.k", 1, 5, 507, 1024)
DeclareAlias2("building.thermalZone[1].theConWin.solid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].ROM.window.T", 1, 5, 8520, 1028)
+ "building.thermalZone[1].ROM.window.T", 1, 5, 8483, 1028)
DeclareAlias2("building.thermalZone[1].theConWin.solid.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8521, 1156)
+ "building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8484, 1156)
DeclareAlias2("building.thermalZone[1].theConWin.fluid.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].eqAirTempWall.TEqAirWin", 1, 5, 8713, 1028)
+ "building.thermalZone[1].eqAirTempWall.TEqAirWin", 1, 5, 8676, 1028)
DeclareAlias2("building.thermalZone[1].theConWin.fluid.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].ROM.window.Q_flow", 1, 5, 8521, 1156)
+ "building.thermalZone[1].ROM.window.Q_flow", 1, 5, 8484, 1156)
DeclareAlias2("building.thermalZone[1].solRadRoof[1].u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDirTilRoof[1].H", 1, 5, 8927, 1024)
+ "building.thermalZone[1].HDirTilRoof[1].H", 1, 5, 8890, 1024)
DeclareAlias2("building.thermalZone[1].solRadRoof[1].u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilRoof[1].H", 1, 5, 8953, 1024)
+ "building.thermalZone[1].HDifTilRoof[1].H", 1, 5, 8916, 1024)
DeclareVariable("building.thermalZone[1].solRadRoof[1].y", "Connector of Real output signal",\
- 9000, 0.0, 0.0,0.0,0.0,0,2560)
+ 8963, 0.0, 0.0,0.0,0.0,0,2560)
DeclareParameter("building.thermalZone[1].solRadRoof[1].k1", "Gain of input signal 1",\
307, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].solRadRoof[1].k2", "Gain of input signal 2",\
308, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].solRadWall[1].u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDirTilWall[1].H", 1, 5, 8891, 1024)
+ "building.thermalZone[1].HDirTilWall[1].H", 1, 5, 8854, 1024)
DeclareAlias2("building.thermalZone[1].solRadWall[1].u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[1].H", 1, 5, 8719, 1024)
+ "building.thermalZone[1].HDifTilWall[1].H", 1, 5, 8682, 1024)
DeclareVariable("building.thermalZone[1].solRadWall[1].y", "Connector of Real output signal",\
- 9001, 0.0, 0.0,0.0,0.0,0,2560)
+ 8964, 0.0, 0.0,0.0,0.0,0,2560)
DeclareParameter("building.thermalZone[1].solRadWall[1].k1", "Gain of input signal 1",\
309, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].solRadWall[1].k2", "Gain of input signal 2",\
310, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].solRadWall[2].u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDirTilWall[2].H", 1, 5, 8900, 1024)
+ "building.thermalZone[1].HDirTilWall[2].H", 1, 5, 8863, 1024)
DeclareAlias2("building.thermalZone[1].solRadWall[2].u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[2].H", 1, 5, 8762, 1024)
+ "building.thermalZone[1].HDifTilWall[2].H", 1, 5, 8725, 1024)
DeclareVariable("building.thermalZone[1].solRadWall[2].y", "Connector of Real output signal",\
- 9002, 0.0, 0.0,0.0,0.0,0,2560)
+ 8965, 0.0, 0.0,0.0,0.0,0,2560)
DeclareParameter("building.thermalZone[1].solRadWall[2].k1", "Gain of input signal 1",\
311, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].solRadWall[2].k2", "Gain of input signal 2",\
312, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].solRadWall[3].u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDirTilWall[3].H", 1, 5, 8909, 1024)
+ "building.thermalZone[1].HDirTilWall[3].H", 1, 5, 8872, 1024)
DeclareAlias2("building.thermalZone[1].solRadWall[3].u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[3].H", 1, 5, 8805, 1024)
+ "building.thermalZone[1].HDifTilWall[3].H", 1, 5, 8768, 1024)
DeclareVariable("building.thermalZone[1].solRadWall[3].y", "Connector of Real output signal",\
- 9003, 0.0, 0.0,0.0,0.0,0,2560)
+ 8966, 0.0, 0.0,0.0,0.0,0,2560)
DeclareParameter("building.thermalZone[1].solRadWall[3].k1", "Gain of input signal 1",\
313, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].solRadWall[3].k2", "Gain of input signal 2",\
314, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].solRadWall[4].u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].HDirTilWall[4].H", 1, 5, 8918, 1024)
+ "building.thermalZone[1].HDirTilWall[4].H", 1, 5, 8881, 1024)
DeclareAlias2("building.thermalZone[1].solRadWall[4].u2", "Connector of Real input signal 2",\
- "building.thermalZone[1].HDifTilWall[4].H", 1, 5, 8848, 1024)
+ "building.thermalZone[1].HDifTilWall[4].H", 1, 5, 8811, 1024)
DeclareVariable("building.thermalZone[1].solRadWall[4].y", "Connector of Real output signal",\
- 9004, 0.0, 0.0,0.0,0.0,0,2560)
+ 8967, 0.0, 0.0,0.0,0.0,0,2560)
DeclareParameter("building.thermalZone[1].solRadWall[4].k1", "Gain of input signal 1",\
315, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].solRadWall[4].k2", "Gain of input signal 2",\
316, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].preTemWall.port.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].eqAirTempWall.TEqAir", 1, 5, 8712, 1028)
+ "building.thermalZone[1].eqAirTempWall.TEqAir", 1, 5, 8675, 1028)
DeclareAlias2("building.thermalZone[1].preTemWall.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8519, 1156)
+ "building.thermalZone[1].ROM.extWall.Q_flow", -1, 5, 8482, 1156)
DeclareAlias2("building.thermalZone[1].preTemWall.T", "[K]", "building.thermalZone[1].eqAirTempWall.TEqAir", 1,\
- 5, 8712, 1024)
+ 5, 8675, 1024)
DeclareAlias2("building.thermalZone[1].preTemWin.port.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].eqAirTempWall.TEqAirWin", 1, 5, 8713, 1028)
+ "building.thermalZone[1].eqAirTempWall.TEqAirWin", 1, 5, 8676, 1028)
DeclareAlias2("building.thermalZone[1].preTemWin.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8521, 1156)
+ "building.thermalZone[1].ROM.window.Q_flow", -1, 5, 8484, 1156)
DeclareAlias2("building.thermalZone[1].preTemWin.T", "[K]", "building.thermalZone[1].eqAirTempWall.TEqAirWin", 1,\
- 5, 8713, 1024)
+ 5, 8676, 1024)
DeclareAlias2("building.thermalZone[1].addInfVen.u1", "Connector of Real input signal 1",\
- "building.thermalZone[1].ventCont.y", 1, 5, 8943, 1024)
+ "building.thermalZone[1].ventCont.y", 1, 5, 8906, 1024)
DeclareAlias2("building.thermalZone[1].addInfVen.u2", "Connector of Real input signal 2",\
"building.constVentRate[1].k", 1, 5, 923, 1024)
DeclareAlias2("building.thermalZone[1].addInfVen.y", "Connector of Real output signal",\
- "building.thermalZone[1].airExc.ventRate", 1, 5, 8952, 1024)
+ "building.thermalZone[1].airExc.ventRate", 1, 5, 8915, 1024)
DeclareParameter("building.thermalZone[1].addInfVen.k1", "Gain of input signal 1",\
317, 1, 0.0,0.0,0.0,0,2608)
DeclareParameter("building.thermalZone[1].addInfVen.k2", "Gain of input signal 2",\
318, 1, 0.0,0.0,0.0,0,2608)
DeclareAlias2("building.thermalZone[1].preTemVen.port.T", "Port temperature [K|degC]",\
- "building.thermalZone[1].mixedTemp.mixedTemperatureOut", 1, 5, 8949, 1028)
+ "building.thermalZone[1].mixedTemp.mixedTemperatureOut", 1, 5, 8912, 1028)
DeclareAlias2("building.thermalZone[1].preTemVen.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.thermalZone[1].airExc.Q_flow", -1, 5, 8950, 1156)
+ "building.thermalZone[1].airExc.Q_flow", -1, 5, 8913, 1156)
DeclareAlias2("building.thermalZone[1].preTemVen.T", "[K]", "building.thermalZone[1].mixedTemp.mixedTemperatureOut", 1,\
- 5, 8949, 1024)
+ 5, 8912, 1024)
DeclareAlias2("building.thermalZone[1].QIntGainsInternalDep_flow[1].y", \
-"Value of Real output", "building.multiSumEle.u[1]", 1, 5, 9006, 1024)
+"Value of Real output", "building.multiSumEle.u[1]", 1, 5, 8969, 1024)
DeclareAlias2("building.thermalZone[1].QIntGainsInternalDep_flow[2].y", \
-"Value of Real output", "building.multiSumEle.u[2]", 1, 5, 9007, 1024)
+"Value of Real output", "building.multiSumEle.u[2]", 1, 5, 8970, 1024)
DeclareAlias2("building.thermalZone[1].QIntGainsInternalDep_flow[3].y", \
-"Value of Real output", "building.thermalZone[1].QIntGains_flow[3]", 1, 5, 8996,\
+"Value of Real output", "building.thermalZone[1].QIntGains_flow[3]", 1, 5, 8959,\
1024)
DeclareVariable("building.constTSetRoom[1].k", "Constant output value", 921, \
294.15, 0.0,0.0,0.0,0,513)
@@ -30610,47 +30624,47 @@ DeclareVariable("building.constVentRate[1].k", "Constant output value", 923, 1,
DeclareAlias2("building.constVentRate[1].y", "Connector of Real output signal", \
"building.constVentRate[1].k", 1, 5, 923, 0)
DeclareAlias2("building.heaFloSenRad[1].Q_flow", "Heat flow from port_a to port_b as output signal [W]",\
- "building.heatPortRad[1].Q_flow", 1, 5, 8478, 0)
+ "building.heatPortRad[1].Q_flow", 1, 5, 8441, 0)
DeclareAlias2("building.heaFloSenRad[1].port_a.T", "Port temperature [K|degC]", \
-"building.heatPortRad[1].T", 1, 5, 8477, 4)
+"building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.heaFloSenRad[1].port_a.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortRad[1].Q_flow", 1, 5, 8478, 132)
+ "building.heatPortRad[1].Q_flow", 1, 5, 8441, 132)
DeclareAlias2("building.heaFloSenRad[1].port_b.T", "Port temperature [K|degC]", \
-"building.heatPortRad[1].T", 1, 5, 8477, 4)
+"building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("building.heaFloSenRad[1].port_b.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortRad[1].Q_flow", -1, 5, 8478, 132)
+ "building.heatPortRad[1].Q_flow", -1, 5, 8441, 132)
DeclareAlias2("building.heatFlowSensorConv[1].Q_flow", "Heat flow from port_a to port_b as output signal [W]",\
- "building.heatPortCon[1].Q_flow", 1, 5, 8476, 0)
+ "building.heatPortCon[1].Q_flow", 1, 5, 8439, 0)
DeclareAlias2("building.heatFlowSensorConv[1].port_a.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.heatFlowSensorConv[1].port_a.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortCon[1].Q_flow", 1, 5, 8476, 132)
+ "building.heatPortCon[1].Q_flow", 1, 5, 8439, 132)
DeclareAlias2("building.heatFlowSensorConv[1].port_b.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("building.heatFlowSensorConv[1].port_b.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortCon[1].Q_flow", -1, 5, 8476, 132)
+ "building.heatPortCon[1].Q_flow", -1, 5, 8439, 132)
DeclareAlias2("building.realPassThroughIntGains[1, 1].u", "Connector of Real input signal",\
- "building.useProBus.intGains[1]", 1, 5, 8473, 0)
+ "building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareAlias2("building.realPassThroughIntGains[1, 1].y", "Connector of Real output signal",\
- "building.useProBus.intGains[1]", 1, 5, 8473, 0)
+ "building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareAlias2("building.realPassThroughIntGains[1, 2].u", "Connector of Real input signal",\
- "building.useProBus.intGains[2]", 1, 5, 8474, 0)
+ "building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareAlias2("building.realPassThroughIntGains[1, 2].y", "Connector of Real output signal",\
- "building.useProBus.intGains[2]", 1, 5, 8474, 0)
+ "building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareAlias2("building.realPassThroughIntGains[1, 3].u", "Connector of Real input signal",\
- "building.useProBus.intGains[3]", 1, 5, 8475, 0)
+ "building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareAlias2("building.realPassThroughIntGains[1, 3].y", "Connector of Real output signal",\
- "building.useProBus.intGains[3]", 1, 5, 8475, 0)
+ "building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareAlias2("building.realPassThroughTDry[1].u", "Connector of Real input signal",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("building.realPassThroughTDry[1].y", "Connector of Real output signal",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("building.calTOpe[1].u1", "Connector of Real input signal 1", \
-"building.heatPortRad[1].T", 1, 5, 8477, 0)
+"building.heatPortRad[1].T", 1, 5, 8440, 0)
DeclareAlias2("building.calTOpe[1].u2", "Connector of Real input signal 2", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.calTOpe[1].y", "Connector of Real output signal [K|degC]",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareVariable("building.calTOpe[1].k1", "Gain of input signal 1", 924, 0.5, \
0.0,0.0,0.0,0,513)
DeclareVariable("building.calTOpe[1].k2", "Gain of input signal 2", 925, 0.5, \
@@ -30660,10 +30674,10 @@ DeclareVariable("building.realToElecCon.use_souLoa", "= true if real interface f
DeclareVariable("building.realToElecCon.use_souGen", "= true if real interface for electrical generation is activated [:#(type=Boolean)]",\
927, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("building.realToElecCon.PEleLoa", "Electrical power of load", \
-"building.internalElectricalPin.PElecLoa", 1, 5, 8509, 0)
+"building.internalElectricalPin.PElecLoa", 1, 5, 8472, 0)
DeclareAlias2("building.realToElecCon.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "building.internalElectricalPin.PElecLoa", 1, 5, 8509, 4)
+ "building.internalElectricalPin.PElecLoa", 1, 5, 8472, 4)
DeclareVariable("building.realToElecCon.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
928, 0.0, 0.0,0.0,0.0,0,521)
@@ -30672,26 +30686,26 @@ DeclareVariable("building.realToElecCon.NoFlowGen.k", "Constant output value", 9
DeclareVariable("building.realToElecCon.NoFlowGen.y", "Connector of Real output signal",\
930, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.realToElecCon.realPassThroughLoa.u", "Connector of Real input signal",\
- "building.internalElectricalPin.PElecLoa", 1, 5, 8509, 0)
+ "building.internalElectricalPin.PElecLoa", 1, 5, 8472, 0)
DeclareAlias2("building.realToElecCon.realPassThroughLoa.y", "Connector of Real output signal",\
- "building.internalElectricalPin.PElecLoa", 1, 5, 8509, 0)
+ "building.internalElectricalPin.PElecLoa", 1, 5, 8472, 0)
DeclareVariable("building.realToElecCon.realPassThroughGen.u", "Connector of Real input signal",\
931, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.realToElecCon.realPassThroughGen.y", "Connector of Real output signal",\
932, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.gain.k", "Gain value multiplied with input signal [1]",\
933, 1, 0.0,0.0,0.0,0,513)
-DeclareVariable("building.gain.u", "Input signal connector", 9005, 0.0, 0.0,0.0,\
+DeclareVariable("building.gain.u", "Input signal connector", 8968, 0.0, 0.0,0.0,\
0.0,0,512)
DeclareAlias2("building.gain.y", "Output signal connector", "building.internalElectricalPin.PElecLoa", 1,\
- 5, 8509, 0)
+ 5, 8472, 0)
DeclareParameter("building.multiSumEle.significantDigits", "Number of significant digits to be shown in dynamic diagram layer for y [:#(type=Integer)]",\
319, 3, 1.0,1E+100,0.0,0,564)
DeclareVariable("building.multiSumEle.nu", "Number of input connections [:#(type=Integer)]",\
934, 2, 0.0,1E+100,0.0,0,1541)
-DeclareVariable("building.multiSumEle.u[1]", "", 9006, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("building.multiSumEle.u[2]", "", 9007, 0.0, 0.0,0.0,0.0,0,512)
-DeclareAlias2("building.multiSumEle.y", "", "building.gain.u", 1, 5, 9005, 0)
+DeclareVariable("building.multiSumEle.u[1]", "", 8969, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("building.multiSumEle.u[2]", "", 8970, 0.0, 0.0,0.0,0.0,0,512)
+DeclareAlias2("building.multiSumEle.y", "", "building.gain.u", 1, 5, 8968, 0)
DeclareVariable("building.multiSumEle.k[1]", "Input gains", 935, 1, 0.0,0.0,0.0,\
0,513)
DeclareVariable("building.multiSumEle.k[2]", "Input gains", 936, 1, 0.0,0.0,0.0,\
@@ -30717,11 +30731,11 @@ DeclareVariable("building.zonTem[1].comHea.lim.strict", "= true, if strict limit
DeclareVariable("building.zonTem[1].comHea.lim.homotopyType", "Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
945, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("building.zonTem[1].comHea.lim.u", "Connector of Real input signal",\
- 9008, 0.0, 0.0,0.0,0.0,0,512)
+ 8971, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.zonTem[1].comHea.lim.y", "Connector of Real output signal",\
"building.zonTem[1].comHea.intDisCom.der(y)", 1, 6, 9, 0)
DeclareAlias2("building.zonTem[1].comHea.lim.simplifiedExpr", "Simplified expression for homotopy-based initialization",\
- "building.zonTem[1].comHea.lim.u", 1, 5, 9008, 1024)
+ "building.zonTem[1].comHea.lim.u", 1, 5, 8971, 1024)
DeclareVariable("building.zonTem[1].comHea.intDisCom.k", "Integrator gain [1]", 946,\
1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTem[1].comHea.intDisCom.use_reset", \
@@ -30743,11 +30757,11 @@ DeclareVariable("building.zonTem[1].comHea.intDisCom.local_reset", \
DeclareVariable("building.zonTem[1].comHea.intDisCom.local_set", "", 952, 0, \
0.0,0.0,0.0,0,1537)
DeclareAlias2("building.zonTem[1].comHea.add.u1", "Connector of Real input signal 1",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.zonTem[1].comHea.add.u2", "Connector of Real input signal 2",\
"building.zonTem[1].comHea.const.k", 1, 5, 955, 0)
DeclareAlias2("building.zonTem[1].comHea.add.y", "Connector of Real output signal",\
- "building.zonTem[1].comHea.lim.u", 1, 5, 9008, 0)
+ "building.zonTem[1].comHea.lim.u", 1, 5, 8971, 0)
DeclareVariable("building.zonTem[1].comHea.add.k1", "Gain of input signal 1", 953,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTem[1].comHea.add.k2", "Gain of input signal 2", 954,\
@@ -30759,7 +30773,7 @@ DeclareAlias2("building.zonTem[1].comHea.const.y", "Connector of Real output sig
DeclareAlias2("building.zonTem[1].comHea.dTComSec", "K*s discomfort [K.s]", \
"building.zonTem[1].comHea.intDisCom.y", 1, 1, 9, 0)
DeclareAlias2("building.zonTem[1].comHea.TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareVariable("building.zonTem[1].comCool.TComBou", "Comfort boundary temperature [K|degC]",\
956, 288.15, 0.0,1E+100,300.0,0,513)
DeclareParameter("building.zonTem[1].comCool.for_heating", "=false to calculate comfort during cooling period (summer). = true for heating [:#(type=Boolean)]",\
@@ -30773,11 +30787,11 @@ DeclareVariable("building.zonTem[1].comCool.lim.strict", "= true, if strict limi
DeclareVariable("building.zonTem[1].comCool.lim.homotopyType", "Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
960, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("building.zonTem[1].comCool.lim.u", "Connector of Real input signal",\
- 9009, 0.0, 0.0,0.0,0.0,0,512)
+ 8972, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.zonTem[1].comCool.lim.y", "Connector of Real output signal",\
"building.zonTem[1].comCool.intDisCom.der(y)", 1, 6, 10, 0)
DeclareAlias2("building.zonTem[1].comCool.lim.simplifiedExpr", "Simplified expression for homotopy-based initialization",\
- "building.zonTem[1].comCool.lim.u", 1, 5, 9009, 1024)
+ "building.zonTem[1].comCool.lim.u", 1, 5, 8972, 1024)
DeclareVariable("building.zonTem[1].comCool.intDisCom.k", "Integrator gain [1]",\
961, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTem[1].comCool.intDisCom.use_reset", \
@@ -30800,11 +30814,11 @@ DeclareVariable("building.zonTem[1].comCool.intDisCom.local_reset", \
DeclareVariable("building.zonTem[1].comCool.intDisCom.local_set", "", 967, 0, \
0.0,0.0,0.0,0,1537)
DeclareAlias2("building.zonTem[1].comCool.add.u1", "Connector of Real input signal 1",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.zonTem[1].comCool.add.u2", "Connector of Real input signal 2",\
"building.zonTem[1].comCool.const.k", 1, 5, 970, 0)
DeclareAlias2("building.zonTem[1].comCool.add.y", "Connector of Real output signal",\
- "building.zonTem[1].comCool.lim.u", 1, 5, 9009, 0)
+ "building.zonTem[1].comCool.lim.u", 1, 5, 8972, 0)
DeclareVariable("building.zonTem[1].comCool.add.k1", "Gain of input signal 1", 968,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTem[1].comCool.add.k2", "Gain of input signal 2", 969,\
@@ -30816,7 +30830,7 @@ DeclareAlias2("building.zonTem[1].comCool.const.y", "Connector of Real output si
DeclareAlias2("building.zonTem[1].comCool.dTComSec", "K*s discomfort [K.s]", \
"building.zonTem[1].comCool.intDisCom.y", 1, 1, 10, 0)
DeclareAlias2("building.zonTem[1].comCool.TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareVariable("building.zonTem[1].calCtrl.for_heating", "=false to calculate comfort during cooling period (summer). = true for heating [:#(type=Boolean)]",\
971, true, 0.0,0.0,0.0,0,515)
DeclareVariable("building.zonTem[1].calCtrl.lim.uMax", "Upper limits of input signals",\
@@ -30828,11 +30842,11 @@ DeclareVariable("building.zonTem[1].calCtrl.lim.strict", "= true, if strict limi
DeclareVariable("building.zonTem[1].calCtrl.lim.homotopyType", "Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
975, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("building.zonTem[1].calCtrl.lim.u", "Connector of Real input signal",\
- 9010, 0.0, 0.0,0.0,0.0,0,512)
+ 8973, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.zonTem[1].calCtrl.lim.y", "Connector of Real output signal",\
"building.zonTem[1].calCtrl.intDisCom.der(y)", 1, 6, 11, 0)
DeclareAlias2("building.zonTem[1].calCtrl.lim.simplifiedExpr", "Simplified expression for homotopy-based initialization",\
- "building.zonTem[1].calCtrl.lim.u", 1, 5, 9010, 1024)
+ "building.zonTem[1].calCtrl.lim.u", 1, 5, 8973, 1024)
DeclareVariable("building.zonTem[1].calCtrl.intDisCom.k", "Integrator gain [1]",\
976, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTem[1].calCtrl.intDisCom.use_reset", \
@@ -30855,11 +30869,11 @@ DeclareVariable("building.zonTem[1].calCtrl.intDisCom.local_reset", \
DeclareVariable("building.zonTem[1].calCtrl.intDisCom.local_set", "", 982, 0, \
0.0,0.0,0.0,0,1537)
DeclareAlias2("building.zonTem[1].calCtrl.add.u1", "Connector of Real input signal 1",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareVariable("building.zonTem[1].calCtrl.add.u2", "Connector of Real input signal 2",\
- 8305, 0.0, 0.0,0.0,0.0,0,640)
+ 8265, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("building.zonTem[1].calCtrl.add.y", "Connector of Real output signal",\
- "building.zonTem[1].calCtrl.lim.u", 1, 5, 9010, 0)
+ "building.zonTem[1].calCtrl.lim.u", 1, 5, 8973, 0)
DeclareVariable("building.zonTem[1].calCtrl.add.k1", "Gain of input signal 1", 983,\
-1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTem[1].calCtrl.add.k2", "Gain of input signal 2", 984,\
@@ -30871,15 +30885,15 @@ DeclareVariable("building.zonTem[1].calCtrl.const.y", "Connector of Real output
DeclareAlias2("building.zonTem[1].calCtrl.dTComSec", "K*s discomfort [K.s]", \
"building.zonTem[1].calCtrl.intDisCom.y", 1, 1, 11, 0)
DeclareAlias2("building.zonTem[1].calCtrl.TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.zonTem[1].calCtrl.TZoneSet", "Connector of Real input signal 2",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareVariable("building.zonTem[1].calCtrl.add1.u1", "Connector of Real input signal 1",\
987, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.zonTem[1].calCtrl.add1.u2", "Connector of Real input signal 2",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("building.zonTem[1].calCtrl.add1.y", "Connector of Real output signal",\
- "building.zonTem[1].calCtrl.add.u2", 1, 5, 8305, 0)
+ "building.zonTem[1].calCtrl.add.u2", 1, 5, 8265, 0)
DeclareParameter("building.zonTem[1].calCtrl.add1.k1", "Gain of input signal 1",\
322, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("building.zonTem[1].calCtrl.add1.k2", "Gain of input signal 2",\
@@ -30892,9 +30906,9 @@ DeclareAlias2("building.zonTem[1].dTComCoo", "K*s discomfort", "building.zonTem[
DeclareAlias2("building.zonTem[1].dTCtrl", "K*s control deviation", \
"building.zonTem[1].calCtrl.intDisCom.y", 1, 1, 11, 0)
DeclareAlias2("building.zonTem[1].TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("building.zonTem[1].TZoneSet", "Zone set temperature [K]", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareVariable("building.zonTemOpe[1].dTComfort", "Temperature difference to room set temperature at which the comfort is still acceptable [K,]",\
989, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].TSetZone_nominal", "Nominal room set temperature [K|degC]",\
@@ -30917,12 +30931,12 @@ DeclareVariable("building.zonTemOpe[1].comHea.lim.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
997, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("building.zonTemOpe[1].comHea.lim.u", "Connector of Real input signal",\
- 9011, 0.0, 0.0,0.0,0.0,0,512)
+ 8974, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.zonTemOpe[1].comHea.lim.y", "Connector of Real output signal",\
"building.zonTemOpe[1].comHea.intDisCom.der(y)", 1, 6, 12, 0)
DeclareAlias2("building.zonTemOpe[1].comHea.lim.simplifiedExpr", \
"Simplified expression for homotopy-based initialization", "building.zonTemOpe[1].comHea.lim.u", 1,\
- 5, 9011, 1024)
+ 5, 8974, 1024)
DeclareVariable("building.zonTemOpe[1].comHea.intDisCom.k", "Integrator gain [1]",\
998, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].comHea.intDisCom.use_reset", \
@@ -30946,11 +30960,11 @@ DeclareVariable("building.zonTemOpe[1].comHea.intDisCom.local_reset", \
DeclareVariable("building.zonTemOpe[1].comHea.intDisCom.local_set", "", 1004, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("building.zonTemOpe[1].comHea.add.u1", "Connector of Real input signal 1",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareAlias2("building.zonTemOpe[1].comHea.add.u2", "Connector of Real input signal 2",\
"building.zonTemOpe[1].comHea.const.k", 1, 5, 1007, 0)
DeclareAlias2("building.zonTemOpe[1].comHea.add.y", "Connector of Real output signal",\
- "building.zonTemOpe[1].comHea.lim.u", 1, 5, 9011, 0)
+ "building.zonTemOpe[1].comHea.lim.u", 1, 5, 8974, 0)
DeclareVariable("building.zonTemOpe[1].comHea.add.k1", "Gain of input signal 1",\
1005, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].comHea.add.k2", "Gain of input signal 2",\
@@ -30962,7 +30976,7 @@ DeclareAlias2("building.zonTemOpe[1].comHea.const.y", "Connector of Real output
DeclareAlias2("building.zonTemOpe[1].comHea.dTComSec", "K*s discomfort [K.s]", \
"building.zonTemOpe[1].comHea.intDisCom.y", 1, 1, 12, 0)
DeclareAlias2("building.zonTemOpe[1].comHea.TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareVariable("building.zonTemOpe[1].comCool.TComBou", "Comfort boundary temperature [K|degC]",\
1008, 288.15, 0.0,1E+100,300.0,0,513)
DeclareParameter("building.zonTemOpe[1].comCool.for_heating", "=false to calculate comfort during cooling period (summer). = true for heating [:#(type=Boolean)]",\
@@ -30977,12 +30991,12 @@ DeclareVariable("building.zonTemOpe[1].comCool.lim.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
1012, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("building.zonTemOpe[1].comCool.lim.u", "Connector of Real input signal",\
- 9012, 0.0, 0.0,0.0,0.0,0,512)
+ 8975, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.zonTemOpe[1].comCool.lim.y", "Connector of Real output signal",\
"building.zonTemOpe[1].comCool.intDisCom.der(y)", 1, 6, 13, 0)
DeclareAlias2("building.zonTemOpe[1].comCool.lim.simplifiedExpr", \
"Simplified expression for homotopy-based initialization", "building.zonTemOpe[1].comCool.lim.u", 1,\
- 5, 9012, 1024)
+ 5, 8975, 1024)
DeclareVariable("building.zonTemOpe[1].comCool.intDisCom.k", "Integrator gain [1]",\
1013, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].comCool.intDisCom.use_reset", \
@@ -31006,11 +31020,11 @@ DeclareVariable("building.zonTemOpe[1].comCool.intDisCom.local_reset", \
DeclareVariable("building.zonTemOpe[1].comCool.intDisCom.local_set", "", 1019, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("building.zonTemOpe[1].comCool.add.u1", "Connector of Real input signal 1",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareAlias2("building.zonTemOpe[1].comCool.add.u2", "Connector of Real input signal 2",\
"building.zonTemOpe[1].comCool.const.k", 1, 5, 1022, 0)
DeclareAlias2("building.zonTemOpe[1].comCool.add.y", "Connector of Real output signal",\
- "building.zonTemOpe[1].comCool.lim.u", 1, 5, 9012, 0)
+ "building.zonTemOpe[1].comCool.lim.u", 1, 5, 8975, 0)
DeclareVariable("building.zonTemOpe[1].comCool.add.k1", "Gain of input signal 1",\
1020, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].comCool.add.k2", "Gain of input signal 2",\
@@ -31022,7 +31036,7 @@ DeclareAlias2("building.zonTemOpe[1].comCool.const.y", "Connector of Real output
DeclareAlias2("building.zonTemOpe[1].comCool.dTComSec", "K*s discomfort [K.s]", \
"building.zonTemOpe[1].comCool.intDisCom.y", 1, 1, 13, 0)
DeclareAlias2("building.zonTemOpe[1].comCool.TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareVariable("building.zonTemOpe[1].calCtrl.for_heating", "=false to calculate comfort during cooling period (summer). = true for heating [:#(type=Boolean)]",\
1023, true, 0.0,0.0,0.0,0,515)
DeclareVariable("building.zonTemOpe[1].calCtrl.lim.uMax", "Upper limits of input signals",\
@@ -31035,12 +31049,12 @@ DeclareVariable("building.zonTemOpe[1].calCtrl.lim.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
1027, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("building.zonTemOpe[1].calCtrl.lim.u", "Connector of Real input signal",\
- 9013, 0.0, 0.0,0.0,0.0,0,512)
+ 8976, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("building.zonTemOpe[1].calCtrl.lim.y", "Connector of Real output signal",\
"building.zonTemOpe[1].calCtrl.intDisCom.der(y)", 1, 6, 14, 0)
DeclareAlias2("building.zonTemOpe[1].calCtrl.lim.simplifiedExpr", \
"Simplified expression for homotopy-based initialization", "building.zonTemOpe[1].calCtrl.lim.u", 1,\
- 5, 9013, 1024)
+ 5, 8976, 1024)
DeclareVariable("building.zonTemOpe[1].calCtrl.intDisCom.k", "Integrator gain [1]",\
1028, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].calCtrl.intDisCom.use_reset", \
@@ -31064,11 +31078,11 @@ DeclareVariable("building.zonTemOpe[1].calCtrl.intDisCom.local_reset", \
DeclareVariable("building.zonTemOpe[1].calCtrl.intDisCom.local_set", "", 1034, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("building.zonTemOpe[1].calCtrl.add.u1", "Connector of Real input signal 1",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareVariable("building.zonTemOpe[1].calCtrl.add.u2", "Connector of Real input signal 2",\
- 8306, 0.0, 0.0,0.0,0.0,0,640)
+ 8266, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("building.zonTemOpe[1].calCtrl.add.y", "Connector of Real output signal",\
- "building.zonTemOpe[1].calCtrl.lim.u", 1, 5, 9013, 0)
+ "building.zonTemOpe[1].calCtrl.lim.u", 1, 5, 8976, 0)
DeclareVariable("building.zonTemOpe[1].calCtrl.add.k1", "Gain of input signal 1",\
1035, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("building.zonTemOpe[1].calCtrl.add.k2", "Gain of input signal 2",\
@@ -31080,15 +31094,15 @@ DeclareVariable("building.zonTemOpe[1].calCtrl.const.y", "Connector of Real outp
DeclareAlias2("building.zonTemOpe[1].calCtrl.dTComSec", "K*s discomfort [K.s]", \
"building.zonTemOpe[1].calCtrl.intDisCom.y", 1, 1, 14, 0)
DeclareAlias2("building.zonTemOpe[1].calCtrl.TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareAlias2("building.zonTemOpe[1].calCtrl.TZoneSet", "Connector of Real input signal 2",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareVariable("building.zonTemOpe[1].calCtrl.add1.u1", "Connector of Real input signal 1",\
1039, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("building.zonTemOpe[1].calCtrl.add1.u2", "Connector of Real input signal 2",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("building.zonTemOpe[1].calCtrl.add1.y", "Connector of Real output signal",\
- "building.zonTemOpe[1].calCtrl.add.u2", 1, 5, 8306, 0)
+ "building.zonTemOpe[1].calCtrl.add.u2", 1, 5, 8266, 0)
DeclareParameter("building.zonTemOpe[1].calCtrl.add1.k1", "Gain of input signal 1",\
326, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("building.zonTemOpe[1].calCtrl.add1.k2", "Gain of input signal 2",\
@@ -31102,9 +31116,9 @@ DeclareAlias2("building.zonTemOpe[1].dTComCoo", "K*s discomfort", \
DeclareAlias2("building.zonTemOpe[1].dTCtrl", "K*s control deviation", \
"building.zonTemOpe[1].calCtrl.intDisCom.y", 1, 1, 14, 0)
DeclareAlias2("building.zonTemOpe[1].TZone", "Connector of Real input signal 1 [K]",\
- "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8508, 0)
+ "building.buiMeaBus.TZoneOpeMea[1]", 1, 5, 8471, 0)
DeclareAlias2("building.zonTemOpe[1].TZoneSet", "Zone set temperature [K]", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareVariable("building.ATot[1]", "Sum of wall surface areas [m2]", 1041, \
198.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("userProfiles.nZones", "Number of zones to transfer heat to [:#(type=Integer)]",\
@@ -31112,13 +31126,13 @@ DeclareVariable("userProfiles.nZones", "Number of zones to transfer heat to [:#(
DeclareVariable("userProfiles.TSetZone_nominal[1]", "Nominal set temerature of zones [K|degC]",\
1043, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("userProfiles.useProBus.intGains[1]", "Output signal connector",\
- 9014, 0.0, 0.0,0.0,0.0,0,520)
+ 8977, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("userProfiles.useProBus.intGains[2]", "Output signal connector",\
- 9015, 0.0, 0.0,0.0,0.0,0,520)
+ 8978, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("userProfiles.useProBus.intGains[3]", "Output signal connector",\
- 9016, 0.0, 0.0,0.0,0.0,0,520)
+ 8979, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("userProfiles.useProBus.TZoneSet[1]", "Connector of Real output signal [K|K]",\
- 8307, 0.0, 0.0,0.0,0.0,0,648)
+ 8267, 0.0, 0.0,0.0,0.0,0,648)
DeclareParameter("userProfiles.gain[1]", "Gain value multiplied with internal gains. Used to e.g. disable single gains.",\
328, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("userProfiles.gain[2]", "Gain value multiplied with internal gains. Used to e.g. disable single gains.",\
@@ -31134,11 +31148,11 @@ DeclareParameter("userProfiles.hoursSetBack", "Number of hours the set-back last
DeclareVariable("userProfiles.tabIntGai.nout", "Number of outputs [:#(type=Integer)]",\
1044, 3, 1.0,1E+100,0.0,0,517)
DeclareVariable("userProfiles.tabIntGai.y[1]", "Connector of Real output signals",\
- 9017, 0.0, 0.0,0.0,0.0,0,512)
+ 8980, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("userProfiles.tabIntGai.y[2]", "Connector of Real output signals",\
- 9018, 0.0, 0.0,0.0,0.0,0,512)
+ 8981, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("userProfiles.tabIntGai.y[3]", "Connector of Real output signals",\
- 9019, 0.0, 0.0,0.0,0.0,0,512)
+ 8982, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("userProfiles.tabIntGai.tableOnFile", "= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
1045, true, 0.0,0.0,0.0,0,515)
DeclareParameter("userProfiles.tabIntGai.verboseRead", "= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
@@ -31182,29 +31196,29 @@ DeclareVariable("userProfiles.tabIntGai.p_offset[3]", "Offsets of output signals
DeclareVariable("userProfiles.tabIntGai.tableID.id", "[:#(type=Integer)]", 1057,\
0, 0.0,0.0,0.0,0,2565)
DeclareVariable("userProfiles.tabIntGai.nextTimeEvent", "Next time event instant [s]",\
- 8308, 0, 0.0,0.0,0.0,0,2704)
+ 8268, 0, 0.0,0.0,0.0,0,2704)
DeclareVariable("userProfiles.tabIntGai.nextTimeEventScaled", "Next scaled time event instant",\
- 8309, 0, 0.0,0.0,0.0,0,2704)
-DeclareVariable("userProfiles.tabIntGai.timeScaled", "Scaled time", 9020, 0.0, \
+ 8269, 0, 0.0,0.0,0.0,0,2704)
+DeclareVariable("userProfiles.tabIntGai.timeScaled", "Scaled time", 8983, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareVariable("userProfiles.gainIntGai[1].k", "Gain value multiplied with input signal [1]",\
1058, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("userProfiles.gainIntGai[1].u", "Input signal connector", \
-"userProfiles.tabIntGai.y[1]", 1, 5, 9017, 0)
+"userProfiles.tabIntGai.y[1]", 1, 5, 8980, 0)
DeclareAlias2("userProfiles.gainIntGai[1].y", "Output signal connector", \
-"building.useProBus.intGains[1]", 1, 5, 8473, 0)
+"building.useProBus.intGains[1]", 1, 5, 8436, 0)
DeclareVariable("userProfiles.gainIntGai[2].k", "Gain value multiplied with input signal [1]",\
1059, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("userProfiles.gainIntGai[2].u", "Input signal connector", \
-"userProfiles.tabIntGai.y[2]", 1, 5, 9018, 0)
+"userProfiles.tabIntGai.y[2]", 1, 5, 8981, 0)
DeclareAlias2("userProfiles.gainIntGai[2].y", "Output signal connector", \
-"building.useProBus.intGains[2]", 1, 5, 8474, 0)
+"building.useProBus.intGains[2]", 1, 5, 8437, 0)
DeclareVariable("userProfiles.gainIntGai[3].k", "Gain value multiplied with input signal [1]",\
1060, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("userProfiles.gainIntGai[3].u", "Input signal connector", \
-"userProfiles.tabIntGai.y[3]", 1, 5, 9019, 0)
+"userProfiles.tabIntGai.y[3]", 1, 5, 8982, 0)
DeclareAlias2("userProfiles.gainIntGai[3].y", "Output signal connector", \
-"building.useProBus.intGains[3]", 1, 5, 8475, 0)
+"building.useProBus.intGains[3]", 1, 5, 8438, 0)
DeclareParameter("userProfiles.setBakTSetZone[1].amplitude", "Amplitude of pulse",\
342, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("userProfiles.setBakTSetZone[1].width", "Width of pulse in % of period",\
@@ -31214,7 +31228,7 @@ DeclareParameter("userProfiles.setBakTSetZone[1].period", "Time for one period [
DeclareParameter("userProfiles.setBakTSetZone[1].nperiod", "Number of periods (< 0 means infinite number of periods) [:#(type=Integer)]",\
345, -1, 0.0,0.0,0.0,0,564)
DeclareAlias2("userProfiles.setBakTSetZone[1].y", "Connector of Real output signal [K|K]",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareVariable("userProfiles.setBakTSetZone[1].offset", "Offset of output signal y",\
1061, 294.15, 0.0,0.0,0.0,0,513)
DeclareParameter("userProfiles.setBakTSetZone[1].startTime", "Output y = offset for time < startTime [s]",\
@@ -31222,9 +31236,9 @@ DeclareParameter("userProfiles.setBakTSetZone[1].startTime", "Output y = offset
DeclareVariable("userProfiles.setBakTSetZone[1].T_width", "[s]", 1062, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("userProfiles.setBakTSetZone[1].T_start", "Start time of current period [s]",\
- 8310, 0.0, 0.0,0.0,0.0,0,2688)
+ 8270, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("userProfiles.setBakTSetZone[1].count", "Period count [:#(type=Integer)]",\
- 8311, 0, 0.0,0.0,0.0,0,2692)
+ 8271, 0, 0.0,0.0,0.0,0,2692)
DeclareVariable("DHW.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
1063, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("DHW.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
@@ -31276,28 +31290,28 @@ DeclareVariable("DHW.tCrit", "Time for critical period. Based on EN 15450 [s|h]"
DeclareVariable("DHW.QCrit", "Energy demand in kWh during critical period. Based on EN 15450",\
1081, 2.24, 0.0,0.0,0.0,0,513)
DeclareVariable("DHW.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 9021, 0, -100000.0,100000.0,0.1,0,776)
+ 8984, 0, -100000.0,100000.0,0.1,0,776)
DeclareAlias2("DHW.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareAlias2("DHW.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
"DHW.bou_sink.h", 1, 7, 380, 4)
DeclareAlias2("DHW.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 132)
+ "DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("DHW.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareVariable("DHW.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9022, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 8985, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("DHW.outBusDHW.Q_flow.value", "Current value [W]", \
"outputs.DHW.Q_flow.value", 1, 3, 31, 4)
DeclareAlias2("DHW.outBusDHW.Q_flow.integral", "Integral of value [J]", \
"DHW.integralKPICalculator.integrator2.y", 1, 1, 15, 4)
DeclareAlias2("DHW.useProBus.TZoneSet[1]", "[K|degC]", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 4)
-DeclareVariable("DHW.useProBus.intGains[1]", "Output signal connector", 9023, \
+ 5, 8243, 4)
+DeclareVariable("DHW.useProBus.intGains[1]", "Output signal connector", 8986, \
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("DHW.useProBus.intGains[2]", "Output signal connector", 9024, \
+DeclareVariable("DHW.useProBus.intGains[2]", "Output signal connector", 8987, \
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("DHW.useProBus.intGains[3]", "Output signal connector", 9025, \
+DeclareVariable("DHW.useProBus.intGains[3]", "Output signal connector", 8988, \
0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("DHW.internalElectricalPin.PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
1082, 0.0, 0.0,0.0,0.0,0,521)
@@ -31319,24 +31333,24 @@ DeclareVariable("DHW.calcmFlow.c_p_water", "Heat capacity of water [J/(kg.K)]",
4184.0, 0.0,0.0,0.0,0,513)
DeclareVariable("DHW.calcmFlow.TSetDHW", "Set temperature of DHW", 1089, 323.15,\
0.0,0.0,0.0,0,513)
-DeclareVariable("DHW.calcmFlow.m_flow_in", "", 9026, 0.0, 0.0,0.0,0.0,0,512)
-DeclareAlias2("DHW.calcmFlow.m_flow_out", "", "DHW.port_a.m_flow", 1, 5, 9021, 0)
-DeclareVariable("DHW.calcmFlow.TSet", "Set temperature of DHW", 9027, 0.0, \
+DeclareVariable("DHW.calcmFlow.m_flow_in", "", 8989, 0.0, 0.0,0.0,0.0,0,512)
+DeclareAlias2("DHW.calcmFlow.m_flow_out", "", "DHW.port_a.m_flow", 1, 5, 8984, 0)
+DeclareVariable("DHW.calcmFlow.TSet", "Set temperature of DHW", 8990, 0.0, \
0.0,0.0,0.0,0,512)
-DeclareVariable("DHW.calcmFlow.TIs", "Actual DHW temperature", 9028, 0.0, \
+DeclareVariable("DHW.calcmFlow.TIs", "Actual DHW temperature", 8991, 0.0, \
0.0,0.0,0.0,0,512)
DeclareVariable("DHW.calcmFlow.division.u1", "Connector of Real input signal 1",\
- 9029, 0.0, 0.0,0.0,0.0,0,512)
+ 8992, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("DHW.calcmFlow.division.u2", "Connector of Real input signal 2",\
1090, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("DHW.calcmFlow.division.y", "Connector of Real output signal", 9030,\
+DeclareVariable("DHW.calcmFlow.division.y", "Connector of Real output signal", 8993,\
0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("DHW.calcmFlow.dTSet.u1", "Connector of Real input signal 1", \
-"DHW.calcmFlow.TSet", 1, 5, 9027, 0)
+"DHW.calcmFlow.TSet", 1, 5, 8990, 0)
DeclareAlias2("DHW.calcmFlow.dTSet.u2", "Connector of Real input signal 2", \
"DHW.calcmFlow.constTCold.k", 1, 5, 1092, 0)
DeclareAlias2("DHW.calcmFlow.dTSet.y", "Connector of Real output signal", \
-"DHW.calcmFlow.division.u1", 1, 5, 9029, 0)
+"DHW.calcmFlow.division.u1", 1, 5, 8992, 0)
DeclareParameter("DHW.calcmFlow.dTSet.k1", "Gain of input signal 1", 355, 1, \
0.0,0.0,0.0,0,560)
DeclareVariable("DHW.calcmFlow.dTSet.k2", "Gain of input signal 2", 1091, -1, \
@@ -31355,12 +31369,12 @@ DeclareParameter("DHW.calcmFlow.dTIs.k1", "Gain of input signal 1", 356, 1, \
0.0,0.0,0.0,0,560)
DeclareVariable("DHW.calcmFlow.dTIs.k2", "Gain of input signal 2", 1094, -1, \
0.0,0.0,0.0,0,513)
-DeclareVariable("DHW.calcmFlow.product.u1", "Connector of Real input signal 1", 9031,\
+DeclareVariable("DHW.calcmFlow.product.u1", "Connector of Real input signal 1", 8994,\
0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("DHW.calcmFlow.product.u2", "Connector of Real input signal 2", \
-"DHW.calcmFlow.m_flow_in", 1, 5, 9026, 0)
+"DHW.calcmFlow.m_flow_in", 1, 5, 8989, 0)
DeclareAlias2("DHW.calcmFlow.product.y", "Connector of Real output signal", \
-"DHW.port_a.m_flow", 1, 5, 9021, 0)
+"DHW.port_a.m_flow", 1, 5, 8984, 0)
DeclareParameter("DHW.calcmFlow.limiter.uMax", "Upper limits of input signals", 357,\
1, 0.0,0.0,0.0,0,560)
DeclareParameter("DHW.calcmFlow.limiter.uMin", "Lower limits of input signals", 358,\
@@ -31370,37 +31384,37 @@ DeclareVariable("DHW.calcmFlow.limiter.strict", "= true, if strict limits with n
DeclareVariable("DHW.calcmFlow.limiter.homotopyType", "Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
1096, 2, 1.0,4.0,0.0,0,517)
DeclareAlias2("DHW.calcmFlow.limiter.u", "Connector of Real input signal", \
-"DHW.calcmFlow.division.y", 1, 5, 9030, 0)
+"DHW.calcmFlow.division.y", 1, 5, 8993, 0)
DeclareAlias2("DHW.calcmFlow.limiter.y", "Connector of Real output signal", \
-"DHW.calcmFlow.product.u1", 1, 5, 9031, 0)
+"DHW.calcmFlow.product.u1", 1, 5, 8994, 0)
DeclareAlias2("DHW.calcmFlow.limiter.simplifiedExpr", "Simplified expression for homotopy-based initialization",\
- "DHW.calcmFlow.division.y", 1, 5, 9030, 1024)
+ "DHW.calcmFlow.division.y", 1, 5, 8993, 1024)
DeclareAlias2("DHW.calcmFlow.deltaLim.u1", "Connector of Real input signal 1", \
-"DHW.calcmFlow.division.y", 1, 5, 9030, 0)
+"DHW.calcmFlow.division.y", 1, 5, 8993, 0)
DeclareAlias2("DHW.calcmFlow.deltaLim.u2", "Connector of Real input signal 2", \
-"DHW.calcmFlow.product.u1", 1, 5, 9031, 0)
-DeclareVariable("DHW.calcmFlow.deltaLim.y", "Connector of Real output signal", 9032,\
+"DHW.calcmFlow.product.u1", 1, 5, 8994, 0)
+DeclareVariable("DHW.calcmFlow.deltaLim.y", "Connector of Real output signal", 8995,\
0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("DHW.calcmFlow.deltaLim.k1", "Gain of input signal 1", 359, 1, \
0.0,0.0,0.0,0,560)
DeclareVariable("DHW.calcmFlow.deltaLim.k2", "Gain of input signal 2", 1097, -1,\
0.0,0.0,0.0,0,513)
-DeclareVariable("DHW.calcmFlow.Q_flowERROR", "", 9033, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("DHW.calcmFlow.Q_flowERROR", "", 8996, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("DHW.calcmFlow.multiProduct.significantDigits", \
"Number of significant digits to be shown in dynamic diagram layer for y [:#(type=Integer)]",\
360, 3, 1.0,1E+100,0.0,0,564)
DeclareVariable("DHW.calcmFlow.multiProduct.nu", "Number of input connections [:#(type=Integer)]",\
1098, 4, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("DHW.calcmFlow.multiProduct.u[1]", "", "DHW.calcmFlow.deltaLim.y", 1,\
- 5, 9032, 0)
+ 5, 8995, 0)
DeclareAlias2("DHW.calcmFlow.multiProduct.u[2]", "", "DHW.calcmFlow.m_flow_in", 1,\
- 5, 9026, 0)
+ 5, 8989, 0)
DeclareVariable("DHW.calcmFlow.multiProduct.u[3]", "", 1099, 4184.0, 0.0,0.0,0.0,\
0,513)
DeclareAlias2("DHW.calcmFlow.multiProduct.u[4]", "", "DHW.calcmFlow.division.u1", 1,\
- 5, 9029, 0)
+ 5, 8992, 0)
DeclareAlias2("DHW.calcmFlow.multiProduct.y", "", "DHW.calcmFlow.Q_flowERROR", 1,\
- 5, 9033, 0)
+ 5, 8996, 0)
DeclareVariable("DHW.calcmFlow.const_cp.k", "Constant output value", 1100, \
4184.0, 0.0,0.0,0.0,0,513)
DeclareVariable("DHW.calcmFlow.const_cp.y", "Connector of Real output signal", 1101,\
@@ -31410,9 +31424,9 @@ DeclareVariable("DHW.calcmFlow.constTSet.k", "Constant output value", 1102, \
DeclareVariable("DHW.calcmFlow.constTSet.y", "Connector of Real output signal", 1103,\
323.15, 0.0,0.0,0.0,0,513)
DeclareVariable("DHW.fromDegC.u", "Connector of Real input signal to be converted [degC]",\
- 9034, 0.0, 0.0,0.0,0.0,0,512)
+ 8997, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("DHW.fromDegC.y", "Connector of Real output signal containing input signal u in another unit [K]",\
- "DHW.calcmFlow.TSet", 1, 5, 9027, 0)
+ "DHW.calcmFlow.TSet", 1, 5, 8990, 0)
DeclareVariable("DHW.integralKPICalculator.use_inpCon", "= false to use an internal variable as input [:#(type=Boolean)]",\
1104, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("DHW.integralKPICalculator.y", "Value of Real input [W]", \
@@ -31468,17 +31482,17 @@ DeclareVariable("DHW.pump.wrongEnergyMassBalanceConfiguration", "True if configu
DeclareVariable("DHW.pump.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
1118, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("DHW.pump.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 132)
+ "DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("DHW.pump.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 4)
DeclareVariable("DHW.pump.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9035, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 8998, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("DHW.pump.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 132)
+ "DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("DHW.pump.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareAlias2("DHW.pump.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.port_b.h_outflow", 1, 5, 9022, 4)
+ "DHW.port_b.h_outflow", 1, 5, 8985, 4)
DeclareVariable("DHW.pump.per.pressure.V_flow[1]", "Volume flow rate at user-selected operating points [m3/s]",\
1119, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("DHW.pump.per.pressure.V_flow[2]", "Volume flow rate at user-selected operating points [m3/s]",\
@@ -31603,29 +31617,29 @@ DeclareVariable("DHW.pump.riseTime", "Time needed to change motor speed between
DeclareVariable("DHW.pump.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
1167, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("DHW.pump.y_actual", "Actual normalised fan or pump speed that is used for computations [1]",\
- 9036, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("DHW.pump.P", "Electrical power consumed [W]", 9037, 0.0, \
+ 8999, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("DHW.pump.P", "Electrical power consumed [W]", 9000, 0.0, \
0.0,0.0,0.0,0,512)
-DeclareVariable("DHW.pump.heatPort.T", "Port temperature [K|degC]", 9038, 300.0,\
+DeclareVariable("DHW.pump.heatPort.T", "Port temperature [K|degC]", 9001, 300.0,\
1.0,10000.0,300.0,0,520)
DeclareVariable("DHW.pump.heatPort.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
1168, 0.0, 0.0,0.0,0.0,0,777)
-DeclareVariable("DHW.pump.VMachine_flow", "Volume flow rate [m3/s]", 9039, 0, \
+DeclareVariable("DHW.pump.VMachine_flow", "Volume flow rate [m3/s]", 9002, 0, \
0.0,0.0,0.0,0,512)
DeclareVariable("DHW.pump.dpMachine", "Pressure difference [Pa|Pa]", 1169, 0.0, \
0.0,0.0,0.0,0,513)
-DeclareVariable("DHW.pump.eta", "Global efficiency [1]", 9040, 0.49, 0.0,0.0,0.0,\
+DeclareVariable("DHW.pump.eta", "Global efficiency [1]", 9003, 0.49, 0.0,0.0,0.0,\
0,512)
-DeclareVariable("DHW.pump.etaHyd", "Hydraulic efficiency [1]", 9041, 0.7, 0.0,\
+DeclareVariable("DHW.pump.etaHyd", "Hydraulic efficiency [1]", 9004, 0.7, 0.0,\
1E+100,0.0,0,512)
-DeclareVariable("DHW.pump.etaMot", "Motor efficiency [1]", 9042, 0.7, 0.0,0.0,\
+DeclareVariable("DHW.pump.etaMot", "Motor efficiency [1]", 9005, 0.7, 0.0,0.0,\
0.0,0,512)
DeclareVariable("DHW.pump.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
1170, 1E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("DHW.pump.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
1171, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("DHW.pump.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 0)
+ "DHW.port_a.m_flow", 1, 5, 8984, 0)
DeclareVariable("DHW.pump.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
1172, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("DHW.pump._m_flow_nominal", "Nominal mass flow rate [kg/s]", 1173,\
@@ -31655,9 +31669,9 @@ DeclareVariable("DHW.pump.sta_start.T", "Temperature of medium [K|degC]", 1184,
DeclareVariable("DHW.pump.h_outflow_start", "Start value for outflowing enthalpy [J/kg]",\
1185, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("DHW.pump.inputSwitch.u", "Connector of Real input signal", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1024)
+"DHW.port_a.m_flow", 1, 5, 8984, 1024)
DeclareAlias2("DHW.pump.inputSwitch.y", "Connector of Real output signal", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1024)
+"DHW.port_a.m_flow", 1, 5, 8984, 1024)
DeclareVariable("DHW.pump.vol.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
1186, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("DHW.pump.vol.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
@@ -31693,19 +31707,19 @@ DeclareVariable("DHW.pump.vol.allowFlowReversal", "= false to simplify equations
1201, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("DHW.pump.vol.V", "Volume [m3]", 1202, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("DHW.pump.vol.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.vol.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.vol.ports[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1028)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1028)
DeclareAlias2("DHW.pump.vol.ports[2].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.vol.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.vol.ports[2].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1028)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1028)
DeclareAlias2("DHW.pump.vol.T", "Temperature of the fluid [K|degC]", \
-"DHW.pump.heatPort.T", 1, 5, 9038, 1024)
+"DHW.pump.heatPort.T", 1, 5, 9001, 1024)
DeclareAlias2("DHW.pump.vol.U", "Internal energy of the component [J]", \
"DHW.pump.vol.dynBal.U", 1, 1, 16, 1024)
DeclareAlias2("DHW.pump.vol.p", "Pressure of the fluid [Pa|bar]", "DHW.bouSou.p", 1,\
@@ -31727,29 +31741,29 @@ DeclareVariable("DHW.pump.vol.state_start.T", "Temperature of medium [K|degC]",
DeclareVariable("DHW.pump.vol.useSteadyStateTwoPort", "Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
1209, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("DHW.pump.vol.hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1024)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1024)
DeclareAlias2("DHW.pump.vol.preTem.port.T", "Port temperature [K|degC]", \
-"DHW.pump.heatPort.T", 1, 5, 9038, 1028)
+"DHW.pump.heatPort.T", 1, 5, 9001, 1028)
DeclareVariable("DHW.pump.vol.preTem.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
1210, 0.0, 0.0,0.0,0.0,0,2825)
-DeclareAlias2("DHW.pump.vol.preTem.T", "[K]", "DHW.pump.heatPort.T", 1, 5, 9038,\
+DeclareAlias2("DHW.pump.vol.preTem.T", "[K]", "DHW.pump.heatPort.T", 1, 5, 9001,\
1024)
DeclareAlias2("DHW.pump.vol.portT.y", "Value of Real output", "DHW.pump.heatPort.T", 1,\
- 5, 9038, 1024)
+ 5, 9001, 1024)
DeclareVariable("DHW.pump.vol.heaFloSen.Q_flow", "Heat flow from port_a to port_b as output signal [W]",\
1211, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("DHW.pump.vol.heaFloSen.port_a.T", "Port temperature [K|degC]", \
-"DHW.pump.heatPort.T", 1, 5, 9038, 1028)
+"DHW.pump.heatPort.T", 1, 5, 9001, 1028)
DeclareVariable("DHW.pump.vol.heaFloSen.port_a.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
1212, 0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("DHW.pump.vol.heaFloSen.port_b.T", "Port temperature [K|degC]", \
-"DHW.pump.heatPort.T", 1, 5, 9038, 1028)
+"DHW.pump.heatPort.T", 1, 5, 9001, 1028)
DeclareVariable("DHW.pump.vol.heaFloSen.port_b.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
1213, 0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("DHW.pump.vol.use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
1214, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("DHW.pump.vol.heatPort.T", "Port temperature [K|degC]", \
-"DHW.pump.heatPort.T", 1, 5, 9038, 1028)
+"DHW.pump.heatPort.T", 1, 5, 9001, 1028)
DeclareVariable("DHW.pump.vol.heatPort.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
1215, 0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("DHW.pump.vol.tau", "Time constant at nominal flow [s]", 1216, \
@@ -31788,23 +31802,23 @@ DeclareVariable("DHW.pump.vol.dynBal.use_C_flow", "Set to true to enable input c
DeclareVariable("DHW.pump.vol.dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
1232, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("DHW.pump.vol.dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1024)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1024)
DeclareAlias2("DHW.pump.vol.dynBal.UOut", "Internal energy of the component [J]",\
"DHW.pump.vol.dynBal.U", 1, 1, 16, 1024)
DeclareAlias2("DHW.pump.vol.dynBal.mOut", "Mass of the component [kg]", \
"DHW.pump.vol.dynBal.m", 1, 5, 1240, 1024)
DeclareAlias2("DHW.pump.vol.dynBal.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.vol.dynBal.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.vol.dynBal.ports[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1028)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1028)
DeclareAlias2("DHW.pump.vol.dynBal.ports[2].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.vol.dynBal.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.vol.dynBal.ports[2].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1028)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1028)
DeclareVariable("DHW.pump.vol.dynBal.medium.preferredMediumStates", \
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
1233, false, 0.0,0.0,0.0,0,2563)
@@ -31814,13 +31828,13 @@ DeclareVariable("DHW.pump.vol.dynBal.medium.standardOrderComponents", \
DeclareVariable("DHW.pump.vol.dynBal.medium.d", "Density of medium [kg/m3|g/cm3]",\
1235, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("DHW.pump.vol.dynBal.medium.T", "Temperature of medium [K|degC]",\
- 9043, 300.0, 1.0,10000.0,300.0,0,2560)
+ 9006, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("DHW.pump.vol.dynBal.medium.p", "Absolute pressure of medium [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1024)
DeclareAlias2("DHW.pump.vol.dynBal.medium.h", "Specific enthalpy of medium [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1024)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1024)
DeclareAlias2("DHW.pump.vol.dynBal.medium.u", "Specific internal energy of medium [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1024)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1024)
DeclareVariable("DHW.pump.vol.dynBal.medium.X[1]", "Mass fractions (= (component mass)/total mass m_i/m) [1]",\
1236, 1, 0.0,1.0,0.0,0,2561)
DeclareVariable("DHW.pump.vol.dynBal.medium.R_s", "Gas constant (of mixture if applicable) [J/(kg.K)]",\
@@ -31830,9 +31844,9 @@ DeclareVariable("DHW.pump.vol.dynBal.medium.MM", "Molar mass (of mixture or sing
DeclareAlias2("DHW.pump.vol.dynBal.medium.state.p", "Absolute pressure of medium [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1024)
DeclareAlias2("DHW.pump.vol.dynBal.medium.state.T", "Temperature of medium [K|degC]",\
- "DHW.pump.vol.dynBal.medium.T", 1, 5, 9043, 1024)
+ "DHW.pump.vol.dynBal.medium.T", 1, 5, 9006, 1024)
DeclareVariable("DHW.pump.vol.dynBal.medium.T_degC", "Temperature of medium in [degC] [degC;]",\
- 9044, 0.0, 0.0,0.0,0.0,0,2560)
+ 9007, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("DHW.pump.vol.dynBal.medium.p_bar", "Absolute pressure of medium in [bar] [bar]",\
1239, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("DHW.pump.vol.dynBal.U", "Internal energy of fluid [J]", 16, 0.0, \
@@ -31851,9 +31865,9 @@ DeclareVariable("DHW.pump.vol.dynBal.fluidVolume", "Volume [m3]", 1243, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("DHW.pump.vol.dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
1244, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("DHW.pump.vol.dynBal.ports_H_flow[1]", "[W]", 9045, 0.0, \
+DeclareVariable("DHW.pump.vol.dynBal.ports_H_flow[1]", "[W]", 9008, 0.0, \
-100000000.0,100000000.0,1000.0,0,2560)
-DeclareVariable("DHW.pump.vol.dynBal.ports_H_flow[2]", "[W]", 9046, 0.0, \
+DeclareVariable("DHW.pump.vol.dynBal.ports_H_flow[2]", "[W]", 9009, 0.0, \
-100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("DHW.pump.vol.dynBal.cp_default", "Heat capacity, to compute additional dry mass [J/(kg.K)]",\
1245, 4184, 0.0,0.0,0.0,0,2561)
@@ -31876,17 +31890,17 @@ DeclareVariable("DHW.pump.vol.dynBal.mWat_flow_internal", "Needed to connect to
DeclareVariable("DHW.pump.preSou.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
1254, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("DHW.pump.preSou.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.preSou.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.preSou.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 1028)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 1028)
DeclareAlias2("DHW.pump.preSou.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.preSou.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 1028)
DeclareAlias2("DHW.pump.preSou.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1028)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1028)
DeclareParameter("DHW.pump.preSou.dp_start", "Guess value of dp = port_a.p - port_b.p [Pa|Pa]",\
376, 0, 0.0,0.0,0.0,0,2608)
DeclareVariable("DHW.pump.preSou.m_flow_start", "Guess value of m_flow = port_a.m_flow [kg/s]",\
@@ -31898,19 +31912,19 @@ DeclareVariable("DHW.pump.preSou.show_T", "= true, if temperatures at port_a and
DeclareVariable("DHW.pump.preSou.show_V_flow", "= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]",\
1258, true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("DHW.pump.preSou.m_flow", "Mass flow rate in design flow direction [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1024)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1024)
DeclareAlias2("DHW.pump.preSou.dp", "Pressure difference between port_a and port_b (= port_a.p - port_b.p) [Pa|Pa]",\
"DHW.pump.dpMachine", -1, 5, 1169, 1024)
DeclareVariable("DHW.pump.preSou.V_flow", "Volume flow rate at inflowing port (positive when flow from port_a to port_b) [m3/s]",\
- 9047, 0.0, 0.0,0.0,0.0,0,2560)
+ 9010, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("DHW.pump.preSou.control_m_flow", "if true, then the mass flow rate is equal to the value of m_flow_in [:#(type=Boolean)]",\
1259, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("DHW.pump.preSou.control_dp", "if true, then the head is equal to the value of dp_in [:#(type=Boolean)]",\
1260, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("DHW.pump.preSou.m_flow_in", "Prescribed mass flow rate [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1024)
+"DHW.port_a.m_flow", 1, 5, 8984, 1024)
DeclareAlias2("DHW.pump.preSou.m_flow_internal", "Needed to connect to conditional connector [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1024)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1024)
DeclareVariable("DHW.pump.preSou.dp_internal", "Needed to connect to conditional connector [Pa]",\
1261, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("DHW.pump.rho_inlet.y", "Value of Real output", 1262, 995.586, \
@@ -31918,23 +31932,23 @@ DeclareVariable("DHW.pump.rho_inlet.y", "Value of Real output", 1262, 995.586, \
DeclareVariable("DHW.pump.senMasFlo.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
1263, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("DHW.pump.senMasFlo.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.senMasFlo.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.senMasFlo.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 1028)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 1028)
DeclareAlias2("DHW.pump.senMasFlo.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 1156)
+ "DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("DHW.pump.senMasFlo.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 1028)
DeclareAlias2("DHW.pump.senMasFlo.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "DHW.pump.port_a.h_outflow", 1, 5, 9035, 1028)
+ "DHW.pump.port_a.h_outflow", 1, 5, 8998, 1028)
DeclareVariable("DHW.pump.senMasFlo.m_flow_nominal", "Nominal mass flow rate, used for regularization near zero flow [kg/s]",\
1264, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("DHW.pump.senMasFlo.m_flow_small", "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
1265, 0, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("DHW.pump.senMasFlo.m_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 1024)
+ "DHW.port_a.m_flow", 1, 5, 8984, 1024)
DeclareVariable("DHW.pump.senRelPre.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
1266, 0, 0.0,100000.0,0.0,0,2825)
DeclareAlias2("DHW.pump.senRelPre.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
@@ -32069,27 +32083,27 @@ DeclareVariable("DHW.pump.eff.V_flow_max", "Maximum volume flow rate, used for s
DeclareVariable("DHW.pump.eff.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
1328, 3, 1.0,1E+100,0.0,0,2565)
DeclareAlias2("DHW.pump.eff.y_out", "Mover speed (prescribed or computed) [1]", \
-"DHW.pump.y_actual", 1, 5, 9036, 1024)
+"DHW.pump.y_actual", 1, 5, 8999, 1024)
DeclareAlias2("DHW.pump.eff.m_flow", "Mass flow rate [kg/s]", "DHW.port_a.m_flow", 1,\
- 5, 9021, 1024)
+ 5, 8984, 1024)
DeclareVariable("DHW.pump.eff.rho", "Medium density [kg/m3]", 1329, 995.586, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("DHW.pump.eff.V_flow", "Volume flow rate [m3/s]", "DHW.pump.VMachine_flow", 1,\
- 5, 9039, 1024)
-DeclareVariable("DHW.pump.eff.WFlo", "Flow work [W]", 9048, 0.0, 0.0,0.0,0.0,0,2560)
+ 5, 9002, 1024)
+DeclareVariable("DHW.pump.eff.WFlo", "Flow work [W]", 9011, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("DHW.pump.eff.WHyd", "Hydraulic work (shaft work, brake horsepower) [W]",\
- 9049, 0.0, 0.0,0.0,0.0,0,2560)
+ 9012, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("DHW.pump.eff.PEle", "Electrical power consumed [W]", "DHW.pump.P", 1,\
- 5, 9037, 1024)
+ 5, 9000, 1024)
DeclareAlias2("DHW.pump.eff.eta", "Overall efficiency [1]", "DHW.pump.eta", 1, 5,\
- 9040, 1024)
+ 9003, 1024)
DeclareAlias2("DHW.pump.eff.etaHyd", "Hydraulic efficiency [1]", \
-"DHW.pump.etaHyd", 1, 5, 9041, 1024)
+"DHW.pump.etaHyd", 1, 5, 9004, 1024)
DeclareAlias2("DHW.pump.eff.etaMot", "Motor efficiency [1]", "DHW.pump.etaMot", 1,\
- 5, 9042, 1024)
+ 5, 9005, 1024)
DeclareAlias2("DHW.pump.eff.r_N", "Ratio N_actual/N_nominal [1]", \
-"DHW.pump.y_actual", 1, 5, 9036, 1024)
-DeclareVariable("DHW.pump.eff.r_V", "Ratio V_flow/V_flow_max [1]", 9050, \
+"DHW.pump.y_actual", 1, 5, 8999, 1024)
+DeclareVariable("DHW.pump.eff.r_V", "Ratio V_flow/V_flow_max [1]", 9013, \
0.00010044335697769957, 0.0,0.0,0.0,0,2560)
DeclareVariable("DHW.pump.eff.preSpe", "True if speed is a prescribed variable of this block [:#(type=Boolean)]",\
1330, false, 0.0,0.0,0.0,0,2563)
@@ -32346,12 +32360,12 @@ DeclareVariable("DHW.pump.eff.haveDPMax", "Flag, true if user specified data tha
DeclareAlias2("DHW.pump.eff.dp_internal", "If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N",\
"DHW.pump.senRelPre.p_rel", 1, 5, 1270, 1024)
DeclareAlias2("DHW.pump.eff.eta_internal", "Either eta or etaHyd [1]", \
-"DHW.pump.etaHyd", 1, 5, 9041, 1024)
+"DHW.pump.etaHyd", 1, 5, 9004, 1024)
DeclareAlias2("DHW.pump.eff.P_internal", "Either PEle or WHyd [W]", \
-"DHW.pump.eff.WHyd", 1, 5, 9049, 1024)
+"DHW.pump.eff.WHyd", 1, 5, 9012, 1024)
DeclareVariable("DHW.pump.eff.deltaP", "Small value for regularisation of power",\
1456, 3.1192857687626286E-06, 0.0,0.0,0.0,0,2561)
-DeclareVariable("DHW.pump.eff.yMot", "Motor part load ratio", 9051, 0.833, 0.0,\
+DeclareVariable("DHW.pump.eff.yMot", "Motor part load ratio", 9014, 0.833, 0.0,\
1E+100,0.0,0,2560)
DeclareAlias2("DHW.pump.eff.dp_in", "Prescribed pressure increase [Pa]", \
"DHW.pump.senRelPre.p_rel", 1, 5, 1270, 1024)
@@ -32368,15 +32382,15 @@ DeclareVariable("DHW.pump.massFlowRates[1]", "Vector of mass flow rate set point
DeclareVariable("DHW.pump.dpMax", "Maximum pressure allowed to operate the model, if exceeded, the simulation stops with an error [Pa|Pa]",\
1461, 227.99999999999997, 0.0,1E+100,0.0,0,513)
DeclareAlias2("DHW.pump.m_flow_in", "Prescribed mass flow rate [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 0)
+"DHW.port_a.m_flow", 1, 5, 8984, 0)
DeclareAlias2("DHW.pump.m_flow_actual", "Actual mass flow rate [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 0)
+"DHW.port_a.m_flow", 1, 5, 8984, 0)
DeclareVariable("DHW.bou_sink.nPorts", "Number of ports [:#(type=Integer)]", 1462,\
1, 0.0,0.0,0.0,0,517)
DeclareVariable("DHW.bou_sink.verifyInputs", "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
1463, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("DHW.bou_sink.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 132)
+ "DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("DHW.bou_sink.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareAlias2("DHW.bou_sink.ports[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
@@ -32414,7 +32428,7 @@ DeclareVariable("DHW.bouSou.nPorts", "Number of ports [:#(type=Integer)]", 1474,
DeclareVariable("DHW.bouSou.verifyInputs", "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
1475, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("DHW.bouSou.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 132)
+ "DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("DHW.bouSou.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bouSou.p", 1, 5, 1483, 4)
DeclareVariable("DHW.bouSou.ports[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
@@ -32456,13 +32470,13 @@ DeclareVariable("DHW.zeroLoad.internalElectricalPin.PElecGen", "Electrical power
DeclareVariable("DHW.combiTimeTableDHWInput.nout", "Number of outputs [:#(type=Integer)]",\
1490, 4, 1.0,1E+100,0.0,0,517)
DeclareVariable("DHW.combiTimeTableDHWInput.y[1]", "Connector of Real output signals",\
- 9052, 0.0, 0.0,0.0,0.0,0,512)
+ 9015, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("DHW.combiTimeTableDHWInput.y[2]", "Connector of Real output signals",\
- "DHW.calcmFlow.m_flow_in", 1, 5, 9026, 0)
+ "DHW.calcmFlow.m_flow_in", 1, 5, 8989, 0)
DeclareVariable("DHW.combiTimeTableDHWInput.y[3]", "Connector of Real output signals",\
- 9053, 0.0, 0.0,0.0,0.0,0,512)
+ 9016, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("DHW.combiTimeTableDHWInput.y[4]", "Connector of Real output signals",\
- "DHW.fromDegC.u", 1, 5, 9034, 0)
+ "DHW.fromDegC.u", 1, 5, 8997, 0)
DeclareVariable("DHW.combiTimeTableDHWInput.tableOnFile", "= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
1491, false, 0.0,0.0,0.0,0,515)
DeclareVariable("DHW.combiTimeTableDHWInput.table[1, 1]", "Table matrix (time = first column; e.g., table=[0, 0; 1, 1; 2, 4])",\
@@ -33454,12 +33468,12 @@ DeclareVariable("DHW.combiTimeTableDHWInput.p_offset[4]", "Offsets of output sig
DeclareVariable("DHW.combiTimeTableDHWInput.tableID.id", "[:#(type=Integer)]", 1978,\
0, 0.0,0.0,0.0,0,2565)
DeclareVariable("DHW.combiTimeTableDHWInput.nextTimeEvent", "Next time event instant [s]",\
- 8312, 0, 0.0,0.0,0.0,0,2704)
+ 8272, 0, 0.0,0.0,0.0,0,2704)
DeclareVariable("DHW.combiTimeTableDHWInput.nextTimeEventScaled", \
-"Next scaled time event instant", 8313, 0, 0.0,0.0,0.0,0,2704)
-DeclareVariable("DHW.combiTimeTableDHWInput.timeScaled", "Scaled time", 9054, \
+"Next scaled time event instant", 8273, 0, 0.0,0.0,0.0,0,2704)
+DeclareVariable("DHW.combiTimeTableDHWInput.timeScaled", "Scaled time", 9017, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareAlias2("DHW.TIs.y", "Value of Real output", "DHW.calcmFlow.TIs", 1, 5, 9028,\
+DeclareAlias2("DHW.TIs.y", "Value of Real output", "DHW.calcmFlow.TIs", 1, 5, 8991,\
0)
DeclareParameter("DHW.DHWProfile.table[1, 1]", "Table data for dhw tapping", 387,\
0, 0.0,0.0,0.0,0,560)
@@ -34454,33 +34468,33 @@ DeclareParameter("electrical.generation.f_design[2]", "Over-/undersizing factor
DeclareVariable("electrical.generation.ARoo", "Roof area of building [m2]", 2095,\
0.0, 0.0,1E+100,0.0,0,513)
DeclareAlias2("electrical.generation.weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("electrical.generation.weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("electrical.generation.weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("electrical.generation.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("electrical.generation.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("electrical.generation.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("electrical.generation.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("electrical.generation.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("electrical.generation.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("electrical.generation.weaBus.winDir", "Wind direction [rad|deg]",\
- "building.weaBus.winDir", 1, 5, 8496, 4)
+ "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("electrical.generation.weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("electrical.generation.weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("electrical.generation.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("electrical.generation.weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("electrical.generation.weaBus.lat", "Latitude of the location [rad|deg]",\
2096, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.generation.weaBus.lon", "Longitude of the location [rad|deg]",\
@@ -34488,19 +34502,19 @@ DeclareVariable("electrical.generation.weaBus.lon", "Longitude of the location [
DeclareVariable("electrical.generation.weaBus.alt", "Location altitude above sea level [m]",\
2098, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("electrical.generation.weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("electrical.generation.weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("electrical.generation.weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("electrical.generation.weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("electrical.generation.weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("electrical.generation.weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("electrical.generation.weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
+"building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareAlias2("electrical.generation.outBusGen.PElePV.value", "Current value [W]",\
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 4)
DeclareAlias2("electrical.generation.outBusGen.PElePV.integral", \
@@ -34775,17 +34789,17 @@ DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.T_c0", \
298.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("electrical.generation.pVSystem[1].iVCharacteristics.DCOutputPower",\
"DC output power of the PV array [W]", "electrical.generation.sumOfPower.u[1]", 1,\
- 5, 9123, 0)
+ 5, 9086, 0)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.eta", \
-"Efficiency of the PV module under operating conditions [1]", 9055, 0.0, 0.0,\
+"Efficiency of the PV module under operating conditions [1]", 9018, 0.0, 0.0,\
1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.T_c", \
-"Cell temperature [K]", 9056, 0.0, 0.0,0.0,0.0,0,512)
+"Cell temperature [K]", 9019, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.absRadRat",\
"Ratio of absorbed radiation under operating conditions to standard conditions [1]",\
- 9057, 0.0, 0.0,1E+100,0.0,0,512)
+ 9020, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.radTil", \
-"Total solar irradiance on the tilted surface [W/m2]", 9058, 0.0, 0.0,0.0,0.0,0,512)
+"Total solar irradiance on the tilted surface [W/m2]", 9021, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.I_ph0", \
"Photo current under standard conditions [A]", 2183, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.I_s0", \
@@ -34814,28 +34828,28 @@ DeclareParameter("electrical.generation.pVSystem[1].iVCharacteristics.E_g0", \
DeclareParameter("electrical.generation.pVSystem[1].iVCharacteristics.C", \
"Band gap temperature coefficient for Si", 795, 0.0002677, 0.0,0.0,0.0,0,560)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.I_mp", \
-"MPP current [A]", 9059, 0.0, 0.0,0.0,0.0,0,512)
+"MPP current [A]", 9022, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.V_mp", \
-"MPP voltage [V]", 9060, 0.0, 0.0,0.0,0.0,0,512)
+"MPP voltage [V]", 9023, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.E_g", \
-"Band gap energy [J]", 9061, 0.0, 0.0,0.0,0.0,0,512)
+"Band gap energy [J]", 9024, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.I_s", \
-"Saturation current [A]", 9062, 0.0, 0.0,0.0,0.0,0,512)
+"Saturation current [A]", 9025, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.I_ph", \
-"Photo current [A]", 9063, 0.0, 0.0,0.0,0.0,0,512)
+"Photo current [A]", 9026, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("electrical.generation.pVSystem[1].iVCharacteristics.R_s", \
"Series resistance [Ohm]", "electrical.generation.pVSystem[1].iVCharacteristics.R_s0", 1,\
5, 2185, 0)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.R_sh", \
-"Shunt resistance [Ohm]", 9064, 0.0, 0.0,0.0,0.0,0,512)
+"Shunt resistance [Ohm]", 9027, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.a", \
-"Modified diode ideality factor [V]", 9065, 1.3, 0.0,0.0,0.0,0,512)
+"Modified diode ideality factor [V]", 9028, 1.3, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.P_mod", \
-"Output power of one PV module [W]", 9066, 0.0, 0.0,0.0,0.0,0,512)
+"Output power of one PV module [W]", 9029, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.w", \
-"MPP auxiliary correlation coefficient [1]", 9067, 0, 0.0,0.0,0.0,0,512)
+"MPP auxiliary correlation coefficient [1]", 9030, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].iVCharacteristics.V_oc", \
-"Open circuit voltage under operating conditions [V]", 9068, 0.0, 0.0,0.0,0.0,0,512)
+"Open circuit voltage under operating conditions [V]", 9031, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].cellTemperature.data.eta_0", \
"Efficiency under standard conditions. If not found in data sheet, use eta_0 = ((V_mp0*I_mp0)/(1000*A_cel*n_ser)) [1]",\
2193, 0.0, 0.0,1E+100,0.0,0,513)
@@ -34888,21 +34902,21 @@ DeclareVariable("electrical.generation.pVSystem[1].cellTemperature.T_NOCT", \
DeclareVariable("electrical.generation.pVSystem[1].cellTemperature.radNOCT", \
"Irradiance under NOCT conditions [W/m2]", 2212, 800, 0.0,0.0,0.0,0,513)
DeclareAlias2("electrical.generation.pVSystem[1].cellTemperature.T_a", \
-"Ambient temperature [K]", "building.weaBus.TDryBul", 1, 5, 8487, 0)
+"Ambient temperature [K]", "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("electrical.generation.pVSystem[1].cellTemperature.winVel", \
-"Wind velocity [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 0)
+"Wind velocity [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 0)
DeclareAlias2("electrical.generation.pVSystem[1].cellTemperature.eta", \
"Efficiency of the PV module under operating conditions [1]", "electrical.generation.pVSystem[1].iVCharacteristics.eta", 1,\
- 5, 9055, 0)
+ 5, 9018, 0)
DeclareAlias2("electrical.generation.pVSystem[1].cellTemperature.radTil", \
"Total solar irradiance on the tilted surface [W/m2]", "electrical.generation.pVSystem[1].iVCharacteristics.radTil", 1,\
- 5, 9058, 0)
+ 5, 9021, 0)
DeclareAlias2("electrical.generation.pVSystem[1].cellTemperature.T_c", \
"Cell temperature [K]", "electrical.generation.pVSystem[1].iVCharacteristics.T_c", 1,\
- 5, 9056, 0)
+ 5, 9019, 0)
DeclareAlias2("electrical.generation.pVSystem[1].DCOutputPower", \
"DC output power of the PV array [W]", "electrical.generation.sumOfPower.u[1]", 1,\
- 5, 9123, 0)
+ 5, 9086, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.lat",\
"Latitude [rad|deg]", 2213, 0.9116922633158369, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.lon",\
@@ -34945,27 +34959,27 @@ DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.tau_
"Transmittance at standard conditions (incAng=refAng=0) [1]", 2223, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.cloTim",\
- "Local clock time [s|h]", 9069, 0.0, 0.0,0.0,0.0,0,512)
+ "Local clock time [s|h]", 9032, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay",\
- "Day number with units of seconds [s]", 8314, 0.0, 0.0,0.0,0.0,0,640)
+ "Day number with units of seconds [s]", 8274, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorBea",\
- "Beam solar radiation on the horizontal surface [W/m2]", 9070, 0.0, 0.0,0.0,0.0,\
+ "Beam solar radiation on the horizontal surface [W/m2]", 9033, 0.0, 0.0,0.0,0.0,\
0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHorDif",\
- "Diffuse solar radiation on the horizontal surface [W/m2]", 9071, 0.0, 0.0,0.0,\
+ "Diffuse solar radiation on the horizontal surface [W/m2]", 9034, 0.0, 0.0,0.0,\
0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.k_t",\
- "Clearness index [1]", 9072, 0.5, 0.0,0.0,0.0,0,512)
+ "Clearness index [1]", 9035, 0.5, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMas",\
- "Air mass [1]", 9073, 0.0, 0.0,1E+100,0.0,0,512)
+ "Air mass [1]", 9036, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.airMasMod",\
- "Air mass modifier [1]", 9074, 0.0, 0.0,1E+100,0.0,0,512)
+ "Air mass modifier [1]", 9037, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngGro",\
"Incidence angle for ground reflection [rad|deg]", 2224, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngDif",\
"Incidence angle for diffuse radiation [rad|deg]", 2225, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngMod",\
- "Incidence angle modifier [1]", 9075, 0.0, 0.0,1E+100,0.0,0,512)
+ "Incidence angle modifier [1]", 9038, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAngModGro",\
"Incidence angle modifier for ground refelction [1]", 2226, 0.0, 0.0,1E+100,0.0,\
0,513)
@@ -34973,14 +34987,14 @@ DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incA
"Incidence angle modifier for diffuse radiation [1]", 2227, 0.0, 0.0,1E+100,0.0,\
0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAng",\
- "Angle of refraction [rad|deg]", 9076, 0.0, 0.0,0.0,0.0,0,512)
+ "Angle of refraction [rad|deg]", 9039, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAngGro",\
"Angle of refraction for ground reflection [rad|deg]", 2228, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.refAngDif",\
"Angle of refraction for diffuse irradiation [rad|deg]", 2229, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.tau",\
- "Transmittance of the cover system [1]", 9077, 0.0, 0.0,1E+100,0.0,0,512)
+ "Transmittance of the cover system [1]", 9040, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.tau_ground",\
"Transmittance of the cover system for ground reflection [1]", 2230, 0.0, 0.0,\
1E+100,0.0,0,513)
@@ -34988,95 +35002,95 @@ DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.tau_
"Transmittance of the cover system for diffuse radiation [1]", 2231, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.R_b",\
- "Ratio of irradiance on tilted surface to horizontal surface [1]", 9078, 0.0, \
+ "Ratio of irradiance on tilted surface to horizontal surface [1]", 9041, 0.0, \
0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zen",\
- "Zenith angle [rad|deg]", 9079, 0.0, 0.0,0.0,0.0,0,512)
+ "Zenith angle [rad|deg]", 9042, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solHouAng.solTim",\
- "Solar time [s]", 9080, 0.0, 0.0,0.0,0.0,0,512)
+ "Solar time [s]", 9043, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 9081, 0.0, 0.0,0.0,0.0,0,512)
+ "Solar hour angle [rad|deg]", 9044, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.weaDatStaTim",\
"Start time of weather data [s|d]", 803, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.weaDatEndTim",\
"End time of weather data [s|d]", 804, 31536000, 0.0,0.0,0.0,0,560)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.modTimAux",\
"Model time [s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.cloTim", 1,\
- 5, 9069, 0)
+ 5, 9032, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.calTimAux",\
- "Calendar time [s]", 9082, 0.0, 0.0,0.0,0.0,0,512)
+ "Calendar time [s]", 9045, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.lenWea",\
"Length of weather data [s]", 2232, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
2233, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.tNext",\
- "Start time of next period [s]", 8315, 0, 0.0,0.0,0.0,0,2704)
+ "Start time of next period [s]", 8275, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.cloTim",\
"Clock time [s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.cloTim", 1,\
- 5, 9069, 0)
+ 5, 9032, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.timZon",\
"Time zone [s|h]", 2234, 3600.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.lon",\
"Longitude [rad|deg]", 2235, 0.22757907099030072, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.locTim",\
- "Local civil time [s]", 9083, 0.0, 0.0,0.0,0.0,0,512)
+ "Local civil time [s]", 9046, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.diff",\
"Difference between local and clock time [s]", 2236, -470.5631344194285, \
0.0,0.0,0.0,0,2561)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solTim.locTim",\
"Local time [s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.locTim", 1,\
- 5, 9083, 0)
+ 5, 9046, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solTim.equTim",\
- "Equation of time [s]", 8316, 0.0, 0.0,0.0,0.0,0,640)
+ "Equation of time [s]", 8276, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solTim.solTim",\
"Solar time [s|s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solHouAng.solTim", 1,\
- 5, 9080, 0)
+ 5, 9043, 0)
DeclareParameter("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.weaDatStaTim",\
"Start time of weather data [s|d]", 805, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.weaDatEndTim",\
"End time of weather data [s|d]", 806, 31536000, 0.0,0.0,0.0,0,560)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.modTimAux",\
"Model time [s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay", 1,\
- 5, 8314, 0)
+ 5, 8274, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.calTimAux",\
- "Calendar time [s]", 8317, 0.0, 0.0,0.0,0.0,0,640)
+ "Calendar time [s]", 8277, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.lenWea",\
"Length of weather data [s]", 2237, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
2238, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.tNext",\
- "Start time of next period [s]", 8318, 0, 0.0,0.0,0.0,0,2704)
+ "Start time of next period [s]", 8278, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.nDay",\
"Zero-based day number in seconds (January 1=0, January 2=86400) [s]", \
-"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay", 1, 5, 8314, 0)
+"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay", 1, 5, 8274, 0)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.eqnTim",\
"Equation of time [s|min]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solTim.equTim", 1,\
- 5, 8316, 0)
+ 5, 8276, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.Bt",\
- "Intermediate variable", 8319, 0.0, 0.0,0.0,0.0,0,2688)
+ "Intermediate variable", 8279, 0.0, 0.0,0.0,0.0,0,2688)
DeclareParameter("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 807, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 808, 31536000, 0.0,0.0,0.0,0,560)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.modTimAux",\
"Model time [s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay", 1,\
- 5, 8314, 0)
+ 5, 8274, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.calTimAux",\
- "Calendar time [s]", 8320, 0.0, 0.0,0.0,0.0,0,640)
+ "Calendar time [s]", 8280, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.lenWea",\
"Length of weather data [s]", 2239, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
2240, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.tNext",\
- "Start time of next period [s]", 8321, 0, 0.0,0.0,0.0,0,2704)
+ "Start time of next period [s]", 8281, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.nDay",\
"Day number with units of seconds [s]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.nDay", 1,\
- 5, 8314, 0)
+ 5, 8274, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.decAng",\
- "Solar declination angle [rad|deg]", 8322, 0.0, 0.0,0.0,0.0,0,640)
+ "Solar declination angle [rad|deg]", 8282, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.k1",\
"Constant", 2241, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.k2",\
@@ -35089,78 +35103,78 @@ DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incA
2244, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.solHouAng",\
"Solar hour angle [rad]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solHouAng.solHouAng", 1,\
- 5, 9081, 0)
+ 5, 9044, 0)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.decAng",\
"Declination [rad]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.decAng", 1,\
- 5, 8322, 0)
+ 5, 8282, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.incAng",\
- "Incidence angle on a tilted surface [rad|deg]", 9084, 0.0, 0.0,0.0,0.0,0,512)
+ "Incidence angle on a tilted surface [rad|deg]", 9047, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.lat",\
"Latitude [rad|deg]", 2245, 0.9116922633158369, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_c",\
- "Cosine of declination angle", 8323, 0.0, 0.0,0.0,0.0,0,2688)
+ "Cosine of declination angle", 8283, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.dec_s",\
- "Sine of declination angle", 8324, 0.0, 0.0,0.0,0.0,0,2688)
+ "Sine of declination angle", 8284, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.sol_c",\
- "Cosine of solar hour angle", 9085, 0.0, 0.0,0.0,0.0,0,2560)
+ "Cosine of solar hour angle", 9048, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.sol_s",\
- "Sine of solar hour angle", 9086, 0.0, 0.0,0.0,0.0,0,2560)
+ "Sine of solar hour angle", 9049, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.lat_c",\
"Cosine of latitude", 2246, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.incAng.lat_s",\
"Sine of latitude", 2247, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.solHouAng",\
"Solar hour angle [rad]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.solHouAng.solHouAng", 1,\
- 5, 9081, 0)
+ 5, 9044, 0)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.decAng",\
"Solar declination angle [rad]", "electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.decAng", 1,\
- 5, 8322, 0)
+ 5, 8282, 0)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.zen",\
- "Zenith angle [rad|deg]", 9087, 0.0, 0.0,0.0,0.0,0,512)
+ "Zenith angle [rad|deg]", 9050, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.zenAng.lat",\
"Latitude [rad|deg]", 2248, 0.9116922633158369, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.modTim.y",\
- "Model time", 9088, 0.0, 0.0,0.0,0.0,0,512)
+ "Model time", 9051, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radTil",\
"Total solar radiation on the tilted surface [W/m2]", "electrical.generation.pVSystem[1].iVCharacteristics.radTil", 1,\
- 5, 9058, 0)
+ 5, 9021, 0)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.absRadRat",\
"Ratio of absorbed radiation under operating conditions to standard conditions [1]",\
- "electrical.generation.pVSystem[1].iVCharacteristics.absRadRat", 1, 5, 9057, 0)
+ "electrical.generation.pVSystem[1].iVCharacteristics.absRadRat", 1, 5, 9020, 0)
DeclareAlias2("electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.radHor",\
"Total solar irradiance on the horizontal surface [W/m2]", "building.weaBus.HGloHor", 1,\
- 5, 8493, 0)
+ 5, 8456, 0)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.nOpa", "Opaque sky cover [1]",\
- "building.weaBus.nOpa", 1, 5, 8499, 4)
+ "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.nTot", "Total sky cover [1]",\
- "building.weaBus.nTot", 1, 5, 8500, 4)
+ "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("electrical.generation.pVSystem[1].weaBus.lat", "Latitude of the location [rad|deg]",\
2249, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.generation.pVSystem[1].weaBus.lon", "Longitude of the location [rad|deg]",\
@@ -35168,19 +35182,19 @@ DeclareVariable("electrical.generation.pVSystem[1].weaBus.lon", "Longitude of th
DeclareVariable("electrical.generation.pVSystem[1].weaBus.alt", "Location altitude above sea level [m]",\
2251, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("electrical.generation.pVSystem[1].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("electrical.generation.pVSystem[2].data.eta_0", "Efficiency under standard conditions. If not found in data sheet, use eta_0 = ((V_mp0*I_mp0)/(1000*A_cel*n_ser)) [1]",\
2252, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].data.n_ser", "Number of cells connected in series on the PV panel",\
@@ -35332,17 +35346,17 @@ DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.T_c0", \
298.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("electrical.generation.pVSystem[2].iVCharacteristics.DCOutputPower",\
"DC output power of the PV array [W]", "electrical.generation.sumOfPower.u[2]", 1,\
- 5, 9124, 0)
+ 5, 9087, 0)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.eta", \
-"Efficiency of the PV module under operating conditions [1]", 9089, 0.0, 0.0,\
+"Efficiency of the PV module under operating conditions [1]", 9052, 0.0, 0.0,\
1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.T_c", \
-"Cell temperature [K]", 9090, 0.0, 0.0,0.0,0.0,0,512)
+"Cell temperature [K]", 9053, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.absRadRat",\
"Ratio of absorbed radiation under operating conditions to standard conditions [1]",\
- 9091, 0.0, 0.0,1E+100,0.0,0,512)
+ 9054, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.radTil", \
-"Total solar irradiance on the tilted surface [W/m2]", 9092, 0.0, 0.0,0.0,0.0,0,512)
+"Total solar irradiance on the tilted surface [W/m2]", 9055, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.I_ph0", \
"Photo current under standard conditions [A]", 2311, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.I_s0", \
@@ -35371,28 +35385,28 @@ DeclareParameter("electrical.generation.pVSystem[2].iVCharacteristics.E_g0", \
DeclareParameter("electrical.generation.pVSystem[2].iVCharacteristics.C", \
"Band gap temperature coefficient for Si", 813, 0.0002677, 0.0,0.0,0.0,0,560)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.I_mp", \
-"MPP current [A]", 9093, 0.0, 0.0,0.0,0.0,0,512)
+"MPP current [A]", 9056, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.V_mp", \
-"MPP voltage [V]", 9094, 0.0, 0.0,0.0,0.0,0,512)
+"MPP voltage [V]", 9057, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.E_g", \
-"Band gap energy [J]", 9095, 0.0, 0.0,0.0,0.0,0,512)
+"Band gap energy [J]", 9058, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.I_s", \
-"Saturation current [A]", 9096, 0.0, 0.0,0.0,0.0,0,512)
+"Saturation current [A]", 9059, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.I_ph", \
-"Photo current [A]", 9097, 0.0, 0.0,0.0,0.0,0,512)
+"Photo current [A]", 9060, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("electrical.generation.pVSystem[2].iVCharacteristics.R_s", \
"Series resistance [Ohm]", "electrical.generation.pVSystem[2].iVCharacteristics.R_s0", 1,\
5, 2313, 0)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.R_sh", \
-"Shunt resistance [Ohm]", 9098, 0.0, 0.0,0.0,0.0,0,512)
+"Shunt resistance [Ohm]", 9061, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.a", \
-"Modified diode ideality factor [V]", 9099, 1.3, 0.0,0.0,0.0,0,512)
+"Modified diode ideality factor [V]", 9062, 1.3, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.P_mod", \
-"Output power of one PV module [W]", 9100, 0.0, 0.0,0.0,0.0,0,512)
+"Output power of one PV module [W]", 9063, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.w", \
-"MPP auxiliary correlation coefficient [1]", 9101, 0, 0.0,0.0,0.0,0,512)
+"MPP auxiliary correlation coefficient [1]", 9064, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].iVCharacteristics.V_oc", \
-"Open circuit voltage under operating conditions [V]", 9102, 0.0, 0.0,0.0,0.0,0,512)
+"Open circuit voltage under operating conditions [V]", 9065, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].cellTemperature.data.eta_0", \
"Efficiency under standard conditions. If not found in data sheet, use eta_0 = ((V_mp0*I_mp0)/(1000*A_cel*n_ser)) [1]",\
2321, 0.0, 0.0,1E+100,0.0,0,513)
@@ -35445,21 +35459,21 @@ DeclareVariable("electrical.generation.pVSystem[2].cellTemperature.T_NOCT", \
DeclareVariable("electrical.generation.pVSystem[2].cellTemperature.radNOCT", \
"Irradiance under NOCT conditions [W/m2]", 2340, 800, 0.0,0.0,0.0,0,513)
DeclareAlias2("electrical.generation.pVSystem[2].cellTemperature.T_a", \
-"Ambient temperature [K]", "building.weaBus.TDryBul", 1, 5, 8487, 0)
+"Ambient temperature [K]", "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("electrical.generation.pVSystem[2].cellTemperature.winVel", \
-"Wind velocity [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 0)
+"Wind velocity [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 0)
DeclareAlias2("electrical.generation.pVSystem[2].cellTemperature.eta", \
"Efficiency of the PV module under operating conditions [1]", "electrical.generation.pVSystem[2].iVCharacteristics.eta", 1,\
- 5, 9089, 0)
+ 5, 9052, 0)
DeclareAlias2("electrical.generation.pVSystem[2].cellTemperature.radTil", \
"Total solar irradiance on the tilted surface [W/m2]", "electrical.generation.pVSystem[2].iVCharacteristics.radTil", 1,\
- 5, 9092, 0)
+ 5, 9055, 0)
DeclareAlias2("electrical.generation.pVSystem[2].cellTemperature.T_c", \
"Cell temperature [K]", "electrical.generation.pVSystem[2].iVCharacteristics.T_c", 1,\
- 5, 9090, 0)
+ 5, 9053, 0)
DeclareAlias2("electrical.generation.pVSystem[2].DCOutputPower", \
"DC output power of the PV array [W]", "electrical.generation.sumOfPower.u[2]", 1,\
- 5, 9124, 0)
+ 5, 9087, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.lat",\
"Latitude [rad|deg]", 2341, 0.9116922633158369, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.lon",\
@@ -35502,27 +35516,27 @@ DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.tau_
"Transmittance at standard conditions (incAng=refAng=0) [1]", 2351, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.cloTim",\
- "Local clock time [s|h]", 9103, 0.0, 0.0,0.0,0.0,0,512)
+ "Local clock time [s|h]", 9066, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay",\
- "Day number with units of seconds [s]", 8325, 0.0, 0.0,0.0,0.0,0,640)
+ "Day number with units of seconds [s]", 8285, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorBea",\
- "Beam solar radiation on the horizontal surface [W/m2]", 9104, 0.0, 0.0,0.0,0.0,\
+ "Beam solar radiation on the horizontal surface [W/m2]", 9067, 0.0, 0.0,0.0,0.0,\
0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHorDif",\
- "Diffuse solar radiation on the horizontal surface [W/m2]", 9105, 0.0, 0.0,0.0,\
+ "Diffuse solar radiation on the horizontal surface [W/m2]", 9068, 0.0, 0.0,0.0,\
0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.k_t",\
- "Clearness index [1]", 9106, 0.5, 0.0,0.0,0.0,0,512)
+ "Clearness index [1]", 9069, 0.5, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMas",\
- "Air mass [1]", 9107, 0.0, 0.0,1E+100,0.0,0,512)
+ "Air mass [1]", 9070, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.airMasMod",\
- "Air mass modifier [1]", 9108, 0.0, 0.0,1E+100,0.0,0,512)
+ "Air mass modifier [1]", 9071, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngGro",\
"Incidence angle for ground reflection [rad|deg]", 2352, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngDif",\
"Incidence angle for diffuse radiation [rad|deg]", 2353, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngMod",\
- "Incidence angle modifier [1]", 9109, 0.0, 0.0,1E+100,0.0,0,512)
+ "Incidence angle modifier [1]", 9072, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAngModGro",\
"Incidence angle modifier for ground refelction [1]", 2354, 0.0, 0.0,1E+100,0.0,\
0,513)
@@ -35530,14 +35544,14 @@ DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incA
"Incidence angle modifier for diffuse radiation [1]", 2355, 0.0, 0.0,1E+100,0.0,\
0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAng",\
- "Angle of refraction [rad|deg]", 9110, 0.0, 0.0,0.0,0.0,0,512)
+ "Angle of refraction [rad|deg]", 9073, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAngGro",\
"Angle of refraction for ground reflection [rad|deg]", 2356, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.refAngDif",\
"Angle of refraction for diffuse irradiation [rad|deg]", 2357, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.tau",\
- "Transmittance of the cover system [1]", 9111, 0.0, 0.0,1E+100,0.0,0,512)
+ "Transmittance of the cover system [1]", 9074, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.tau_ground",\
"Transmittance of the cover system for ground reflection [1]", 2358, 0.0, 0.0,\
1E+100,0.0,0,513)
@@ -35545,95 +35559,95 @@ DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.tau_
"Transmittance of the cover system for diffuse radiation [1]", 2359, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.R_b",\
- "Ratio of irradiance on tilted surface to horizontal surface [1]", 9112, 0.0, \
+ "Ratio of irradiance on tilted surface to horizontal surface [1]", 9075, 0.0, \
0.0,1E+100,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zen",\
- "Zenith angle [rad|deg]", 9113, 0.0, 0.0,0.0,0.0,0,512)
+ "Zenith angle [rad|deg]", 9076, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solHouAng.solTim",\
- "Solar time [s]", 9114, 0.0, 0.0,0.0,0.0,0,512)
+ "Solar time [s]", 9077, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solHouAng.solHouAng",\
- "Solar hour angle [rad|deg]", 9115, 0.0, 0.0,0.0,0.0,0,512)
+ "Solar hour angle [rad|deg]", 9078, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.weaDatStaTim",\
"Start time of weather data [s|d]", 821, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.weaDatEndTim",\
"End time of weather data [s|d]", 822, 31536000, 0.0,0.0,0.0,0,560)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.modTimAux",\
"Model time [s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.cloTim", 1,\
- 5, 9103, 0)
+ 5, 9066, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.calTimAux",\
- "Calendar time [s]", 9116, 0.0, 0.0,0.0,0.0,0,512)
+ "Calendar time [s]", 9079, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.lenWea",\
"Length of weather data [s]", 2360, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
2361, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.tNext",\
- "Start time of next period [s]", 8326, 0, 0.0,0.0,0.0,0,2704)
+ "Start time of next period [s]", 8286, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.cloTim",\
"Clock time [s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.cloTim", 1,\
- 5, 9103, 0)
+ 5, 9066, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.timZon",\
"Time zone [s|h]", 2362, 3600.0, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.lon",\
"Longitude [rad|deg]", 2363, 0.22757907099030072, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.locTim",\
- "Local civil time [s]", 9117, 0.0, 0.0,0.0,0.0,0,512)
+ "Local civil time [s]", 9080, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.diff",\
"Difference between local and clock time [s]", 2364, -470.5631344194285, \
0.0,0.0,0.0,0,2561)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solTim.locTim",\
"Local time [s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.locTim", 1,\
- 5, 9117, 0)
+ 5, 9080, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solTim.equTim",\
- "Equation of time [s]", 8327, 0.0, 0.0,0.0,0.0,0,640)
+ "Equation of time [s]", 8287, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solTim.solTim",\
"Solar time [s|s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solHouAng.solTim", 1,\
- 5, 9114, 0)
+ 5, 9077, 0)
DeclareParameter("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.weaDatStaTim",\
"Start time of weather data [s|d]", 823, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.weaDatEndTim",\
"End time of weather data [s|d]", 824, 31536000, 0.0,0.0,0.0,0,560)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.modTimAux",\
"Model time [s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay", 1,\
- 5, 8325, 0)
+ 5, 8285, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.calTimAux",\
- "Calendar time [s]", 8328, 0.0, 0.0,0.0,0.0,0,640)
+ "Calendar time [s]", 8288, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.lenWea",\
"Length of weather data [s]", 2365, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
2366, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.tNext",\
- "Start time of next period [s]", 8329, 0, 0.0,0.0,0.0,0,2704)
+ "Start time of next period [s]", 8289, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.nDay",\
"Zero-based day number in seconds (January 1=0, January 2=86400) [s]", \
-"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay", 1, 5, 8325, 0)
+"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay", 1, 5, 8285, 0)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.eqnTim",\
"Equation of time [s|min]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solTim.equTim", 1,\
- 5, 8327, 0)
+ 5, 8287, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.Bt",\
- "Intermediate variable", 8330, 0.0, 0.0,0.0,0.0,0,2688)
+ "Intermediate variable", 8290, 0.0, 0.0,0.0,0.0,0,2688)
DeclareParameter("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.weaDatStaTim",\
"Start time of weather data [s|d]", 825, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.weaDatEndTim",\
"End time of weather data [s|d]", 826, 31536000, 0.0,0.0,0.0,0,560)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.modTimAux",\
"Model time [s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay", 1,\
- 5, 8325, 0)
+ 5, 8285, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.calTimAux",\
- "Calendar time [s]", 8331, 0.0, 0.0,0.0,0.0,0,640)
+ "Calendar time [s]", 8291, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.lenWea",\
"Length of weather data [s]", 2367, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.canRepeatWeatherFile",\
"=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
2368, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.tNext",\
- "Start time of next period [s]", 8332, 0, 0.0,0.0,0.0,0,2704)
+ "Start time of next period [s]", 8292, 0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.nDay",\
"Day number with units of seconds [s]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.nDay", 1,\
- 5, 8325, 0)
+ 5, 8285, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.decAng",\
- "Solar declination angle [rad|deg]", 8333, 0.0, 0.0,0.0,0.0,0,640)
+ "Solar declination angle [rad|deg]", 8293, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.k1",\
"Constant", 2369, 0.3979486313076103, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.k2",\
@@ -35646,78 +35660,78 @@ DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incA
2372, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.solHouAng",\
"Solar hour angle [rad]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solHouAng.solHouAng", 1,\
- 5, 9115, 0)
+ 5, 9078, 0)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.decAng",\
"Declination [rad]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.decAng", 1,\
- 5, 8333, 0)
+ 5, 8293, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.incAng",\
- "Incidence angle on a tilted surface [rad|deg]", 9118, 0.0, 0.0,0.0,0.0,0,512)
+ "Incidence angle on a tilted surface [rad|deg]", 9081, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.lat",\
"Latitude [rad|deg]", 2373, 0.9116922633158369, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_c",\
- "Cosine of declination angle", 8334, 0.0, 0.0,0.0,0.0,0,2688)
+ "Cosine of declination angle", 8294, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.dec_s",\
- "Sine of declination angle", 8335, 0.0, 0.0,0.0,0.0,0,2688)
+ "Sine of declination angle", 8295, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.sol_c",\
- "Cosine of solar hour angle", 9119, 0.0, 0.0,0.0,0.0,0,2560)
+ "Cosine of solar hour angle", 9082, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.sol_s",\
- "Sine of solar hour angle", 9120, 0.0, 0.0,0.0,0.0,0,2560)
+ "Sine of solar hour angle", 9083, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.lat_c",\
"Cosine of latitude", 2374, 0.6124088231015443, 0.0,0.0,0.0,0,2561)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.incAng.lat_s",\
"Sine of latitude", 2375, 0.7905412281389133, 0.0,0.0,0.0,0,2561)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.solHouAng",\
"Solar hour angle [rad]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.solHouAng.solHouAng", 1,\
- 5, 9115, 0)
+ 5, 9078, 0)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.decAng",\
"Solar declination angle [rad]", "electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.decAng", 1,\
- 5, 8333, 0)
+ 5, 8293, 0)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.zen",\
- "Zenith angle [rad|deg]", 9121, 0.0, 0.0,0.0,0.0,0,512)
+ "Zenith angle [rad|deg]", 9084, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.zenAng.lat",\
"Latitude [rad|deg]", 2376, 0.9116922633158369, 0.0,0.0,0.0,0,513)
DeclareVariable("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.modTim.y",\
- "Model time", 9122, 0.0, 0.0,0.0,0.0,0,512)
+ "Model time", 9085, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radTil",\
"Total solar radiation on the tilted surface [W/m2]", "electrical.generation.pVSystem[2].iVCharacteristics.radTil", 1,\
- 5, 9092, 0)
+ 5, 9055, 0)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.absRadRat",\
"Ratio of absorbed radiation under operating conditions to standard conditions [1]",\
- "electrical.generation.pVSystem[2].iVCharacteristics.absRadRat", 1, 5, 9091, 0)
+ "electrical.generation.pVSystem[2].iVCharacteristics.absRadRat", 1, 5, 9054, 0)
DeclareAlias2("electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.radHor",\
"Total solar irradiance on the horizontal surface [W/m2]", "building.weaBus.HGloHor", 1,\
- 5, 8493, 0)
+ 5, 8456, 0)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.TDryBul", \
-"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8487, 4)
+"Dry bulb temperature [K|degC]", "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.TWetBul", \
-"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8488, 4)
+"Wet bulb temperature [K|degC]", "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.TDewPoi", \
-"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"Dew point temperature [K|degC]", "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.TBlaSky", \
-"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"Black-body sky temperature [K|degC]", "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.relHum", \
-"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Relative humidity [1]", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.HDirNor", \
-"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8492,\
+"Direct normal solar irradiation [W/m2]", "building.weaBus.HDirNor", 1, 5, 8455,\
4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.HGloHor", \
-"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8493,\
+"Global horizontal solar irradiation [W/m2]", "building.weaBus.HGloHor", 1, 5, 8456,\
4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.HDifHor", \
-"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8494,\
+"Diffuse horizontal solar irradiation [W/m2]", "building.weaBus.HDifHor", 1, 5, 8457,\
4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.HHorIR", \
-"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8495, 4)
+"Horizontal infrared irradiation [W/m2]", "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.winDir", \
-"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8496, 4)
+"Wind direction [rad|deg]", "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.winSpe", \
-"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8497, 4)
+"Wind speed [m/s]", "building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.ceiHei", \
-"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8498, 4)
+"Cloud cover ceiling height [m]", "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.nOpa", "Opaque sky cover [1]",\
- "building.weaBus.nOpa", 1, 5, 8499, 4)
+ "building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.nTot", "Total sky cover [1]",\
- "building.weaBus.nTot", 1, 5, 8500, 4)
+ "building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("electrical.generation.pVSystem[2].weaBus.lat", "Latitude of the location [rad|deg]",\
2377, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.generation.pVSystem[2].weaBus.lon", "Longitude of the location [rad|deg]",\
@@ -35725,25 +35739,25 @@ DeclareVariable("electrical.generation.pVSystem[2].weaBus.lon", "Longitude of th
DeclareVariable("electrical.generation.pVSystem[2].weaBus.alt", "Location altitude above sea level [m]",\
2379, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.solAlt", \
-"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8501, 4)
+"Solar altitude angle [rad|deg]", "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.solDec", \
-"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8502, 4)
+"Solar declination angle [rad|deg]", "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.solHouAng", \
-"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8503, 4)
+"Solar hour angle [rad|deg]", "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.solZen", \
-"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8504, 4)
+"Solar zenith angle [rad|deg]", "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.solTim", \
-"Solar time [s]", "building.weaBus.solTim", 1, 5, 8505, 4)
+"Solar time [s]", "building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("electrical.generation.pVSystem[2].weaBus.cloTim", \
-"Model time [s]", "building.weaBus.cloTim", 1, 5, 8506, 4)
+"Model time [s]", "building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareVariable("electrical.generation.sumOfPower.nin", "Number of inputs [:#(type=Integer)]",\
2380, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("electrical.generation.sumOfPower.u[1]", "Connector of Real input signals [W]",\
- 9123, 0.0, 0.0,0.0,0.0,0,512)
+ 9086, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("electrical.generation.sumOfPower.u[2]", "Connector of Real input signals [W]",\
- 9124, 0.0, 0.0,0.0,0.0,0,512)
+ 9087, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("electrical.generation.sumOfPower.y", "Connector of Real output signal [W]",\
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 0)
DeclareParameter("electrical.generation.sumOfPower.k[1]", "Optional: sum coefficients",\
@@ -35849,13 +35863,13 @@ DeclareAlias2("electrical.distribution.internalElectricalPin[2].PElecGen", \
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 4)
DeclareAlias2("electrical.distribution.internalElectricalPin[3].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("electrical.distribution.internalElectricalPin[3].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2399, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("electrical.distribution.internalElectricalPin[4].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("electrical.distribution.internalElectricalPin[4].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2400, 0.0, 0.0,0.0,0.0,0,521)
@@ -35867,7 +35881,7 @@ DeclareVariable("electrical.distribution.internalElectricalPin[5].PElecGen", \
2402, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("electrical.distribution.internalElectricalPin[6].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "building.internalElectricalPin.PElecLoa", 1, 5, 8509, 4)
+ "building.internalElectricalPin.PElecLoa", 1, 5, 8472, 4)
DeclareVariable("electrical.distribution.internalElectricalPin[6].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2403, 0.0, 0.0,0.0,0.0,0,521)
@@ -35953,7 +35967,7 @@ DeclareVariable("electrical.distribution.multiSumElec.nPorts", "Number of ports
2416, 6, 0.0,0.0,0.0,0,517)
DeclareVariable("electrical.distribution.multiSumElec.internalElectricalPinOut.PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 9125, 0.0, 0.0,0.0,0.0,0,520)
+ 9088, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("electrical.distribution.multiSumElec.internalElectricalPinOut.PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 4)
@@ -35971,13 +35985,13 @@ DeclareAlias2("electrical.distribution.multiSumElec.internalElectricalPinIn[2].P
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 4)
DeclareAlias2("electrical.distribution.multiSumElec.internalElectricalPinIn[3].PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("electrical.distribution.multiSumElec.internalElectricalPinIn[3].PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2420, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("electrical.distribution.multiSumElec.internalElectricalPinIn[4].PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("electrical.distribution.multiSumElec.internalElectricalPinIn[4].PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2421, 0.0, 0.0,0.0,0.0,0,521)
@@ -35989,7 +36003,7 @@ DeclareVariable("electrical.distribution.multiSumElec.internalElectricalPinIn[5]
2423, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("electrical.distribution.multiSumElec.internalElectricalPinIn[6].PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "building.internalElectricalPin.PElecLoa", 1, 5, 8509, 4)
+ "building.internalElectricalPin.PElecLoa", 1, 5, 8472, 4)
DeclareVariable("electrical.distribution.multiSumElec.internalElectricalPinIn[6].PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2424, 0.0, 0.0,0.0,0.0,0,521)
@@ -35998,11 +36012,11 @@ DeclareParameter("electrical.distribution.elecConToRealSpl.reverse", \
0.0,0.0,0.0,0,562)
DeclareAlias2("electrical.distribution.elecConToRealSpl.PElecLoa", \
"Electrical power", "electrical.distribution.multiSumElec.internalElectricalPinOut.PElecLoa", 1,\
- 5, 9125, 0)
+ 5, 9088, 0)
DeclareAlias2("electrical.distribution.elecConToRealSpl.internalElectricalPin.PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
"electrical.distribution.multiSumElec.internalElectricalPinOut.PElecLoa", 1, 5,\
- 9125, 4)
+ 9088, 4)
DeclareAlias2("electrical.distribution.elecConToRealSpl.internalElectricalPin.PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 4)
@@ -36034,11 +36048,11 @@ DeclareAlias2("electrical.distribution.realToElecConJoi.realPassThroughGen.y", \
"Connector of Real output signal", "electricalGrid.PElecGen", 1, 3, 43, 0)
DeclareAlias2("electrical.distribution.add.u1", "Connector of Real input signal 1",\
"electrical.distribution.multiSumElec.internalElectricalPinOut.PElecLoa", 1, 5,\
- 9125, 0)
+ 9088, 0)
DeclareAlias2("electrical.distribution.add.u2", "Connector of Real input signal 2",\
"outputs.electrical.gen.PElePV.value", 1, 3, 40, 0)
DeclareVariable("electrical.distribution.add.y", "Connector of Real output signal",\
- 9126, 0.0, 0.0,0.0,0.0,0,512)
+ 9089, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("electrical.distribution.add.k1", "Gain of input signal 1", 836,\
1, 0.0,0.0,0.0,0,560)
DeclareParameter("electrical.distribution.add.k2", "Gain of input signal 2", 837,\
@@ -36052,15 +36066,15 @@ DeclareVariable("electrical.distribution.limiter.strict", "= true, if strict lim
DeclareVariable("electrical.distribution.limiter.homotopyType", "Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
2428, 2, 1.0,4.0,0.0,0,517)
DeclareAlias2("electrical.distribution.limiter.u", "Connector of Real input signal",\
- "electrical.distribution.add.y", 1, 5, 9126, 0)
+ "electrical.distribution.add.y", 1, 5, 9089, 0)
DeclareAlias2("electrical.distribution.limiter.y", "Connector of Real output signal",\
"electricalGrid.PElecLoa", 1, 3, 42, 0)
DeclareAlias2("electrical.distribution.limiter.simplifiedExpr", "Simplified expression for homotopy-based initialization",\
- "electrical.distribution.add.y", 1, 5, 9126, 1024)
+ "electrical.distribution.add.y", 1, 5, 9089, 1024)
DeclareAlias2("electrical.distribution.add1.u1", "Connector of Real input signal 1",\
"electricalGrid.PElecLoa", 1, 3, 42, 0)
DeclareAlias2("electrical.distribution.add1.u2", "Connector of Real input signal 2",\
- "electrical.distribution.add.y", 1, 5, 9126, 0)
+ "electrical.distribution.add.y", 1, 5, 9089, 0)
DeclareAlias2("electrical.distribution.add1.y", "Connector of Real output signal",\
"electricalGrid.PElecGen", 1, 3, 43, 0)
DeclareParameter("electrical.distribution.add1.k1", "Gain of input signal 1", 840,\
@@ -36078,45 +36092,45 @@ DeclareAlias2("electrical.control.distributionControlBus.PEleGen", \
DeclareAlias2("electrical.control.distributionControlBus.PEleLoa", \
"Value of Real output", "electricalGrid.PElecLoa", 1, 3, 42, 4)
DeclareAlias2("electrical.control.useProBus.TZoneSet[1]", "[K|degC]", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 4)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 4)
DeclareVariable("electrical.control.useProBus.intGains[1]", "Output signal connector",\
- 9127, 0.0, 0.0,0.0,0.0,0,520)
+ 9090, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("electrical.control.useProBus.intGains[2]", "Output signal connector",\
- 9128, 0.0, 0.0,0.0,0.0,0,520)
+ 9091, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("electrical.control.useProBus.intGains[3]", "Output signal connector",\
- 9129, 0.0, 0.0,0.0,0.0,0,520)
+ 9092, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("electrical.control.buiMeaBus.TZoneMea[1]", "[K|degC]", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("electrical.control.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9130, 0.0, 0.0,0.0,0.0,0,520)
+ 9093, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("electrical.control.weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("electrical.control.weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("electrical.control.weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("electrical.control.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("electrical.control.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("electrical.control.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("electrical.control.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("electrical.control.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("electrical.control.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("electrical.control.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("electrical.control.weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("electrical.control.weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("electrical.control.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("electrical.control.weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("electrical.control.weaBus.lat", "Latitude of the location [rad|deg]",\
2432, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.control.weaBus.lon", "Longitude of the location [rad|deg]",\
@@ -36124,47 +36138,47 @@ DeclareVariable("electrical.control.weaBus.lon", "Longitude of the location [rad
DeclareVariable("electrical.control.weaBus.alt", "Location altitude above sea level [m]",\
2434, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("electrical.control.weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("electrical.control.weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("electrical.control.weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("electrical.control.weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("electrical.control.weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("electrical.control.weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("electrical.control.weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
+"building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareAlias2("electrical.weaBus.TDryBul", "Dry bulb temperature [K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 4)
+"building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("electrical.weaBus.TWetBul", "Wet bulb temperature [K|degC]", \
-"building.weaBus.TWetBul", 1, 5, 8488, 4)
+"building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("electrical.weaBus.TDewPoi", "Dew point temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("electrical.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("electrical.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("electrical.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("electrical.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("electrical.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("electrical.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("electrical.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("electrical.weaBus.winSpe", "Wind speed [m/s]", "building.weaBus.winSpe", 1,\
- 5, 8497, 4)
+ 5, 8460, 4)
DeclareAlias2("electrical.weaBus.ceiHei", "Cloud cover ceiling height [m]", \
-"building.weaBus.ceiHei", 1, 5, 8498, 4)
+"building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("electrical.weaBus.nOpa", "Opaque sky cover [1]", "building.weaBus.nOpa", 1,\
- 5, 8499, 4)
+ 5, 8462, 4)
DeclareAlias2("electrical.weaBus.nTot", "Total sky cover [1]", "building.weaBus.nTot", 1,\
- 5, 8500, 4)
+ 5, 8463, 4)
DeclareVariable("electrical.weaBus.lat", "Latitude of the location [rad|deg]", 2435,\
0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.weaBus.lon", "Longitude of the location [rad|deg]", 2436,\
@@ -36172,25 +36186,25 @@ DeclareVariable("electrical.weaBus.lon", "Longitude of the location [rad|deg]",
DeclareVariable("electrical.weaBus.alt", "Location altitude above sea level [m]",\
2437, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("electrical.weaBus.pAtm", "Atmospheric pressure [Pa|bar]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("electrical.weaBus.solAlt", "Solar altitude angle [rad|deg]", \
-"building.weaBus.solAlt", 1, 5, 8501, 4)
+"building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("electrical.weaBus.solDec", "Solar declination angle [rad|deg]", \
-"building.weaBus.solDec", 1, 5, 8502, 4)
+"building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("electrical.weaBus.solHouAng", "Solar hour angle [rad|deg]", \
-"building.weaBus.solHouAng", 1, 5, 8503, 4)
+"building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("electrical.weaBus.solZen", "Solar zenith angle [rad|deg]", \
-"building.weaBus.solZen", 1, 5, 8504, 4)
+"building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("electrical.weaBus.solTim", "Solar time [s]", "building.weaBus.solTim", 1,\
- 5, 8505, 4)
+ 5, 8468, 4)
DeclareAlias2("electrical.weaBus.cloTim", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 4)
+ 5, 8469, 4)
DeclareVariable("electrical.internalElectricalPin[1].PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 9131, 0.0, 0.0,0.0,0.0,0,520)
+ 9094, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("electrical.internalElectricalPin[1].PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
2438, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.internalElectricalPin[2].PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 9132, 0.0, 0.0,0.0,0.0,0,520)
+ 9095, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("electrical.internalElectricalPin[2].PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
2439, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("electrical.internalElectricalPin[3].PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
@@ -36198,21 +36212,21 @@ DeclareVariable("electrical.internalElectricalPin[3].PElecLoa", "Electrical powe
DeclareVariable("electrical.internalElectricalPin[3].PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
2441, 0, 0.0,0.0,0.0,0,521)
DeclareAlias2("electrical.internalElectricalPin[4].PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "building.internalElectricalPin.PElecLoa", 1, 5, 8509, 4)
+ "building.internalElectricalPin.PElecLoa", 1, 5, 8472, 4)
DeclareVariable("electrical.internalElectricalPin[4].PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
2442, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("electrical.useProBus.TZoneSet[1]", "[K|degC]", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 4)
-DeclareVariable("electrical.useProBus.intGains[1]", "Output signal connector", 9133,\
+ 5, 8243, 4)
+DeclareVariable("electrical.useProBus.intGains[1]", "Output signal connector", 9096,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("electrical.useProBus.intGains[2]", "Output signal connector", 9134,\
+DeclareVariable("electrical.useProBus.intGains[2]", "Output signal connector", 9097,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("electrical.useProBus.intGains[3]", "Output signal connector", 9135,\
+DeclareVariable("electrical.useProBus.intGains[3]", "Output signal connector", 9098,\
0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("electrical.buiMeaBus.TZoneMea[1]", "[K|degC]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 4)
+ 5, 8470, 4)
DeclareVariable("electrical.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9136, 0.0, 0.0,0.0,0.0,0,520)
+ 9099, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("electrical.outBusElect.dis.PEleGen.value", "Current value [W]", \
"electricalGrid.PElecGen", 1, 3, 43, 4)
DeclareAlias2("electrical.outBusElect.dis.PEleGen.integral", "Integral of value [J]",\
@@ -36273,7 +36287,7 @@ DeclareVariable("hydraulic.subsystemDisabled", "To enable the icon if the subsys
DeclareVariable("hydraulic.use_dhw", "=false to disable DHW [:#(type=Boolean)]",\
2456, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.internalElectricalPin.PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("hydraulic.internalElectricalPin.PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
2457, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.hydraulicSystemParameters.nZones", "Number of zones supplied by hydraulic system [:#(type=Integer)]",\
@@ -36401,34 +36415,34 @@ DeclareVariable("hydraulic.generation.dpDem_nominal[1]", "Nominal pressure loss
DeclareVariable("hydraulic.generation.dpDemOld_design[1]", "Nominal design pressure loss of resistances in the old demand system of the generation [Pa|bar]",\
2515, 4000.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.sigBusGen.uPump", "Constant normalized rotational speed [1]",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 4)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 4)
DeclareAlias2("hydraulic.generation.sigBusGen.yHeaPumSet", "Relative compressor speed between 0 and 1",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 4)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 4)
DeclareAlias2("hydraulic.generation.sigBusGen.TGenOutMea", "Temperature of the passing fluid [K|degC]",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 4)
DeclareAlias2("hydraulic.generation.sigBusGen.heaPumIsOn", "=true if device is on [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.sigBusGen.uEleHea", "Control input [1]", \
-"hydraulic.control.swiSecGen.y", 1, 5, 8451, 4)
+"hydraulic.control.swiSecGen.y", 1, 5, 8414, 4)
DeclareAlias2("hydraulic.generation.sigBusGen.THeaPumEvaIn", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9197, 4)
+ "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9164, 4)
DeclareAlias2("hydraulic.generation.sigBusGen.THeaPumIn", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9196, 4)
+ "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9163, 4)
DeclareAlias2("hydraulic.generation.sigBusGen.THeaPumOut", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareVariable("hydraulic.generation.portGen_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 8336, 0, -100000.0,100000.0,0.0,0,904)
+ 8296, 0, -100000.0,100000.0,0.0,0,904)
DeclareVariable("hydraulic.generation.portGen_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 8337, 0.0, 0.0,100000000.0,100000.0,0,648)
+ 8297, 0.0, 0.0,100000000.0,100000.0,0,648)
DeclareVariable("hydraulic.generation.portGen_out[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9137, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9100, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareVariable("hydraulic.generation.portGen_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 8338, 0.0, -100000.0,100000.0,0.0,0,904)
+ 8298, 0.0, -100000.0,100000.0,0.0,0,904)
DeclareAlias2("hydraulic.generation.portGen_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 4)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 4)
DeclareVariable("hydraulic.generation.portGen_in[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9138, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9101, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.generation.outBusGen.QHeaPum_flow.value", \
"Current value [W]", "outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 4)
DeclareAlias2("hydraulic.generation.outBusGen.QHeaPum_flow.integral", \
@@ -36438,7 +36452,7 @@ DeclareAlias2("hydraulic.generation.outBusGen.PEleHeaPum.value", \
DeclareAlias2("hydraulic.generation.outBusGen.PEleHeaPum.integral", \
"Integral of value [J]", "hydraulic.generation.KPIWel.integrator2.y", 1, 1, 24, 4)
DeclareAlias2("hydraulic.generation.outBusGen.heaPum.numSwi", "Number of switches [:#(type=Integer)]",\
- "hydraulic.generation.KPIHeaPum.triggeredAdd.y", 1, 5, 8413, 70)
+ "hydraulic.generation.KPIHeaPum.triggeredAdd.y", 1, 5, 8376, 70)
DeclareAlias2("hydraulic.generation.outBusGen.heaPum.sinOnTim", "Time the device is on in a single on-cycle [s|h]",\
"hydraulic.generation.KPIHeaPum.integrator3.y", 1, 1, 28, 4)
DeclareAlias2("hydraulic.generation.outBusGen.heaPum.totOnTim", "Total time the device is on [s|h]",\
@@ -36454,39 +36468,39 @@ DeclareAlias2("hydraulic.generation.outBusGen.PEleEleHea.integral", \
"Integral of value [J]", "hydraulic.generation.KPIPEleEleHea.integrator2.y", 1, 1,\
34, 4)
DeclareAlias2("hydraulic.generation.outBusGen.eleHea.numSwi", "Number of switches [:#(type=Integer)]",\
- "hydraulic.generation.KPIEleHea.triggeredAdd.y", 1, 5, 8420, 70)
+ "hydraulic.generation.KPIEleHea.triggeredAdd.y", 1, 5, 8383, 70)
DeclareAlias2("hydraulic.generation.outBusGen.eleHea.sinOnTim", "Time the device is on in a single on-cycle [s|h]",\
"hydraulic.generation.KPIEleHea.integrator3.y", 1, 1, 31, 4)
DeclareAlias2("hydraulic.generation.outBusGen.eleHea.totOnTim", "Total time the device is on [s|h]",\
"hydraulic.generation.KPIEleHea.integrator1.y", 1, 1, 32, 4)
DeclareAlias2("hydraulic.generation.weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("hydraulic.generation.weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("hydraulic.generation.weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("hydraulic.generation.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("hydraulic.generation.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("hydraulic.generation.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("hydraulic.generation.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("hydraulic.generation.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("hydraulic.generation.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("hydraulic.generation.weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("hydraulic.generation.weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("hydraulic.generation.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("hydraulic.generation.weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("hydraulic.generation.weaBus.lat", "Latitude of the location [rad|deg]",\
2516, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.generation.weaBus.lon", "Longitude of the location [rad|deg]",\
@@ -36494,22 +36508,22 @@ DeclareVariable("hydraulic.generation.weaBus.lon", "Longitude of the location [r
DeclareVariable("hydraulic.generation.weaBus.alt", "Location altitude above sea level [m]",\
2518, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("hydraulic.generation.weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("hydraulic.generation.weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("hydraulic.generation.weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("hydraulic.generation.weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("hydraulic.generation.weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("hydraulic.generation.weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("hydraulic.generation.weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
+"building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareAlias2("hydraulic.generation.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("hydraulic.generation.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
2519, 0, 0.0,0.0,0.0,0,521)
@@ -36657,417 +36671,425 @@ DeclareParameter("hydraulic.generation.TSoilConst", "Constant soil temperature f
882, 283.15, 1.0,10000.0,300.0,0,560)
DeclareVariable("hydraulic.generation.use_rev", "=true if the heat pump is reversible [:#(type=Boolean)]",\
2548, true, 0.0,0.0,0.0,0,515)
+DeclareAlias2("hydraulic.generation.defCtrl.sigBus.icefacHPMea", "", \
+"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1, 5, 9110,\
+ 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.PEleMea", "Routing block that picks the component for electric power consumption [W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.QEva_flow", "Actual cooling heat flow rate removed from fluid 2 [W]",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 4)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.TConInMea", "Value of Real output [K|degC]",\
- "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9196, 4)
+ "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9163, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.TConOutMea", "Temperature of the condenser volume [K|degC]",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.TEvaInMea", "Value of Real output [K|degC]",\
- "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9197, 4)
+ "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9164, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.TEvaOutMea", "Temperature of the condenser volume [K|degC]",\
- "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 4)
-DeclareVariable("hydraulic.generation.defCtrl.sigBus.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
- 2549, true, 0.0,0.0,0.0,0,523)
+ "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.defCtrl.sigBus.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 69)
DeclareVariable("hydraulic.generation.defCtrl.sigBus.iceFacChiMea", \
-"Icing factor from 0 to 1 to estimate influence of icing [1]", 2550, 1.0, 0.0,\
+"Icing factor from 0 to 1 to estimate influence of icing [1]", 2549, 1.0, 0.0,\
1.0,0.0,0,521)
-DeclareAlias2("hydraulic.generation.defCtrl.sigBus.icefacHPMea", \
-"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.mConMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.mEvaMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.onOffMea", "[:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.relHum", "Connector of Real output signal",\
- "building.weaBus.relHum", 1, 5, 8491, 4)
+ "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.yMea", "Output for relative compressor speed from 0 to 1",\
- "hydraulic.generation.heatPump.hys.u", 1, 5, 9195, 4)
+ "hydraulic.generation.heatPump.hys.u", 1, 5, 9162, 4)
DeclareAlias2("hydraulic.generation.defCtrl.sigBus.ySet", "Relative compressor speed between 0 and 1",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 4)
-DeclareVariable("hydraulic.generation.defCtrl.hea", "Heating mode for heat pump [:#(type=Boolean)]",\
- 2551, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.defCtrl.booCon.k", "Constant output value [:#(type=Boolean)]",\
- 2552, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.defCtrl.booCon.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- 2553, true, 0.0,0.0,0.0,0,515)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 4)
+DeclareAlias2("hydraulic.generation.defCtrl.hea", "Heating mode for heat pump [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 65)
+DeclareParameter("hydraulic.generation.defCtrl.minIceFac", "Minimal allowed icing Factor to trigger the defrost",\
+ 883, 0.5, 0.0,0.0,0.0,0,560)
+DeclareVariable("hydraulic.generation.defCtrl.hys.uLow", "If y=true and u<uLow, switch to y=false",\
+ 2550, 0, 0.0,0.0,0.0,0,513)
+DeclareParameter("hydraulic.generation.defCtrl.hys.uHigh", "If y=false and u>uHigh, switch to y=true",\
+ 884, 0.99, 0.0,0.0,0.0,0,560)
+DeclareParameter("hydraulic.generation.defCtrl.hys.pre_y_start", \
+"Value of pre(y) at initial time [:#(type=Boolean)]", 885, true, 0.0,0.0,0.0,0,562)
+DeclareAlias2("hydraulic.generation.defCtrl.hys.u", "", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
+ 5, 9110, 0)
+DeclareVariable("hydraulic.generation.defCtrl.hys.y", "[:#(type=Boolean)]", 8299,\
+ false, 0.0,0.0,0.0,0,642)
+DeclareParameter("hydraulic.generation.defCtrl.derIceFac_min", "Minimal change of iceFac to be considered as increasing frost",\
+ 886, 1E-10, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.TConCoo_nominal", "Nominal temperature of the cooled fluid [K|degC]",\
- 883, 291.15, 0.0,1E+100,300.0,0,560)
+ 887, 291.15, 0.0,1E+100,300.0,0,560)
DeclareParameter("hydraulic.generation.TEvaCoo_nominal", "Nominal temperature of the heated fluid [K|degC]",\
- 884, 303.15, 0.0,1E+100,300.0,0,560)
+ 888, 303.15, 0.0,1E+100,300.0,0,560)
DeclareParameter("hydraulic.generation.QCoo_flow_nominal", "Nominal cooling capacity [W]",\
- 885, 0, 0.0,0.0,0.0,0,560)
+ 889, 0, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.heatPump.allowFlowReversal1", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 1 [:#(type=Boolean)]",\
- 2554, true, 0.0,0.0,0.0,0,515)
+ 2551, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.allowFlowReversal2", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 2 [:#(type=Boolean)]",\
- 2555, true, 0.0,0.0,0.0,0,515)
+ 2552, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.port_a1.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareVariable("hydraulic.generation.heatPump.port_a1.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 8339, 0.0, 0.0,100000000.0,100000.0,0,648)
+ 8300, 0.0, 0.0,100000000.0,100000.0,0,648)
DeclareVariable("hydraulic.generation.heatPump.port_a1.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9139, 83680.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9102, 83680.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.generation.heatPump.port_b1.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareVariable("hydraulic.generation.heatPump.port_b1.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 8340, 0.0, 0.0,100000000.0,100000.0,0,648)
+ 8301, 0.0, 0.0,100000000.0,100000.0,0,648)
DeclareAlias2("hydraulic.generation.heatPump.port_b1.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareAlias2("hydraulic.generation.heatPump.port_a2.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 132)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.port_a2.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 2556, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 2553, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareVariable("hydraulic.generation.heatPump.port_a2.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9140, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9103, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("hydraulic.generation.heatPump.port_a2.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareAlias2("hydraulic.generation.heatPump.port_b2.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 132)
+ "hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.port_b2.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 2557, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 2554, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.port_b2.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.port_b2.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareVariable("hydraulic.generation.heatPump.m1_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 2558, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 2555, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.m2_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 2559, 0.0, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 2556, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.m1_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 2560, 3.379347183446045E-05, 0.0,100000.0,0.0,0,513)
+ 2557, 3.379347183446045E-05, 0.0,100000.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.m2_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 2561, 0.0, 0.0,100000.0,0.0,0,513)
+ 2558, 0.0, 0.0,100000.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 2562, false, 0.0,0.0,0.0,0,1539)
+ 2559, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.heatPump.m1_flow", "Mass flow rate from port_a1 to port_b1 (m1_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.heatPump.dp1", "Pressure difference between port_a1 and port_b1 [Pa|Pa]",\
- 8341, 0.0, 0.0,0.0,0.0,0,640)
+ 8302, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.generation.heatPump.m2_flow", "Mass flow rate from port_a2 to port_b2 (m2_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 0)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 0)
DeclareVariable("hydraulic.generation.heatPump.dp2", "Pressure difference between port_a2 and port_b2 [Pa|Pa]",\
- 2563, 0.0, 0.0,0.0,0.0,0,513)
+ 2560, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.state_a1_inflow.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.heatPump.port_a1.p", 1,\
- 5, 8339, 1024)
+ 5, 8300, 1024)
DeclareVariable("hydraulic.generation.heatPump.state_a1_inflow.T", \
-"Temperature of medium [K|degC]", 9141, 293.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9104, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.state_b1_inflow.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 1024)
+ 5, 8301, 1024)
DeclareVariable("hydraulic.generation.heatPump.state_b1_inflow.T", \
-"Temperature of medium [K|degC]", 9142, 293.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9105, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.state_a2_inflow.p", \
-"Absolute pressure of medium [Pa|bar]", 2564, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 2561, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.state_a2_inflow.T", \
-"Temperature of medium [K|degC]", 9143, 293.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9106, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.state_a2_inflow.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"hydraulic.generation.bouEva.X[1]", 1, 7, 1067, 1024)
+"hydraulic.generation.bouEva.X[1]", 1, 7, 1073, 1024)
DeclareVariable("hydraulic.generation.heatPump.state_a2_inflow.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 2565, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 2562, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.state_b2_inflow.p", \
-"Absolute pressure of medium [Pa|bar]", 2566, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 2563, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.state_b2_inflow.T", \
-"Temperature of medium [K|degC]", 2567, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 2564, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareAlias2("hydraulic.generation.heatPump.state_b2_inflow.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"hydraulic.generation.bou_sinkAir.X[1]", 1, 7, 1064, 1024)
+"hydraulic.generation.bou_sinkAir.X[1]", 1, 7, 1070, 1024)
DeclareVariable("hydraulic.generation.heatPump.state_b2_inflow.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 2568, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 2565, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.use_rev", "True if the refrigerant machine is reversible [:#(type=Boolean)]",\
- 2569, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.sigBus.hea", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 2570, true, 0.0,0.0,0.0,\
-0,523)
+ 2566, true, 0.0,0.0,0.0,0,515)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.hea", \
+"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.PEleMea", \
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.QEva_flow", \
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.TConInMea", \
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.TConOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.TEvaInMea", \
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.TEvaOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
+ 5, 9149, 4)
DeclareVariable("hydraulic.generation.heatPump.refCyc.sigBus.iceFacChiMea", \
-"Icing factor from 0 to 1 to estimate influence of icing [1]", 2571, 1.0, 0.0,\
+"Icing factor from 0 to 1 to estimate influence of icing [1]", 2567, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.icefacHPMea", \
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.mConMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.mEvaMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.onOffMea", \
-"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.relHum", \
-"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.yMea", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.sigBus.ySet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.QCon_flow", "Heat flow rate from the refrigerant to the condenser medium [W]",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.QEva_flow", "Heat flow rate from the evaporator medium to the refrigerant [W]",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
-DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQEva.u1", \
-"Connector of first Real input signal [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 0)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.swiQEva.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 2572, true, 0.0,0.0,0.0,\
-0,515)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.swiQEva.u1", \
+"Connector of first Real input signal [W]", 9107, 0.0, 0.0,0.0,0.0,0,512)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQEva.u2", \
+"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 65)
DeclareVariable("hydraulic.generation.heatPump.refCyc.swiQEva.u3", \
-"Connector of second Real input signal [W]", 2573, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of second Real input signal [W]", 2568, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQEva.y", "Connector of Real output signal [W]",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
-DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQCon.u1", \
-"Connector of first Real input signal [W]", "outputs.hydraulic.gen.QHeaPum_flow.value", 1,\
- 3, 12, 0)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.swiQCon.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 2574, true, 0.0,0.0,0.0,\
-0,515)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.swiQCon.u3", \
-"Connector of second Real input signal [W]", 2575, 0.0, 0.0,0.0,0.0,0,513)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.swiQCon.u1", \
+"Connector of first Real input signal [W]", 9108, 0.0, 0.0,0.0,0.0,0,512)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQCon.u2", \
+"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 65)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQCon.u3", \
+"Connector of second Real input signal [W]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k", 1,\
+ 5, 2846, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiQCon.y", "Connector of Real output signal [W]",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.PEle", "Routing block that picks the component for electric power consumption [W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
-DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiPEle.u1", \
-"Connector of first Real input signal [W]", "outputs.hydraulic.gen.PEleHeaPum.value", 1,\
- 3, 14, 0)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.swiPEle.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 2576, true, 0.0,0.0,0.0,\
-0,515)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.swiPEle.u3", \
-"Connector of second Real input signal [W]", 2577, 0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.swiPEle.u1", \
+"Connector of first Real input signal [W]", 9109, 0.0, 0.0,0.0,0.0,0,512)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiPEle.u2", \
+"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 65)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiPEle.u3", \
+"Connector of second Real input signal [W]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k", 1,\
+ 5, 2845, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.swiPEle.y", "Connector of Real output signal [W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.pasTrhModSet.u", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 2578, true, 0.0,0.0,0.0,\
-0,2563)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.pasTrhModSet.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 2579, true, 0.0,0.0,0.0,\
-0,2563)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.pasTrhModSet.u", \
+"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 1089)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.pasTrhModSet.y", \
+"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 1089)
DeclareVariable("hydraulic.generation.heatPump.refCyc.allowDifferentDeviceIdentifiers",\
"if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde [:#(type=Boolean)]",\
- 2580, false, 0.0,0.0,0.0,0,515)
+ 2569, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.PEle_nominal",\
- "Nominal electrical power consumption [W]", 2581, 0.0, 0.0,0.0,0.0,0,513)
+ "Nominal electrical power consumption [W]", 2570, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TCon_nominal",\
- "Nominal temperature at secondary condenser side [K|degC]", 2582, 288.15, 0.0,\
+ "Nominal temperature at secondary condenser side [K|degC]", 2571, 288.15, 0.0,\
1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.TEva_nominal",\
- "Nominal temperature at secondary evaporator side [K|degC]", 2583, 271.15, 0.0,\
+ "Nominal temperature at secondary evaporator side [K|degC]", 2572, 271.15, 0.0,\
1E+100,300.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.hea",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 2584, true, 0.0,0.0,0.0,\
-0,523)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.hea",\
+ "Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.QEva_flow",\
- "Input signal connector", "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 4)
+ "Input signal connector", "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.onOffMea",\
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 69)
+ 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.TEvaInMea",\
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.relHum",\
- "Input relative humidity of outdoor air", "building.weaBus.relHum", 1, 5, 8491,\
+ "Input relative humidity of outdoor air", "building.weaBus.relHum", 1, 5, 8454,\
4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.PEleMea",\
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.TConInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.TConOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.TEvaOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
+ 5, 9149, 4)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 2585, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 2573, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.icefacHPMea",\
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.mConMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.mEvaMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.yMea",\
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.sigBus.ySet",\
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 9144, 0.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 9110, 0.0, 0.0,\
1.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.use_varDen",\
"=true to use variable density based on PT1 Element, e.g. Korn et al. [:#(type=Boolean)]",\
- 2586, false, 0.0,0.0,0.0,0,515)
+ 2574, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.A",\
- "Area of heat exchanger, all fins from both sides [m2]", 2587, 15, 0.0,0.0,0.0,\
+ "Area of heat exchanger, all fins from both sides [m2]", 2575, 15, 0.0,0.0,0.0,\
0,513)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.natConvCoeff",\
- "Parameter to be calibrated for natural defrost [m/(s.K)]", 886, 1E-07, \
+ "Parameter to be calibrated for natural defrost [m/(s.K)]", 890, 1E-07, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.hWatFus",\
- "Fusion enthalpy of water [J/kg]", 887, 333500.0, 0.0,0.0,0.0,0,560)
+ "Fusion enthalpy of water [J/kg]", 891, 333500.0, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.den_constant",\
- "Constant density of frost [kg/m3|g/cm3]", 2588, 918, 0.0,1E+100,0.0,0,513)
+ "Constant density of frost [kg/m3|g/cm3]", 2576, 918, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.k",\
- "Gain [1]", 888, 3.77, 0.0,0.0,0.0,0,560)
+ "Gain [1]", 892, 3.77, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.T",\
- "Time Constant [s]", 889, 8000, 0.0,0.0,0.0,0,560)
+ "Time Constant [s]", 893, 8000, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.den_min",\
- "Minimal density [kg/m3]", 890, 50, 0.0,0.0,0.0,0,560)
+ "Minimal density [kg/m3]", 894, 50, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.mIce_max",\
"Maximal possible mass of ice on HE surface. This value is limited by the volume between the fin tube [kg]",\
- 2589, 20.655, 0.0,1E+100,0.0,0,513)
+ 2577, 20.655, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.d",\
"Distance between two fins. Used to calculate the maximal mass of ice on the HE [m]",\
- 2590, 0.003, 0.0,1E+100,0.0,0,513)
+ 2578, 0.003, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatFor_internal.y",\
- "Value of Real output", 9145, 0.0, 0.0,0.0,0.0,0,512)
+ "Value of Real output", 9111, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatNat_internal.y",\
- "Value of Real output", 9146, 0.0, 0.0,0.0,0.0,0,512)
+ "Value of Real output", 9112, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u1",\
"Connector of first Real input signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatFor_internal.y", 1,\
- 5, 9145, 0)
-DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 65)
+ 5, 9111, 0)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2",\
+ "Connector of Boolean input signal [:#(type=Boolean)]", 8303, false, 0.0,0.0,\
+0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u3",\
"Connector of second Real input signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.groRatNat_internal.y", 1,\
- 5, 9146, 0)
+ 5, 9112, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.y",\
- "Connector of Real output signal", 9147, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal", 9113, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1",\
- "Connector of first Real input signal", 9148, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 2591, true, 0.0,0.0,0.0,\
-0,515)
+ "Connector of first Real input signal", 9114, 0.0, 0.0,0.0,0.0,0,512)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u2",\
+ "Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 65)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u3",\
- "Connector of second Real input signal", 9149, 0.0, 0.0,0.0,0.0,0,512)
-DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y",\
- "Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1", 1,\
- 5, 9148, 0)
+ "Connector of second Real input signal", 9115, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y",\
+ "Connector of Real output signal", 9116, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.k",\
- "Gain value multiplied with input signal [1]", 2592, 15, 0.0,0.0,0.0,0,513)
+ "Gain value multiplied with input signal [1]", 2579, 15, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.u",\
"Input signal connector", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.y", 1,\
- 5, 9147, 0)
+ 5, 9113, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.y",\
- "Output signal connector", 9150, 0.0, 0.0,0.0,0.0,0,512)
+ "Output signal connector", 9117, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u1",\
- "Connector of Real input signal 1", 9151, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real input signal 1", 9118, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u2",\
- "Connector of Real input signal 2", 8342, 0.0, 0.0,0.0,0.0,0,640)
+ "Connector of Real input signal 2", 8304, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u3", 1,\
- 5, 9149, 0)
+ 5, 9115, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.k",\
- "Gain value multiplied with input signal [1]", 2593, 1, 0.0,0.0,0.0,0,513)
+ "Gain value multiplied with input signal [1]", 2580, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.u",\
- "Input signal connector", "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
+ "Input signal connector", "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiWatFus.y",\
"Output signal connector", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u1", 1,\
- 5, 9151, 0)
+ 5, 9118, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u1",\
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 65)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u2",\
- "Connector of second Boolean input signal [:#(type=Boolean)]", 2594, true, \
-0.0,0.0,0.0,0,515)
+ 5, 8355, 65)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.u2",\
+ "Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 65)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.and1.y",\
- "Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 65)
+ "Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2", 1,\
+ 5, 8303, 65)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.k",\
- "Gain value multiplied with input signal [1]", 2595, 0.04841442749939482, \
+ "Gain value multiplied with input signal [1]", 2581, 0.04841442749939482, \
0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.u",\
"Input signal connector", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce", 1,\
1, 20, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.y",\
- "Output signal connector", 9152, 0.0, 0.0,0.0,0.0,0,512)
+ "Output signal connector", 9119, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.u1",\
- "Connector of Real input signal 1", 2596, 1, 0.0,0.0,0.0,0,513)
+ "Connector of Real input signal 1", 2582, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.divIceMax.y", 1,\
- 5, 9152, 0)
+ 5, 9119, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 0)
+ 5, 9110, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.k1",\
- "Gain of input signal 1", 2597, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 2583, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen2.k2",\
- "Gain of input signal 2", 2598, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 2584, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.conOne.k",\
- "Constant output value", 2599, 1, 0.0,0.0,0.0,0,513)
+ "Constant output value", 2585, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.conOne.y",\
- "Connector of Real output signal", 2600, 1.0, 0.0,0.0,0.0,0,513)
+ "Connector of Real output signal", 2586, 1.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.denCoe_internal.y",\
"Value of Real output", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiDenCoeff.u2", 1,\
- 5, 8342, 0)
+ 5, 8304, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.reaPasThrTOda.u",\
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.reaPasThrTOda.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.proAGroRatDen.u1",\
- "Connector of Real input signal 1", 2601, 918, 0.0,0.0,0.0,0,513)
+ "Connector of Real input signal 1", 2587, 918, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.proAGroRatDen.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.gaiADen.y", 1,\
- 5, 9150, 0)
+ 5, 9117, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.proAGroRatDen.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1", 1,\
- 5, 9148, 0)
+ 5, 9114, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.conDen.k",\
- "Constant output value", 2602, 918, 0.0,0.0,0.0,0,513)
+ "Constant output value", 2588, 918, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.conDen.y",\
- "Connector of Real output signal", 2603, 918.0, 0.0,0.0,0.0,0,513)
+ "Connector of Real output signal", 2589, 918.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce_max",\
- "Maximal ice mass [kg]", 2604, 20.655, 0.0,1E+100,0.0,0,513)
+ "Maximal ice mass [kg]", 2590, 20.655, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIceGro",\
- "Ice growth rate [kg/s]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.u1", 1,\
- 5, 9148, 0)
+ "Ice growth rate [kg/s]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.swiMFloIce.y", 1,\
+ 5, 9116, 0)
DeclareState("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.mIce",\
"Ice mass [kg]", 20, 0, 0.0,20.655,0.0,0,560)
DeclareDerivative("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.der(mIce)",\
@@ -37076,2095 +37098,2114 @@ DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.ic
"Internal growth rate to keep mass in limits [kg/s]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceMassIntegrator.der(mIce)", 1,\
6, 20, 1024)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.corCoeffSev",\
- "Correction coefficient for severe zone", 891, 0.18, 0.0,0.0,0.0,0,560)
+ "Correction coefficient for severe zone", 895, 0.18, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.corCoeffMod",\
- "Correction coefficient for moderate zone", 892, 0.08, 0.0,0.0,0.0,0,560)
+ "Correction coefficient for moderate zone", 896, 0.08, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.corCoeffMil",\
- "Correction coefficient for mild zone", 893, 0.08, 0.0,0.0,0.0,0,560)
+ "Correction coefficient for mild zone", 897, 0.08, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.defrostEfficiency",\
- "Defrost efficiency", 894, 0.65, 0.0,0.0,0.0,0,560)
+ "Defrost efficiency", 898, 0.65, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHum",\
- "Input relative humidity of outdoor air", "building.weaBus.relHum", 1, 5, 8491,\
+ "Input relative humidity of outdoor air", "building.weaBus.relHum", 1, 5, 8454,\
0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.zon",\
- "Frosting zon (0=no, 1=mild, 2=moderate, 3=severe) [:#(type=Integer)]", 8343, 0,\
+ "Frosting zon (0=no, 1=mild, 2=moderate, 3=severe) [:#(type=Integer)]", 8305, 0,\
0.0,0.0,0.0,0,644)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.TOda",\
- "Outdoor air temperature", "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9197,\
+ "Outdoor air temperature", "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9164,\
0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumSev",\
- "Relative humidity above which is severe frosting", 9153, 0.0, 0.0,0.0,0.0,0,512)
+ "Relative humidity above which is severe frosting", 9120, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMod",\
- "Relative humidity above which is moderate frosting", 9154, 0.0, 0.0,0.0,0.0,0,512)
+ "Relative humidity above which is moderate frosting", 9121, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.relHumMil",\
- "Relative humidity above which is mild frosting", 9155, 0.0, 0.0,0.0,0.0,0,512)
+ "Relative humidity above which is mild frosting", 9122, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_severe[1]",\
- "", 895, 0.824762543, 0.0,0.0,0.0,0,2608)
+ "", 899, 0.824762543, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_severe[2]",\
- "", 896, -0.0190727602, 0.0,0.0,0.0,0,2608)
+ "", 900, -0.0190727602, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_severe[3]",\
- "", 897, 0.00119709272, 0.0,0.0,0.0,0,2608)
+ "", 901, 0.00119709272, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_severe[4]",\
- "", 898, 2.15230362E-05, 0.0,0.0,0.0,0,2608)
+ "", 902, 2.15230362E-05, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_moderate[1]",\
- "", 899, 0.581825389, 0.0,0.0,0.0,0,2608)
+ "", 903, 0.581825389, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_moderate[2]",\
- "", 900, -0.00880317871, 0.0,0.0,0.0,0,2608)
+ "", 904, -0.00880317871, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_moderate[3]",\
- "", 901, 0.000618167285, 0.0,0.0,0.0,0,2608)
+ "", 905, 0.000618167285, 0.0,0.0,0.0,0,2608)
+EndNonAlias(2)
+PreNonAliasNew(3)
+StartNonAlias(3)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_moderate[4]",\
- "", 902, -7.75483854E-07, 0.0,0.0,0.0,0,2608)
+ "", 906, -7.75483854E-07, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild[1]",\
- "", 903, 0.442929753, 0.0,0.0,0.0,0,2608)
+ "", 907, 0.442929753, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild[2]",\
- "", 904, -0.00703658239, 0.0,0.0,0.0,0,2608)
+ "", 908, -0.00703658239, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild[3]",\
- "", 905, 7.32505699E-05, 0.0,0.0,0.0,0,2608)
+ "", 909, 7.32505699E-05, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.coeff_mild[4]",\
- "", 906, -3.37264259E-06, 0.0,0.0,0.0,0,2608)
-EndNonAlias(2)
-PreNonAliasNew(3)
-StartNonAlias(3)
+ "", 910, -3.37264259E-06, 0.0,0.0,0.0,0,2608)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpCon", \
-"Evaporator medium specific heat capacity [J/(kg.K)]", 2605, 4184.0, 0.0,0.0,0.0,\
+"Evaporator medium specific heat capacity [J/(kg.K)]", 2591, 4184.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.cpEva", \
-"Evaporator medium specific heat capacity [J/(kg.K)]", 2606, 0.0, 0.0,0.0,0.0,0,513)
+"Evaporator medium specific heat capacity [J/(kg.K)]", 2592, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.PEle", \
-"Electrical Power consumed by the device [W]", "outputs.hydraulic.gen.PEleHeaPum.value", 1,\
- 3, 14, 0)
+"Electrical Power consumed by the device [W]", "hydraulic.generation.heatPump.refCyc.swiPEle.u1", 1,\
+ 5, 9109, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QCon_flow", \
-"Heat flow rate through condenser [W]", "outputs.hydraulic.gen.QHeaPum_flow.value", 1,\
- 3, 12, 0)
+"Heat flow rate through condenser [W]", "hydraulic.generation.heatPump.refCyc.swiQCon.u1", 1,\
+ 5, 9108, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.icefacHPMea",\
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.yMea",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.hys.u", 1, 5,\
- 9195, 4)
+ 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.TEvaInMea",\
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.TConOutMea",\
- "Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+ "Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.PEleMea",\
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.QEva_flow",\
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.TConInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.TEvaOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.hea",\
- "=true for heating, =false for cooling [:#(type=Boolean)]", 2607, true, \
-0.0,0.0,0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.hea",\
+ "=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 2608, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 2593, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.mConMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.mEvaMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.onOffMea",\
- "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.relHum",\
- "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+ "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.sigBus.ySet",\
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QEva_flow", \
-"Heat flow rate through evaporator [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 0)
+"Heat flow rate through evaporator [W]", "hydraulic.generation.heatPump.refCyc.swiQEva.u1", 1,\
+ 5, 9107, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.u1",\
- "Connector of Real input signal 1", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 0)
+ "Connector of Real input signal 1", "hydraulic.generation.heatPump.refCyc.swiQEva.u1", 1,\
+ 5, 9107, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.u2",\
- "Connector of Real input signal 2", "outputs.hydraulic.gen.PEleHeaPum.value", 1,\
- 3, 14, 0)
+ "Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.swiPEle.u1", 1,\
+ 5, 9109, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.y", \
-"Connector of Real output signal", "outputs.hydraulic.gen.QHeaPum_flow.value", 1,\
- 3, 12, 0)
+"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.swiQCon.u1", 1,\
+ 5, 9108, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k1",\
- "Gain of input signal 1", 2609, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 2594, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.redQCon.k2",\
- "Gain of input signal 2", 2610, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 2595, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.proRedQEva.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 0)
+ 5, 9110, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.proRedQEva.u2",\
- "Connector of Real input signal 2", 9156, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real input signal 2", 9123, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.proRedQEva.y",\
- "Connector of Real output signal", "hydraulic.generation.heatPump.Q2_flow", 1, 5,\
- 9161, 0)
+ "Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.swiQEva.u1", 1,\
+ 5, 9107, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QHea_flow_nominal",\
- "Nominal heating capacity [W]", 2611, 10198.759001371853, 0.0,0.0,0.0,0,513)
+ "Nominal heating capacity [W]", 2596, 10198.759001371853, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.useInHeaPum",\
- "=false to indicate that this model is used in a chiller [:#(type=Boolean)]", 2612,\
+ "=false to indicate that this model is used in a chiller [:#(type=Boolean)]", 2597,\
true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u1",\
- "Commanded input", "outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
+ "Commanded input", "hydraulic.generation.heatPump.refCyc.swiPEle.u1", 1, 5, 9109,\
+ 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u2",\
- "Feedback input", 9157, 0.0, 0.0,0.0,0.0,0,512)
+ "Feedback input", 9124, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.y",\
"", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.proRedQEva.u2", 1, 5,\
- 9156, 0)
+ 9123, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFac", \
-"Scaling factor", 2613, 0.0, 0.0,0.0,0.0,0,513)
+"Scaling factor", 2598, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_nominal",\
- "Nominal mass flow rate in secondary condenser side [kg/s]", 2614, 0.0, \
+ "Nominal mass flow rate in secondary condenser side [kg/s]", 2599, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_nominal",\
- "Nominal mass flow rate in secondary evaporator side [kg/s]", 2615, 0.0, \
+ "Nominal mass flow rate in secondary evaporator side [kg/s]", 2600, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.smoothness",\
"Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 2616, 1, 1.0,6.0,0.0,0,517)
+ 2601, 1, 1.0,6.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.extrapolation",\
"Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 2617, 2, 1.0,4.0,0.0,0,517)
+ 2602, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.use_TEvaOutForTab",\
"=true to use evaporator outlet temperature, false for inlet [:#(type=Boolean)]",\
- 2618, false, 0.0,0.0,0.0,0,515)
+ 2603, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.use_TConOutForTab",\
"=true to use condenser outlet temperature, false for inlet [:#(type=Boolean)]",\
- 2619, true, 0.0,0.0,0.0,0,515)
+ 2604, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u1",\
"Connector of Real input signal 1 [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 0)
+ 5, 9134, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u2",\
"Connector of Real input signal 2 [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.y",\
- "Connector of Real output signal [W]", 9158, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal [W]", 9125, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableOnFile",\
"= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
- 2620, false, 0.0,0.0,0.0,0,515)
+ 2605, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2621, 0.0, 0.0,0.0,0.0,0,513)
+ 2606, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2622, 0.0, 0.0,0.0,0.0,0,513)
+ 2607, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2623, 0.0, 0.0,0.0,0.0,0,513)
+ 2608, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2624, 0.0, 0.0,0.0,0.0,0,513)
+ 2609, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2625, 0.0, 0.0,0.0,0.0,0,513)
+ 2610, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2626, 0.0, 0.0,0.0,0.0,0,513)
+ 2611, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2627, 0.0, 0.0,0.0,0.0,0,513)
+ 2612, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2628, 0.0, 0.0,0.0,0.0,0,513)
+ 2613, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2629, 0.0, 0.0,0.0,0.0,0,513)
+ 2614, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2630, 0.0, 0.0,0.0,0.0,0,513)
+ 2615, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2631, 0.0, 0.0,0.0,0.0,0,513)
+ 2616, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[1, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2632, 0.0, 0.0,0.0,0.0,0,513)
+ 2617, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2633, 0.0, 0.0,0.0,0.0,0,513)
+ 2618, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2634, 0.0, 0.0,0.0,0.0,0,513)
+ 2619, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2635, 0.0, 0.0,0.0,0.0,0,513)
+ 2620, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2636, 0.0, 0.0,0.0,0.0,0,513)
+ 2621, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2637, 0.0, 0.0,0.0,0.0,0,513)
+ 2622, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2638, 0.0, 0.0,0.0,0.0,0,513)
+ 2623, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2639, 0.0, 0.0,0.0,0.0,0,513)
+ 2624, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2640, 0.0, 0.0,0.0,0.0,0,513)
+ 2625, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2641, 0.0, 0.0,0.0,0.0,0,513)
+ 2626, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2642, 0.0, 0.0,0.0,0.0,0,513)
+ 2627, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2643, 0.0, 0.0,0.0,0.0,0,513)
+ 2628, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[2, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2644, 0.0, 0.0,0.0,0.0,0,513)
+ 2629, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2645, 0.0, 0.0,0.0,0.0,0,513)
+ 2630, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2646, 0.0, 0.0,0.0,0.0,0,513)
+ 2631, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2647, 0.0, 0.0,0.0,0.0,0,513)
+ 2632, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2648, 0.0, 0.0,0.0,0.0,0,513)
+ 2633, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2649, 0.0, 0.0,0.0,0.0,0,513)
+ 2634, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2650, 0.0, 0.0,0.0,0.0,0,513)
+ 2635, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2651, 0.0, 0.0,0.0,0.0,0,513)
+ 2636, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2652, 0.0, 0.0,0.0,0.0,0,513)
+ 2637, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2653, 0.0, 0.0,0.0,0.0,0,513)
+ 2638, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2654, 0.0, 0.0,0.0,0.0,0,513)
+ 2639, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2655, 0.0, 0.0,0.0,0.0,0,513)
+ 2640, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[3, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2656, 0.0, 0.0,0.0,0.0,0,513)
+ 2641, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2657, 0.0, 0.0,0.0,0.0,0,513)
+ 2642, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2658, 0.0, 0.0,0.0,0.0,0,513)
+ 2643, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2659, 0.0, 0.0,0.0,0.0,0,513)
+ 2644, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2660, 0.0, 0.0,0.0,0.0,0,513)
+ 2645, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2661, 0.0, 0.0,0.0,0.0,0,513)
+ 2646, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2662, 0.0, 0.0,0.0,0.0,0,513)
+ 2647, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2663, 0.0, 0.0,0.0,0.0,0,513)
+ 2648, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2664, 0.0, 0.0,0.0,0.0,0,513)
+ 2649, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2665, 0.0, 0.0,0.0,0.0,0,513)
+ 2650, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2666, 0.0, 0.0,0.0,0.0,0,513)
+ 2651, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2667, 0.0, 0.0,0.0,0.0,0,513)
+ 2652, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.table[4, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2668, 0.0, 0.0,0.0,0.0,0,513)
+ 2653, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.verboseRead",\
"= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
- 2669, true, 0.0,0.0,0.0,0,515)
+ 2654, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.smoothness",\
"Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 2670, 1, 1.0,6.0,0.0,0,517)
+ 2655, 1, 1.0,6.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.extrapolation",\
"Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 2671, 2, 1.0,4.0,0.0,0,517)
+ 2656, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.verboseExtrapolation",\
"= true, if warning messages are to be printed if table input is outside the definition range [:#(type=Boolean)]",\
- 2672, false, 0.0,0.0,0.0,0,515)
+ 2657, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u_min[1]",\
- "Minimum abscissa value defined in table", 2673, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimum abscissa value defined in table", 2658, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u_min[2]",\
- "Minimum abscissa value defined in table", 2674, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimum abscissa value defined in table", 2659, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u_max[1]",\
- "Maximum abscissa value defined in table", 2675, 0.0, 0.0,0.0,0.0,0,513)
+ "Maximum abscissa value defined in table", 2660, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.u_max[2]",\
- "Maximum abscissa value defined in table", 2676, 0.0, 0.0,0.0,0.0,0,513)
+ "Maximum abscissa value defined in table", 2661, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.tableID.id",\
- "[:#(type=Integer)]", 2677, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 2662, 0, 0.0,0.0,0.0,0,2565)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u1",\
"Connector of Real input signal 1 [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 0)
+ 5, 9134, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u2",\
"Connector of Real input signal 2 [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.y",\
- "Connector of Real output signal [W]", 9159, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal [W]", 9126, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableOnFile",\
"= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
- 2678, false, 0.0,0.0,0.0,0,515)
+ 2663, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2679, 0.0, 0.0,0.0,0.0,0,513)
+ 2664, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2680, 0.0, 0.0,0.0,0.0,0,513)
+ 2665, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2681, 0.0, 0.0,0.0,0.0,0,513)
+ 2666, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2682, 0.0, 0.0,0.0,0.0,0,513)
+ 2667, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2683, 0.0, 0.0,0.0,0.0,0,513)
+ 2668, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2684, 0.0, 0.0,0.0,0.0,0,513)
+ 2669, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2685, 0.0, 0.0,0.0,0.0,0,513)
+ 2670, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2686, 0.0, 0.0,0.0,0.0,0,513)
+ 2671, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2687, 0.0, 0.0,0.0,0.0,0,513)
+ 2672, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2688, 0.0, 0.0,0.0,0.0,0,513)
+ 2673, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2689, 0.0, 0.0,0.0,0.0,0,513)
+ 2674, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[1, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2690, 0.0, 0.0,0.0,0.0,0,513)
+ 2675, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2691, 0.0, 0.0,0.0,0.0,0,513)
+ 2676, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2692, 0.0, 0.0,0.0,0.0,0,513)
+ 2677, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2693, 0.0, 0.0,0.0,0.0,0,513)
+ 2678, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2694, 0.0, 0.0,0.0,0.0,0,513)
+ 2679, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2695, 0.0, 0.0,0.0,0.0,0,513)
+ 2680, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2696, 0.0, 0.0,0.0,0.0,0,513)
+ 2681, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2697, 0.0, 0.0,0.0,0.0,0,513)
+ 2682, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2698, 0.0, 0.0,0.0,0.0,0,513)
+ 2683, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2699, 0.0, 0.0,0.0,0.0,0,513)
+ 2684, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2700, 0.0, 0.0,0.0,0.0,0,513)
+ 2685, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2701, 0.0, 0.0,0.0,0.0,0,513)
+ 2686, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[2, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2702, 0.0, 0.0,0.0,0.0,0,513)
+ 2687, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2703, 0.0, 0.0,0.0,0.0,0,513)
+ 2688, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2704, 0.0, 0.0,0.0,0.0,0,513)
+ 2689, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2705, 0.0, 0.0,0.0,0.0,0,513)
+ 2690, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2706, 0.0, 0.0,0.0,0.0,0,513)
+ 2691, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2707, 0.0, 0.0,0.0,0.0,0,513)
+ 2692, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2708, 0.0, 0.0,0.0,0.0,0,513)
+ 2693, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2709, 0.0, 0.0,0.0,0.0,0,513)
+ 2694, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2710, 0.0, 0.0,0.0,0.0,0,513)
+ 2695, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2711, 0.0, 0.0,0.0,0.0,0,513)
+ 2696, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2712, 0.0, 0.0,0.0,0.0,0,513)
+ 2697, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2713, 0.0, 0.0,0.0,0.0,0,513)
+ 2698, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[3, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2714, 0.0, 0.0,0.0,0.0,0,513)
+ 2699, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 1]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2715, 0.0, 0.0,0.0,0.0,0,513)
+ 2700, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 2]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2716, 0.0, 0.0,0.0,0.0,0,513)
+ 2701, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 3]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2717, 0.0, 0.0,0.0,0.0,0,513)
+ 2702, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 4]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2718, 0.0, 0.0,0.0,0.0,0,513)
+ 2703, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 5]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2719, 0.0, 0.0,0.0,0.0,0,513)
+ 2704, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 6]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2720, 0.0, 0.0,0.0,0.0,0,513)
+ 2705, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 7]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2721, 0.0, 0.0,0.0,0.0,0,513)
+ 2706, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 8]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2722, 0.0, 0.0,0.0,0.0,0,513)
+ 2707, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 9]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2723, 0.0, 0.0,0.0,0.0,0,513)
+ 2708, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 10]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2724, 0.0, 0.0,0.0,0.0,0,513)
+ 2709, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 11]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2725, 0.0, 0.0,0.0,0.0,0,513)
+ 2710, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.table[4, 12]",\
"Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0, 0; 0, 1])",\
- 2726, 0.0, 0.0,0.0,0.0,0,513)
+ 2711, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.verboseRead",\
"= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
- 2727, true, 0.0,0.0,0.0,0,515)
+ 2712, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.smoothness",\
"Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 2728, 1, 1.0,6.0,0.0,0,517)
+ 2713, 1, 1.0,6.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.extrapolation",\
"Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 2729, 2, 1.0,4.0,0.0,0,517)
+ 2714, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.verboseExtrapolation",\
"= true, if warning messages are to be printed if table input is outside the definition range [:#(type=Boolean)]",\
- 2730, false, 0.0,0.0,0.0,0,515)
+ 2715, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u_min[1]",\
- "Minimum abscissa value defined in table", 2731, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimum abscissa value defined in table", 2716, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u_min[2]",\
- "Minimum abscissa value defined in table", 2732, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimum abscissa value defined in table", 2717, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u_max[1]",\
- "Maximum abscissa value defined in table", 2733, 0.0, 0.0,0.0,0.0,0,513)
+ "Maximum abscissa value defined in table", 2718, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.u_max[2]",\
- "Maximum abscissa value defined in table", 2734, 0.0, 0.0,0.0,0.0,0,513)
+ "Maximum abscissa value defined in table", 2719, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.tableID.id",\
- "[:#(type=Integer)]", 2735, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 2720, 0, 0.0,0.0,0.0,0,2565)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.yMeaTimScaFac.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.hys.u", 1, 5,\
- 9195, 0)
+ 9162, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.yMeaTimScaFac.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.constScaFac.k", 1,\
- 5, 2736, 0)
+ 5, 2721, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.yMeaTimScaFac.y",\
- "Connector of Real output signal", 9160, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal", 9127, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFacTimPel.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabPEle.y", 1,\
- 5, 9158, 0)
+ 5, 9125, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFacTimPel.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.yMeaTimScaFac.y", 1,\
- 5, 9160, 0)
+ 5, 9127, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFacTimPel.y",\
- "Connector of Real output signal", "outputs.hydraulic.gen.PEleHeaPum.value", 1,\
- 3, 14, 0)
+ "Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.swiPEle.u1", 1,\
+ 5, 9109, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFacTimQUse_flow.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabQUse_flow.y", 1,\
- 5, 9159, 0)
+ 5, 9126, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFacTimQUse_flow.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.yMeaTimScaFac.y", 1,\
- 5, 9160, 0)
+ 5, 9127, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.scaFacTimQUse_flow.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.feeHeaFloEva.u2", 1,\
- 5, 9157, 0)
+ 5, 9124, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.constScaFac.k",\
- "Constant output value", 2736, 1, 0.0,0.0,0.0,0,513)
+ "Constant output value", 2721, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.constScaFac.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.constScaFac.k", 1,\
- 5, 2736, 0)
+ 5, 2721, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.useInRevDev",\
- "=true to indicate usage in reversed operation [:#(type=Boolean)]", 2737, false,\
+ "=true to indicate usage in reversed operation [:#(type=Boolean)]", 2722, false,\
0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.numRow", \
-"Number of rows in table [:#(type=Integer)]", 2738, 4, 0.0,0.0,0.0,0,2565)
+"Number of rows in table [:#(type=Integer)]", 2723, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.numCol", \
-"Number of columns in table [:#(type=Integer)]", 2739, 12, 0.0,0.0,0.0,0,2565)
+"Number of columns in table [:#(type=Integer)]", 2724, 12, 0.0,0.0,0.0,0,2565)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.dTMin", \
-"Minimal temperature spread according to EN 14511 [K,]", 907, 3, 0.0,0.0,0.0,0,2608)
+"Minimal temperature spread according to EN 14511 [K,]", 911, 3, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.dTMax", \
-"Maximal temperature spread according to EN 14511 [K,]", 908, 10, 0.0,0.0,0.0,0,2608)
+"Maximal temperature spread according to EN 14511 [K,]", 912, 10, 0.0,0.0,0.0,0,2608)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 1]",\
- "Table with electrical power values only [W]", 2740, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2725, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 2]",\
- "Table with electrical power values only [W]", 2741, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2726, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 3]",\
- "Table with electrical power values only [W]", 2742, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2727, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 4]",\
- "Table with electrical power values only [W]", 2743, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2728, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 5]",\
- "Table with electrical power values only [W]", 2744, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2729, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 6]",\
- "Table with electrical power values only [W]", 2745, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2730, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 7]",\
- "Table with electrical power values only [W]", 2746, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2731, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 8]",\
- "Table with electrical power values only [W]", 2747, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2732, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 9]",\
- "Table with electrical power values only [W]", 2748, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2733, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 10]",\
- "Table with electrical power values only [W]", 2749, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2734, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[1, 11]",\
- "Table with electrical power values only [W]", 2750, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2735, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 1]",\
- "Table with electrical power values only [W]", 2751, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2736, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 2]",\
- "Table with electrical power values only [W]", 2752, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2737, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 3]",\
- "Table with electrical power values only [W]", 2753, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2738, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 4]",\
- "Table with electrical power values only [W]", 2754, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2739, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 5]",\
- "Table with electrical power values only [W]", 2755, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2740, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 6]",\
- "Table with electrical power values only [W]", 2756, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2741, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 7]",\
- "Table with electrical power values only [W]", 2757, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2742, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 8]",\
- "Table with electrical power values only [W]", 2758, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2743, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 9]",\
- "Table with electrical power values only [W]", 2759, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2744, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 10]",\
- "Table with electrical power values only [W]", 2760, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2745, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[2, 11]",\
- "Table with electrical power values only [W]", 2761, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2746, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 1]",\
- "Table with electrical power values only [W]", 2762, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2747, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 2]",\
- "Table with electrical power values only [W]", 2763, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2748, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 3]",\
- "Table with electrical power values only [W]", 2764, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2749, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 4]",\
- "Table with electrical power values only [W]", 2765, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2750, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 5]",\
- "Table with electrical power values only [W]", 2766, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2751, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 6]",\
- "Table with electrical power values only [W]", 2767, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2752, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 7]",\
- "Table with electrical power values only [W]", 2768, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2753, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 8]",\
- "Table with electrical power values only [W]", 2769, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2754, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 9]",\
- "Table with electrical power values only [W]", 2770, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2755, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 10]",\
- "Table with electrical power values only [W]", 2771, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2756, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabPEle[3, 11]",\
- "Table with electrical power values only [W]", 2772, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with electrical power values only [W]", 2757, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 1]",\
- "Table with condenser heat flow values only [W]", 2773, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2758, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 2]",\
- "Table with condenser heat flow values only [W]", 2774, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2759, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 3]",\
- "Table with condenser heat flow values only [W]", 2775, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2760, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 4]",\
- "Table with condenser heat flow values only [W]", 2776, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2761, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 5]",\
- "Table with condenser heat flow values only [W]", 2777, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2762, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 6]",\
- "Table with condenser heat flow values only [W]", 2778, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2763, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 7]",\
- "Table with condenser heat flow values only [W]", 2779, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2764, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 8]",\
- "Table with condenser heat flow values only [W]", 2780, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2765, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 9]",\
- "Table with condenser heat flow values only [W]", 2781, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2766, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 10]",\
- "Table with condenser heat flow values only [W]", 2782, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2767, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[1, 11]",\
- "Table with condenser heat flow values only [W]", 2783, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2768, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 1]",\
- "Table with condenser heat flow values only [W]", 2784, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2769, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 2]",\
- "Table with condenser heat flow values only [W]", 2785, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2770, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 3]",\
- "Table with condenser heat flow values only [W]", 2786, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2771, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 4]",\
- "Table with condenser heat flow values only [W]", 2787, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2772, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 5]",\
- "Table with condenser heat flow values only [W]", 2788, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2773, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 6]",\
- "Table with condenser heat flow values only [W]", 2789, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2774, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 7]",\
- "Table with condenser heat flow values only [W]", 2790, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2775, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 8]",\
- "Table with condenser heat flow values only [W]", 2791, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2776, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 9]",\
- "Table with condenser heat flow values only [W]", 2792, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2777, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 10]",\
- "Table with condenser heat flow values only [W]", 2793, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2778, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[2, 11]",\
- "Table with condenser heat flow values only [W]", 2794, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2779, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 1]",\
- "Table with condenser heat flow values only [W]", 2795, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2780, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 2]",\
- "Table with condenser heat flow values only [W]", 2796, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2781, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 3]",\
- "Table with condenser heat flow values only [W]", 2797, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2782, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 4]",\
- "Table with condenser heat flow values only [W]", 2798, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2783, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 5]",\
- "Table with condenser heat flow values only [W]", 2799, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2784, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 6]",\
- "Table with condenser heat flow values only [W]", 2800, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2785, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 7]",\
- "Table with condenser heat flow values only [W]", 2801, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2786, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 8]",\
- "Table with condenser heat flow values only [W]", 2802, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2787, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 9]",\
- "Table with condenser heat flow values only [W]", 2803, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2788, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 10]",\
- "Table with condenser heat flow values only [W]", 2804, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2789, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQCon_flow[3, 11]",\
- "Table with condenser heat flow values only [W]", 2805, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with condenser heat flow values only [W]", 2790, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 1]",\
- "Table with evaporator heat flow values only [W]", 2806, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2791, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 2]",\
- "Table with evaporator heat flow values only [W]", 2807, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2792, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 3]",\
- "Table with evaporator heat flow values only [W]", 2808, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2793, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 4]",\
- "Table with evaporator heat flow values only [W]", 2809, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2794, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 5]",\
- "Table with evaporator heat flow values only [W]", 2810, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2795, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 6]",\
- "Table with evaporator heat flow values only [W]", 2811, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2796, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 7]",\
- "Table with evaporator heat flow values only [W]", 2812, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2797, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 8]",\
- "Table with evaporator heat flow values only [W]", 2813, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2798, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 9]",\
- "Table with evaporator heat flow values only [W]", 2814, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2799, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 10]",\
- "Table with evaporator heat flow values only [W]", 2815, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2800, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[1, 11]",\
- "Table with evaporator heat flow values only [W]", 2816, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2801, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 1]",\
- "Table with evaporator heat flow values only [W]", 2817, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2802, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 2]",\
- "Table with evaporator heat flow values only [W]", 2818, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2803, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 3]",\
- "Table with evaporator heat flow values only [W]", 2819, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2804, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 4]",\
- "Table with evaporator heat flow values only [W]", 2820, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2805, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 5]",\
- "Table with evaporator heat flow values only [W]", 2821, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2806, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 6]",\
- "Table with evaporator heat flow values only [W]", 2822, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2807, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 7]",\
- "Table with evaporator heat flow values only [W]", 2823, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2808, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 8]",\
- "Table with evaporator heat flow values only [W]", 2824, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2809, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 9]",\
- "Table with evaporator heat flow values only [W]", 2825, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2810, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 10]",\
- "Table with evaporator heat flow values only [W]", 2826, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2811, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[2, 11]",\
- "Table with evaporator heat flow values only [W]", 2827, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2812, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 1]",\
- "Table with evaporator heat flow values only [W]", 2828, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2813, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 2]",\
- "Table with evaporator heat flow values only [W]", 2829, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2814, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 3]",\
- "Table with evaporator heat flow values only [W]", 2830, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2815, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 4]",\
- "Table with evaporator heat flow values only [W]", 2831, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2816, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 5]",\
- "Table with evaporator heat flow values only [W]", 2832, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2817, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 6]",\
- "Table with evaporator heat flow values only [W]", 2833, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2818, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 7]",\
- "Table with evaporator heat flow values only [W]", 2834, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2819, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 8]",\
- "Table with evaporator heat flow values only [W]", 2835, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2820, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 9]",\
- "Table with evaporator heat flow values only [W]", 2836, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2821, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 10]",\
- "Table with evaporator heat flow values only [W]", 2837, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2822, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.valTabQEva_flow[3, 11]",\
- "Table with evaporator heat flow values only [W]", 2838, 0.0, 0.0,0.0,0.0,0,2561)
+ "Table with evaporator heat flow values only [W]", 2823, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabIdeQUse_flow.id",\
- "[:#(type=Integer)]", 2839, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 2824, 0, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.tabIdePEle.id",\
- "[:#(type=Integer)]", 2840, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 2825, 0, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_min",\
- "Minimal evaporator mass flow rate [kg/s]", 2841, 0.0, 0.0,0.0,0.0,0,2561)
+ "Minimal evaporator mass flow rate [kg/s]", 2826, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mEva_flow_max",\
- "Maximal evaporator mass flow rate [kg/s]", 2842, 0.0, 0.0,0.0,0.0,0,2561)
+ "Maximal evaporator mass flow rate [kg/s]", 2827, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_min",\
- "Minimal evaporator mass flow rate [kg/s]", 2843, 0.0, 0.0,0.0,0.0,0,2561)
+ "Minimal evaporator mass flow rate [kg/s]", 2828, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.mCon_flow_max",\
- "Maximal evaporator mass flow rate [kg/s]", 2844, 0.0, 0.0,0.0,0.0,0,2561)
+ "Maximal evaporator mass flow rate [kg/s]", 2829, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.QHeaNoSca_flow_nominal",\
- "Unscaled nominal heating capacity [W]", 2845, 0.0, 0.0,0.0,0.0,0,513)
+ "Unscaled nominal heating capacity [W]", 2830, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 1]",\
- "Electrical power consumption table, T in K, Q_flow in W", 909, 0.0, 0.0,0.0,\
+ "Electrical power consumption table, T in K, Q_flow in W", 913, 0.0, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 2]",\
- "Electrical power consumption table, T in K, Q_flow in W", 910, 253.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 914, 253.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 3]",\
- "Electrical power consumption table, T in K, Q_flow in W", 911, 258.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 915, 258.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 4]",\
- "Electrical power consumption table, T in K, Q_flow in W", 912, 263.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 916, 263.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 5]",\
- "Electrical power consumption table, T in K, Q_flow in W", 913, 268.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 917, 268.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 6]",\
- "Electrical power consumption table, T in K, Q_flow in W", 914, 273.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 918, 273.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 7]",\
- "Electrical power consumption table, T in K, Q_flow in W", 915, 278.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 919, 278.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 8]",\
- "Electrical power consumption table, T in K, Q_flow in W", 916, 283.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 920, 283.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 9]",\
- "Electrical power consumption table, T in K, Q_flow in W", 917, 288.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 921, 288.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 10]",\
- "Electrical power consumption table, T in K, Q_flow in W", 918, 293.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 922, 293.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 11]",\
- "Electrical power consumption table, T in K, Q_flow in W", 919, 298.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 923, 298.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[1, 12]",\
- "Electrical power consumption table, T in K, Q_flow in W", 920, 303.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 924, 303.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 1]",\
- "Electrical power consumption table, T in K, Q_flow in W", 921, 308.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 925, 308.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 2]",\
- "Electrical power consumption table, T in K, Q_flow in W", 922, 3295.5, \
+ "Electrical power consumption table, T in K, Q_flow in W", 926, 3295.5, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 3]",\
- "Electrical power consumption table, T in K, Q_flow in W", 923, 3522.7, \
+ "Electrical power consumption table, T in K, Q_flow in W", 927, 3522.7, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 4]",\
- "Electrical power consumption table, T in K, Q_flow in W", 924, 3750.0, \
+ "Electrical power consumption table, T in K, Q_flow in W", 928, 3750.0, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 5]",\
- "Electrical power consumption table, T in K, Q_flow in W", 925, 3977.3, \
+ "Electrical power consumption table, T in K, Q_flow in W", 929, 3977.3, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 6]",\
- "Electrical power consumption table, T in K, Q_flow in W", 926, 4034.1, \
+ "Electrical power consumption table, T in K, Q_flow in W", 930, 4034.1, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 7]",\
- "Electrical power consumption table, T in K, Q_flow in W", 927, 4090.9, \
+ "Electrical power consumption table, T in K, Q_flow in W", 931, 4090.9, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 8]",\
- "Electrical power consumption table, T in K, Q_flow in W", 928, 4204.5, \
+ "Electrical power consumption table, T in K, Q_flow in W", 932, 4204.5, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 9]",\
- "Electrical power consumption table, T in K, Q_flow in W", 929, 4375.0, \
+ "Electrical power consumption table, T in K, Q_flow in W", 933, 4375.0, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 10]",\
- "Electrical power consumption table, T in K, Q_flow in W", 930, 4488.6, \
+ "Electrical power consumption table, T in K, Q_flow in W", 934, 4488.6, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 11]",\
- "Electrical power consumption table, T in K, Q_flow in W", 931, 4488.6, \
+ "Electrical power consumption table, T in K, Q_flow in W", 935, 4488.6, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[2, 12]",\
- "Electrical power consumption table, T in K, Q_flow in W", 932, 4545.5, \
+ "Electrical power consumption table, T in K, Q_flow in W", 936, 4545.5, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 1]",\
- "Electrical power consumption table, T in K, Q_flow in W", 933, 323.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 937, 323.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 2]",\
- "Electrical power consumption table, T in K, Q_flow in W", 934, 4659.1, \
+ "Electrical power consumption table, T in K, Q_flow in W", 938, 4659.1, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 3]",\
- "Electrical power consumption table, T in K, Q_flow in W", 935, 4886.4, \
+ "Electrical power consumption table, T in K, Q_flow in W", 939, 4886.4, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 4]",\
- "Electrical power consumption table, T in K, Q_flow in W", 936, 5113.6, \
+ "Electrical power consumption table, T in K, Q_flow in W", 940, 5113.6, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 5]",\
- "Electrical power consumption table, T in K, Q_flow in W", 937, 5227.3, \
+ "Electrical power consumption table, T in K, Q_flow in W", 941, 5227.3, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 6]",\
- "Electrical power consumption table, T in K, Q_flow in W", 938, 5511.4, \
+ "Electrical power consumption table, T in K, Q_flow in W", 942, 5511.4, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 7]",\
- "Electrical power consumption table, T in K, Q_flow in W", 939, 5568.2, \
+ "Electrical power consumption table, T in K, Q_flow in W", 943, 5568.2, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 8]",\
- "Electrical power consumption table, T in K, Q_flow in W", 940, 5738.6, \
+ "Electrical power consumption table, T in K, Q_flow in W", 944, 5738.6, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 9]",\
- "Electrical power consumption table, T in K, Q_flow in W", 941, 5909.1, \
+ "Electrical power consumption table, T in K, Q_flow in W", 945, 5909.1, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 10]",\
- "Electrical power consumption table, T in K, Q_flow in W", 942, 6022.7, \
+ "Electrical power consumption table, T in K, Q_flow in W", 946, 6022.7, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 11]",\
- "Electrical power consumption table, T in K, Q_flow in W", 943, 6250.0, \
+ "Electrical power consumption table, T in K, Q_flow in W", 947, 6250.0, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[3, 12]",\
- "Electrical power consumption table, T in K, Q_flow in W", 944, 6477.3, \
+ "Electrical power consumption table, T in K, Q_flow in W", 948, 6477.3, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 1]",\
- "Electrical power consumption table, T in K, Q_flow in W", 945, 338.15, \
+ "Electrical power consumption table, T in K, Q_flow in W", 949, 338.15, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 2]",\
- "Electrical power consumption table, T in K, Q_flow in W", 946, 0.0, 0.0,0.0,\
+ "Electrical power consumption table, T in K, Q_flow in W", 950, 0.0, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 3]",\
- "Electrical power consumption table, T in K, Q_flow in W", 947, 6875.0, \
+ "Electrical power consumption table, T in K, Q_flow in W", 951, 6875.0, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 4]",\
- "Electrical power consumption table, T in K, Q_flow in W", 948, 7159.1, \
+ "Electrical power consumption table, T in K, Q_flow in W", 952, 7159.1, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 5]",\
- "Electrical power consumption table, T in K, Q_flow in W", 949, 7500.0, \
+ "Electrical power consumption table, T in K, Q_flow in W", 953, 7500.0, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 6]",\
- "Electrical power consumption table, T in K, Q_flow in W", 950, 7727.3, \
+ "Electrical power consumption table, T in K, Q_flow in W", 954, 7727.3, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 7]",\
- "Electrical power consumption table, T in K, Q_flow in W", 951, 7897.7, \
+ "Electrical power consumption table, T in K, Q_flow in W", 955, 7897.7, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 8]",\
- "Electrical power consumption table, T in K, Q_flow in W", 952, 7954.5, \
+ "Electrical power consumption table, T in K, Q_flow in W", 956, 7954.5, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 9]",\
- "Electrical power consumption table, T in K, Q_flow in W", 953, 7954.5, \
+ "Electrical power consumption table, T in K, Q_flow in W", 957, 7954.5, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 10]",\
- "Electrical power consumption table, T in K, Q_flow in W", 954, 8181.8, \
+ "Electrical power consumption table, T in K, Q_flow in W", 958, 8181.8, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 11]",\
- "Electrical power consumption table, T in K, Q_flow in W", 955, 8409.1, \
+ "Electrical power consumption table, T in K, Q_flow in W", 959, 8409.1, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabPEle[4, 12]",\
- "Electrical power consumption table, T in K, Q_flow in W", 956, 8579.5, \
+ "Electrical power consumption table, T in K, Q_flow in W", 960, 8579.5, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.mCon_flow_nominal",\
- "Nominal mass flow rate in condenser [kg/s]", 957, 0.3684210526315789, 0.0,0.0,\
+ "Nominal mass flow rate in condenser [kg/s]", 961, 0.3684210526315789, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.mEva_flow_nominal",\
- "Nominal mass flow rate in evaporator [kg/s]", 958, 1, 0.0,0.0,0.0,0,560)
+ "Nominal mass flow rate in evaporator [kg/s]", 962, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.dpCon_nominal",\
- "Nominal pressure drop in condenser [Pa|Pa]", 959, 0, 0.0,0.0,0.0,0,560)
+ "Nominal pressure drop in condenser [Pa|Pa]", 963, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.dpEva_nominal",\
- "Nominal pressure drop in evaporator [Pa|Pa]", 960, 0, 0.0,0.0,0.0,0,560)
+ "Nominal pressure drop in evaporator [Pa|Pa]", 964, 0, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TEvaOutForTab",\
"=true to use evaporator outlet temperature for table data, false for inlet [:#(type=Boolean)]",\
- 2846, false, 0.0,0.0,0.0,0,515)
+ 2831, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TConOutForTab",\
"=true to use condenser outlet temperature for table data, false for inlet [:#(type=Boolean)]",\
- 2847, true, 0.0,0.0,0.0,0,515)
+ 2832, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 1]",\
- "Heating output table, T in K, Q_flow in W", 961, 0.0, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 965, 0.0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 2]",\
- "Heating output table, T in K, Q_flow in W", 962, 253.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 966, 253.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 3]",\
- "Heating output table, T in K, Q_flow in W", 963, 258.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 967, 258.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 4]",\
- "Heating output table, T in K, Q_flow in W", 964, 263.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 968, 263.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 5]",\
- "Heating output table, T in K, Q_flow in W", 965, 268.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 969, 268.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 6]",\
- "Heating output table, T in K, Q_flow in W", 966, 273.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 970, 273.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 7]",\
- "Heating output table, T in K, Q_flow in W", 967, 278.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 971, 278.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 8]",\
- "Heating output table, T in K, Q_flow in W", 968, 283.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 972, 283.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 9]",\
- "Heating output table, T in K, Q_flow in W", 969, 288.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 973, 288.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 10]",\
- "Heating output table, T in K, Q_flow in W", 970, 293.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 974, 293.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 11]",\
- "Heating output table, T in K, Q_flow in W", 971, 298.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 975, 298.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[1, 12]",\
- "Heating output table, T in K, Q_flow in W", 972, 303.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 976, 303.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 1]",\
- "Heating output table, T in K, Q_flow in W", 973, 308.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 977, 308.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 2]",\
- "Heating output table, T in K, Q_flow in W", 974, 9204.5, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 978, 9204.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 3]",\
- "Heating output table, T in K, Q_flow in W", 975, 11136.4, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 979, 11136.4, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 4]",\
- "Heating output table, T in K, Q_flow in W", 976, 11477.3, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 980, 11477.3, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 5]",\
- "Heating output table, T in K, Q_flow in W", 977, 12215.9, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 981, 12215.9, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 6]",\
- "Heating output table, T in K, Q_flow in W", 978, 13863.6, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 982, 13863.6, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 7]",\
- "Heating output table, T in K, Q_flow in W", 979, 15056.8, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 983, 15056.8, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 8]",\
- "Heating output table, T in K, Q_flow in W", 980, 16931.8, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 984, 16931.8, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 9]",\
- "Heating output table, T in K, Q_flow in W", 981, 19090.9, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 985, 19090.9, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 10]",\
- "Heating output table, T in K, Q_flow in W", 982, 21250.0, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 986, 21250.0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 11]",\
- "Heating output table, T in K, Q_flow in W", 983, 21477.3, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 987, 21477.3, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[2, 12]",\
- "Heating output table, T in K, Q_flow in W", 984, 21761.4, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 988, 21761.4, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 1]",\
- "Heating output table, T in K, Q_flow in W", 985, 323.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 989, 323.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 2]",\
- "Heating output table, T in K, Q_flow in W", 986, 10795.5, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 990, 10795.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 3]",\
- "Heating output table, T in K, Q_flow in W", 987, 11988.6, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 991, 11988.6, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 4]",\
- "Heating output table, T in K, Q_flow in W", 988, 12215.9, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 992, 12215.9, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 5]",\
- "Heating output table, T in K, Q_flow in W", 989, 13068.2, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 993, 13068.2, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 6]",\
- "Heating output table, T in K, Q_flow in W", 990, 14545.5, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 994, 14545.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 7]",\
- "Heating output table, T in K, Q_flow in W", 991, 15681.8, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 995, 15681.8, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 8]",\
- "Heating output table, T in K, Q_flow in W", 992, 17613.6, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 996, 17613.6, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 9]",\
- "Heating output table, T in K, Q_flow in W", 993, 20284.1, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 997, 20284.1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 10]",\
- "Heating output table, T in K, Q_flow in W", 994, 22500.0, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 998, 22500.0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 11]",\
- "Heating output table, T in K, Q_flow in W", 995, 23181.8, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 999, 23181.8, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[3, 12]",\
- "Heating output table, T in K, Q_flow in W", 996, 23863.6, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1000, 23863.6, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 1]",\
- "Heating output table, T in K, Q_flow in W", 997, 338.15, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1001, 338.15, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 2]",\
- "Heating output table, T in K, Q_flow in W", 998, 0.0, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1002, 0.0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 3]",\
- "Heating output table, T in K, Q_flow in W", 999, 12954.5, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1003, 12954.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 4]",\
- "Heating output table, T in K, Q_flow in W", 1000, 13465.9, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1004, 13465.9, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 5]",\
- "Heating output table, T in K, Q_flow in W", 1001, 14431.8, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1005, 14431.8, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 6]",\
- "Heating output table, T in K, Q_flow in W", 1002, 15965.9, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1006, 15965.9, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 7]",\
- "Heating output table, T in K, Q_flow in W", 1003, 17386.4, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1007, 17386.4, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 8]",\
- "Heating output table, T in K, Q_flow in W", 1004, 19204.5, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1008, 19204.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 9]",\
- "Heating output table, T in K, Q_flow in W", 1005, 21250.0, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1009, 21250.0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 10]",\
- "Heating output table, T in K, Q_flow in W", 1006, 22897.7, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1010, 22897.7, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 11]",\
- "Heating output table, T in K, Q_flow in W", 1007, 23863.6, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1011, 23863.6, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabQCon_flow[4, 12]",\
- "Heating output table, T in K, Q_flow in W", 1008, 24886.4, 0.0,0.0,0.0,0,560)
+ "Heating output table, T in K, Q_flow in W", 1012, 24886.4, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabUppBou[1, 1]",\
- "Points to define upper boundary for sink temperature", 1009, 253.15, 0.0,0.0,\
+ "Points to define upper boundary for sink temperature", 1013, 253.15, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabUppBou[1, 2]",\
- "Points to define upper boundary for sink temperature", 1010, 328.15, 0.0,0.0,\
+ "Points to define upper boundary for sink temperature", 1014, 328.15, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabUppBou[2, 1]",\
- "Points to define upper boundary for sink temperature", 1011, 268.15, 0.0,0.0,\
+ "Points to define upper boundary for sink temperature", 1015, 268.15, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabUppBou[2, 2]",\
- "Points to define upper boundary for sink temperature", 1012, 338.15, 0.0,0.0,\
+ "Points to define upper boundary for sink temperature", 1016, 338.15, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabUppBou[3, 1]",\
- "Points to define upper boundary for sink temperature", 1013, 308.15, 0.0,0.0,\
+ "Points to define upper boundary for sink temperature", 1017, 308.15, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.tabUppBou[3, 2]",\
- "Points to define upper boundary for sink temperature", 1014, 338.15, 0.0,0.0,\
+ "Points to define upper boundary for sink temperature", 1018, 338.15, 0.0,0.0,\
0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TEvaOutForOpeEnv",\
"=true to use evaporator outlet temperature for operational envelope, false for inlet [:#(type=Boolean)]",\
- 1015, false, 0.0,0.0,0.0,0,562)
+ 1019, false, 0.0,0.0,0.0,0,562)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.datTab.use_TConOutForOpeEnv",\
"=true to use condenser outlet temperature for operational envelope, false for inlet [:#(type=Boolean)]",\
- 1016, true, 0.0,0.0,0.0,0,562)
+ 1020, true, 0.0,0.0,0.0,0,562)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.reaPasThrTEvaIn.u",\
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.reaPasThrTEvaIn.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.reaPasThrTConOut.u",\
- "Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+ "Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
0)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.reaPasThrTConOut.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5,\
- 9167, 0)
+ 9134, 0)
DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle_nominal",\
- "Nominal electrical power consumption [W]", 1017, 0, 0.0,0.0,0.0,0,560)
+ "Nominal electrical power consumption [W]", 1021, 2000, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TCon_nominal",\
- "Nominal temperature at secondary condenser side [K|degC]", 2848, 288.15, 0.0,\
+ "Nominal temperature at secondary condenser side [K|degC]", 2833, 288.15, 0.0,\
1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.TEva_nominal",\
- "Nominal temperature at secondary evaporator side [K|degC]", 2849, 288.15, 0.0,\
+ "Nominal temperature at secondary evaporator side [K|degC]", 2834, 288.15, 0.0,\
1E+100,300.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.PEleMea",\
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.QEva_flow",\
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.TConInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.TConOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.TEvaInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.TEvaOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.hea",\
- "=true for heating, =false for cooling [:#(type=Boolean)]", 2850, true, \
-0.0,0.0,0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.hea",\
+ "=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 2851, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 2835, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.icefacHPMea",\
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.mConMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.mEvaMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.onOffMea",\
- "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.relHum",\
- "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+ "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.yMea",\
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.sigBus.ySet",\
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.iceFacCal.iceFac",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 2852, 1, 0.0,1.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 2836, 1, 0.0,1.0,\
0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpCon", \
-"Evaporator medium specific heat capacity [J/(kg.K)]", 2853, 4184.0, 0.0,0.0,0.0,\
+"Evaporator medium specific heat capacity [J/(kg.K)]", 2837, 4184.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.cpEva", \
-"Evaporator medium specific heat capacity [J/(kg.K)]", 2854, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle", \
-"Electrical Power consumed by the device [W]", 2855, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCon_flow",\
- "Heat flow rate through condenser [W]", 2856, 0.0, 0.0,0.0,0.0,0,513)
+"Evaporator medium specific heat capacity [J/(kg.K)]", 2838, 0.0, 0.0,0.0,0.0,0,513)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.PEle", \
+"Electrical Power consumed by the device [W]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k", 1,\
+ 5, 2845, 0)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCon_flow", \
+"Heat flow rate through condenser [W]", "hydraulic.generation.heatPump.refCyc.swiQEva.u3", 1,\
+ 5, 2568, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 2857, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 2839, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.PEleMea",\
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.QEva_flow",\
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.TConInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.TConOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.TEvaInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.TEvaOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.hea",\
- "=true for heating, =false for cooling [:#(type=Boolean)]", 2858, true, \
-0.0,0.0,0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.hea",\
+ "=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.icefacHPMea",\
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.mConMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.mEvaMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.onOffMea",\
- "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.relHum",\
- "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+ "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.yMea",\
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.sigBus.ySet",\
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QEva_flow",\
- "Heat flow rate through evaporator [W]", 2859, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u1",\
- "Connector of Real input signal 1", 2860, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u2",\
- "Connector of Real input signal 2", 2861, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.y",\
- "Connector of Real output signal", 2862, 0.0, 0.0,0.0,0.0,0,513)
+ 5, 9202, 4)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QEva_flow", \
+"Heat flow rate through evaporator [W]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k", 1,\
+ 5, 2846, 0)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u1",\
+ "Connector of Real input signal 1", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k", 1,\
+ 5, 2846, 0)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.u2",\
+ "Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k", 1,\
+ 5, 2845, 0)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.y", \
+"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.swiQEva.u3", 1,\
+ 5, 2568, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k1",\
- "Gain of input signal 1", 2863, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 2840, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.redQCon.k2",\
- "Gain of input signal 2", 2864, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 2841, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u1",\
- "Connector of Real input signal 1", 2865, 1.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2",\
- "Connector of Real input signal 2", 2866, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y",\
- "Connector of Real output signal", 2867, 0.0, 0.0,0.0,0.0,0,513)
+ "Connector of Real input signal 1", 2842, 1.0, 0.0,0.0,0.0,0,513)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.u2",\
+ "Connector of Real input signal 2", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k", 1,\
+ 5, 2846, 0)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.proRedQEva.y",\
+ "Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k", 1,\
+ 5, 2846, 0)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.QCoo_flow_nominal",\
- "Nominal cooling capacity [W]", 2868, 0.0, 0.0,0.0,0.0,0,513)
+ "Nominal cooling capacity [W]", 2843, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.useInChi",\
"=false to indicate that this model is used as a heat pump [:#(type=Boolean)]",\
- 2869, false, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.k", \
-"Constant output value", 2870, 0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.const.y", \
-"Connector of Real output signal", 2871, 0.0, 0.0,0.0,0.0,0,513)
+ 2844, false, 0.0,0.0,0.0,0,515)
+DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.COP_constant",\
+ "COP during defrost (useful side is the evaporator)", 1022, 6.25, 0.0,0.0,0.0,0,560)
+DeclareParameter("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.y_constant",\
+ "Constant defrost compressor speed", 1023, 0.275, 0.0,0.0,0.0,0,560)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k",\
+ "Constant output value", 2845, 1, 0.0,0.0,0.0,0,513)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.y", \
+"Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conPEle.k", 1,\
+ 5, 2845, 0)
+DeclareVariable("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k",\
+ "Constant output value", 2846, 1, 0.0,0.0,0.0,0,513)
+DeclareAlias2("hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.y",\
+ "Connector of Real output signal", "hydraulic.generation.heatPump.refCyc.refCycHeaPumCoo.conQEva_flow.k", 1,\
+ 5, 2846, 0)
DeclareVariable("hydraulic.generation.heatPump.PEle_nominal", "Nominal electrical power consumption [W]",\
- 2872, 0.0, 0.0,0.0,0.0,0,513)
+ 2847, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.use_rev", "=true if the chiller or heat pump is reversible [:#(type=Boolean)]",\
- 2873, true, 0.0,0.0,0.0,0,515)
+ 2848, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.heatPump.allowDifferentDeviceIdentifiers",\
"if use_rev=true, device data for cooling and heating need to entered. Set allowDifferentDeviceIdentifiers=true to allow different device identifiers devIde [:#(type=Boolean)]",\
- 1018, true, 0.0,0.0,0.0,0,562)
+ 1024, true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.generation.heatPump.tauCon", "Condenser heat transfer time constant at nominal flow [s]",\
- 2874, 0.0, 0.0,0.0,0.0,0,513)
+ 2849, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.dTCon_nominal", "Nominal temperature difference in condenser medium, used to calculate mass flow rate [K,]",\
- 2875, 10.0, 0.0,0.0,0.0,0,513)
+ 2850, 10.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.mCon_flow_nominal", \
-"Nominal mass flow rate of the condenser medium [kg/s]", 2876, 0.3379347183446045,\
+"Nominal mass flow rate of the condenser medium [kg/s]", 2851, 0.3379347183446045,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.dpCon_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 2877, 125, 0.0,0.0,0.0,0,513)
+ 2852, 125, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.deltaMCon", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 2878, 0.1, 0.0,0.0,0.0,0,513)
+ 2853, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.use_conCap", "=true if using capacitor model for condenser heat loss estimation [:#(type=Boolean)]",\
- 2879, false, 0.0,0.0,0.0,0,515)
+ 2854, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.CCon", "Heat capacity of the condenser [J/K]",\
- 2880, 0.0, 0.0,0.0,0.0,0,513)
+ 2855, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.GConOut", "Outer thermal conductance for condenser heat loss calculations [W/K]",\
- 2881, 0.0, 0.0,0.0,0.0,0,513)
+ 2856, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.GConIns", "Inner thermal conductance for condenser heat loss calculations [W/K]",\
- 2882, 0.0, 0.0,0.0,0.0,0,513)
+ 2857, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.rhoCon", "Condenser medium density [kg/m3|g/cm3]",\
- 2883, 995.586, 0.0,1E+100,0.0,0,513)
+ 2858, 995.586, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.cpCon", "Condenser medium specific heat capacity [J/(kg.K)]",\
- 2884, 4184, 0.0,0.0,0.0,0,513)
+ 2859, 4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.tauEva", "Evaporator heat transfer time constant at nominal flow [s]",\
- 2885, 0.0, 0.0,0.0,0.0,0,513)
+ 2860, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.dTEva_nominal", "Nominal temperature difference in evaporator medium, used to calculate mass flow rate [K,]",\
- 2886, 0.0, 0.0,0.0,0.0,0,513)
+ 2861, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.mEva_flow_nominal", \
-"Nominal mass flow rate of the evaporator medium [kg/s]", 2887, 0.0, 0.0,0.0,0.0,\
+"Nominal mass flow rate of the evaporator medium [kg/s]", 2862, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.heatPump.dpEva_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 2888, 0, 0.0,0.0,0.0,0,513)
+ 2863, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.deltaMEva", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 2889, 0.1, 0.0,0.0,0.0,0,513)
+ 2864, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.use_evaCap", "=true if using capacitor model for evaporator heat loss estimation [:#(type=Boolean)]",\
- 2890, false, 0.0,0.0,0.0,0,515)
+ 2865, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.CEva", "Heat capacity of the evaporator [J/K]",\
- 2891, 0.0, 0.0,0.0,0.0,0,513)
+ 2866, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.GEvaOut", "Outer thermal conductance for evaporator heat loss calculations [W/K]",\
- 2892, 0.0, 0.0,0.0,0.0,0,513)
+ 2867, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.GEvaIns", "Inner thermal conductance for evaporator heat loss calculations [W/K]",\
- 2893, 0.0, 0.0,0.0,0.0,0,513)
+ 2868, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.rhoEva", "Evaporator medium density [kg/m3|g/cm3]",\
- 2894, 0.0, 0.0,1E+100,0.0,0,513)
+ 2869, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.cpEva", "Evaporator medium specific heat capacity [J/(kg.K)]",\
- 2895, 0.0, 0.0,0.0,0.0,0,513)
+ 2870, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.use_intSafCtr", "=true to enable internal safety control [:#(type=Boolean)]",\
- 2896, true, 0.0,0.0,0.0,0,515)
+ 2871, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_minOnTime", \
-"=false to ignore minimum on-time constraint [:#(type=Boolean)]", 2897, true, \
+"=false to ignore minimum on-time constraint [:#(type=Boolean)]", 2872, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.minOnTime", \
-"Mimimum on-time [s]", 2898, 0.0, 0.0,0.0,0.0,0,513)
+"Mimimum on-time [s]", 2873, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.ySetRed", \
-"Reduced relative compressor speed to allow longer on-time [1]", 2899, 0.0, \
+"Reduced relative compressor speed to allow longer on-time [1]", 2874, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_minOffTime", \
-"=false to ignore minimum off time [:#(type=Boolean)]", 2900, true, 0.0,0.0,0.0,\
+"=false to ignore minimum off time [:#(type=Boolean)]", 2875, true, 0.0,0.0,0.0,\
0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.minOffTime", \
-"Minimum off time [s]", 2901, 0.0, 0.0,0.0,0.0,0,513)
+"Minimum off time [s]", 2876, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_maxCycRat", \
-"=false to ignore maximum cycle rate constraint [:#(type=Boolean)]", 2902, true,\
+"=false to ignore maximum cycle rate constraint [:#(type=Boolean)]", 2877, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.maxCycRat", \
-"Maximum cycle rate [:#(type=Integer)]", 2903, 0, 0.0,0.0,0.0,0,517)
+"Maximum cycle rate [:#(type=Integer)]", 2878, 0, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.onOffMea_start", \
"Start value for the on-off signal of the device, true for on [:#(type=Boolean)]",\
- 2904, false, 0.0,0.0,0.0,0,515)
+ 2879, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_opeEnv", \
-"=true to use a the operational envelope [:#(type=Boolean)]", 2905, true, \
+"=true to use a the operational envelope [:#(type=Boolean)]", 2880, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabUppHea[1, 1]", \
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 2906, 288.15, 0.0,1E+100,300.0,0,513)
+ 2881, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabUppHea[1, 2]", \
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 2907, 288.15, 0.0,1E+100,300.0,0,513)
+ 2882, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabUppHea[2, 1]", \
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 2908, 288.15, 0.0,1E+100,300.0,0,513)
+ 2883, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabUppHea[2, 2]", \
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 2909, 288.15, 0.0,1E+100,300.0,0,513)
+ 2884, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabLowCoo[1, 1]", \
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 2910, 288.15, 0.0,1E+100,300.0,0,513)
+ 2885, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabLowCoo[1, 2]", \
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 2911, 288.15, 0.0,1E+100,300.0,0,513)
+ 2886, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabLowCoo[2, 1]", \
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 2912, 288.15, 0.0,1E+100,300.0,0,513)
+ 2887, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.tabLowCoo[2, 2]", \
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 2913, 288.15, 0.0,1E+100,300.0,0,513)
+ 2888, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.dTHysOpeEnv", \
-"Hysteresis for operational envelopes of both upper and lower boundaries [K,]", 2914,\
+"Hysteresis for operational envelopes of both upper and lower boundaries [K,]", 2889,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_TConOutHea", \
"=true to use condenser outlet temperature for envelope in heating mode, false for inlet [:#(type=Boolean)]",\
- 2915, true, 0.0,0.0,0.0,0,515)
+ 2890, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_TEvaOutHea", \
"=true to use evaporator outlet temperature for envelope in heating mode, false for inlet [:#(type=Boolean)]",\
- 2916, false, 0.0,0.0,0.0,0,515)
+ 2891, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_TConOutCoo", \
"=true to use useful side outlet temperature for envelope in cooling mode, false for inlet [:#(type=Boolean)]",\
- 2917, false, 0.0,0.0,0.0,0,515)
+ 2892, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_TEvaOutCoo", \
"=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet [:#(type=Boolean)]",\
- 2918, true, 0.0,0.0,0.0,0,515)
+ 2893, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_antFre", \
-"=true to enable antifreeze control [:#(type=Boolean)]", 2919, false, 0.0,0.0,\
+"=true to enable antifreeze control [:#(type=Boolean)]", 2894, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.TAntFre", \
-"Limit temperature for antifreeze control [K;degC]", 2920, 288.15, 0.0,1E+100,\
+"Limit temperature for antifreeze control [K;degC]", 2895, 288.15, 0.0,1E+100,\
300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.dTHysAntFre", \
-"Hysteresis interval width for antifreeze control [K,]", 2921, 0.0, 0.0,0.0,0.0,\
+"Hysteresis interval width for antifreeze control [K,]", 2896, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.use_minFlowCtr", \
-"=false to disable minimum mass flow rate requirements [:#(type=Boolean)]", 2922,\
+"=false to disable minimum mass flow rate requirements [:#(type=Boolean)]", 2897,\
true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.r_mEvaMinPer_flow", \
-"Percentage of mass flow rate in evaporator required to operate the device", 2923,\
+"Percentage of mass flow rate in evaporator required to operate the device", 2898,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtrPar.r_mConMinPer_flow", \
-"Percentage of mass flow rate in condenser required to operate the device", 2924,\
+"Percentage of mass flow rate in condenser required to operate the device", 2899,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.allowFlowReversalEva", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 2925, true, 0.0,0.0,0.0,0,515)
+ 2900, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.allowFlowReversalCon", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 2926, true, 0.0,0.0,0.0,0,515)
+ 2901, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.heatPump.initType", "Type of initialization for refrigerant cycle dynamics (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1019, 3, 1.0,4.0,0.0,0,564)
+ 1025, 3, 1.0,4.0,0.0,0,564)
DeclareVariable("hydraulic.generation.heatPump.pCon_start", "Start value of pressure [Pa|bar]",\
- 2927, 100000.0, 0.0,100000000.0,100000.0,0,513)
+ 2902, 100000.0, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.TCon_start", "Start value of temperature [K|degC]",\
- 2928, 288.15, 1.0,10000.0,300.0,0,513)
+ 2903, 288.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.TConCap_start", "Initial temperature of heat capacity of condenser [K|degC]",\
- 1020, 293.15, 0.0,1E+100,300.0,0,560)
+ 1026, 293.15, 0.0,1E+100,300.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.XCon_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1021, 1, 0.0,1.0,0.1,0,560)
+ 1027, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.heatPump.pEva_start", "Start value of pressure [Pa|bar]",\
- 2929, 101325, 0.0,100000000.0,100000.0,0,513)
+ 2904, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.TEva_start", "Start value of temperature [K|degC]",\
- 2930, 262.65, 1.0,10000.0,300.0,0,513)
+ 2905, 262.65, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.TEvaCap_start", "Initial temperature of heat capacity at evaporator [K|degC]",\
- 1022, 293.15, 0.0,1E+100,300.0,0,560)
+ 1028, 293.15, 0.0,1E+100,300.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.XEva_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1023, 0.01, 0.0,1.0,0.1,0,560)
+ 1029, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("hydraulic.generation.heatPump.XEva_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1024, 0.99, 0.0,1.0,0.1,0,560)
+ 1030, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.heatPump.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state (only affects fluid-models) [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2931, 2, 1.0,4.0,0.0,0,517)
+ 2906, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 2932, false, 0.0,0.0,0.0,0,515)
+ 2907, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.heatPump.linearized", "= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 1025, false, 0.0,0.0,0.0,0,562)
+ 1031, false, 0.0,0.0,0.0,0,562)
DeclareParameter("hydraulic.generation.heatPump.ySet_small", "Threshold for relative speed for the device to be considered on",\
- 1026, 0.01, 0.002,1E+100,0.0,0,560)
+ 1032, 0.01, 0.002,1E+100,0.0,0,560)
DeclareVariable("hydraulic.generation.heatPump.calEff", "=false to disable efficiency calculation, may speed up the simulation [:#(type=Boolean)]",\
- 2933, true, 0.0,0.0,0.0,0,515)
+ 2908, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.heatPump.limWarSca", "Allowed difference in scaling '|scaFacHea - scaFacCoo| / scaFacHea', if exceeded, a warning will be issued [1]",\
- 1027, 0.05, 0.0,0.0,0.0,0,560)
+ 1033, 0.05, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.heatPump.Q1_flow", "Heat transferred into the medium 1 [W]",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareVariable("hydraulic.generation.heatPump.Q2_flow", "Heat transferred into the medium 2 [W]",\
- 9161, 0.0, 0.0,0.0,0.0,0,512)
+ 9128, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.con.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 2934, true, 0.0,0.0,0.0,0,515)
+ 2909, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.con.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8339, 4)
+ "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8300, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8340, 4)
+ "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8301, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareVariable("hydraulic.generation.heatPump.con.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 2935, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 2910, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 2936, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 2911, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 2937, false, 0.0,0.0,0.0,0,1539)
+ 2912, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.heatPump.con.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.heatPump.con.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8344, 0, 0.0,0.0,0.0,0,640)
+ 8306, 0, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.generation.heatPump.con._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 2938, 0, 0.0,0.0,0.0,0,2561)
+ 2913, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 2939, 0, 0.0,0.0,0.0,0,2561)
+ 2914, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.computeFlowResistance", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 2940, true, 0.0,0.0,0.0,0,515)
+ 2915, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 2941, false, 0.0,0.0,0.0,0,515)
+ 2916, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.dp_nominal", "Pressure difference [Pa|Pa]",\
- 2942, 125, 0.0,1E+100,0.0,0,513)
+ 2917, 125, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.linearizeFlowResistance", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 2943, false, 0.0,0.0,0.0,0,515)
+ 2918, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.deltaM", "Fraction of nominal flow rate where flow transitions to laminar",\
- 2944, 0.1, 0.0,0.0,0.0,0,513)
+ 2919, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 2945, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 2920, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.con.tau", "Time constant at nominal flow (if energyDynamics <> SteadyState) [s]",\
- 2946, 0.0, 0.0,0.0,0.0,0,513)
+ 2921, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2947, 2, 1.0,4.0,0.0,0,517)
+ 2922, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.con.p_start", "Start value of pressure [Pa|bar]",\
- 2948, 300000, 0.0,100000000.0,100000.0,0,513)
+ 2923, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.T_start", "Start value of temperature [K|degC]",\
- 2949, 293.15, 1.0,10000.0,300.0,0,513)
+ 2924, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 2950, 0.0, 0.0,1.0,0.1,0,513)
+ 2925, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2951, 2, 1.0,4.0,0.0,0,517)
+ 2926, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.con.vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2952, 2, 1.0,4.0,0.0,0,517)
+ 2927, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.con.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2953, 2, 1.0,4.0,0.0,0,517)
+ 2928, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.con.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2954, 2, 1.0,4.0,0.0,0,517)
+ 2929, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.con.vol.p_start", \
-"Start value of pressure [Pa|bar]", 2955, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 2930, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.T_start", \
-"Start value of temperature [K|degC]", 2956, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 2931, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 2957, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 2932, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 2958, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 2933, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 2959, false, 0.0,0.0,0.0,0,2563)
+ 2934, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 2960, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 2935, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.con.vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 2961, true, 0.0,0.0,0.0,0,515)
+ 2936, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 2962, true, 0.0,0.0,0.0,0,515)
+ 2937, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 2963, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 2938, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 2964, 2, 0.0,0.0,0.0,0,517)
+ 2939, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.con.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 2965, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 2940, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 2966, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.heatPump.con.vol.V", "Volume [m3]", 2967, \
+ 2941, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.generation.heatPump.con.vol.V", "Volume [m3]", 2942, \
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 4)
+ 5, 8301, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 4)
+ 5, 8301, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.T", "Temperature of the fluid [K|degC]",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 0)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.U", "Internal energy of the component [J]",\
"hydraulic.generation.heatPump.con.vol.dynBal.U", 1, 1, 21, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8340, 0)
+ "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8301, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.m", "Mass of the component [kg]",\
- "hydraulic.generation.heatPump.con.vol.dynBal.m", 1, 5, 2996, 0)
+ "hydraulic.generation.heatPump.con.vol.dynBal.m", 1, 5, 2971, 0)
DeclareVariable("hydraulic.generation.heatPump.con.vol.rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 2968, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 2943, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 2969, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 2944, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.state_default.T", \
-"Temperature of medium [K|degC]", 2970, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 2945, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 2971, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 2946, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 2972, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 2947, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.state_start.T", \
-"Temperature of medium [K|degC]", 2973, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 2948, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 2974, false, 0.0,0.0,0.0,0,2563)
+ 2949, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 1024)
+"hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 1028)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 1156)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.preTem.T", "[K]", \
-"hydraulic.generation.heatPump.con.T", 1, 5, 9167, 1024)
+"hydraulic.generation.heatPump.con.T", 1, 5, 9134, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.portT.y", "Value of Real output",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 1024)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "outputs.hydraulic.gen.QHeaPum_flow.value", 1,\
3, 12, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 1028)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 1156)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 1028)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", -1, 3, 12, 1156)
DeclareVariable("hydraulic.generation.heatPump.con.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 2975,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 2950,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.heatPort.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 132)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2976, 2, 1.0,4.0,0.0,0,2565)
+ 2951, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2977, 2, 1.0,4.0,0.0,0,2565)
+ 2952, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2978, 2, 1.0,4.0,0.0,0,2565)
+ 2953, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 2979, 2, 1.0,4.0,0.0,0,2565)
+ 2954, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 2980, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 2955, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 2981, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 2956, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 2982, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 2957, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 2983, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 2958, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 2984, false, 0.0,0.0,0.0,0,2563)
+ 2959, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 2985, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 2960, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 2986, true, 0.0,0.0,0.0,0,2563)
+ 2961, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 2987, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 2962, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 2988, false, 0.0,0.0,0.0,0,2563)
+ 2963, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 2989,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 2964,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.generation.heatPump.port_a1.h_outflow", 1,\
- 5, 9139, 1024)
+ 5, 9102, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.generation.heatPump.con.vol.dynBal.U", 1,\
1, 21, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.generation.heatPump.con.vol.dynBal.m", 1,\
- 5, 2996, 1024)
+ 5, 2971, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 1028)
+ 5, 8301, 1028)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 1028)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 1028)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 1028)
+ 5, 8301, 1028)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 1028)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 1028)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 2990, false, 0.0,0.0,0.0,0,2563)
+ 2965, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 2991, true, 0.0,0.0,0.0,0,2563)
+ 2966, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 2992, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 2967, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9162, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9129, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 1024)
+ 5, 8301, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.generation.heatPump.port_a1.h_outflow", 1,\
- 5, 9139, 1024)
+ 5, 9102, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.generation.heatPump.port_a1.h_outflow", 1,\
- 5, 9139, 1024)
+ 5, 9102, 1024)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 2993, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 2968, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 2994, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 2969, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 2995, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 2970, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 1024)
+ 5, 8301, 1024)
DeclareAlias2("hydraulic.generation.heatPump.con.vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.generation.heatPump.con.vol.dynBal.medium.T", 1,\
- 5, 9162, 1024)
+ 5, 9129, 1024)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9163, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9130, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 8345, 0.0, 0.0,0.0,0.0,0,2688)
+"Absolute pressure of medium in [bar] [bar]", 8307, 0.0, 0.0,0.0,0.0,0,2688)
DeclareState("hydraulic.generation.heatPump.con.vol.dynBal.U", "Internal energy of fluid [J]",\
21, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.generation.heatPump.con.vol.dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 21, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.m", \
-"Mass of fluid [kg]", 2996, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 2971, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 2997, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 2972, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 2998, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 2973, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9164, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9131, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.fluidVolume", \
-"Volume [m3]", 2999, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 2974, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 3000, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 2975, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.ports_H_flow[1]", \
-"[W]", 9165, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9132, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.ports_H_flow[2]", \
-"[W]", 9166, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9133, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3001, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 2976, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3002, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 2977, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 3003, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 2978, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3004, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 2979, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 3005, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 2980, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3006, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 2981, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 3007, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 2982, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 3008, false, 0.0,0.0,0.0,0,2563)
+ 2983, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.vol.dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 3009, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 2984, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3010, true, 0.0,0.0,0.0,0,515)
+ 2985, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_a1.p", 1,\
- 5, 8339, 4)
+ 5, 8300, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_b1.p", 1,\
- 5, 8340, 4)
+ 5, 8301, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_b.h_outflow", 1, 5, 9204, 4)
+ "hydraulic.generation.pump.port_b.h_outflow", 1, 5, 9173, 4)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 3011, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 2986, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 3012, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 2987, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 3013, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 2988, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.heatPump.con.preDro.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8346, 0, 0.0,0.0,125.0,0,640)
+ 8308, 0, 0.0,0.0,125.0,0,640)
DeclareVariable("hydraulic.generation.heatPump.con.preDro._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 3014, 0, 0.0,0.0,0.0,0,2561)
+ 2989, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.preDro._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 3015, 0, 0.0,0.0,0.0,0,2561)
+ 2990, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 3016, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 2991, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 3017, false,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 2992, false,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 3018, 125, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 2993, 125, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 3019, false, 0.0,0.0,0.0,0,515)
+ 2994, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 3020, 0.03379347183446045,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 2995, 0.03379347183446045,\
0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.con.preDro.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1028, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1034, 300000.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.heatPump.con.preDro.sta_default.T", \
-"Temperature of medium [K|degC]", 1029, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1035, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 3021, 0.001, 0.0,1E+100,0.0,0,2561)
+ 2996, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 3022, 0.3379347183446045, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 2997, 0.3379347183446045, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 3023, 125, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 2998, 125, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.deltaM", \
-"Fraction of nominal mass flow rate where transition to turbulent occurs", 3024,\
+"Fraction of nominal mass flow rate where transition to turbulent occurs", 2999,\
0.1, 1E-06,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 3025, 0.030225800087031233, 0.0,0.0,0.0,0,513)
+ 3000, 0.030225800087031233, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.computeFlowResistance",\
- "Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 3026,\
+ "Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 3001,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.con.preDro.coeff", \
-"Precomputed coefficient to avoid division by parameter", 3027, 0, 0.0,0.0,0.0,0,2561)
+"Precomputed coefficient to avoid division by parameter", 3002, 0, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.generation.heatPump.con.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1030, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1036, 300000.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.heatPump.con.sta_default.T", \
-"Temperature of medium [K|degC]", 1031, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1037, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.generation.heatPump.con.rho_default", \
-"Density, used to compute fluid volume [kg/m3|g/cm3]", 3028, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid volume [kg/m3|g/cm3]", 3003, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.sta_start.p", \
-"Absolute pressure of medium [Pa|bar]", 3029, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 3004, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.sta_start.T", \
-"Temperature of medium [K|degC]", 3030, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3005, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.h_outflow_start", \
-"Start value for outflowing enthalpy [J/kg]", 3031, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for outflowing enthalpy [J/kg]", 3006, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.con.isCon", "=true for condenser, false for evaporator [:#(type=Boolean)]",\
- 3032, true, 0.0,0.0,0.0,0,515)
+ 3007, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.use_cap", "False if capacity and heat losses are neglected [:#(type=Boolean)]",\
- 3033, false, 0.0,0.0,0.0,0,515)
+ 3008, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.con.C", "Capacity of heat exchanger, set to zero to ignore its dry mass [J/K]",\
- 3034, 0.0, 0.0,0.0,0.0,0,513)
+ 3009, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.TCap_start", "Initial temperature of heat capacity [K|degC]",\
- 3035, 288.15, 0.0,1E+100,300.0,0,513)
+ 3010, 288.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.con.GOut", "Exterior heat transfer coefficient, set to zero to ignore external heat loss but keep the dry mass [W/K]",\
- "hydraulic.generation.heatPump.GConOut", 1, 5, 2881, 0)
+ "hydraulic.generation.heatPump.GConOut", 1, 5, 2856, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.GInn", "Interior heat transfer coefficient",\
- "hydraulic.generation.heatPump.GConIns", 1, 5, 2882, 0)
+ "hydraulic.generation.heatPump.GConIns", 1, 5, 2857, 0)
DeclareVariable("hydraulic.generation.heatPump.con.preHea.T_ref", \
-"Reference temperature [K|degC]", 3036, 293.15, 0.0,1E+100,300.0,0,513)
+"Reference temperature [K|degC]", 3011, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.con.preHea.alpha", \
-"Temperature coefficient of heat flow rate [1/K]", 3037, 0, 0.0,0.0,0.0,0,513)
+"Temperature coefficient of heat flow rate [1/K]", 3012, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.con.preHea.Q_flow", "[W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.preHea.port.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.con.preHea.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QHeaPum_flow.value", -1, 3, 12, 132)
DeclareAlias2("hydraulic.generation.heatPump.con.Q_flow", "Heat flow rate from the refrigerant to the medium",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.senT.T", "Absolute temperature as output signal [K]",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 0)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 0)
DeclareAlias2("hydraulic.generation.heatPump.con.senT.port.T", "Port temperature [K|degC]",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareVariable("hydraulic.generation.heatPump.con.senT.port.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 3038,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 3013,\
0, 0.0,0.0,0.0,0,777)
DeclareVariable("hydraulic.generation.heatPump.con.T", "Temperature of the condenser volume [K|degC]",\
- 9167, 300.0, 1.0,10000.0,300.0,0,512)
+ 9134, 300.0, 1.0,10000.0,300.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.eva.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3039, true, 0.0,0.0,0.0,0,515)
+ 3014, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.eva.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 3040, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 3015, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.eva.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 3041, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 3016, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.eva.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareVariable("hydraulic.generation.heatPump.eva.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 3042, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 3017, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 3043, 0.0, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 3018, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 3044, false, 0.0,0.0,0.0,0,1539)
+ 3019, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.heatPump.eva.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 0)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 0)
DeclareVariable("hydraulic.generation.heatPump.eva.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 3045, 0.0, 0.0,0.0,0.0,0,513)
+ 3020, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 3046, 0, 0.0,0.0,0.0,0,2561)
+ 3021, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 3047, 0, 0.0,0.0,0.0,0,2561)
+ 3022, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.computeFlowResistance", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 3048, true, 0.0,0.0,0.0,0,515)
+ 3023, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 3049, false, 0.0,0.0,0.0,0,515)
+ 3024, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.dp_nominal", "Pressure difference [Pa|Pa]",\
- 3050, 0, 0.0,1E+100,0.0,0,513)
+ 3025, 0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.linearizeFlowResistance", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 3051, false, 0.0,0.0,0.0,0,515)
+ 3026, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.deltaM", "Fraction of nominal flow rate where flow transitions to laminar",\
- 3052, 0.1, 0.0,0.0,0.0,0,513)
+ 3027, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 3053, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 3028, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.eva.tau", "Time constant at nominal flow (if energyDynamics <> SteadyState) [s]",\
- 3054, 0.0, 0.0,0.0,0.0,0,513)
+ 3029, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3055, 2, 1.0,4.0,0.0,0,517)
+ 3030, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.eva.p_start", "Start value of pressure [Pa|bar]",\
- 3056, 101325.0, 0.0,100000000.0,100000.0,0,513)
+ 3031, 101325.0, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.T_start", "Start value of temperature [K|degC]",\
- 3057, 262.65, 1.0,10000.0,300.0,0,513)
+ 3032, 262.65, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 3058, 0.0, 0.0,1.0,0.1,0,513)
+ 3033, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 3059, 0.0, 0.0,1.0,0.1,0,513)
+ 3034, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3060, 2, 1.0,4.0,0.0,0,517)
+ 3035, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3061, 2, 1.0,4.0,0.0,0,517)
+ 3036, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3062, 2, 1.0,4.0,0.0,0,517)
+ 3037, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3063, 2, 1.0,4.0,0.0,0,517)
+ 3038, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.p_start", \
-"Start value of pressure [Pa|bar]", 3064, 101325.0, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 3039, 101325.0, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.T_start", \
-"Start value of temperature [K|degC]", 3065, 262.65, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 3040, 262.65, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 3066, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 3041, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 3067, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 3042, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 3068, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 3043, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3069, false, 0.0,0.0,0.0,0,2563)
+ 3044, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 3070, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 3045, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 3071, true, 0.0,0.0,0.0,0,515)
+ 3046, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 3072, true, 0.0,0.0,0.0,0,515)
+ 3047, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 3073, 0.0, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 3048, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 3074, 2, 0.0,0.0,0.0,0,517)
+ 3049, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 3075, 0.0, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 3050, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 3076, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.heatPump.eva.vol.V", "Volume [m3]", 3077, \
+ 3051, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.generation.heatPump.eva.vol.V", "Volume [m3]", 3052, \
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.ports[1].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3078, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3053, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.ports[2].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3079, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3054, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.ports[2].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.T", "Temperature of the fluid [K|degC]",\
- "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 0)
+ "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 0)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.U", "Internal energy of the component [J]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.U", 1, 1, 23, 0)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.p", "Pressure of the fluid [Pa|bar]",\
- 3080, 101325.0, 0.0,0.0,0.0,0,513)
+ 3055, 101325.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.m", "Mass of the component [kg]",\
- "hydraulic.generation.heatPump.eva.vol.dynBal.m", 1, 5, 3116, 0)
+ "hydraulic.generation.heatPump.eva.vol.dynBal.m", 1, 5, 3091, 0)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.Xi[1]", "Species concentration of the fluid [1]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 0)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.mXi[1]", "Species mass of the component [kg]",\
- 9168, 0.0, 0.0,1E+100,0.0,0,512)
+ 9135, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 3081, 1.2, 0.0,\
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 3056, 1.2, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3082, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3057, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_default.T", \
-"Temperature of medium [K|degC]", 3083, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3058, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3084, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3059, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3085, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3060, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3086, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3061, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 3087, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3062, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_start.T", \
-"Temperature of medium [K|degC]", 3088, 262.65, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3063, 262.65, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3089, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3064, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.state_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3090, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3065, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 3091, false, 0.0,0.0,0.0,0,2563)
+ 3066, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 1024)
+"hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.XiOut_internal[1]", \
"Internal connector for leaving species concentration of the component [1]", \
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 1028)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 1156)
+"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 1156)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.preTem.T", "[K]", \
-"hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 1024)
+"hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.portT.y", "Value of Real output",\
- "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 1024)
+ "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 1024)
+ 5, 9128, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 1028)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 1156)
+"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 1156)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 1028)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.generation.heatPump.Q2_flow", -1, 5, 9161, 1156)
+"hydraulic.generation.heatPump.Q2_flow", -1, 5, 9128, 1156)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3092,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3067,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 4)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.heatPort.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 132)
+"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3093, 2, 1.0,4.0,0.0,0,2565)
+ 3068, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3094, 2, 1.0,4.0,0.0,0,2565)
+ 3069, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3095, 2, 1.0,4.0,0.0,0,2565)
+ 3070, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3096, 2, 1.0,4.0,0.0,0,2565)
+ 3071, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 3097, 101325.0, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 3072, 101325.0, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 3098, 262.65, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 3073, 262.65, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 3099, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 3074, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 3100, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 3075, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 3101, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 3076, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3102, false, 0.0,0.0,0.0,0,2563)
+ 3077, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 3103, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 3078, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 3104, true, 0.0,0.0,0.0,0,2563)
+ 3079, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 3105, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 3080, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 3106, false, 0.0,0.0,0.0,0,2563)
+ 3081, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3107,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3082,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 1024)
+"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.generation.heatPump.port_a2.h_outflow", 1,\
- 5, 9140, 1024)
+ 5, 9103, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.XiOut[1]", \
"Leaving species concentration of the component [1]", "hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1,\
1, 22, 1024)
@@ -39173,1822 +39214,1821 @@ DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.UOut", \
1, 23, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.mXiOut[1]", \
"Species mass of the component [kg]", "hydraulic.generation.heatPump.eva.vol.mXi[1]", 1,\
- 5, 9168, 1024)
+ 5, 9135, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.generation.heatPump.eva.vol.dynBal.m", 1,\
- 5, 3116, 1024)
+ 5, 3091, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 1156)
+"hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 1156)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.ports[1].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3108, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3083, 101325.0, 0.0,\
100000000.0,100000.0,0,2569)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 1028)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 1028)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 1028)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 1156)
+"hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 1156)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.ports[2].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3109, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3084, 101325.0, 0.0,\
100000000.0,100000.0,0,2569)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 1028)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 1028)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 1028)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 3110, false, 0.0,0.0,0.0,0,2563)
+ 3085, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 3111, true, 0.0,0.0,0.0,0,2563)
+ 3086, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", 3112, 101325.0, 0.0,1E+100,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 3087, 101325.0, 0.0,1E+100,100000.0,0,2561)
DeclareState("hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", \
"Structurally independent mass fractions [1]", 22, 0.0, 0.0,1.0,0.01,0,2592)
DeclareDerivative("hydraulic.generation.heatPump.eva.vol.dynBal.medium.der(Xi[1])",\
"der(Structurally independent mass fractions) [s-1]", 22, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.generation.heatPump.port_a2.h_outflow", 1,\
- 5, 9140, 1024)
+ 5, 9103, 1024)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 3113, 1.2, 0.0,100000.0,1.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 3088, 1.2, 0.0,100000.0,1.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9169, 262.65, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9136, 262.65, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 1024)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9170, 0.0, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9137, 0.0, 0.0,\
1.0,1.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.u", \
-"Specific internal energy of medium [J/kg]", 9171, 0.0, -100000000.0,100000000.0,\
+"Specific internal energy of medium [J/kg]", 9138, 0.0, -100000000.0,100000000.0,\
1000000.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 9172, 1000.0, 0.0,\
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 9139, 1000.0, 0.0,\
10000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 9173, 0.032, 0.001,0.25,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 9140, 0.032, 0.001,0.25,\
0.032,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.state.p", \
-"Absolute pressure of medium [Pa|bar]", 3114, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3089, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.generation.heatPump.eva.vol.dynBal.medium.T", 1,\
- 5, 9169, 1024)
+ 5, 9136, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.medium.state.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.medium.state.X[2]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]", 1, 5, 9170, 1024)
+"hydraulic.generation.heatPump.eva.vol.dynBal.medium.X[2]", 1, 5, 9137, 1024)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9174, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9141, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 3115, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 3090, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.medium.dT", \
-"Temperature difference used to compute enthalpy [K,]", 9175, 20.0, 0.0,0.0,0.0,\
+"Temperature difference used to compute enthalpy [K,]", 9142, 20.0, 0.0,0.0,0.0,\
0,2560)
DeclareState("hydraulic.generation.heatPump.eva.vol.dynBal.U", "Internal energy of fluid [J]",\
23, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.generation.heatPump.eva.vol.dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 23, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.m", \
-"Mass of fluid [kg]", 3116, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 3091, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 3117, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 3092, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.heatPump.eva.vol.dynBal.mXi[1]", \
"Masses of independent components in the fluid [kg]", "hydraulic.generation.heatPump.eva.vol.mXi[1]", 1,\
- 5, 9168, 1024)
+ 5, 9135, 1024)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 3118, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 3093, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.mbXi_flow[1]", \
-"Substance mass flows across boundaries [kg/s]", 9176, 0.0, 0.0,0.0,0.0,0,2560)
+"Substance mass flows across boundaries [kg/s]", 9143, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9177, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9144, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.fluidVolume", \
-"Volume [m3]", 3119, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 3094, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 3120, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 3095, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.ports_H_flow[1]", \
-"[W]", 9178, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9145, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.ports_H_flow[2]", \
-"[W]", 9179, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9146, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.ports_mXi_flow[1, 1]",\
- "[kg/s]", 9180, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9147, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.ports_mXi_flow[2, 1]",\
- "[kg/s]", 9181, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9148, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3121, 1014.54, \
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3096, 1014.54, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3122, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3097, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 3123, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 3098, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3124, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3099, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 3125, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3100, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.state_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3126, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3101, 0.01, \
0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.state_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3127, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3102, 0.99, \
0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3128, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3103, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.s[1]", \
-"Vector with zero everywhere except where species is", 3129, 1, 0.0,0.0,0.0,0,2561)
+"Vector with zero everywhere except where species is", 3104, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 3130, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 3105, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 3131, true, 0.0,0.0,0.0,0,2563)
+ 3106, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.vol.dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 3132, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 3107, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3133, true, 0.0,0.0,0.0,0,515)
+ 3108, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.port_a.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3134, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3109, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.port_b.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3135, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3110, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.bouEva.ports[1].h_outflow", 1, 5, 9202, 4)
+ "hydraulic.generation.bouEva.ports[1].h_outflow", 1, 5, 9171, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "hydraulic.generation.bouEva.X[1]", 1, 7, 1067, 4)
+ "hydraulic.generation.bouEva.X[1]", 1, 7, 1073, 4)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 3136, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 3111, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 3137, 0.0, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 3112, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 3138, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 3113, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.heatPump.eva.preDro.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 0)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 0)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 3139, 0, 0.0,0.0,1.0,0,513)
+ 3114, 0, 0.0,0.0,1.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 3140, 0, 0.0,0.0,0.0,0,2561)
+ 3115, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 3141, 0, 0.0,0.0,0.0,0,2561)
+ 3116, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 3142, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 3117, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 3143, false,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 3118, false,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 3144, 0, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 3119, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 3145, false, 0.0,0.0,0.0,0,515)
+ 3120, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 3146, 0, 0.0,1E+100,0.0,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 3121, 0, 0.0,1E+100,0.0,\
0,513)
DeclareParameter("hydraulic.generation.heatPump.eva.preDro.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1032, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1038, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.heatPump.eva.preDro.sta_default.T", \
-"Temperature of medium [K|degC]", 1033, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1039, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.eva.preDro.sta_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1034, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1040, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("hydraulic.generation.heatPump.eva.preDro.sta_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1035, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1041, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 3147, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3122, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 3148, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute value of nominal flow rate [kg/s]", 3123, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 3149, 0, 0.0,0.0,0.0,0,2561)
+"Absolute value of nominal pressure difference [Pa|Pa]", 3124, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.deltaM", \
-"Fraction of nominal mass flow rate where transition to turbulent occurs", 3150,\
+"Fraction of nominal mass flow rate where transition to turbulent occurs", 3125,\
0.1, 1E-06,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 3151, 0, 0.0,0.0,0.0,0,513)
+ 3126, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.computeFlowResistance",\
- "Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 3152,\
+ "Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 3127,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.eva.preDro.coeff", \
-"Precomputed coefficient to avoid division by parameter", 3153, 0, 0.0,0.0,0.0,0,2561)
+"Precomputed coefficient to avoid division by parameter", 3128, 0, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.generation.heatPump.eva.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1036, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1042, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.heatPump.eva.sta_default.T", \
-"Temperature of medium [K|degC]", 1037, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1043, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.eva.sta_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1038, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1044, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("hydraulic.generation.heatPump.eva.sta_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1039, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1045, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("hydraulic.generation.heatPump.eva.rho_default", \
-"Density, used to compute fluid volume [kg/m3|g/cm3]", 3154, 0.0, 0.0,1E+100,0.0,\
+"Density, used to compute fluid volume [kg/m3|g/cm3]", 3129, 0.0, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.sta_start.p", \
-"Absolute pressure of medium [Pa|bar]", 3155, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3130, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.sta_start.T", \
-"Temperature of medium [K|degC]", 3156, 262.65, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3131, 262.65, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.sta_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3157, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3132, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.sta_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3158, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 3133, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.h_outflow_start", \
-"Start value for outflowing enthalpy [J/kg]", 3159, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for outflowing enthalpy [J/kg]", 3134, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eva.isCon", "=true for condenser, false for evaporator [:#(type=Boolean)]",\
- 3160, false, 0.0,0.0,0.0,0,515)
+ 3135, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.use_cap", "False if capacity and heat losses are neglected [:#(type=Boolean)]",\
- 3161, false, 0.0,0.0,0.0,0,515)
+ 3136, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.eva.C", "Capacity of heat exchanger, set to zero to ignore its dry mass [J/K]",\
- 3162, 0.0, 0.0,0.0,0.0,0,513)
+ 3137, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.TCap_start", "Initial temperature of heat capacity [K|degC]",\
- 3163, 288.15, 0.0,1E+100,300.0,0,513)
+ 3138, 288.15, 0.0,1E+100,300.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.eva.GOut", "Exterior heat transfer coefficient, set to zero to ignore external heat loss but keep the dry mass [W/K]",\
- "hydraulic.generation.heatPump.GEvaOut", 1, 5, 2892, 0)
+ "hydraulic.generation.heatPump.GEvaOut", 1, 5, 2867, 0)
DeclareAlias2("hydraulic.generation.heatPump.eva.GInn", "Interior heat transfer coefficient",\
- "hydraulic.generation.heatPump.GEvaIns", 1, 5, 2893, 0)
+ "hydraulic.generation.heatPump.GEvaIns", 1, 5, 2868, 0)
DeclareVariable("hydraulic.generation.heatPump.eva.preHea.T_ref", \
-"Reference temperature [K|degC]", 3164, 293.15, 0.0,1E+100,300.0,0,513)
+"Reference temperature [K|degC]", 3139, 293.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eva.preHea.alpha", \
-"Temperature coefficient of heat flow rate [1/K]", 3165, 0, 0.0,0.0,0.0,0,513)
+"Temperature coefficient of heat flow rate [1/K]", 3140, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.eva.preHea.Q_flow", "[W]", \
-"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
+"hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
DeclareAlias2("hydraulic.generation.heatPump.eva.preHea.port.T", \
-"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 4)
+"Port temperature [K|degC]", "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 4)
DeclareAlias2("hydraulic.generation.heatPump.eva.preHea.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.generation.heatPump.Q2_flow", -1, 5, 9161, 132)
+"hydraulic.generation.heatPump.Q2_flow", -1, 5, 9128, 132)
DeclareAlias2("hydraulic.generation.heatPump.eva.Q_flow", "Heat flow rate from the refrigerant to the medium",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
DeclareAlias2("hydraulic.generation.heatPump.eva.senT.T", "Absolute temperature as output signal [K]",\
- "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 0)
+ "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 0)
DeclareAlias2("hydraulic.generation.heatPump.eva.senT.port.T", "Port temperature [K|degC]",\
- "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 4)
+ "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 4)
DeclareVariable("hydraulic.generation.heatPump.eva.senT.port.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 3166,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 3141,\
0, 0.0,0.0,0.0,0,777)
DeclareVariable("hydraulic.generation.heatPump.eva.T", "Temperature of the condenser volume [K|degC]",\
- 9182, 262.65, 1.0,10000.0,300.0,0,512)
+ 9149, 262.65, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.ySet", "Input for relative compressor speed from 0 to 1",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.yOut", "Output for relative compressor speed from 0 to 1",\
- "hydraulic.generation.heatPump.hys.u", 1, 5, 9195, 0)
+ "hydraulic.generation.heatPump.hys.u", 1, 5, 9162, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.PEleMea", \
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.QEva_flow", \
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.TConInMea", \
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.TConOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.TEvaInMea", \
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.TEvaOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heatPump.safCtr.sigBus.hea", \
-"=true for heating, =false for cooling [:#(type=Boolean)]", 3167, true, 0.0,0.0,\
-0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.hea", \
+"=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareVariable("hydraulic.generation.heatPump.safCtr.sigBus.iceFacChiMea", \
-"Icing factor from 0 to 1 to estimate influence of icing [1]", 3168, 1.0, 0.0,\
+"Icing factor from 0 to 1 to estimate influence of icing [1]", 3142, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.icefacHPMea", \
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.mConMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.mEvaMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.onOffMea", \
-"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.relHum", \
-"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.yMea", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.sigBus.ySet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareVariable("hydraulic.generation.heatPump.safCtr.mEva_flow_nominal", \
-"Nominal mass flow rate in evaporator medium [kg/s]", 3169, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate in evaporator medium [kg/s]", 3143, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.mCon_flow_nominal", \
-"Nominal mass flow rate in condenser medium [kg/s]", 3170, 0.3379347183446045, \
+"Nominal mass flow rate in condenser medium [kg/s]", 3144, 0.3379347183446045, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.ySet_small", \
-"Threshold for relative speed for the device to be considered on", 3171, 0.0, \
+"Threshold for relative speed for the device to be considered on", 3145, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_minOnTime", \
-"=false to ignore minimum on-time constraint [:#(type=Boolean)]", 3172, true, \
+"=false to ignore minimum on-time constraint [:#(type=Boolean)]", 3146, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.minOnTime", \
-"Mimimum on-time [s]", 3173, 0.0, 0.0,0.0,0.0,0,513)
+"Mimimum on-time [s]", 3147, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.ySetRed", \
-"Reduced relative compressor speed to allow longer on-time [1]", 3174, 0.0, \
+"Reduced relative compressor speed to allow longer on-time [1]", 3148, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_minOffTime",\
- "=false to ignore minimum off time [:#(type=Boolean)]", 3175, true, 0.0,0.0,0.0,\
+ "=false to ignore minimum off time [:#(type=Boolean)]", 3149, true, 0.0,0.0,0.0,\
0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.minOffTime", \
-"Minimum off time [s]", 3176, 0.0, 0.0,0.0,0.0,0,513)
+"Minimum off time [s]", 3150, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_maxCycRat", \
-"=false to ignore maximum cycle rate constraint [:#(type=Boolean)]", 3177, true,\
+"=false to ignore maximum cycle rate constraint [:#(type=Boolean)]", 3151, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.maxCycRat", \
-"Maximum cycle rate [:#(type=Integer)]", 3178, 0, 0.0,0.0,0.0,0,517)
+"Maximum cycle rate [:#(type=Integer)]", 3152, 0, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.onOffMea_start",\
"Start value for the on-off signal of the device, true for on [:#(type=Boolean)]",\
- 3179, false, 0.0,0.0,0.0,0,515)
+ 3153, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_opeEnv", \
-"=true to use a the operational envelope [:#(type=Boolean)]", 3180, true, \
+"=true to use a the operational envelope [:#(type=Boolean)]", 3154, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabUppHea[1, 1]",\
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 3181, 288.15, 0.0,1E+100,300.0,0,513)
+ 3155, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabUppHea[1, 2]",\
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 3182, 288.15, 0.0,1E+100,300.0,0,513)
+ 3156, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabUppHea[2, 1]",\
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 3183, 288.15, 0.0,1E+100,300.0,0,513)
+ 3157, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabUppHea[2, 2]",\
"Upper temperature boundary for heating with second column as useful temperature side [K|degC]",\
- 3184, 288.15, 0.0,1E+100,300.0,0,513)
+ 3158, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabLowCoo[1, 1]",\
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 3185, 288.15, 0.0,1E+100,300.0,0,513)
+ 3159, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabLowCoo[1, 2]",\
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 3186, 288.15, 0.0,1E+100,300.0,0,513)
+ 3160, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabLowCoo[2, 1]",\
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 3187, 288.15, 0.0,1E+100,300.0,0,513)
+ 3161, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.tabLowCoo[2, 2]",\
"Lower temperature boundary for cooling with second column as useful temperature side [K|degC]",\
- 3188, 288.15, 0.0,1E+100,300.0,0,513)
+ 3162, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.dTHysOpeEnv", \
-"Hysteresis for operational envelopes of both upper and lower boundaries [K,]", 3189,\
+"Hysteresis for operational envelopes of both upper and lower boundaries [K,]", 3163,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_TConOutHea",\
"=true to use condenser outlet temperature for envelope in heating mode, false for inlet [:#(type=Boolean)]",\
- 3190, true, 0.0,0.0,0.0,0,515)
+ 3164, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_TEvaOutHea",\
"=true to use evaporator outlet temperature for envelope in heating mode, false for inlet [:#(type=Boolean)]",\
- 3191, false, 0.0,0.0,0.0,0,515)
+ 3165, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_TConOutCoo",\
"=true to use useful side outlet temperature for envelope in cooling mode, false for inlet [:#(type=Boolean)]",\
- 3192, false, 0.0,0.0,0.0,0,515)
+ 3166, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_TEvaOutCoo",\
"=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet [:#(type=Boolean)]",\
- 3193, true, 0.0,0.0,0.0,0,515)
+ 3167, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_antFre", \
-"=true to enable antifreeze control [:#(type=Boolean)]", 3194, false, 0.0,0.0,\
+"=true to enable antifreeze control [:#(type=Boolean)]", 3168, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.TAntFre", \
-"Limit temperature for antifreeze control [K;degC]", 3195, 288.15, 0.0,1E+100,\
+"Limit temperature for antifreeze control [K;degC]", 3169, 288.15, 0.0,1E+100,\
300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.dTHysAntFre", \
-"Hysteresis interval width for antifreeze control [K,]", 3196, 0.0, 0.0,0.0,0.0,\
+"Hysteresis interval width for antifreeze control [K,]", 3170, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.use_minFlowCtr",\
- "=false to disable minimum mass flow rate requirements [:#(type=Boolean)]", 3197,\
+ "=false to disable minimum mass flow rate requirements [:#(type=Boolean)]", 3171,\
true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.r_mEvaMinPer_flow",\
- "Percentage of mass flow rate in evaporator required to operate the device", 3198,\
+ "Percentage of mass flow rate in evaporator required to operate the device", 3172,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.safCtrPar.r_mConMinPer_flow",\
- "Percentage of mass flow rate in condenser required to operate the device", 3199,\
+ "Percentage of mass flow rate in condenser required to operate the device", 3173,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.ySet", \
-"Input for relative compressor speed from 0 to 1", 9183, 0.0, 0.0,0.0,0.0,0,512)
+"Input for relative compressor speed from 0 to 1", 9150, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.yOut", \
-"Output for relative compressor speed from 0 to 1", 9184, 0.0, 0.0,0.0,0.0,0,512)
+"Output for relative compressor speed from 0 to 1", 9151, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.TConOutMea", \
"Useful temperature side [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5,\
- 9167, 4)
+ 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.TEvaOutMea", \
"Temperature at ambient side [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
+ 5, 9149, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.TEvaInMea", \
"Temperature at ambient side [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.TConInMea", \
"Useful temperature side [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
-DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.hea", \
-"Connector of second Boolean input signal [:#(type=Boolean)]", 3200, true, \
-0.0,0.0,0.0,0,523)
+ 5, 9163, 4)
+DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.hea", \
+"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.PEleMea", \
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.QEva_flow", \
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 3201, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 3174, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.icefacHPMea", \
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.mConMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.mEvaMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.onOffMea", \
-"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.relHum", \
-"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.yMea", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.sigBus.ySet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u1", \
"Connector of first Real input signal", "hydraulic.generation.heatPump.safCtr.opeEnv.ySet", 1,\
- 5, 9183, 0)
+ 5, 9150, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 8347, false, 0.0,0.0,0.0,\
+"Connector of Boolean input signal [:#(type=Boolean)]", 8309, false, 0.0,0.0,0.0,\
0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u3", \
-"Connector of second Real input signal", 3202, 0, 0.0,0.0,0.0,0,513)
+"Connector of second Real input signal", 3175, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.yOut", 1,\
- 5, 9184, 0)
+ 5, 9151, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.conZer.k", \
-"Constant output value", 3203, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 3176, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.conZer.y", \
-"Connector of Real output signal", 3204, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 3177, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.u", \
-"Integer input signal [:#(type=Integer)]", 3205, 1, 0.0,0.0,0.0,0,517)
+"Integer input signal [:#(type=Integer)]", 3178, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", \
-"Integer output signal [:#(type=Integer)]", 8348, 0, 0.0,0.0,0.0,0,644)
+"Integer output signal [:#(type=Integer)]", 8310, 0, 0.0,0.0,0.0,0,644)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3206, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3179, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.use_set", \
"= true, if set port enabled and used as default value when reset [:#(type=Boolean)]",\
- 3207, false, 0.0,0.0,0.0,0,1539)
+ 3180, false, 0.0,0.0,0.0,0,1539)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y_start", \
-"Initial and reset value of y if set port is not used [:#(type=Integer)]", 1040,\
+"Initial and reset value of y if set port is not used [:#(type=Integer)]", 1046,\
0, 0.0,0.0,0.0,0,564)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.trigger", \
-"[:#(type=Boolean)]", 8349, false, 0.0,0.0,0.0,0,642)
+"[:#(type=Boolean)]", 8311, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.local_reset",\
- "[:#(type=Boolean)]", 3208, false, 0.0,0.0,0.0,0,1539)
+ "[:#(type=Boolean)]", 3181, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.disErr.local_set", \
-"[:#(type=Integer)]", 3209, 0, 0.0,0.0,0.0,0,2565)
+"[:#(type=Integer)]", 3182, 0, 0.0,0.0,0.0,0,2565)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.err", \
"Integer for displaying number of errors during simulation [:#(type=Integer)]", \
-"hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", 1, 5, 8348, 66)
+"hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", 1, 5, 8310, 66)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.notVal.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
+ 5, 8309, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.notVal.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.disErr.trigger", 1,\
- 5, 8349, 65)
+ 5, 8311, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.intConOne.k", \
-"Constant output value [:#(type=Integer)]", 3210, 1, 0.0,0.0,0.0,0,517)
+"Constant output value [:#(type=Integer)]", 3183, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.intConOne.y", \
-"Connector of Integer output signal [:#(type=Integer)]", 3211, 1, 0.0,0.0,0.0,0,517)
+"Connector of Integer output signal [:#(type=Integer)]", 3184, 1, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.booPasThr.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
+ 5, 8309, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.booPasThr.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
+ 5, 8309, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabUppHea[1, 1]", \
"Upper boundary for heating with second column as useful temperature side [K|degC]",\
- 3212, 288.15, 0.0,1E+100,300.0,0,513)
+ 3185, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabUppHea[1, 2]", \
"Upper boundary for heating with second column as useful temperature side [K|degC]",\
- 3213, 288.15, 0.0,1E+100,300.0,0,513)
+ 3186, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabUppHea[2, 1]", \
"Upper boundary for heating with second column as useful temperature side [K|degC]",\
- 3214, 288.15, 0.0,1E+100,300.0,0,513)
+ 3187, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabUppHea[2, 2]", \
"Upper boundary for heating with second column as useful temperature side [K|degC]",\
- 3215, 288.15, 0.0,1E+100,300.0,0,513)
+ 3188, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabLowCoo[1, 1]", \
"Lower boundary for cooling with second column as useful temperature side [K|degC]",\
- 3216, 288.15, 0.0,1E+100,300.0,0,513)
+ 3189, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabLowCoo[1, 2]", \
"Lower boundary for cooling with second column as useful temperature side [K|degC]",\
- 3217, 288.15, 0.0,1E+100,300.0,0,513)
+ 3190, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabLowCoo[2, 1]", \
"Lower boundary for cooling with second column as useful temperature side [K|degC]",\
- 3218, 288.15, 0.0,1E+100,300.0,0,513)
+ 3191, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.tabLowCoo[2, 2]", \
"Lower boundary for cooling with second column as useful temperature side [K|degC]",\
- 3219, 288.15, 0.0,1E+100,300.0,0,513)
+ 3192, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.use_TConOutHea", \
"=true to use condenser outlet temperature for envelope in heating mode, false for inlet [:#(type=Boolean)]",\
- 3220, true, 0.0,0.0,0.0,0,515)
+ 3193, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.use_TEvaOutHea", \
"=true to use evaporator outlet temperature for envelope in heating mode, false for inlet [:#(type=Boolean)]",\
- 3221, false, 0.0,0.0,0.0,0,515)
+ 3194, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.use_TConOutCoo", \
"=true to use useful side outlet temperature for envelope in cooling mode, false for inlet [:#(type=Boolean)]",\
- 3222, false, 0.0,0.0,0.0,0,515)
+ 3195, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.use_TEvaOutCoo", \
"=true to use evaporator outlet temperature for envelope in cooling mode, false for inlet [:#(type=Boolean)]",\
- 3223, true, 0.0,0.0,0.0,0,515)
+ 3196, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.dTHys", \
-"Temperature deadband in the operational envelope [K,]", 3224, 0.0, 0.0,0.0,0.0,\
+"Temperature deadband in the operational envelope [K,]", 3197, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[1, 1]",\
- "Table for boundary with second column as useful temperature side", 3225, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3198, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[1, 2]",\
- "Table for boundary with second column as useful temperature side", 3226, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3199, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[2, 1]",\
- "Table for boundary with second column as useful temperature side", 3227, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3200, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tab[2, 2]",\
- "Table for boundary with second column as useful temperature side", 3228, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3201, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.dT", \
-"Delta value used to avoid state events when used as a safety control [K,]", 3229,\
+"Delta value used to avoid state events when used as a safety control [K,]", 3202,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.isUppBou",\
- "=true if it is an upper boundary, false for lower [:#(type=Boolean)]", 3230, \
+ "=true if it is an upper boundary, false for lower [:#(type=Boolean)]", 3203, \
true, 0.0,0.0,0.0,0,515)
-DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr", \
-"=false when an error occurs [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
+DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr", \
+"=false when an error occurs [:#(type=Boolean)]", 8312, false, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSid", \
"Temperature at ambient side [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.nout",\
- "Number of outputs [:#(type=Integer)]", 3231, 1, 0.0,0.0,0.0,0,517)
+ "Number of outputs [:#(type=Integer)]", 3204, 1, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u", \
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[1]",\
- "Connector of Real output signals", 9185, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signals", 9152, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableOnFile",\
"= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
- 3232, false, 0.0,0.0,0.0,0,515)
+ 3205, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.table[1, 1]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3233, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3206, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.table[1, 2]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3234, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3207, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.table[2, 1]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3235, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3208, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.table[2, 2]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3236, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3209, 0.0,\
0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.verboseRead",\
"= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
- 1041, true, 0.0,0.0,0.0,0,562)
+ 1047, true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.columns[1]",\
- "Columns of table to be interpolated [:#(type=Integer)]", 3237, 2, 0.0,0.0,0.0,\
+ "Columns of table to be interpolated [:#(type=Integer)]", 3210, 2, 0.0,0.0,0.0,\
0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.smoothness",\
"Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 3238, 1, 1.0,6.0,0.0,0,517)
+ 3211, 1, 1.0,6.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.extrapolation",\
"Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 3239, 2, 1.0,4.0,0.0,0,517)
+ 3212, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.verboseExtrapolation",\
"= true, if warning messages are to be printed if table input is outside the definition range [:#(type=Boolean)]",\
- 3240, false, 0.0,0.0,0.0,0,515)
+ 3213, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_min",\
- "Minimum abscissa value defined in table", 3241, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimum abscissa value defined in table", 3214, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.u_max",\
- "Maximum abscissa value defined in table", 3242, 0.0, 0.0,0.0,0.0,0,513)
+ "Maximum abscissa value defined in table", 3215, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.tableID.id",\
- "[:#(type=Integer)]", 3243, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 3216, 0, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.nu", \
-"Number of input connections [:#(type=Integer)]", 3244, 3, 0.0,1E+100,0.0,0,1541)
+"Number of input connections [:#(type=Integer)]", 3217, 3, 0.0,1E+100,0.0,0,1541)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.u[1]",\
- "Vector of Boolean input signals [:#(type=Boolean)]", 8350, false, 0.0,0.0,0.0,\
+ "Vector of Boolean input signals [:#(type=Boolean)]", 8313, false, 0.0,0.0,0.0,\
0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.u[2]",\
- "Vector of Boolean input signals [:#(type=Boolean)]", 8351, false, 0.0,0.0,0.0,\
+ "Vector of Boolean input signals [:#(type=Boolean)]", 8314, false, 0.0,0.0,0.0,\
0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.u[3]",\
- "Vector of Boolean input signals [:#(type=Boolean)]", 8352, false, 0.0,0.0,0.0,\
+ "Vector of Boolean input signals [:#(type=Boolean)]", 8315, false, 0.0,0.0,0.0,\
0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.nor.y", \
-"Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
+"Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr", 1,\
+ 5, 8312, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.uLow",\
- "If y=true and u<uLow, switch to y=false", 3245, -0.05, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3218, -0.05, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3246, 0, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3219, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 1042, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 1048, false, 0.0,0.0,0.0,\
0,562)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u",\
- "", 9186, 0.0, 0.0,0.0,0.0,0,512)
+ "", 9153, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.y",\
- "[:#(type=Boolean)]", 8353, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8316, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.uLow",\
- "If y=true and u<uLow, switch to y=false", 3247, -0.05, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3220, -0.05, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3248, 0, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3221, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 1043, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 1049, false, 0.0,0.0,0.0,\
0,562)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u",\
- "", 9187, 0.0, 0.0,0.0,0.0,0,512)
+ "", 9154, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.y",\
- "[:#(type=Boolean)]", 8354, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8317, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.k",\
- "Constant output value", 3249, 1, 0.0,0.0,0.0,0,513)
+ "Constant output value", 3222, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.k", 1,\
- 5, 3249, 0)
+ 5, 3222, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.k",\
- "Constant output value", 3250, 1, 0.0,0.0,0.0,0,513)
+ "Constant output value", 3223, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.k", 1,\
- 5, 3250, 0)
+ 5, 3223, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subMax.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subMax.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMax.k", 1,\
- 5, 3250, 0)
+ 5, 3223, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subMax.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.u", 1,\
- 5, 9187, 0)
+ 5, 9154, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subMax.k1",\
- "Gain of input signal 1", 3251, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 3224, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subMax.k2",\
- "Gain of input signal 2", 3252, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 3225, -1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.u1", \
"Connector of Real input signal 1", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.u2", \
"Connector of Real input signal 2", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.conTAmbSidMin.k", 1,\
- 5, 3249, 0)
+ 5, 3222, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.u", 1,\
- 5, 9186, 0)
+ 5, 9153, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.k1", \
-"Gain of input signal 1", 3253, -1, 0.0,0.0,0.0,0,513)
+"Gain of input signal 1", 3226, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.sub.k2", \
-"Gain of input signal 2", 3254, 1, 0.0,0.0,0.0,0,513)
+"Gain of input signal 2", 3227, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSid", \
"Useful temperature side [K|degC]", "hydraulic.generation.heatPump.con.T", 1, 5,\
- 9167, 0)
+ 9134, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.con.T", 1, 5,\
- 9167, 0)
+ 9134, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.tabBou.y[1]", 1,\
- 5, 9185, 0)
+ 5, 9152, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.y",\
- "Connector of Real output signal", 9188, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal", 9155, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.k1",\
- "Gain of input signal 1", 3255, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 3228, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.k2",\
- "Gain of input signal 2", 3256, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 3229, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uLow",\
- "If y=true and u<uLow, switch to y=false", 3257, 0, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3230, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3258, 0, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3231, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 1044, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 1050, false, 0.0,0.0,0.0,\
0,562)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.u", \
-"", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.y", 1, 5, 9188,\
+"", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.subBou.y", 1, 5, 9155,\
0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.y",\
- "[:#(type=Boolean)]", 8355, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8318, false, 0.0,0.0,0.0,0,642)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMin",\
- "Used to set the frame where the icon should appear", 1045, -70, 0.0,0.0,0.0,0,2608)
+ "Used to set the frame where the icon should appear", 1051, -70, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.icoMax",\
- "Used to set the frame where the icon should appear", 1046, 70, 0.0,0.0,0.0,0,2608)
+ "Used to set the frame where the icon should appear", 1052, 70, 0.0,0.0,0.0,0,2608)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMax",\
- "Maximal value of ambient side [K|degC]", 3259, 288.15, 0.0,1E+100,300.0,0,2561)
+ "Maximal value of ambient side [K|degC]", 3232, 288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TAmbSidMin",\
- "Minimal temperature at ambient side [K|degC]", 3260, 288.15, 0.0,1E+100,300.0,\
+ "Minimal temperature at ambient side [K|degC]", 3233, 288.15, 0.0,1E+100,300.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMax",\
- "Maximal temperature of useful side [K|degC]", 3261, 288.15, 0.0,1E+100,300.0,0,2561)
+ "Maximal temperature of useful side [K|degC]", 3234, 288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.TUseSidMin",\
- "Minimal value of useful side [K|degC]", 3262, 0, 0.0,1E+100,300.0,0,2561)
+ "Minimal value of useful side [K|degC]", 3235, 0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.poi[1, 1]",\
- "Points for dynamic annotation", 3263, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3236, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.poi[1, 2]",\
- "Points for dynamic annotation", 3264, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3237, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.poi[2, 1]",\
- "Points for dynamic annotation", 3265, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3238, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.poi[2, 2]",\
- "Points for dynamic annotation", 3266, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3239, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid[1]",\
- "Helper array with only not ambient side temperature values [K|degC]", 3267, \
+ "Helper array with only not ambient side temperature values [K|degC]", 3240, \
288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSid[2]",\
- "Helper array with only not ambient side temperature values [K|degC]", 3268, \
+ "Helper array with only not ambient side temperature values [K|degC]", 3241, \
288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid[1]",\
- "Helper array with only useful side temperature values [K|degC]", 3269, 288.15,\
+ "Helper array with only useful side temperature values [K|degC]", 3242, 288.15,\
0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSid[2]",\
- "Helper array with only useful side temperature values [K|degC]", 3270, 288.15,\
+ "Helper array with only useful side temperature values [K|degC]", 3243, 288.15,\
0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSidToPoi[1]",\
- "Scale ambient side to icon size", 3271, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale ambient side to icon size", 3244, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTAmbSidToPoi[2]",\
- "Scale ambient side to icon size", 3272, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale ambient side to icon size", 3245, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSidToPoi[1]",\
- "Scale useful side to icon size", 3273, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale useful side to icon size", 3246, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.scaTUseSidToPoi[2]",\
- "Scale useful side to icon size", 3274, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale useful side to icon size", 3247, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tab[1, 1]",\
- "Table for boundary with second column as useful temperature side", 3275, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3248, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tab[1, 2]",\
- "Table for boundary with second column as useful temperature side", 3276, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3249, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tab[2, 1]",\
- "Table for boundary with second column as useful temperature side", 3277, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3250, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tab[2, 2]",\
- "Table for boundary with second column as useful temperature side", 3278, 0.0, \
+ "Table for boundary with second column as useful temperature side", 3251, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.dT", \
-"Delta value used to avoid state events when used as a safety control [K,]", 3279,\
+"Delta value used to avoid state events when used as a safety control [K,]", 3252,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.isUppBou",\
- "=true if it is an upper boundary, false for lower [:#(type=Boolean)]", 3280, \
+ "=true if it is an upper boundary, false for lower [:#(type=Boolean)]", 3253, \
false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.noErr", \
-"=false when an error occurs [:#(type=Boolean)]", 8356, false, 0.0,0.0,0.0,0,642)
+"=false when an error occurs [:#(type=Boolean)]", 8319, false, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSid", \
"Temperature at ambient side [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 0)
+ 5, 9149, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.nout",\
- "Number of outputs [:#(type=Integer)]", 3281, 1, 0.0,0.0,0.0,0,517)
+ "Number of outputs [:#(type=Integer)]", 3254, 1, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u", \
-"Connector of Real input signal", "hydraulic.generation.heatPump.eva.T", 1, 5, 9182,\
+"Connector of Real input signal", "hydraulic.generation.heatPump.eva.T", 1, 5, 9149,\
0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y[1]",\
- "Connector of Real output signals", 9189, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signals", 9156, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableOnFile",\
"= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
- 3282, false, 0.0,0.0,0.0,0,515)
+ 3255, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table[1, 1]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3283, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3256, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table[1, 2]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3284, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3257, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table[2, 1]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3285, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3258, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.table[2, 2]",\
- "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3286, 0.0,\
+ "Table matrix (grid = first column; e.g., table=[0, 0; 1, 1; 2, 4])", 3259, 0.0,\
0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.verboseRead",\
"= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
- 1047, true, 0.0,0.0,0.0,0,562)
+ 1053, true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.columns[1]",\
- "Columns of table to be interpolated [:#(type=Integer)]", 3287, 2, 0.0,0.0,0.0,\
+ "Columns of table to be interpolated [:#(type=Integer)]", 3260, 2, 0.0,0.0,0.0,\
0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.smoothness",\
"Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 3288, 1, 1.0,6.0,0.0,0,517)
+ 3261, 1, 1.0,6.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.extrapolation",\
"Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 3289, 2, 1.0,4.0,0.0,0,517)
+ 3262, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.verboseExtrapolation",\
"= true, if warning messages are to be printed if table input is outside the definition range [:#(type=Boolean)]",\
- 3290, false, 0.0,0.0,0.0,0,515)
+ 3263, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_min",\
- "Minimum abscissa value defined in table", 3291, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimum abscissa value defined in table", 3264, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.u_max",\
- "Maximum abscissa value defined in table", 3292, 0.0, 0.0,0.0,0.0,0,513)
+ "Maximum abscissa value defined in table", 3265, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.tableID.id",\
- "[:#(type=Integer)]", 3293, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 3266, 0, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.nu", \
-"Number of input connections [:#(type=Integer)]", 3294, 3, 0.0,1E+100,0.0,0,1541)
+"Number of input connections [:#(type=Integer)]", 3267, 3, 0.0,1E+100,0.0,0,1541)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.u[1]",\
- "Vector of Boolean input signals [:#(type=Boolean)]", 8357, false, 0.0,0.0,0.0,\
+ "Vector of Boolean input signals [:#(type=Boolean)]", 8320, false, 0.0,0.0,0.0,\
0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.u[2]",\
- "Vector of Boolean input signals [:#(type=Boolean)]", 8358, false, 0.0,0.0,0.0,\
+ "Vector of Boolean input signals [:#(type=Boolean)]", 8321, false, 0.0,0.0,0.0,\
0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.u[3]",\
- "Vector of Boolean input signals [:#(type=Boolean)]", 8359, false, 0.0,0.0,0.0,\
+ "Vector of Boolean input signals [:#(type=Boolean)]", 8322, false, 0.0,0.0,0.0,\
0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.nor.y", \
"Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.noErr", 1,\
- 5, 8356, 65)
+ 5, 8319, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uLow",\
- "If y=true and u<uLow, switch to y=false", 3295, -0.05, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3268, -0.05, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3296, 0, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3269, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 1048, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 1054, false, 0.0,0.0,0.0,\
0,562)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u",\
- "", 9190, 0.0, 0.0,0.0,0.0,0,512)
+ "", 9157, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y",\
- "[:#(type=Boolean)]", 8360, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8323, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uLow",\
- "If y=true and u<uLow, switch to y=false", 3297, -0.05, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3270, -0.05, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3298, 0, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3271, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 1049, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 1055, false, 0.0,0.0,0.0,\
0,562)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u",\
- "", 9191, 0.0, 0.0,0.0,0.0,0,512)
+ "", 9158, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y",\
- "[:#(type=Boolean)]", 8361, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8324, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.k",\
- "Constant output value", 3299, 1, 0.0,0.0,0.0,0,513)
+ "Constant output value", 3272, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.k", 1,\
- 5, 3299, 0)
+ 5, 3272, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.k",\
- "Constant output value", 3300, 1, 0.0,0.0,0.0,0,513)
+ "Constant output value", 3273, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.k", 1,\
- 5, 3300, 0)
+ 5, 3273, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subMax.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.eva.T", 1, 5,\
- 9182, 0)
+ 9149, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subMax.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMax.k", 1,\
- 5, 3300, 0)
+ 5, 3273, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subMax.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.u", 1,\
- 5, 9191, 0)
+ 5, 9158, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subMax.k1",\
- "Gain of input signal 1", 3301, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 3274, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subMax.k2",\
- "Gain of input signal 2", 3302, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 3275, -1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.u1", \
"Connector of Real input signal 1", "hydraulic.generation.heatPump.eva.T", 1, 5,\
- 9182, 0)
+ 9149, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.u2", \
"Connector of Real input signal 2", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.conTAmbSidMin.k", 1,\
- 5, 3299, 0)
+ 5, 3272, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.u", 1,\
- 5, 9190, 0)
+ 5, 9157, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.k1", \
-"Gain of input signal 1", 3303, -1, 0.0,0.0,0.0,0,513)
+"Gain of input signal 1", 3276, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.sub.k2", \
-"Gain of input signal 2", 3304, 1, 0.0,0.0,0.0,0,513)
+"Gain of input signal 2", 3277, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSid", \
"Useful temperature side [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 0)
+ 5, 9163, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.u1",\
"Connector of Real input signal 1", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 0)
+ 5, 9163, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.u2",\
"Connector of Real input signal 2", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.tabBou.y[1]", 1,\
- 5, 9189, 0)
+ 5, 9156, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.y",\
- "Connector of Real output signal", 9192, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal", 9159, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.k1",\
- "Gain of input signal 1", 3305, -1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 1", 3278, -1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.k2",\
- "Gain of input signal 2", 3306, 1, 0.0,0.0,0.0,0,513)
+ "Gain of input signal 2", 3279, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uLow",\
- "If y=true and u<uLow, switch to y=false", 3307, 0, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3280, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3308, 0, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3281, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 1050, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 1056, false, 0.0,0.0,0.0,\
0,562)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.u", \
-"", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.y", 1, 5, 9192,\
+"", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.subBou.y", 1, 5, 9159,\
0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y",\
- "[:#(type=Boolean)]", 8362, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8325, false, 0.0,0.0,0.0,0,642)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMin",\
- "Used to set the frame where the icon should appear", 1051, -70, 0.0,0.0,0.0,0,2608)
+ "Used to set the frame where the icon should appear", 1057, -70, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.icoMax",\
- "Used to set the frame where the icon should appear", 1052, 70, 0.0,0.0,0.0,0,2608)
+ "Used to set the frame where the icon should appear", 1058, 70, 0.0,0.0,0.0,0,2608)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMax",\
- "Maximal value of ambient side [K|degC]", 3309, 288.15, 0.0,1E+100,300.0,0,2561)
+ "Maximal value of ambient side [K|degC]", 3282, 288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TAmbSidMin",\
- "Minimal temperature at ambient side [K|degC]", 3310, 288.15, 0.0,1E+100,300.0,\
+ "Minimal temperature at ambient side [K|degC]", 3283, 288.15, 0.0,1E+100,300.0,\
0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMax",\
- "Maximal temperature of useful side [K|degC]", 3311, 288.15, 0.0,1E+100,300.0,0,2561)
+ "Maximal temperature of useful side [K|degC]", 3284, 288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.TUseSidMin",\
- "Minimal value of useful side [K|degC]", 3312, 0, 0.0,1E+100,300.0,0,2561)
+ "Minimal value of useful side [K|degC]", 3285, 0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.poi[1, 1]",\
- "Points for dynamic annotation", 3313, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3286, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.poi[1, 2]",\
- "Points for dynamic annotation", 3314, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3287, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.poi[2, 1]",\
- "Points for dynamic annotation", 3315, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3288, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.poi[2, 2]",\
- "Points for dynamic annotation", 3316, 0.0, 0.0,0.0,0.0,0,3585)
+ "Points for dynamic annotation", 3289, 0.0, 0.0,0.0,0.0,0,3585)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid[1]",\
- "Helper array with only not ambient side temperature values [K|degC]", 3317, \
+ "Helper array with only not ambient side temperature values [K|degC]", 3290, \
288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSid[2]",\
- "Helper array with only not ambient side temperature values [K|degC]", 3318, \
+ "Helper array with only not ambient side temperature values [K|degC]", 3291, \
288.15, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid[1]",\
- "Helper array with only useful side temperature values [K|degC]", 3319, 288.15,\
+ "Helper array with only useful side temperature values [K|degC]", 3292, 288.15,\
0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSid[2]",\
- "Helper array with only useful side temperature values [K|degC]", 3320, 288.15,\
+ "Helper array with only useful side temperature values [K|degC]", 3293, 288.15,\
0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[1]",\
- "Scale ambient side to icon size", 3321, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale ambient side to icon size", 3294, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTAmbSidToPoi[2]",\
- "Scale ambient side to icon size", 3322, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale ambient side to icon size", 3295, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[1]",\
- "Scale useful side to icon size", 3323, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale useful side to icon size", 3296, 0.0, -100.0,100.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.scaTUseSidToPoi[2]",\
- "Scale useful side to icon size", 3324, 0.0, -100.0,100.0,0.0,0,2561)
+ "Scale useful side to icon size", 3297, 0.0, -100.0,100.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u1", \
-"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
-DeclareVariable("hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u2", \
-"Connector of second Boolean input signal [:#(type=Boolean)]", 3325, true, \
-0.0,0.0,0.0,0,515)
+"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.noErr", 1,\
+ 5, 8312, 65)
+DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u2", \
+"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.u3", \
"Connector of third Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.noErr", 1,\
- 5, 8356, 65)
+ 5, 8319, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnv.swiHeaCoo.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2", 1,\
- 5, 8347, 65)
+ 5, 8309, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.ySet", \
"Input for relative compressor speed from 0 to 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 0)
+ 5, 9202, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.yOut", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.safCtr.opeEnv.ySet", 1,\
- 5, 9183, 0)
+ 5, 9150, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.onOffMea", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 69)
+ 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.PEleMea", \
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.QEva_flow", \
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.TConInMea", \
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.TConOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.TEvaInMea", \
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.TEvaOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.hea", \
-"=true for heating, =false for cooling [:#(type=Boolean)]", 3326, true, 0.0,0.0,\
-0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.hea", \
+"=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 3327, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 3298, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.icefacHPMea",\
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.mConMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.mEvaMea_flow",\
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.relHum", \
-"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.yMea", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.sigBus.ySet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.use_minOnTime", \
-"=false to ignore minimum on-time constraint [:#(type=Boolean)]", 3328, true, \
+"=false to ignore minimum on-time constraint [:#(type=Boolean)]", 3299, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.minOnTime", \
-"Minimum on-time [s|min]", 3329, 0.0, 0.0,0.0,0.0,0,513)
+"Minimum on-time [s|min]", 3300, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.use_minOffTime", \
-"=false to ignore minimum off time constraint [:#(type=Boolean)]", 3330, true, \
+"=false to ignore minimum off time constraint [:#(type=Boolean)]", 3301, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.minOffTime", \
-"Minimum off time [s|min]", 3331, 0.0, 0.0,0.0,0.0,0,513)
+"Minimum off time [s|min]", 3302, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.use_maxCycRat", \
-"=false to ignore maximal cycle rate constraint [:#(type=Boolean)]", 3332, true,\
+"=false to ignore maximal cycle rate constraint [:#(type=Boolean)]", 3303, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.maxCycRat", \
-"Maximum cycle rate [:#(type=Integer)]", 3333, 0, 0.0,0.0,0.0,0,517)
+"Maximum cycle rate [:#(type=Integer)]", 3304, 0, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffMea_start", \
"Start value for the on-off signal of the device, true for on [:#(type=Boolean)]",\
- 3334, false, 0.0,0.0,0.0,0,515)
+ 3305, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.ySet_small", \
-"Threshold for relative speed for the device to be considered on", 3335, 0.0, \
+"Threshold for relative speed for the device to be considered on", 3306, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.ySetRed", \
-"Reduced relative compressor speed to allow longer on-time", 3336, 0.0, 0.0,0.0,\
+"Reduced relative compressor speed to allow longer on-time", 3307, 0.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uLow", \
-"If y=true and u<uLow, switch to y=false", 3337, 0, 0.0,0.0,0.0,0,513)
+"If y=true and u<uLow, switch to y=false", 3308, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.uHigh", \
-"If y=false and u>uHigh, switch to y=true", 3338, 1, 0.0,0.0,0.0,0,513)
+"If y=false and u>uHigh, switch to y=true", 3309, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 3339, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 3310, false, 0.0,0.0,0.0,\
0,515)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.u", "", \
-"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.y", \
-"[:#(type=Boolean)]", 8363, false, 0.0,0.0,0.0,0,642)
+"[:#(type=Boolean)]", 8326, false, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.isAblToTurOff.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.isAblToTurOff.y", 1,\
- 5, 8364, 65)
+ 5, 8327, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.isAblToTurOff.y",\
- "Connector of Boolean output signal [:#(type=Boolean)]", 8364, true, 0.0,0.0,\
+ "Connector of Boolean output signal [:#(type=Boolean)]", 8327, true, 0.0,0.0,\
0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.pre_u_start",\
- "Start value of pre(u) at initial time [:#(type=Boolean)]", 3340, false, \
+ "Start value of pre(u) at initial time [:#(type=Boolean)]", 3311, false, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.u", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 8365, false, 0.0,0.0,0.0,\
+"Connector of Boolean input signal [:#(type=Boolean)]", 8328, false, 0.0,0.0,0.0,\
0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 8366, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 8329, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2", 1,\
- 5, 8375, 65)
+ 5, 8338, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.maxCycRat",\
- "Maximal cycle rate [:#(type=Integer)]", 3341, 0, 0.0,0.0,0.0,0,517)
+ "Maximal cycle rate [:#(type=Integer)]", 3312, 0, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.delTim",\
- "Delay time of output with respect to input signal [s|h]", 3342, 3600, 0.0,0.0,\
+ "Delay time of output with respect to input signal [s|h]", 3313, 3600, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.threshold",\
- "Comparison with respect to threshold", 3343, 0.0, 0.0,0.0,0.0,0,513)
+ "Comparison with respect to threshold", 3314, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u",\
- "Connector of Real input signal", 8367, 0.0, 0.0,0.0,0.0,0,640)
+ "Connector of Real input signal", 8330, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2", 1,\
- 5, 8375, 65)
+ 5, 8338, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.u",\
- "Integer input signal [:#(type=Integer)]", 3344, 1, 0.0,0.0,0.0,0,517)
+ "Integer input signal [:#(type=Integer)]", 3315, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y",\
- "Integer output signal [:#(type=Integer)]", 8368, 0, 0.0,0.0,0.0,0,644)
+ "Integer output signal [:#(type=Integer)]", 8331, 0, 0.0,0.0,0.0,0,644)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.use_reset",\
- "= true, if reset port enabled [:#(type=Boolean)]", 3345, false, 0.0,0.0,0.0,0,1539)
+ "= true, if reset port enabled [:#(type=Boolean)]", 3316, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.use_set",\
"= true, if set port enabled and used as default value when reset [:#(type=Boolean)]",\
- 3346, false, 0.0,0.0,0.0,0,1539)
+ 3317, false, 0.0,0.0,0.0,0,1539)
DeclareParameter("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y_start",\
- "Initial and reset value of y if set port is not used [:#(type=Integer)]", 1053,\
+ "Initial and reset value of y if set port is not used [:#(type=Integer)]", 1059,\
0, 0.0,0.0,0.0,0,564)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.trigger",\
"[:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_reset",\
- "[:#(type=Boolean)]", 3347, false, 0.0,0.0,0.0,0,1539)
+ "[:#(type=Boolean)]", 3318, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.local_set",\
- "[:#(type=Integer)]", 3348, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 3319, 0, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.k",\
- "Constant output value [:#(type=Integer)]", 3349, 1, 0.0,0.0,0.0,0,517)
+ "Constant output value [:#(type=Integer)]", 3320, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intConPluOne.y",\
- "Connector of Integer output signal [:#(type=Integer)]", 3350, 1, 0.0,0.0,0.0,0,517)
+ "Connector of Integer output signal [:#(type=Integer)]", 3321, 1, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intToRea.u",\
"Connector of Integer input signal [:#(type=Integer)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y", 1,\
- 5, 8368, 66)
+ 5, 8331, 66)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y",\
- "Connector of Real output signal", 8369, 0.0, 0.0,0.0,0.0,0,640)
+ "Connector of Real output signal", 8332, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.sub.u1", \
"Connector of Real input signal 1", "hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y", 1,\
- 5, 8369, 0)
+ 5, 8332, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.sub.u2",\
- "Connector of Real input signal 2", 8370, 0.0, 0.0,0.0,0.0,0,640)
+ "Connector of Real input signal 2", 8333, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.sub.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.runCouLesMax.u", 1,\
- 5, 8367, 0)
+ 5, 8330, 0)
DeclareParameter("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.sub.k1",\
- "Gain of input signal 1", 1054, 1, 0.0,0.0,0.0,0,560)
+ "Gain of input signal 1", 1060, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.sub.k2",\
- "Gain of input signal 2", 1055, -1, 0.0,0.0,0.0,0,560)
+ "Gain of input signal 2", 1061, -1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.fixDel.u",\
"Connector of Real input signal", "hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y", 1,\
- 5, 8369, 0)
+ 5, 8332, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.fixDel.y",\
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.sub.u2", 1,\
- 5, 8370, 0)
+ 5, 8333, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.fixDel.delayTime",\
- "Delay time of output with respect to input signal [s]", 3351, 3600.0, 0.0,0.0,\
+ "Delay time of output with respect to input signal [s]", 3322, 3600.0, 0.0,0.0,\
0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.notIsOn.y", 1,\
- 5, 8372, 65)
+ 5, 8335, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1", 1,\
- 5, 8374, 65)
+ 5, 8337, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.minOnTime",\
- "Minimal time the device is turned on or off [s]", 3352, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimal time the device is turned on or off [s]", 3323, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTim.u",\
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.notIsOn.y", 1,\
- 5, 8372, 65)
+ 5, 8335, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTim.y",\
- "Connector of Real output signal", 9193, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal", 9160, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTim.entryTime",\
- "Time instant when u became true [s]", 8371, 0.0, 0.0,0.0,0.0,0,2688)
+ "Time instant when u became true [s]", 8334, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.threshold",\
- "Comparison with respect to threshold", 3353, 0.0, 0.0,0.0,0.0,0,513)
+ "Comparison with respect to threshold", 3324, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.u",\
"Connector of Real input signal", "hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTim.y", 1,\
- 5, 9193, 0)
+ 5, 9160, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.locTimCtr.runTimGreMin.y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1", 1,\
- 5, 8374, 65)
+ 5, 8337, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.notIsOn.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.notIsOn.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 8372, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 8335, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.isAblToTurOff.y", 1,\
- 5, 8364, 65)
+ 5, 8327, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.minOnTime",\
- "Minimal time the device is turned on or off [s]", 3354, 0.0, 0.0,0.0,0.0,0,513)
+ "Minimal time the device is turned on or off [s]", 3325, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTim.u",\
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTim.y",\
- "Connector of Real output signal", 9194, 0.0, 0.0,0.0,0.0,0,512)
+ "Connector of Real output signal", 9161, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTim.entryTime",\
- "Time instant when u became true [s]", 8373, 0.0, 0.0,0.0,0.0,0,2688)
+ "Time instant when u became true [s]", 8336, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.threshold",\
- "Comparison with respect to threshold", 3355, 0.0, 0.0,0.0,0.0,0,513)
+ "Comparison with respect to threshold", 3326, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.u",\
"Connector of Real input signal", "hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTim.y", 1,\
- 5, 9194, 0)
+ 5, 9161, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.runTimCtr.runTimGreMin.y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.isAblToTurOff.y", 1,\
- 5, 8364, 65)
+ 5, 8327, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.u1",\
- "Connector of first Boolean input signal [:#(type=Boolean)]", 8374, false, \
+ "Connector of first Boolean input signal [:#(type=Boolean)]", 8337, false, \
0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.u2",\
- "Connector of second Boolean input signal [:#(type=Boolean)]", 8375, false, \
+ "Connector of second Boolean input signal [:#(type=Boolean)]", 8338, false, \
0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.andIsAblToTurOn.y",\
- "Connector of Boolean output signal [:#(type=Boolean)]", 8376, true, 0.0,0.0,\
+ "Connector of Boolean output signal [:#(type=Boolean)]", 8339, true, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.notSetOn.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.y", 1,\
- 5, 8363, 65)
+ 5, 8326, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.notSetOn.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 8377, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 8340, false, 0.0,0.0,\
0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andTurOff.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andTurOff.u2", \
"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.notSetOn.y", 1,\
- 5, 8377, 65)
+ 5, 8340, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andTurOff.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOff", 1,\
- 5, 8380, 65)
+ 5, 8343, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andTurOn.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.notIsOn.y", 1,\
- 5, 8372, 65)
+ 5, 8335, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andTurOn.u2", \
"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.y", 1,\
- 5, 8363, 65)
+ 5, 8326, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andTurOn.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOn", 1,\
- 5, 8378, 65)
+ 5, 8341, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andStaOn.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.y", 1,\
- 5, 8363, 65)
+ 5, 8326, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andStaOn.u2", \
"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.y", 1,\
- 5, 8366, 65)
+ 5, 8329, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andStaOn.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.staOn", 1,\
- 5, 8383, 65)
+ 5, 8346, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andStaOff.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.notIsOn.y", 1,\
- 5, 8372, 65)
+ 5, 8335, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andStaOff.u2", \
"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.notSetOn.y", 1,\
- 5, 8377, 65)
+ 5, 8340, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.andStaOff.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.staOff", 1,\
- 5, 8382, 65)
+ 5, 8345, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.ySetRed",\
- "Reduced relative compressor speed to allow longer on-time", 3356, 0.0, \
+ "Reduced relative compressor speed to allow longer on-time", 3327, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOn",\
- "Indicates if device should turn on [:#(type=Boolean)]", 8378, false, 0.0,0.0,\
+ "Indicates if device should turn on [:#(type=Boolean)]", 8341, false, 0.0,0.0,\
0.0,0,658)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOn",\
- "Indicates if the device can turn on [:#(type=Boolean)]", 8379, true, 0.0,0.0,\
+ "Indicates if the device can turn on [:#(type=Boolean)]", 8342, true, 0.0,0.0,\
0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOff",\
- "Indicates if the device should turn off [:#(type=Boolean)]", 8380, false, \
+ "Indicates if the device should turn off [:#(type=Boolean)]", 8343, false, \
0.0,0.0,0.0,0,658)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.isAblToTurOff",\
- "Indicates if the device can turn off [:#(type=Boolean)]", 8381, true, 0.0,0.0,\
+ "Indicates if the device can turn off [:#(type=Boolean)]", 8344, true, 0.0,0.0,\
0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.staOff",\
- "Indicates if the device has to stay off [:#(type=Boolean)]", 8382, false, \
+ "Indicates if the device has to stay off [:#(type=Boolean)]", 8345, false, \
0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.staOn",\
- "Indicates if the device has to stay on [:#(type=Boolean)]", 8383, false, \
+ "Indicates if the device has to stay on [:#(type=Boolean)]", 8346, false, \
0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.yOut", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.safCtr.opeEnv.ySet", 1,\
- 5, 9183, 0)
+ 5, 9150, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.ySet", \
"Input for relative compressor speed from 0 to 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 0)
+ 5, 9202, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin",\
- "Indicates if device needs to run at minimal limit [:#(type=Integer)]", 8384, 0,\
+ "Indicates if device needs to run at minimal limit [:#(type=Integer)]", 8347, 0,\
0.0,0.0,0.0,0,2708)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff",\
- "Indicates if device needs to turn off [:#(type=Integer)]", 8385, 0, 0.0,0.0,\
+ "Indicates if device needs to turn off [:#(type=Integer)]", 8348, 0, 0.0,0.0,\
0.0,0,2708)
DeclareVariable("hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe",\
- "Indicates if device is at normal operation [:#(type=Integer)]", 8386, 1, \
+ "Indicates if device is at normal operation [:#(type=Integer)]", 8349, 1, \
0.0,0.0,0.0,0,2708)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.opeEnvErr", "Number of errors from violating the operational envelope [:#(type=Integer)]",\
- "hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", 1, 5, 8348, 66)
+ "hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", 1, 5, 8310, 66)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.ySet", \
"Input for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.safCtr.opeEnv.yOut", 1,\
- 5, 9184, 0)
+ 5, 9151, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.yOut", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 0)
+ 5, 9162, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.mEvaMea_flow",\
- "", "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 4)
+ "", "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.mConMea_flow",\
- "", "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 4)
+ "", "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.PEleMea",\
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.QEva_flow",\
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.TConInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.TConOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.TEvaInMea",\
"Value of Real output [K|degC]", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.TEvaOutMea",\
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.hea",\
- "=true for heating, =false for cooling [:#(type=Boolean)]", 3357, true, \
-0.0,0.0,0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.hea",\
+ "=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 3358, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 3328, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.icefacHPMea",\
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.onOffMea",\
- "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.relHum",\
- "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+ "Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.yMea",\
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.sigBus.ySet",\
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u1", \
"Connector of first Real input signal", "hydraulic.generation.heatPump.safCtr.opeEnv.yOut", 1,\
- 5, 9184, 0)
+ 5, 9151, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2",\
- "Connector of Boolean input signal [:#(type=Boolean)]", 8387, false, 0.0,0.0,\
+ "Connector of Boolean input signal [:#(type=Boolean)]", 8350, false, 0.0,0.0,\
0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u3",\
- "Connector of second Real input signal", 3359, 0, 0.0,0.0,0.0,0,513)
+ "Connector of second Real input signal", 3329, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.y", \
-"Connector of Real output signal", "hydraulic.generation.heatPump.hys.u", 1, 5, 9195,\
+"Connector of Real output signal", "hydraulic.generation.heatPump.hys.u", 1, 5, 9162,\
0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.conZer.k",\
- "Constant output value", 3360, 0, 0.0,0.0,0.0,0,513)
+ "Constant output value", 3330, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.conZer.y",\
- "Connector of Real output signal", 3361, 0.0, 0.0,0.0,0.0,0,513)
+ "Connector of Real output signal", 3331, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.u",\
- "Integer input signal [:#(type=Integer)]", 3362, 1, 0.0,0.0,0.0,0,517)
+ "Integer input signal [:#(type=Integer)]", 3332, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y",\
- "Integer output signal [:#(type=Integer)]", 8388, 0, 0.0,0.0,0.0,0,644)
+ "Integer output signal [:#(type=Integer)]", 8351, 0, 0.0,0.0,0.0,0,644)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.use_reset",\
- "= true, if reset port enabled [:#(type=Boolean)]", 3363, false, 0.0,0.0,0.0,0,1539)
+ "= true, if reset port enabled [:#(type=Boolean)]", 3333, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.use_set",\
"= true, if set port enabled and used as default value when reset [:#(type=Boolean)]",\
- 3364, false, 0.0,0.0,0.0,0,1539)
+ 3334, false, 0.0,0.0,0.0,0,1539)
DeclareParameter("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y_start",\
- "Initial and reset value of y if set port is not used [:#(type=Integer)]", 1056,\
+ "Initial and reset value of y if set port is not used [:#(type=Integer)]", 1062,\
0, 0.0,0.0,0.0,0,564)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.trigger",\
- "[:#(type=Boolean)]", 8389, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8352, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.local_reset",\
- "[:#(type=Boolean)]", 3365, false, 0.0,0.0,0.0,0,1539)
+ "[:#(type=Boolean)]", 3335, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.local_set",\
- "[:#(type=Integer)]", 3366, 0, 0.0,0.0,0.0,0,2565)
+ "[:#(type=Integer)]", 3336, 0, 0.0,0.0,0.0,0,2565)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.err", \
"Integer for displaying number of errors during simulation [:#(type=Integer)]", \
-"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y", 1, 5, 8388, 66)
+"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y", 1, 5, 8351, 66)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.notVal.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2", 1,\
- 5, 8387, 65)
+ 5, 8350, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.notVal.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.trigger", 1,\
- 5, 8389, 65)
+ 5, 8352, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.intConOne.k",\
- "Constant output value [:#(type=Integer)]", 3367, 1, 0.0,0.0,0.0,0,517)
+ "Constant output value [:#(type=Integer)]", 3337, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.intConOne.y",\
- "Connector of Integer output signal [:#(type=Integer)]", 3368, 1, 0.0,0.0,0.0,0,517)
+ "Connector of Integer output signal [:#(type=Integer)]", 3338, 1, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.booPasThr.u",\
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2", 1,\
- 5, 8387, 65)
+ 5, 8350, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.booPasThr.y",\
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2", 1,\
- 5, 8387, 65)
+ 5, 8350, 65)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.mEvaMin_flow",\
- "Minimal mass flow rate in evaporator required to operate the device [kg/s]", 3369,\
+ "Minimal mass flow rate in evaporator required to operate the device [kg/s]", 3339,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.mConMin_flow",\
- "Minimal mass flow rate in condenser required to operate the device [kg/s]", 3370,\
+ "Minimal mass flow rate in condenser required to operate the device [kg/s]", 3340,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uLow",\
- "If y=true and u<uLow, switch to y=false", 3371, 0, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3341, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3372, 1, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3342, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 3373, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 3343, false, 0.0,0.0,0.0,\
0,515)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.u", \
-"", "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+"", "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.y",\
- "[:#(type=Boolean)]", 8390, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8353, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.uLow",\
- "If y=true and u<uLow, switch to y=false", 3374, 0, 0.0,0.0,0.0,0,513)
+ "If y=true and u<uLow, switch to y=false", 3344, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.uHigh",\
- "If y=false and u>uHigh, switch to y=true", 3375, 1, 0.0,0.0,0.0,0,513)
+ "If y=false and u>uHigh, switch to y=true", 3345, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.pre_y_start",\
- "Value of pre(y) at initial time [:#(type=Boolean)]", 3376, false, 0.0,0.0,0.0,\
+ "Value of pre(y) at initial time [:#(type=Boolean)]", 3346, false, 0.0,0.0,0.0,\
0,515)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.u", \
-"", "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 0)
+"", "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 0)
DeclareVariable("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.y",\
- "[:#(type=Boolean)]", 8391, false, 0.0,0.0,0.0,0,642)
+ "[:#(type=Boolean)]", 8354, false, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.and1.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.y", 1,\
- 5, 8390, 65)
+ 5, 8353, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.and1.u2", \
"Connector of second Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.y", 1,\
- 5, 8391, 65)
+ 5, 8354, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.and1.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2", 1,\
- 5, 8387, 65)
+ 5, 8350, 65)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.minFlowErr", \
"Number of errors from violating minimum flow rates [:#(type=Integer)]", \
-"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y", 1, 5, 8388, 66)
+"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y", 1, 5, 8351, 66)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.reaPasThrAntFre.u", \
"Connector of Real input signal", "hydraulic.generation.heatPump.safCtr.opeEnv.yOut", 1,\
- 5, 9184, 0)
+ 5, 9151, 0)
DeclareAlias2("hydraulic.generation.heatPump.safCtr.reaPasThrAntFre.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.safCtr.opeEnv.yOut", 1,\
- 5, 9184, 0)
+ 5, 9151, 0)
DeclareVariable("hydraulic.generation.heatPump.mEva_flow.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3377, true, 0.0,0.0,0.0,0,515)
+ 3347, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.mEva_flow.port_a.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3378, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3348, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9140, 4)
+ "hydraulic.generation.heatPump.port_a2.h_outflow", 1, 5, 9103, 4)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"hydraulic.generation.heatPump.eva.vol.dynBal.medium.Xi[1]", 1, 1, 22, 4)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.heatPump.mEva_flow.port_b.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 3379, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 3349, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.bouEva.ports[1].h_outflow", 1, 5, 9202, 4)
+ "hydraulic.generation.bouEva.ports[1].h_outflow", 1, 5, 9171, 4)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "hydraulic.generation.bouEva.X[1]", 1, 7, 1067, 4)
+ "hydraulic.generation.bouEva.X[1]", 1, 7, 1073, 4)
DeclareVariable("hydraulic.generation.heatPump.mEva_flow.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3380, 0,\
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3350, 0,\
0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.mEva_flow.m_flow_small", \
"For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 3381, 0, 0.0,1E+100,0.0,0,513)
+ 3351, 0, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.mEva_flow.m_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 0)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 0)
DeclareVariable("hydraulic.generation.heatPump.mCon_flow.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3382, true, 0.0,0.0,0.0,0,515)
+ 3352, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_a1.p", 1,\
- 5, 8339, 4)
+ 5, 8300, 4)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.heatPump.port_a1.p", 1,\
- 5, 8339, 4)
+ 5, 8300, 4)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_b.h_outflow", 1, 5, 9204, 4)
+ "hydraulic.generation.pump.port_b.h_outflow", 1, 5, 9173, 4)
DeclareVariable("hydraulic.generation.heatPump.mCon_flow.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3383, 0,\
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3353, 0,\
0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.mCon_flow.m_flow_small", \
"For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 3384, 0, 0.0,1E+100,0.0,0,513)
+ 3354, 0, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.mCon_flow.m_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.heatPump.hys.uLow", "If y=true and u<uLow, switch to y=false",\
- 3385, 0.001, 0.0,0.0,0.0,0,513)
+ 3355, 0.001, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.hys.uHigh", "If y=false and u>uHigh, switch to y=true",\
- 3386, 1, 0.0,0.0,0.0,0,513)
+ 3356, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.hys.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 3387, false, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.heatPump.hys.u", "", 9195, 0.0, 0.0,0.0,\
+"Value of pre(y) at initial time [:#(type=Boolean)]", 3357, false, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.generation.heatPump.hys.u", "", 9162, 0.0, 0.0,0.0,\
0.0,0,512)
-DeclareVariable("hydraulic.generation.heatPump.hys.y", "[:#(type=Boolean)]", 8392,\
+DeclareVariable("hydraulic.generation.heatPump.hys.y", "[:#(type=Boolean)]", 8355,\
true, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.heatPump.refCycIneCon.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCycIneCon.y", "Connector of Real output signal",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCycIneEva.u", "Connector of Real input signal",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
DeclareAlias2("hydraulic.generation.heatPump.refCycIneEva.y", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
DeclareVariable("hydraulic.generation.heatPump.senTConIn.y", "Value of Real output [K|degC]",\
- 9196, 0.0, 0.0,0.0,0.0,0,512)
+ 9163, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.senTEvaIn.y", "Value of Real output [K|degC]",\
- 9197, 0.0, 0.0,0.0,0.0,0,512)
+ 9164, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.heatPump.QCon_flow", "Actual heating heat flow rate added to fluid 1 [W]",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.P", "Electric power consumed by compressor [W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
DeclareAlias2("hydraulic.generation.heatPump.QEva_flow", "Actual cooling heat flow rate removed from fluid 2 [W]",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 0)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 0)
DeclareVariable("hydraulic.generation.heatPump.eff.PEleMin", "If eletrical power consumption falls below this value, COP will be set to zero [W]",\
- 3388, 1E-15, 1E-15,1E+100,0.0,0,513)
+ 3358, 1E-15, 1E-15,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.generation.heatPump.eff.PEle", "Electrical power consumed by the system [W|W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
DeclareAlias2("hydraulic.generation.heatPump.eff.QUse_flow", "Useful heat flow [W|W]",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareAlias2("hydraulic.generation.heatPump.eff.COP", "Output for calculated COP value [1]",\
- "hydraulic.generation.heatPump.COP", 1, 5, 9201, 0)
+ "hydraulic.generation.heatPump.COP", 1, 5, 9170, 0)
DeclareVariable("hydraulic.generation.heatPump.eff.hys.uLow", "If y=true and u<uLow, switch to y=false",\
- 3389, 0, 0.0,0.0,0.0,0,513)
+ 3359, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eff.hys.uHigh", "If y=false and u>uHigh, switch to y=true",\
- 3390, 1, 0.0,0.0,0.0,0,513)
+ 3360, 1, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.heatPump.eff.hys.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 1057, false, 0.0,0.0,0.0,0,562)
+"Value of pre(y) at initial time [:#(type=Boolean)]", 1063, false, 0.0,0.0,0.0,0,562)
DeclareAlias2("hydraulic.generation.heatPump.eff.hys.u", "", "outputs.hydraulic.gen.PEleHeaPum.value", 1,\
3, 14, 0)
DeclareVariable("hydraulic.generation.heatPump.eff.hys.y", "[:#(type=Boolean)]",\
- 8393, false, 0.0,0.0,0.0,0,642)
-DeclareVariable("hydraulic.generation.heatPump.eff.hea", "=true for heating, false for cooling [:#(type=Boolean)]",\
- 3391, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.heatPump.eff.EER", "Output for calculated EER value [1]",\
- 3392, 0.0, 0.0,1E+100,0.0,0,513)
+ 8356, false, 0.0,0.0,0.0,0,642)
+DeclareAlias2("hydraulic.generation.heatPump.eff.hea", "=true for heating, false for cooling [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 65)
+DeclareAlias2("hydraulic.generation.heatPump.eff.EER", "Output for calculated EER value [1]",\
+ "hydraulic.generation.heatPump.EER", 1, 5, 9169, 0)
DeclareAlias2("hydraulic.generation.heatPump.eff.invXReg.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
DeclareVariable("hydraulic.generation.heatPump.eff.invXReg.y", "Connector of Real output signal",\
- 9198, 0.0, 0.0,0.0,0.0,0,512)
+ 9165, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.eff.invXReg.delta", \
-"Abscissa value below which approximation occurs", 3393, 0.0, 0.0,1E+100,0.0,0,513)
+"Abscissa value below which approximation occurs", 3361, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.eff.copCom.u1", "Connector of Real input signal 1",\
- 9199, 0.0, 0.0,0.0,0.0,0,2560)
+ 9166, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.eff.copCom.u2", "Connector of Real input signal 2",\
- "hydraulic.generation.heatPump.eff.invXReg.y", 1, 5, 9198, 1024)
+ "hydraulic.generation.heatPump.eff.invXReg.y", 1, 5, 9165, 1024)
DeclareVariable("hydraulic.generation.heatPump.eff.copCom.y", "Connector of Real output signal",\
- 9200, 0.0, 0.0,0.0,0.0,0,2560)
+ 9167, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("hydraulic.generation.heatPump.eff.swi.u1", "Connector of first Real input signal",\
- "hydraulic.generation.heatPump.eff.copCom.y", 1, 5, 9200, 1024)
+ "hydraulic.generation.heatPump.eff.copCom.y", 1, 5, 9167, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eff.swi.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.eff.hys.y", 1, 5, 8393, 1089)
+ "hydraulic.generation.heatPump.eff.hys.y", 1, 5, 8356, 1089)
DeclareVariable("hydraulic.generation.heatPump.eff.swi.u3", "Connector of second Real input signal",\
- 3394, 0, 0.0,0.0,0.0,0,2561)
-DeclareAlias2("hydraulic.generation.heatPump.eff.swi.y", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.COP", 1, 5, 9201, 1024)
+ 3362, 0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("hydraulic.generation.heatPump.eff.swi.y", "Connector of Real output signal",\
+ 9168, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.heatPump.eff.zer.k", "Constant output value",\
- 3395, 0, 0.0,0.0,0.0,0,2561)
+ 3363, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eff.zer.y", "Connector of Real output signal",\
- 3396, 0.0, 0.0,0.0,0.0,0,2561)
+ 3364, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.heatPump.eff.swiCoo.u1", "Connector of first Real input signal",\
- 3397, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.generation.heatPump.eff.swiCoo.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 3398, true, 0.0,0.0,0.0,0,2563)
+ 3365, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareAlias2("hydraulic.generation.heatPump.eff.swiCoo.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 1089)
DeclareAlias2("hydraulic.generation.heatPump.eff.swiCoo.u3", "Connector of second Real input signal",\
- "hydraulic.generation.heatPump.COP", 1, 5, 9201, 1024)
-DeclareVariable("hydraulic.generation.heatPump.eff.swiCoo.y", "Connector of Real output signal",\
- 3399, 0.0, 0.0,0.0,0.0,0,2561)
+ "hydraulic.generation.heatPump.eff.swi.y", 1, 5, 9168, 1024)
+DeclareAlias2("hydraulic.generation.heatPump.eff.swiCoo.y", "Connector of Real output signal",\
+ "hydraulic.generation.heatPump.EER", 1, 5, 9169, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eff.swiHea.u1", "Connector of first Real input signal",\
- "hydraulic.generation.heatPump.COP", 1, 5, 9201, 1024)
-DeclareVariable("hydraulic.generation.heatPump.eff.swiHea.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 3400, true, 0.0,0.0,0.0,0,2563)
+ "hydraulic.generation.heatPump.eff.swi.y", 1, 5, 9168, 1024)
+DeclareAlias2("hydraulic.generation.heatPump.eff.swiHea.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 1089)
DeclareVariable("hydraulic.generation.heatPump.eff.swiHea.u3", "Connector of second Real input signal",\
- 3401, 0.0, 0.0,0.0,0.0,0,2561)
+ 3366, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.heatPump.eff.swiHea.y", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.COP", 1, 5, 9201, 1024)
+ "hydraulic.generation.heatPump.COP", 1, 5, 9170, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eff.absQEva_flow.u", \
"Connector of Real input signal", "outputs.hydraulic.gen.QHeaPum_flow.value", 1,\
3, 12, 1024)
DeclareAlias2("hydraulic.generation.heatPump.eff.absQEva_flow.y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.eff.copCom.u1", 1,\
- 5, 9199, 1024)
+ 5, 9166, 1024)
DeclareVariable("hydraulic.generation.heatPump.eff.absQEva_flow.generateEvent", \
-"Choose whether events shall be generated [:#(type=Boolean)]", 3402, false, \
+"Choose whether events shall be generated [:#(type=Boolean)]", 3367, false, \
0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.yMea", "Output for relative compressor speed from 0 to 1",\
- "hydraulic.generation.heatPump.hys.u", 1, 5, 9195, 4)
+ "hydraulic.generation.heatPump.hys.u", 1, 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.mEvaMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.mConMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.PEleMea", "Routing block that picks the component for electric power consumption [W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.onOffMea", "[:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.TConOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.con.T", 1,\
- 5, 9167, 4)
+ 5, 9134, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.TConInMea", "Value of Real output [K|degC]",\
- "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9196, 4)
+ "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.TEvaOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
+ 5, 9149, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.TEvaInMea", "Value of Real output [K|degC]",\
- "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9197, 4)
+ "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.ySet", "Relative compressor speed between 0 and 1",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 4)
-DeclareVariable("hydraulic.generation.heatPump.sigBus.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
- 3403, true, 0.0,0.0,0.0,0,523)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 4)
+DeclareAlias2("hydraulic.generation.heatPump.sigBus.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 69)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.QEva_flow", "Actual cooling heat flow rate removed from fluid 2 [W]",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 4)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 4)
DeclareVariable("hydraulic.generation.heatPump.sigBus.iceFacChiMea", \
-"Icing factor from 0 to 1 to estimate influence of icing [1]", 3404, 1.0, 0.0,\
+"Icing factor from 0 to 1 to estimate influence of icing [1]", 3368, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.icefacHPMea", \
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heatPump.sigBus.relHum", "Connector of Real output signal",\
- "building.weaBus.relHum", 1, 5, 8491, 4)
+ "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareVariable("hydraulic.generation.heatPump.use_busConOnl", "=true to allow input to bus connector, not applicable with internal safety control [:#(type=Boolean)]",\
- 3405, false, 0.0,0.0,0.0,0,515)
+ 3369, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.heatPump.use_COP", "=true to enable COP output [:#(type=Boolean)]",\
- 3406, true, 0.0,0.0,0.0,0,2563)
+ 3370, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.heatPump.use_EER", "=true to enable EER output [:#(type=Boolean)]",\
- 3407, true, 0.0,0.0,0.0,0,2563)
+ 3371, true, 0.0,0.0,0.0,0,2563)
DeclareParameter("hydraulic.generation.heatPump.staCon_nominal.p", \
-"Absolute pressure of medium [Pa|bar]", 1058, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1064, 300000.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.heatPump.staCon_nominal.T", \
-"Temperature of medium [K|degC]", 1059, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1065, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.staEva_nominal.p", \
-"Absolute pressure of medium [Pa|bar]", 1060, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1066, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.heatPump.staEva_nominal.T", \
-"Temperature of medium [K|degC]", 1061, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1067, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("hydraulic.generation.heatPump.staEva_nominal.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1062, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1068, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("hydraulic.generation.heatPump.staEva_nominal.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1063, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1069, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("hydraulic.generation.heatPump.QHea_flow_nominal", \
-"Nominal heating capacity [W]", 3408, 10198.759001371853, 1E-15,1E+100,0.0,0,513)
+"Nominal heating capacity [W]", 3372, 10198.759001371853, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.QCoo_flow_nominal", \
-"Nominal cooling capacity [W]", 3409, 0.0, -1E+100,0.0,0.0,0,513)
+"Nominal cooling capacity [W]", 3373, 0.0, -1E+100,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.TConHea_nominal", \
-"Nominal temperature of the heated fluid [K|degC]", 3410, 288.15, 0.0,1E+100,\
+"Nominal temperature of the heated fluid [K|degC]", 3374, 288.15, 0.0,1E+100,\
300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.TEvaHea_nominal", \
-"Nominal temperature of the cooled fluid [K|degC]", 3411, 271.15, 0.0,1E+100,\
+"Nominal temperature of the cooled fluid [K|degC]", 3375, 271.15, 0.0,1E+100,\
300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.TConCoo_nominal", \
-"Nominal temperature of the cooled fluid [K|degC]", 3412, 288.15, 0.0,1E+100,\
+"Nominal temperature of the cooled fluid [K|degC]", 3376, 288.15, 0.0,1E+100,\
300.0,0,513)
DeclareVariable("hydraulic.generation.heatPump.TEvaCoo_nominal", \
-"Nominal temperature of the heated fluid [K|degC]", 3413, 288.15, 0.0,1E+100,\
+"Nominal temperature of the heated fluid [K|degC]", 3377, 288.15, 0.0,1E+100,\
300.0,0,513)
-DeclareVariable("hydraulic.generation.heatPump.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
- 3414, true, 0.0,0.0,0.0,0,515)
+DeclareAlias2("hydraulic.generation.heatPump.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 65)
DeclareAlias2("hydraulic.generation.heatPump.ySet", "Relative compressor speed between 0 and 1",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareVariable("hydraulic.generation.heatPump.EER", "Energy efficieny ratio [1]",\
- 3415, 0.0, 0.0,1E+100,0.0,0,513)
+ 9169, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("hydraulic.generation.heatPump.COP", "Coefficient of performance [1]",\
- 9201, 0.0, 0.0,1E+100,0.0,0,512)
+ 9170, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("hydraulic.generation.bou_sinkAir.nPorts", "Number of ports [:#(type=Integer)]",\
- 3416, 1, 0.0,0.0,0.0,0,517)
+ 3378, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.bou_sinkAir.verifyInputs", \
"Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
- 3417, false, 0.0,0.0,0.0,0,515)
+ 3379, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.bou_sinkAir.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 132)
+"hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.bou_sinkAir.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 3418, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 3380, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareAlias2("hydraulic.generation.bou_sinkAir.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.bou_sinkAir.h", 1, 7, 1066, 4)
+ "hydraulic.generation.bou_sinkAir.h", 1, 7, 1072, 4)
DeclareAlias2("hydraulic.generation.bou_sinkAir.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "hydraulic.generation.bou_sinkAir.X[1]", 1, 7, 1064, 4)
+ "hydraulic.generation.bou_sinkAir.X[1]", 1, 7, 1070, 4)
DeclareVariable("hydraulic.generation.bou_sinkAir.flowDirection", \
-"Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 3419,\
+"Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 3381,\
3, 1.0,3.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.bou_sinkAir.p_in_internal", \
-"Needed to connect to conditional connector [Pa]", 3420, 101325.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [Pa]", 3382, 101325.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.bou_sinkAir.Xi_in_internal[1]", \
"Needed to connect to conditional connector [kg/kg]", "hydraulic.generation.bou_sinkAir.X[1]", 1,\
- 7, 1064, 1024)
+ 7, 1070, 1024)
DeclareVariable("hydraulic.generation.bou_sinkAir.X_in_internal[1]", \
-"Needed to connect to conditional connector [kg/kg]", 3421, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 3383, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.bou_sinkAir.X_in_internal[2]", \
-"Needed to connect to conditional connector [kg/kg]", 3422, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 3384, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.bou_sinkAir.use_X_in", "Get the composition (all fractions) from the input connector [:#(type=Boolean)]",\
- 3423, false, 0.0,0.0,0.0,0,515)
+ 3385, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bou_sinkAir.use_Xi_in", "Get the composition (independent fractions) from the input connector [:#(type=Boolean)]",\
- 3424, false, 0.0,0.0,0.0,0,515)
+ 3386, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bou_sinkAir.use_C_in", "Get the trace substances from the input connector [:#(type=Boolean)]",\
- 3425, false, 0.0,0.0,0.0,0,515)
+ 3387, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.bou_sinkAir.X[1]", "Fixed value of composition [kg/kg]",\
- 1064, 0.01, 0.0,1.0,0.1,0,560)
+ 1070, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("hydraulic.generation.bou_sinkAir.X[2]", "Fixed value of composition [kg/kg]",\
- 1065, 0.99, 0.0,1.0,0.1,0,560)
+ 1071, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.bou_sinkAir.use_p_in", "Get the pressure from the input connector [:#(type=Boolean)]",\
- 3426, false, 0.0,0.0,0.0,0,515)
+ 3388, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bou_sinkAir.p", "Fixed value of pressure [Pa|bar]",\
- 3427, 101325, 0.0,100000000.0,100000.0,0,513)
+ 3389, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.bou_sinkAir.use_h_in", "Get the specific enthalpy from the input connector [:#(type=Boolean)]",\
- 3428, false, 0.0,0.0,0.0,0,515)
+ 3390, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.bou_sinkAir.h", "Fixed value of specific enthalpy [J/kg]",\
- 1066, 45300.945, -10000000000.0,10000000000.0,1000000.0,0,560)
+ 1072, 45300.945, -10000000000.0,10000000000.0,1000000.0,0,560)
DeclareVariable("hydraulic.generation.bou_sinkAir.checkWaterPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 3429, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 3391, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.bou_sinkAir.checkAirPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 3430, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 3392, \
true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.bou_sinkAir.h_in_internal", "Needed to connect to conditional connector [J/kg]",\
- "hydraulic.generation.bou_sinkAir.h", 1, 7, 1066, 1024)
+ "hydraulic.generation.bou_sinkAir.h", 1, 7, 1072, 1024)
DeclareVariable("hydraulic.generation.bouEva.nPorts", "Number of ports [:#(type=Integer)]",\
- 3431, 1, 0.0,0.0,0.0,0,517)
+ 3393, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.bouEva.verifyInputs", "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
- 3432, false, 0.0,0.0,0.0,0,515)
+ 3394, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.bouEva.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", -1, 5, 3442, 132)
+ "hydraulic.generation.bouEva.m_flow", -1, 5, 3404, 132)
DeclareVariable("hydraulic.generation.bouEva.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 3433, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 3395, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareVariable("hydraulic.generation.bouEva.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9202, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9171, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("hydraulic.generation.bouEva.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "hydraulic.generation.bouEva.X[1]", 1, 7, 1067, 4)
+ "hydraulic.generation.bouEva.X[1]", 1, 7, 1073, 4)
DeclareVariable("hydraulic.generation.bouEva.flowDirection", "Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]",\
- 3434, 3, 1.0,3.0,0.0,0,2565)
+ 3396, 3, 1.0,3.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.bouEva.p_in_internal", "Needed to connect to conditional connector [Pa]",\
- 3435, 101325.0, 0.0,0.0,0.0,0,2561)
+ 3397, 101325.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.bouEva.Xi_in_internal[1]", "Needed to connect to conditional connector [kg/kg]",\
- "hydraulic.generation.bouEva.X[1]", 1, 7, 1067, 1024)
+ "hydraulic.generation.bouEva.X[1]", 1, 7, 1073, 1024)
DeclareVariable("hydraulic.generation.bouEva.X_in_internal[1]", "Needed to connect to conditional connector [kg/kg]",\
- 3436, 0.0, 0.0,0.0,0.0,0,2561)
+ 3398, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.bouEva.X_in_internal[2]", "Needed to connect to conditional connector [kg/kg]",\
- 3437, 0.0, 0.0,0.0,0.0,0,2561)
+ 3399, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.bouEva.use_X_in", "Get the composition (all fractions) from the input connector [:#(type=Boolean)]",\
- 3438, false, 0.0,0.0,0.0,0,515)
+ 3400, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouEva.use_Xi_in", "Get the composition (independent fractions) from the input connector [:#(type=Boolean)]",\
- 3439, false, 0.0,0.0,0.0,0,515)
+ 3401, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouEva.use_C_in", "Get the trace substances from the input connector [:#(type=Boolean)]",\
- 3440, false, 0.0,0.0,0.0,0,515)
+ 3402, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.bouEva.X[1]", "Fixed value of composition [kg/kg]",\
- 1067, 0.01, 0.0,1.0,0.1,0,560)
+ 1073, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("hydraulic.generation.bouEva.X[2]", "Fixed value of composition [kg/kg]",\
- 1068, 0.99, 0.0,1.0,0.1,0,560)
+ 1074, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.bouEva.use_m_flow_in", "Get the mass flow rate from the input connector [:#(type=Boolean)]",\
- 3441, false, 0.0,0.0,0.0,0,515)
+ 3403, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouEva.m_flow", "Fixed mass flow rate going out of the fluid port [kg/s]",\
- 3442, 0.0, -100000.0,100000.0,0.0,0,513)
+ 3404, 0.0, -100000.0,100000.0,0.0,0,513)
DeclareVariable("hydraulic.generation.bouEva.use_T_in", "Get the temperature from the input connector [:#(type=Boolean)]",\
- 3443, true, 0.0,0.0,0.0,0,515)
+ 3405, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.bouEva.T", "Fixed value of temperature [K|degC]",\
- 1069, 293.15, 1.0,10000.0,300.0,0,560)
+ 1075, 293.15, 1.0,10000.0,300.0,0,560)
DeclareAlias2("hydraulic.generation.bouEva.T_in", "Prescribed boundary temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("hydraulic.generation.bouEva.m_flow_in_internal", "Needed to connect to conditional connector [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 1024)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 1024)
DeclareAlias2("hydraulic.generation.bouEva.T_in_internal", "Needed to connect to conditional connector [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 1024)
+ "building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("hydraulic.generation.bouEva.h_internal", "Internal connector for enthalpy",\
- "hydraulic.generation.bouEva.ports[1].h_outflow", 1, 5, 9202, 1024)
+ "hydraulic.generation.bouEva.ports[1].h_outflow", 1, 5, 9171, 1024)
DeclareAlias2("hydraulic.generation.switch.u1", "Connector of first Real input signal",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("hydraulic.generation.switch.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 3444, true, 0.0,0.0,0.0,0,515)
+ 3406, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.switch.u3", "Connector of second Real input signal",\
- "hydraulic.generation.TSoil.k", 1, 5, 3799, 0)
+ "hydraulic.generation.TSoil.k", 1, 5, 3761, 0)
DeclareAlias2("hydraulic.generation.switch.y", "Connector of Real output signal",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("hydraulic.generation.AirOrSoil.k", "Constant output value [:#(type=Boolean)]",\
- 3445, true, 0.0,0.0,0.0,0,515)
+ 3407, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.AirOrSoil.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- 3446, true, 0.0,0.0,0.0,0,515)
+ 3408, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.KPIWel.use_inpCon", "= false to use an internal variable as input [:#(type=Boolean)]",\
- 3447, true, 0.0,0.0,0.0,0,515)
+ 3409, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.KPIWel.integrator2.k", "Integrator gain [1]",\
- 1070, 1, 0.0,0.0,0.0,0,560)
+ 1076, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIWel.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3448, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3410, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIWel.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3449, false, 0.0,0.0,0.0,0,1539)
+ 3411, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIWel.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3450, 3, 1.0,4.0,0.0,0,517)
+ 3412, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIWel.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1071, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1077, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIWel.integrator2.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
DeclareState("hydraulic.generation.KPIWel.integrator2.y", "Connector of Real output signal [J]",\
@@ -40996,8 +41036,8 @@ DeclareState("hydraulic.generation.KPIWel.integrator2.y", "Connector of Real out
DeclareDerivative("hydraulic.generation.KPIWel.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 24, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.KPIWel.integrator2.local_reset", \
-"[:#(type=Boolean)]", 3451, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.generation.KPIWel.integrator2.local_set", "", 3452, 0,\
+"[:#(type=Boolean)]", 3413, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.generation.KPIWel.integrator2.local_set", "", 3414, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.generation.KPIWel.internalU.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 0)
@@ -41010,1114 +41050,1117 @@ DeclareAlias2("hydraulic.generation.KPIWel.KPI.value", "Current value [W]", \
DeclareAlias2("hydraulic.generation.KPIWel.KPI.integral", "Integral of value [J]",\
"hydraulic.generation.KPIWel.integrator2.y", 1, 1, 24, 4)
DeclareVariable("hydraulic.generation.pump.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3453, 2, 1.0,4.0,0.0,0,517)
+ 3415, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3454, 2, 1.0,4.0,0.0,0,517)
+ 3416, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3455, 2, 1.0,4.0,0.0,0,517)
+ 3417, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3456, 2, 1.0,4.0,0.0,0,517)
+ 3418, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.p_start", "Start value of pressure [Pa|bar]",\
- 3457, 300000, 0.0,100000000.0,100000.0,0,513)
+ 3419, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.pump.T_start", "Start value of temperature [K|degC]",\
- 3458, 293.15, 1.0,10000.0,300.0,0,513)
+ 3420, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.generation.pump.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1072, 1, 0.0,1.0,0.1,0,560)
+ 1078, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.pump.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 3459, 1, 1.0,1E+100,0.0,0,513)
+ 3421, 1, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3460, false, 0.0,0.0,0.0,0,2563)
+ 3422, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3461, true, 0.0,0.0,0.0,0,515)
+ 3423, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.pump.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.pump.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 4)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 4)
DeclareVariable("hydraulic.generation.pump.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9203, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9172, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.generation.pump.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.pump.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8339, 4)
+ "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8300, 4)
DeclareVariable("hydraulic.generation.pump.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9204, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9173, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareVariable("hydraulic.generation.pump.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3462, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3424, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3463, \
+"Volume flow rate at user-selected operating points [m3/s]", 3425, \
0.00033943297549845466, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3464, \
+"Volume flow rate at user-selected operating points [m3/s]", 3426, \
0.0006788659509969093, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.pressure.dp[1]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3465, 5842.499999999999, 0.0,1E+100,0.0,0,513)
+ 3427, 5842.499999999999, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.pressure.dp[2]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3466, 5125.0, 0.0,1E+100,0.0,0,513)
+ 3428, 5125.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.pressure.dp[3]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3467, 2152.5, 0.0,1E+100,0.0,0,513)
+ 3429, 2152.5, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.V_flow_max", "Volume flow rate on the curve when pressure rise is zero [m3/s]",\
- 3468, 0.0009246622435992386, 0.0,0.0,0.0,0,513)
+ 3430, 0.0009246622435992386, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 3469, 5842.499999999999, 0.0,0.0,0.0,0,513)
+ 3431, 5842.499999999999, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.etaHydMet", "Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 3470, 4, 1.0,4.0,0.0,0,517)
+ 3432, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.per.etaMotMet", "Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 3471, 4, 1.0,4.0,0.0,0,517)
+ 3433, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.per.powerOrEfficiencyIsHydraulic", \
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 3472, true, 0.0,0.0,0.0,0,515)
+ 3434, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.pump.per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 1073, 0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 1079, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1074, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1080, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.motorEfficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 1075, 0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 1081, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.motorEfficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1076, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1082, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.motorEfficiency_yMot.y[1]", \
-"Part load ratio, y = PEle/PEle_nominal", 1077, 0, 0.0,1E+100,0.0,0,560)
+"Part load ratio, y = PEle/PEle_nominal", 1083, 0, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.motorEfficiency_yMot.eta[1]", \
-"Fan or pump efficiency at these part load ratios [1]", 1078, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these part load ratios [1]", 1084, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 1079, 0, 0.0,1E+100,\
+"Volume flow rate at user-selected operating points [m3/s]", 1085, 0, 0.0,1E+100,\
0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.power.P[1]", "Fan or pump electrical power at these flow rates [W]",\
- 1080, 0, 0.0,1E+100,0.0,0,560)
+ 1086, 0, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.generation.pump.per.peak.V_flow", "Volume flow rate at peak efficiency [m3/s]",\
- 3473, 0.0, 0.0,1E+100,0.0,0,513)
+ 3435, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.peak.dp", "Pressure rise at peak efficiency [Pa|Pa]",\
- 3474, 0.0, 0.0,1E+100,0.0,0,513)
+ 3436, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.peak.eta", "Peak efficiency [1]",\
- 3475, 0.0, 0.0,1E+100,0.0,0,513)
+ 3437, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 3476, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 3438, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 3477, 0.0, 0.0,1E+100,0.0,0,513)
+"Pressure rise at peak efficiency [Pa|Pa]", 3439, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.peak_internal.eta", \
-"Peak efficiency [1]", 3478, 0.0, 0.0,1E+100,0.0,0,513)
+"Peak efficiency [1]", 3440, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.generation.pump.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1081, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1087, \
true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.generation.pump.per.WMot_nominal", "Rated motor power [W]",\
- 3479, 0.0, 0.0,0.0,0.0,0,513)
+ 3441, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.pump.per.etaMot_max", "Maximum motor efficiency [1]",\
- 1082, 0.7, 0.0,1.0,0.0,0,560)
+ 1088, 0.7, 0.0,1.0,0.0,0,560)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 3480, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3442, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 3481, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3443, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 3482, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3444, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 3483, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3445, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 3484, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3446, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 3485, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3447, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 3486, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3448, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 3487, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3449, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 3488, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 3450, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 3489, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3451, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 3490, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3452, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 3491, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3453, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 3492, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3454, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 3493, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3455, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 3494, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3456, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 3495, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3457, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 3496, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3458, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 3497, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3459, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.generation.pump.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 3498, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 3460, false, \
0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.pump.per.speed_nominal", "Nominal rotational speed for flow characteristic [1]",\
- 1083, 1, 0.0,1E+100,0.0,0,560)
+ 1089, 1, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.constantSpeed", "Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 1084, 1, 0.0,1E+100,0.0,0,560)
+ 1090, 1, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.generation.pump.per.speeds[1]", "Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 1085, 1, 0.0,1E+100,0.0,0,560)
+ 1091, 1, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.generation.pump.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 3499, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 3461, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.pump.inputType", "Control input type [:#(type=IBPSA.Fluid.Types.InputType)]",\
- 3500, 3, 1.0,3.0,0.0,0,517)
+ 3462, 3, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.constInput", "Constant input set point [1]",\
- 3501, 0.0, 0.0,0.0,0.0,0,513)
+ 3463, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.stageInputs[1]", "Vector of input set points corresponding to stages [1]",\
- 3502, 0.0, 0.0,0.0,0.0,0,513)
+ 3464, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.computePowerUsingSimilarityLaws", \
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 3503, true, 0.0,0.0,0.0,0,515)
+ 3465, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.pump.addPowerToMedium", "Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]",\
- 3504, false, 0.0,0.0,0.0,0,515)
+ 3466, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.pump.nominalValuesDefineDefaultPressureCurve",\
"Set to true to avoid warning if m_flow_nominal and dp_nominal are used to construct the default pressure curve [:#(type=Boolean)]",\
- 3505, false, 0.0,0.0,0.0,0,515)
+ 3467, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.pump.tau", "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]",\
- 3506, 0.0, 0.0,0.0,0.0,0,513)
+ 3468, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.use_riseTime", "Set to true to continuously change motor speed [:#(type=Boolean)]",\
- 3507, false, 0.0,0.0,0.0,0,515)
+ 3469, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.pump.riseTime", "Time needed to change motor speed between zero and full speed [s]",\
- 3508, 0.0, 0.0,0.0,0.0,0,513)
+ 3470, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3509, 4, 1.0,4.0,0.0,0,517)
+ 3471, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.pump.y_actual", "Actual normalised fan or pump speed that is used for computations [1]",\
- 8394, 1, 0.0,0.0,0.0,0,640)
-DeclareVariable("hydraulic.generation.pump.P", "Electrical power consumed [W]", 8395,\
+ 8357, 1, 0.0,0.0,0.0,0,640)
+DeclareVariable("hydraulic.generation.pump.P", "Electrical power consumed [W]", 8358,\
0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.generation.pump.heatPort.T", "Port temperature [K|degC]",\
- 9205, 300.0, 1.0,10000.0,300.0,0,520)
+ 9174, 300.0, 1.0,10000.0,300.0,0,520)
DeclareVariable("hydraulic.generation.pump.heatPort.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- 3510, 0.0, 0.0,0.0,0.0,0,777)
+ 3472, 0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("hydraulic.generation.pump.VMachine_flow", "Volume flow rate [m3/s]",\
- 8396, 0, 0.0,0.0,0.0,0,640)
+ 8359, 0, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.generation.pump.dpMachine", "Pressure difference [Pa|Pa]",\
- 8397, 0.0, 0.0,0.0,0.0,0,640)
-DeclareVariable("hydraulic.generation.pump.eta", "Global efficiency [1]", 8398, \
+ 8360, 0.0, 0.0,0.0,0.0,0,640)
+DeclareVariable("hydraulic.generation.pump.eta", "Global efficiency [1]", 8361, \
0.49, 0.0,0.0,0.0,0,640)
-DeclareVariable("hydraulic.generation.pump.etaHyd", "Hydraulic efficiency [1]", 8399,\
+DeclareVariable("hydraulic.generation.pump.etaHyd", "Hydraulic efficiency [1]", 8362,\
0.7, 0.0,1E+100,0.0,0,640)
-DeclareVariable("hydraulic.generation.pump.etaMot", "Motor efficiency [1]", 8400,\
+DeclareVariable("hydraulic.generation.pump.etaMot", "Motor efficiency [1]", 8363,\
0.7, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.generation.pump.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 3511, 6.75869436689209E-05, 0.0,1E+100,0.0,0,513)
+ 3473, 6.75869436689209E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 3512, false, 0.0,0.0,0.0,0,1539)
+ 3474, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.pump.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.pump.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8401, 0, 0.0,0.0,0.0,0,640)
+ 8364, 0, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.generation.pump._m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 3513, 0.675869436689209, 0.0,0.0,0.0,0,2561)
+ 3475, 0.675869436689209, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 3514, 0, 0.0,0.0,0.0,0,2561)
+ 3476, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 3515, 0, 0.0,0.0,0.0,0,2561)
+ 3477, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump._VMachine_flow", "Start value for VMachine_flow, used to avoid a warning if not specified [m3/s]",\
- 3516, 0, 0.0,0.0,0.0,0,2561)
+ 3478, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 3517, 1, 1.0,3.0,0.0,0,2565)
+ 3479, 1, 1.0,3.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.speedIsInput", "Parameter that is true if speed is the controlled variables [:#(type=Boolean)]",\
- 3518, true, 0.0,0.0,0.0,0,2563)
+ 3480, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 3519, 3, 0.0,0.0,0.0,0,2565)
+ 3481, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 3520, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("hydraulic.generation.pump.V_flow_max", "[m3/s]", 3521, \
+ 3482, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("hydraulic.generation.pump.V_flow_max", "[m3/s]", 3483, \
0.0009246622435992386, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.rho_default", "Default medium density [kg/m3|g/cm3]",\
- 3522, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3484, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.sta_start.p", "Absolute pressure of medium [Pa|bar]",\
- 3523, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 3485, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.pump.sta_start.T", "Temperature of medium [K|degC]",\
- 3524, 293.15, 1.0,10000.0,300.0,0,2561)
+ 3486, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.pump.h_outflow_start", "Start value for outflowing enthalpy [J/kg]",\
- 3525, 0.0, 0.0,0.0,0.0,0,2561)
+ 3487, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.inputSwitch.u", "Connector of Real input signal",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 1024)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 1024)
DeclareAlias2("hydraulic.generation.pump.inputSwitch.y", "Connector of Real output signal",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 1024)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 1024)
DeclareVariable("hydraulic.generation.pump.vol.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3526, 2, 1.0,4.0,0.0,0,2565)
+ 3488, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3527, 2, 1.0,4.0,0.0,0,2565)
+ 3489, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3528, 2, 1.0,4.0,0.0,0,2565)
+ 3490, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3529, 2, 1.0,4.0,0.0,0,2565)
+ 3491, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.p_start", "Start value of pressure [Pa|bar]",\
- 3530, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 3492, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.T_start", "Start value of temperature [K|degC]",\
- 3531, 293.15, 1.0,10000.0,300.0,0,2561)
+ 3493, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 3532, 0.0, 0.0,1.0,0.1,0,2561)
+ 3494, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 3533, 1, 1.0,1E+100,0.0,0,2561)
+ 3495, 1, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3534, false, 0.0,0.0,0.0,0,2563)
+ 3496, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.initialize_p", "= true to set up initial equations for pressure [:#(type=Boolean)]",\
- 3535, false, 0.0,0.0,0.0,0,1539)
+ 3497, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.pump.vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 3536, true, 0.0,0.0,0.0,0,2563)
+ 3498, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 3537, true, 0.0,0.0,0.0,0,2563)
+ 3499, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 3538, 0.675869436689209, 0.0,1E+100,0.0,0,2561)
+ 3500, 0.675869436689209, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 3539, 2, 0.0,0.0,0.0,0,2565)
+ 3501, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 3540, 6.75869436689209E-05, 0.0,1E+100,0.0,0,2561)
+ 3502, 6.75869436689209E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 3541, true, 0.0,0.0,0.0,0,2563)
-DeclareVariable("hydraulic.generation.pump.vol.V", "Volume [m3]", 3542, 0.0, \
+ 3503, true, 0.0,0.0,0.0,0,2563)
+DeclareVariable("hydraulic.generation.pump.vol.V", "Volume [m3]", 3504, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.vol.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.vol.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1028)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1028)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.ports[2].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 1156)
+ "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.vol.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1028)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1028)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.T", "Temperature of the fluid [K|degC]",\
- "hydraulic.generation.pump.heatPort.T", 1, 5, 9205, 1024)
+ "hydraulic.generation.pump.heatPort.T", 1, 5, 9174, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.U", "Internal energy of the component [J]",\
"hydraulic.generation.pump.vol.dynBal.U", 1, 1, 25, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1024)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.m", "Mass of the component [kg]", \
-"hydraulic.generation.pump.vol.dynBal.m", 1, 5, 3580, 1024)
+"hydraulic.generation.pump.vol.dynBal.m", 1, 5, 3542, 1024)
DeclareVariable("hydraulic.generation.pump.vol.rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 3543, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3505, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3544, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3506, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.vol.state_default.T", \
-"Temperature of medium [K|degC]", 3545, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3507, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 3546, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3508, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.state_start.p", "Absolute pressure of medium [Pa|bar]",\
- 3547, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 3509, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.state_start.T", "Temperature of medium [K|degC]",\
- 3548, 293.15, 1.0,10000.0,300.0,0,2561)
+ 3510, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 3549, false, 0.0,0.0,0.0,0,2563)
+ 3511, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.pump.vol.hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1024)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.generation.pump.heatPort.T", 1, 5, 9205, 1028)
+ "hydraulic.generation.pump.heatPort.T", 1, 5, 9174, 1028)
DeclareVariable("hydraulic.generation.pump.vol.preTem.port.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 3550,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 3512,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("hydraulic.generation.pump.vol.preTem.T", "[K]", "hydraulic.generation.pump.heatPort.T", 1,\
- 5, 9205, 1024)
+ 5, 9174, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.portT.y", "Value of Real output", \
-"hydraulic.generation.pump.heatPort.T", 1, 5, 9205, 1024)
+"hydraulic.generation.pump.heatPort.T", 1, 5, 9174, 1024)
DeclareVariable("hydraulic.generation.pump.vol.heaFloSen.Q_flow", \
-"Heat flow from port_a to port_b as output signal [W]", 3551, 0.0, 0.0,0.0,0.0,0,2561)
+"Heat flow from port_a to port_b as output signal [W]", 3513, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.vol.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.generation.pump.heatPort.T", 1, 5, 9205,\
+"Port temperature [K|degC]", "hydraulic.generation.pump.heatPort.T", 1, 5, 9174,\
1028)
DeclareVariable("hydraulic.generation.pump.vol.heaFloSen.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 3552,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 3514,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("hydraulic.generation.pump.vol.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.generation.pump.heatPort.T", 1, 5, 9205,\
+"Port temperature [K|degC]", "hydraulic.generation.pump.heatPort.T", 1, 5, 9174,\
1028)
DeclareVariable("hydraulic.generation.pump.vol.heaFloSen.port_b.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 3553,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 3515,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("hydraulic.generation.pump.vol.use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 3554, false, 0.0,0.0,0.0,0,2563)
+ 3516, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.pump.vol.heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.generation.pump.heatPort.T", 1, 5, 9205, 1028)
+ "hydraulic.generation.pump.heatPort.T", 1, 5, 9174, 1028)
DeclareVariable("hydraulic.generation.pump.vol.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 3555,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 3517,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("hydraulic.generation.pump.vol.tau", "Time constant at nominal flow [s]",\
- 3556, 0.0, 0.0,0.0,0.0,0,2561)
+ 3518, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.V_nominal", "Volume of delay element [m3]",\
- 3557, 0.0, 0.0,0.0,0.0,0,2561)
+ 3519, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3558, 2, 1.0,4.0,0.0,0,2565)
+ 3520, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3559, 2, 1.0,4.0,0.0,0,2565)
+ 3521, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3560, 2, 1.0,4.0,0.0,0,2565)
+ 3522, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3561, 2, 1.0,4.0,0.0,0,2565)
+ 3523, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.p_start", "Start value of pressure [Pa|bar]",\
- 3562, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 3524, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.T_start", "Start value of temperature [K|degC]",\
- 3563, 293.15, 1.0,10000.0,300.0,0,2561)
+ 3525, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 3564, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 3526, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 3565, 1.0, 1.0,1E+100,0.0,0,2561)
+ 3527, 1.0, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3566, false, 0.0,0.0,0.0,0,2563)
+ 3528, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 3567, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 3529, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 3568, true, 0.0,0.0,0.0,0,2563)
+ 3530, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.nPorts", "Number of ports [:#(type=Integer)]",\
- 3569, 2, 0.0,0.0,0.0,0,2565)
+ 3531, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 3570, false, 0.0,0.0,0.0,0,2563)
+ 3532, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3571,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3533,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- 3572, 0.0, 0.0,0.0,0.0,0,2561)
+ 3534, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1024)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.generation.pump.vol.dynBal.U", 1, 1, 25, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.mOut", "Mass of the component [kg]",\
- "hydraulic.generation.pump.vol.dynBal.m", 1, 5, 3580, 1024)
+ "hydraulic.generation.pump.vol.dynBal.m", 1, 5, 3542, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1028)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1028)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1028)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 3573, false, 0.0,0.0,0.0,0,2563)
+ 3535, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 3574, true, 0.0,0.0,0.0,0,2563)
+ 3536, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 3575, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 3537, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9206, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9175, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.medium.p", "Absolute pressure of medium [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1024)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.medium.h", "Specific enthalpy of medium [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1024)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1024)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.medium.u", "Specific internal energy of medium [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1024)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1024)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 3576, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 3538, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 3577, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 3539, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 3578, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 3540, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.medium.state.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.generation.pump.vol.dynBal.medium.T", 1,\
- 5, 9206, 1024)
+ 5, 9175, 1024)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9207, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9176, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 3579, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 3541, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.generation.pump.vol.dynBal.U", "Internal energy of fluid [J]",\
25, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.generation.pump.vol.dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 25, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("hydraulic.generation.pump.vol.dynBal.m", "Mass of fluid [kg]", 3580,\
+DeclareVariable("hydraulic.generation.pump.vol.dynBal.m", "Mass of fluid [kg]", 3542,\
0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.der(m)", "der(Mass of fluid) [kg/s]",\
- 3581, 0.0, 0.0,0.0,0.0,0,2561)
+ 3543, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.mb_flow", "Mass flows across boundaries [kg/s]",\
- 3582, 0.0, 0.0,0.0,0.0,0,2561)
+ 3544, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.vol.dynBal.Hb_flow", "Enthalpy flow across boundaries or energy source/sink [W]",\
"hydraulic.generation.pump.vol.dynBal.der(U)", 1, 6, 25, 1024)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.fluidVolume", \
-"Volume [m3]", 3583, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 3545, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 3584, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.generation.pump.vol.dynBal.ports_H_flow[1]", "[W]", 9208,\
+ 3546, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("hydraulic.generation.pump.vol.dynBal.ports_H_flow[1]", "[W]", 9177,\
0.0, -100000000.0,100000000.0,1000.0,0,2560)
-DeclareVariable("hydraulic.generation.pump.vol.dynBal.ports_H_flow[2]", "[W]", 9209,\
+DeclareVariable("hydraulic.generation.pump.vol.dynBal.ports_H_flow[2]", "[W]", 9178,\
0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3585, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3547, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3586, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3548, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 3587, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 3549, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3588, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3550, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 3589, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3551, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3590, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3552, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.hStart", "Start value for specific enthalpy [J/kg]",\
- 3591, 0.0, 0.0,0.0,0.0,0,2561)
+ 3553, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.vol.dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 3592, false, 0.0,0.0,0.0,0,2563)
+ 3554, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.vol.dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 3593, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 3555, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.preSou.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3594, true, 0.0,0.0,0.0,0,2563)
+ 3556, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.pump.preSou.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.preSou.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1028)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.preSou.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 1028)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 1028)
DeclareAlias2("hydraulic.generation.pump.preSou.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 1156)
+ "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.preSou.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8339, 1028)
+ "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8300, 1028)
DeclareAlias2("hydraulic.generation.pump.preSou.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1028)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1028)
DeclareParameter("hydraulic.generation.pump.preSou.dp_start", "Guess value of dp = port_a.p - port_b.p [Pa|Pa]",\
- 1086, 0, 0.0,0.0,0.0,0,2608)
+ 1092, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("hydraulic.generation.pump.preSou.m_flow_start", \
-"Guess value of m_flow = port_a.m_flow [kg/s]", 1087, 0, -100000.0,100000.0,0.0,\
+"Guess value of m_flow = port_a.m_flow [kg/s]", 1093, 0, -100000.0,100000.0,0.0,\
0,2608)
DeclareVariable("hydraulic.generation.pump.preSou.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 3595, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 3557, \
6.75869436689209E-05, -100000.0,100000.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.preSou.show_T", "= true, if temperatures at port_a and port_b are computed [:#(type=Boolean)]",\
- 3596, false, 0.0,0.0,0.0,0,1539)
+ 3558, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.pump.preSou.show_V_flow", "= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]",\
- 3597, true, 0.0,0.0,0.0,0,1539)
+ 3559, true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.pump.preSou.m_flow", "Mass flow rate in design flow direction [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1024)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1024)
DeclareAlias2("hydraulic.generation.pump.preSou.dp", "Pressure difference between port_a and port_b (= port_a.p - port_b.p) [Pa|Pa]",\
- "hydraulic.generation.pump.dpMachine", -1, 5, 8397, 1024)
+ "hydraulic.generation.pump.dpMachine", -1, 5, 8360, 1024)
DeclareVariable("hydraulic.generation.pump.preSou.V_flow", "Volume flow rate at inflowing port (positive when flow from port_a to port_b) [m3/s]",\
- 8402, 0.0, 0.0,0.0,0.0,0,2688)
+ 8365, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.pump.preSou.control_m_flow", \
"if true, then the mass flow rate is equal to the value of m_flow_in [:#(type=Boolean)]",\
- 3598, false, 0.0,0.0,0.0,0,2563)
+ 3560, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.preSou.control_dp", "if true, then the head is equal to the value of dp_in [:#(type=Boolean)]",\
- 3599, true, 0.0,0.0,0.0,0,2563)
+ 3561, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.pump.preSou.dp_in", "Prescribed pressure difference port_a.p-port_b.p [Pa]",\
- "hydraulic.generation.pump.dpMachine", -1, 5, 8397, 1024)
+ "hydraulic.generation.pump.dpMachine", -1, 5, 8360, 1024)
DeclareVariable("hydraulic.generation.pump.preSou.m_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 3600, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 3562, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.preSou.dp_internal", "Needed to connect to conditional connector [Pa]",\
- "hydraulic.generation.pump.dpMachine", -1, 5, 8397, 1024)
+ "hydraulic.generation.pump.dpMachine", -1, 5, 8360, 1024)
DeclareVariable("hydraulic.generation.pump.rho_inlet.y", "Value of Real output",\
- 3601, 995.586, 0.0,0.0,0.0,0,2561)
+ 3563, 995.586, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.senMasFlo.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3602, true, 0.0,0.0,0.0,0,2563)
+ 3564, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1028)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 1028)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 1028)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1028)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1028)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9203, 1028)
+ "hydraulic.generation.pump.port_a.h_outflow", 1, 5, 9172, 1028)
DeclareVariable("hydraulic.generation.pump.senMasFlo.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3603, 0,\
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3565, 0,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.senMasFlo.m_flow_small", \
"For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 3604, 0, 0.0,1E+100,0.0,0,2561)
+ 3566, 0, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.senMasFlo.m_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1024)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1024)
DeclareVariable("hydraulic.generation.pump.senRelPre.port_a.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 3605, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 3567, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("hydraulic.generation.pump.senRelPre.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8339, 1028)
+ "hydraulic.generation.heatPump.port_a1.p", 1, 5, 8300, 1028)
DeclareVariable("hydraulic.generation.pump.senRelPre.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 3606, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 3568, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("hydraulic.generation.pump.senRelPre.port_b.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 3607, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 3569, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("hydraulic.generation.pump.senRelPre.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1028)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1028)
DeclareVariable("hydraulic.generation.pump.senRelPre.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 3608, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 3570, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("hydraulic.generation.pump.senRelPre.p_rel", "Relative pressure of port_a minus port_b [Pa|Pa]",\
- 8403, 0.0, 0.0,0.0,0.0,0,2688)
+ 8366, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.pump.eff.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 3609, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 3571, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.pump.eff.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3610, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3572, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3611, \
+"Volume flow rate at user-selected operating points [m3/s]", 3573, \
0.00033943297549845466, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3612, \
+"Volume flow rate at user-selected operating points [m3/s]", 3574, \
0.0006788659509969093, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 3613, 5842.499999999999,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 3575, 5842.499999999999,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 3614, 5125.0, 0.0,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 3576, 5125.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 3615, 2152.5, 0.0,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 3577, 2152.5, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.V_flow_max", "Volume flow rate on the curve when pressure rise is zero [m3/s]",\
- 3616, 0.0009246622435992386, 0.0,0.0,0.0,0,2561)
+ 3578, 0.0009246622435992386, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 3617, 5842.499999999999, 0.0,0.0,0.0,0,2561)
+ 3579, 5842.499999999999, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.etaHydMet", "Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 3618, 4, 1.0,4.0,0.0,0,2565)
+ 3580, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.per.etaMotMet", "Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 3619, 4, 1.0,4.0,0.0,0,2565)
+ 3581, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 3620, true, 0.0,0.0,0.0,0,2563)
+ 3582, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 3621, 0.0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 3583, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 3622, 0.0, 0.0,1.0,0.0,0,2561)
+"Fan or pump efficiency at these flow rates [1]", 3584, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 3623, 0.0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 3585, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 3624, 0.0, 0.0,1.0,0.0,0,2561)
+"Fan or pump efficiency at these flow rates [1]", 3586, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot.y[1]", \
-"Part load ratio, y = PEle/PEle_nominal", 3625, 0.0, 0.0,1E+100,0.0,0,2561)
+"Part load ratio, y = PEle/PEle_nominal", 3587, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 3626, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3588, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3627, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3589, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.power.P[1]", "Fan or pump electrical power at these flow rates [W]",\
- 3628, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3590, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 3629, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 3591, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.peak.dp", "Pressure rise at peak efficiency [Pa|Pa]",\
- 3630, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3592, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.peak.eta", "Peak efficiency [1]",\
- 3631, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3593, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 3632, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 3594, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 3633, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 3595, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.peak_internal.eta", \
-"Peak efficiency [1]", 3634, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 3596, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 3635, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 3597, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.per.WMot_nominal", \
-"Rated motor power [W]", 3636, 0.0, 0.0,0.0,0.0,0,2561)
+"Rated motor power [W]", 3598, 0.0, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.generation.pump.eff.per.etaMot_max", \
-"Maximum motor efficiency [1]", 1088, 0.7, 0.0,1.0,0.0,0,2608)
+"Maximum motor efficiency [1]", 1094, 0.7, 0.0,1.0,0.0,0,2608)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 3637, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3599, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 3638, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3600, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 3639, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3601, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 3640, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3602, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 3641, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3603, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 3642, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3604, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 3643, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3605, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 3644, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3606, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 3645, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 3607, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 3646, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3608, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 3647, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3609, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 3648, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3610, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 3649, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3611, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 3650, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3612, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 3651, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3613, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 3652, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3614, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 3653, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3615, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 3654, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 3616, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 3655, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 3617, false, \
0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 3656, 0, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 3618, 0, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 3657, 0, 0.0,1E+100,0.0,0,2561)
+ 3619, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.speeds[1]", "Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 3658, 0, 0.0,1E+100,0.0,0,2561)
+ 3620, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 3659, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 3621, true,\
0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 3660, 1, 1.0,3.0,0.0,0,2565)
+ 3622, 1, 1.0,3.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 3661, true, 0.0,0.0,0.0,0,2563)
+ 3623, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.V_flow_nominal", "Nominal volume flow rate, used for homotopy [m3/s]",\
- 3662, 0.0006788659509969093, 0.0,0.0,0.0,0,2561)
+ 3624, 0.0006788659509969093, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.rho_default", "Fluid density at medium default state [kg/m3|g/cm3]",\
- 3663, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3625, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 3664, false, 0.0,0.0,0.0,0,2563)
+ 3626, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.V_flow_max", "Maximum volume flow rate, used for smoothing [m3/s]",\
- 3665, 0.0009246622435992386, 0.0,0.0,0.0,0,2561)
+ 3627, 0.0009246622435992386, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 3666, 3, 1.0,1E+100,0.0,0,2565)
+ 3628, 3, 1.0,1E+100,0.0,0,2565)
DeclareAlias2("hydraulic.generation.pump.eff.y_out", "Mover speed (prescribed or computed) [1]",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 1024)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.m_flow", "Mass flow rate [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1024)
-DeclareVariable("hydraulic.generation.pump.eff.rho", "Medium density [kg/m3]", 3667,\
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1024)
+DeclareVariable("hydraulic.generation.pump.eff.rho", "Medium density [kg/m3]", 3629,\
995.586, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.eff.V_flow", "Volume flow rate [m3/s]",\
- "hydraulic.generation.pump.VMachine_flow", 1, 5, 8396, 1024)
-DeclareVariable("hydraulic.generation.pump.eff.WFlo", "Flow work [W]", 8404, 0.0,\
+ "hydraulic.generation.pump.VMachine_flow", 1, 5, 8359, 1024)
+DeclareVariable("hydraulic.generation.pump.eff.WFlo", "Flow work [W]", 8367, 0.0,\
0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.pump.eff.WHyd", "Hydraulic work (shaft work, brake horsepower) [W]",\
- 8405, 0.0, 0.0,0.0,0.0,0,2688)
+ 8368, 0.0, 0.0,0.0,0.0,0,2688)
DeclareAlias2("hydraulic.generation.pump.eff.PEle", "Electrical power consumed [W]",\
- "hydraulic.generation.pump.P", 1, 5, 8395, 1024)
+ "hydraulic.generation.pump.P", 1, 5, 8358, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.eta", "Overall efficiency [1]", \
-"hydraulic.generation.pump.eta", 1, 5, 8398, 1024)
+"hydraulic.generation.pump.eta", 1, 5, 8361, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.etaHyd", "Hydraulic efficiency [1]",\
- "hydraulic.generation.pump.etaHyd", 1, 5, 8399, 1024)
+ "hydraulic.generation.pump.etaHyd", 1, 5, 8362, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.etaMot", "Motor efficiency [1]", \
-"hydraulic.generation.pump.etaMot", 1, 5, 8400, 1024)
+"hydraulic.generation.pump.etaMot", 1, 5, 8363, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.r_N", "Ratio N_actual/N_nominal [1]",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 1024)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 1024)
DeclareVariable("hydraulic.generation.pump.eff.r_V", "Ratio V_flow/V_flow_max [1]",\
- 8406, 0.0006788659509969093, 0.0,0.0,0.0,0,2688)
+ 8369, 0.0006788659509969093, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.pump.eff.preSpe", "True if speed is a prescribed variable of this block [:#(type=Boolean)]",\
- 3668, true, 0.0,0.0,0.0,0,2563)
+ 3630, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.prePre", "True if pressure head is a prescribed variable of this block [:#(type=Boolean)]",\
- 3669, false, 0.0,0.0,0.0,0,2563)
+ 3631, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.etaDer[1]", "Coefficients for cubic spline of total or hydraulic efficiency vs. volume flow rate",\
- 3670, 0, 0.0,0.0,0.0,0,2561)
+ 3632, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer[1]", "Coefficients for cubic spline of motor efficiency vs. volume flow rate",\
- 3671, 0, 0.0,0.0,0.0,0,2561)
+ 3633, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot[1]", "Coefficients for cubic spline of motor efficiency vs. motor PLR",\
- 3672, 0, 0.0,0.0,0.0,0,2561)
+ 3634, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[1]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3673, 0.0, 0.0,0.0,0.0,0,2561)
+ 3635, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[2]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3674, 0.0, 0.0,0.0,0.0,0,2561)
+ 3636, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[3]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3675, 0.0, 0.0,0.0,0.0,0,2561)
+ 3637, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[4]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3676, 0.0, 0.0,0.0,0.0,0,2561)
+ 3638, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[5]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3677, 0.0, 0.0,0.0,0.0,0,2561)
+ 3639, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[6]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3678, 0.0, 0.0,0.0,0.0,0,2561)
+ 3640, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[7]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3679, 0.0, 0.0,0.0,0.0,0,2561)
+ 3641, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[8]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3680, 0.0, 0.0,0.0,0.0,0,2561)
+ 3642, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.motDer_yMot_generic[9]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 3681, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.generation.pump.eff.dpMax", "Maximum head [Pa|Pa]", 3682,\
+ 3643, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("hydraulic.generation.pump.eff.dpMax", "Maximum head [Pa|Pa]", 3644,\
5842.499999999999, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.delta", "Small value used to for regularization and to approximate an internal flow resistance of the fan",\
- 3683, 0.05, 0.0,0.0,0.0,0,2561)
+ 3645, 0.05, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.kRes", "Coefficient for internal pressure drop of the fan or pump [kg/(s.m4)]",\
- 3684, 1579.6308437062728, 0.0,1E+100,0.0,0,2561)
+ 3646, 1579.6308437062728, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.curve", "Flag, used to pick the right representation of the fan or pump's pressure curve [:#(type=Integer)]",\
- 3685, 2, 0.0,0.0,0.0,0,2565)
+ 3647, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.n", "Number of elements in each array [:#(type=Integer)]",\
- 3686, 3, 0.0,0.0,0.0,0,2565)
+ 3648, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3687, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3649, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3688, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3650, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3689, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3651, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.dp[1]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3690, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3652, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.dp[2]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3691, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3653, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur1.dp[3]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3692, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3654, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.n", "Number of elements in each array [:#(type=Integer)]",\
- 3693, 4, 0.0,0.0,0.0,0,2565)
+ 3655, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3694, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3656, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3695, \
+"Volume flow rate at user-selected operating points [m3/s]", 3657, \
0.00033943297549845466, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3696, \
+"Volume flow rate at user-selected operating points [m3/s]", 3658, \
0.0006788659509969093, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3697, \
+"Volume flow rate at user-selected operating points [m3/s]", 3659, \
0.0009246622435992386, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.dp[1]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3698, 5842.499999999999, 0.0,1E+100,0.0,0,2561)
+ 3660, 5842.499999999999, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.dp[2]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3699, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3661, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.dp[3]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3700, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3662, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur2.dp[4]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3701, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3663, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.n", "Number of elements in each array [:#(type=Integer)]",\
- 3702, 5, 0.0,0.0,0.0,0,2565)
+ 3664, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3703, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3665, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3704, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3666, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3705, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3667, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3706, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3668, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3707, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3669, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.dp[1]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3708, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3670, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.dp[2]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3709, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3671, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.dp[3]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3710, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3672, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.dp[4]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3711, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3673, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.pCur3.dp[5]", "Fan or pump total pressure at these flow rates [Pa|Pa]",\
- 3712, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3674, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer1[1]", "Derivatives of flow rate vs. pressure at the support points",\
- 3713, 0.0, 0.0,0.0,0.0,0,2561)
+ 3675, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer1[2]", "Derivatives of flow rate vs. pressure at the support points",\
- 3714, 0.0, 0.0,0.0,0.0,0,2561)
+ 3676, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer1[3]", "Derivatives of flow rate vs. pressure at the support points",\
- 3715, 0.0, 0.0,0.0,0.0,0,2561)
+ 3677, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer2[1]", "Derivatives of flow rate vs. pressure at the support points",\
- 3716, 0.0, 0.0,0.0,0.0,0,2561)
+ 3678, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer2[2]", "Derivatives of flow rate vs. pressure at the support points",\
- 3717, 0.0, 0.0,0.0,0.0,0,2561)
+ 3679, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer2[3]", "Derivatives of flow rate vs. pressure at the support points",\
- 3718, 0.0, 0.0,0.0,0.0,0,2561)
+ 3680, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer2[4]", "Derivatives of flow rate vs. pressure at the support points",\
- 3719, 0.0, 0.0,0.0,0.0,0,2561)
+ 3681, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer3[1]", "Derivatives of flow rate vs. pressure at the support points",\
- 3720, 0.0, 0.0,0.0,0.0,0,2561)
+ 3682, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer3[2]", "Derivatives of flow rate vs. pressure at the support points",\
- 3721, 0.0, 0.0,0.0,0.0,0,2561)
+ 3683, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer3[3]", "Derivatives of flow rate vs. pressure at the support points",\
- 3722, 0.0, 0.0,0.0,0.0,0,2561)
+ 3684, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer3[4]", "Derivatives of flow rate vs. pressure at the support points",\
- 3723, 0.0, 0.0,0.0,0.0,0,2561)
+ 3685, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.preDer3[5]", "Derivatives of flow rate vs. pressure at the support points",\
- 3724, 0.0, 0.0,0.0,0.0,0,2561)
+ 3686, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powDer[1]", "Coefficients for polynomial of power vs. flow rate",\
- 3725, 0.0, 0.0,0.0,0.0,0,2561)
+ 3687, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3726, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3688, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3727, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3689, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3728, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3690, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3729, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3691, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3730, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3692, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3731, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3693, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3732, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3694, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3733, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3695, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3734, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3696, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3735, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3697, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3736, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3698, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 3737, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3699, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[2]", \
-"Fan or pump electrical power at these flow rates [W]", 3738, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3700, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[3]", \
-"Fan or pump electrical power at these flow rates [W]", 3739, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3701, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[4]", \
-"Fan or pump electrical power at these flow rates [W]", 3740, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3702, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[5]", \
-"Fan or pump electrical power at these flow rates [W]", 3741, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3703, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[6]", \
-"Fan or pump electrical power at these flow rates [W]", 3742, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3704, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[7]", \
-"Fan or pump electrical power at these flow rates [W]", 3743, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3705, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[8]", \
-"Fan or pump electrical power at these flow rates [W]", 3744, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3706, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[9]", \
-"Fan or pump electrical power at these flow rates [W]", 3745, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3707, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 3746, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3708, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 3747, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 3709, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[1]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3748, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3710, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[2]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3749, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3711, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[3]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3750, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3712, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[4]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3751, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3713, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[5]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3752, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3714, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[6]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3753, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3715, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[7]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3754, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3716, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[8]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3755, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3717, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[9]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3756, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3718, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[10]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3757, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3719, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu_internal.d[11]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 3758, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 3720, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3759, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3721, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3760, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3722, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3761, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3723, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3762, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3724, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3763, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3725, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3764, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3726, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3765, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3727, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3766, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3728, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3767, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3729, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3768, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3730, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 3769, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 3731, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[1]", "Fan or pump electrical power at these flow rates [W]",\
- 3770, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3732, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[2]", "Fan or pump electrical power at these flow rates [W]",\
- 3771, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3733, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[3]", "Fan or pump electrical power at these flow rates [W]",\
- 3772, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3734, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[4]", "Fan or pump electrical power at these flow rates [W]",\
- 3773, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3735, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[5]", "Fan or pump electrical power at these flow rates [W]",\
- 3774, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3736, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[6]", "Fan or pump electrical power at these flow rates [W]",\
- 3775, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3737, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[7]", "Fan or pump electrical power at these flow rates [W]",\
- 3776, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3738, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[8]", "Fan or pump electrical power at these flow rates [W]",\
- 3777, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3739, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[9]", "Fan or pump electrical power at these flow rates [W]",\
- 3778, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3740, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[10]", "Fan or pump electrical power at these flow rates [W]",\
- 3779, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3741, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEu.P[11]", "Fan or pump electrical power at these flow rates [W]",\
- 3780, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3742, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[1]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3781, 0.0, 0.0,0.0,0.0,0,2561)
+ 3743, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[2]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3782, 0.0, 0.0,0.0,0.0,0,2561)
+ 3744, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[3]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3783, 0.0, 0.0,0.0,0.0,0,2561)
+ 3745, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[4]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3784, 0.0, 0.0,0.0,0.0,0,2561)
+ 3746, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[5]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3785, 0.0, 0.0,0.0,0.0,0,2561)
+ 3747, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[6]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3786, 0.0, 0.0,0.0,0.0,0,2561)
+ 3748, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[7]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3787, 0.0, 0.0,0.0,0.0,0,2561)
+ 3749, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[8]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3788, 0.0, 0.0,0.0,0.0,0,2561)
+ 3750, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[9]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3789, 0.0, 0.0,0.0,0.0,0,2561)
+ 3751, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[10]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3790, 0.0, 0.0,0.0,0.0,0,2561)
+ 3752, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.powEuDer[11]", "Power derivative with respect to volumetric flow rate computed from Euler number",\
- 3791, 0.0, 0.0,0.0,0.0,0,2561)
+ 3753, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.pump.eff.haveMinimumDecrease", \
-"Flag used for reporting [:#(type=Boolean)]", 3792, true, 0.0,0.0,0.0,0,2563)
+"Flag used for reporting [:#(type=Boolean)]", 3754, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.pump.eff.haveDPMax", "Flag, true if user specified data that contain dpMax [:#(type=Boolean)]",\
- 3793, true, 0.0,0.0,0.0,0,2563)
+ 3755, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.pump.eff.dp_internal", "If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N",\
- "hydraulic.generation.pump.dpMachine", 1, 5, 8397, 1024)
+ "hydraulic.generation.pump.dpMachine", 1, 5, 8360, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.eta_internal", "Either eta or etaHyd [1]",\
- "hydraulic.generation.pump.etaHyd", 1, 5, 8399, 1024)
+ "hydraulic.generation.pump.etaHyd", 1, 5, 8362, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.P_internal", "Either PEle or WHyd [W]",\
- "hydraulic.generation.pump.eff.WHyd", 1, 5, 8405, 1024)
+ "hydraulic.generation.pump.eff.WHyd", 1, 5, 8368, 1024)
DeclareVariable("hydraulic.generation.pump.eff.deltaP", "Small value for regularisation of power",\
- 3794, 0.0005402339158228551, 0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.generation.pump.eff.yMot", "Motor part load ratio", 8407,\
+ 3756, 0.0005402339158228551, 0.0,0.0,0.0,0,2561)
+DeclareVariable("hydraulic.generation.pump.eff.yMot", "Motor part load ratio", 8370,\
0.833, 0.0,1E+100,0.0,0,2688)
DeclareAlias2("hydraulic.generation.pump.eff.y_in", "Prescribed mover speed [1]",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 1024)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 1024)
DeclareAlias2("hydraulic.generation.pump.eff.dp", "Pressure increase (computed or prescribed) [Pa]",\
- "hydraulic.generation.pump.dpMachine", 1, 5, 8397, 1024)
+ "hydraulic.generation.pump.dpMachine", 1, 5, 8360, 1024)
DeclareVariable("hydraulic.generation.pump.y_start", "Initial value of speed [1]",\
- 3795, 1, 0.0,1.0,0.0,0,513)
+ 3757, 1, 0.0,1.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.pump.y", "Constant normalized rotational speed [1]",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 0)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 0)
DeclareVariable("hydraulic.generation.pump.gain.k", "Gain value multiplied with input signal [1]",\
- 3796, -1, 0.0,0.0,0.0,0,2561)
+ 3758, -1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.pump.gain.u", "Input signal connector", \
-"hydraulic.generation.pump.dpMachine", 1, 5, 8397, 1024)
+"hydraulic.generation.pump.dpMachine", 1, 5, 8360, 1024)
DeclareAlias2("hydraulic.generation.pump.gain.y", "Output signal connector", \
-"hydraulic.generation.pump.dpMachine", -1, 5, 8397, 1024)
+"hydraulic.generation.pump.dpMachine", -1, 5, 8360, 1024)
DeclareVariable("hydraulic.generation.pump.m_flow_nominal", "Nominal mass flow rate for configuration of pressure curve [kg/s]",\
- 3797, 0.3379347183446045, 1E-60,1E+100,0.0,0,513)
+ 3759, 0.3379347183446045, 1E-60,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.pump.dp_nominal", "Nominal pressure head for configuration of pressure curve [Pa|bar]",\
- 3798, 5125.0, 1E-60,1E+100,0.0,0,513)
-DeclareVariable("hydraulic.generation.TSoil.k", "Constant output value", 3799, 1,\
+ 3760, 5125.0, 1E-60,1E+100,0.0,0,513)
+DeclareVariable("hydraulic.generation.TSoil.k", "Constant output value", 3761, 1,\
0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.TSoil.y", "Connector of Real output signal",\
- "hydraulic.generation.TSoil.k", 1, 5, 3799, 0)
+ "hydraulic.generation.TSoil.k", 1, 5, 3761, 0)
DeclareVariable("hydraulic.generation.KPIQHP.use_inpCon", "= false to use an internal variable as input [:#(type=Boolean)]",\
- 3800, true, 0.0,0.0,0.0,0,515)
+ 3762, true, 0.0,0.0,0.0,0,515)
+EndNonAlias(3)
+PreNonAliasNew(4)
+StartNonAlias(4)
DeclareParameter("hydraulic.generation.KPIQHP.integrator2.k", "Integrator gain [1]",\
- 1089, 1, 0.0,0.0,0.0,0,560)
+ 1095, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIQHP.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3801, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3763, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIQHP.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3802, false, 0.0,0.0,0.0,0,1539)
+ 3764, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIQHP.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3803, 3, 1.0,4.0,0.0,0,517)
+ 3765, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIQHP.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1090, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1096, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIQHP.integrator2.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
DeclareState("hydraulic.generation.KPIQHP.integrator2.y", "Connector of Real output signal [J]",\
@@ -42125,11 +42168,8 @@ DeclareState("hydraulic.generation.KPIQHP.integrator2.y", "Connector of Real out
DeclareDerivative("hydraulic.generation.KPIQHP.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 26, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.KPIQHP.integrator2.local_reset", \
-"[:#(type=Boolean)]", 3804, false, 0.0,0.0,0.0,0,1539)
-EndNonAlias(3)
-PreNonAliasNew(4)
-StartNonAlias(4)
-DeclareVariable("hydraulic.generation.KPIQHP.integrator2.local_set", "", 3805, 0,\
+"[:#(type=Boolean)]", 3766, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.generation.KPIQHP.integrator2.local_set", "", 3767, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.generation.KPIQHP.internalU.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.QHeaPum_flow.value", 1, 3, 12, 0)
@@ -42142,935 +42182,935 @@ DeclareAlias2("hydraulic.generation.KPIQHP.KPI.value", "Current value [W]", \
DeclareAlias2("hydraulic.generation.KPIQHP.KPI.integral", "Integral of value [J]",\
"hydraulic.generation.KPIQHP.integrator2.y", 1, 1, 26, 4)
DeclareVariable("hydraulic.generation.bouPum.nPorts", "Number of ports [:#(type=Integer)]",\
- 3806, 1, 0.0,0.0,0.0,0,517)
+ 3768, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.bouPum.verifyInputs", "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
- 3807, false, 0.0,0.0,0.0,0,515)
+ 3769, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouPum.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 8408, 0.0, -1E+60,1E+60,0.0,0,904)
+ 8371, 0.0, -1E+60,1E+60,0.0,0,904)
DeclareAlias2("hydraulic.generation.bouPum.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 4)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 4)
DeclareVariable("hydraulic.generation.bouPum.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 3808, 0.0, -10000000000.0,10000000000.0,83680.0,0,521)
+ 3770, 0.0, -10000000000.0,10000000000.0,83680.0,0,521)
DeclareVariable("hydraulic.generation.bouPum.flowDirection", "Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]",\
- 3809, 3, 1.0,3.0,0.0,0,2565)
+ 3771, 3, 1.0,3.0,0.0,0,2565)
DeclareAlias2("hydraulic.generation.bouPum.p_in_internal", "Needed to connect to conditional connector [Pa]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 1024)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 1024)
DeclareVariable("hydraulic.generation.bouPum.X_in_internal[1]", "Needed to connect to conditional connector [kg/kg]",\
- 3810, 0.0, 0.0,0.0,0.0,0,2561)
+ 3772, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.bouPum.use_X_in", "Get the composition (all fractions) from the input connector [:#(type=Boolean)]",\
- 3811, false, 0.0,0.0,0.0,0,515)
+ 3773, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouPum.use_Xi_in", "Get the composition (independent fractions) from the input connector [:#(type=Boolean)]",\
- 3812, false, 0.0,0.0,0.0,0,515)
+ 3774, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouPum.use_C_in", "Get the trace substances from the input connector [:#(type=Boolean)]",\
- 3813, false, 0.0,0.0,0.0,0,515)
+ 3775, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.bouPum.X[1]", "Fixed value of composition [kg/kg]",\
- 1091, 1, 0.0,1.0,0.1,0,560)
+ 1097, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.bouPum.use_p_in", "Get the pressure from the input connector [:#(type=Boolean)]",\
- 3814, false, 0.0,0.0,0.0,0,515)
+ 3776, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouPum.p", "Fixed value of pressure [Pa|bar]",\
- 3815, 300000, 0.0,100000000.0,100000.0,0,513)
+ 3777, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.bouPum.use_T_in", "Get the temperature from the input connector [:#(type=Boolean)]",\
- 3816, false, 0.0,0.0,0.0,0,515)
+ 3778, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.bouPum.T", "Fixed value of temperature [K|degC]",\
- 3817, 293.15, 1.0,10000.0,300.0,0,513)
+ 3779, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.generation.bouPum.checkWaterPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 3818, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 3780, \
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.bouPum.checkAirPressure", "Evaluates to true if the pressure should be checked [:#(type=Boolean)]",\
- 3819, false, 0.0,0.0,0.0,0,2563)
+ 3781, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.bouPum.T_in_internal", "Needed to connect to conditional connector [K|degC]",\
- "hydraulic.generation.bouPum.T", 1, 5, 3817, 1024)
+ "hydraulic.generation.bouPum.T", 1, 5, 3779, 1024)
DeclareAlias2("hydraulic.generation.bouPum.h_internal", "Internal connector for enthalpy",\
- "hydraulic.generation.bouPum.ports[1].h_outflow", 1, 5, 3808, 1024)
+ "hydraulic.generation.bouPum.ports[1].h_outflow", 1, 5, 3770, 1024)
DeclareVariable("hydraulic.generation.senTGenOut.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3820, true, 0.0,0.0,0.0,0,515)
+ 3782, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.senTGenOut.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.senTGenOut.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareAlias2("hydraulic.generation.senTGenOut.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.generation.senTGenOut.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.senTGenOut.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareAlias2("hydraulic.generation.senTGenOut.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareVariable("hydraulic.generation.senTGenOut.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3821, \
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 3783, \
0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.senTGenOut.m_flow_small", "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 3822, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
+ 3784, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.senTGenOut.tau", "Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]",\
- 3823, 1.0, 0.0,1E+100,0.0,0,513)
+ 3785, 1.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.senTGenOut.initType", "Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3824, 3, 1.0,4.0,0.0,0,517)
+ 3786, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.senTGenOut.k", "Gain to take flow rate into account for sensor time constant",\
- 8409, 1, 0.0,0.0,0.0,0,2688)
+ 8372, 1, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.senTGenOut.dynamic", "Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]",\
- 3825, true, 0.0,0.0,0.0,0,2563)
+ 3787, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.senTGenOut.mNor_flow", "Normalized mass flow rate",\
- 8410, 0.0, 0.0,0.0,0.0,0,2688)
+ 8373, 0.0, 0.0,0.0,0.0,0,2688)
DeclareVariable("hydraulic.generation.senTGenOut.tauInv", "Inverse of tau [s-1]",\
- 3826, 1.0, 0.0,0.0,0.0,0,2561)
+ 3788, 1.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.generation.senTGenOut.T", "Temperature of the passing fluid [K|degC]",\
27, 0.0, 0.0,1E+100,0.0,0,544)
DeclareDerivative("hydraulic.generation.senTGenOut.der(T)", "der(Temperature of the passing fluid) [K/s]",\
27, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.senTGenOut.T_start", "Initial or guess value of output (= state) [K|degC]",\
- 3827, 288.15, 0.0,1E+100,300.0,0,513)
+ 3789, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.senTGenOut.transferHeat", "if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]",\
- 3828, true, 0.0,0.0,0.0,0,515)
+ 3790, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.senTGenOut.TAmb", "Fixed ambient temperature for heat transfer [K|degC]",\
- 3829, 288.15, 0.0,1E+100,300.0,0,513)
+ 3791, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.generation.senTGenOut.tauHeaTra", "Time constant for heat transfer, default 20 minutes [s]",\
- 3830, 1.0, 1.0,1E+100,0.0,0,513)
+ 3792, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.senTGenOut.tauHeaTraInv", "Dummy parameter to avoid division by tauHeaTra [1/s]",\
- 3831, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.generation.senTGenOut.ratTau", "Ratio of tau", 3832, \
+ 3793, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("hydraulic.generation.senTGenOut.ratTau", "Ratio of tau", 3794, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.senTGenOut.TMed", "Medium temperature to which the sensor is exposed [K|degC]",\
- 9210, 300.0, 1.0,10000.0,300.0,0,2560)
+ 9179, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareVariable("hydraulic.generation.senTGenOut.T_a_inflow", "Temperature of inflowing fluid at port_a [K|degC]",\
- 9211, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9180, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("hydraulic.generation.senTGenOut.T_b_inflow", "Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]",\
- 9212, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9181, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("hydraulic.generation.realToElecCon.use_souLoa", \
-"= true if real interface for electrical load is activated [:#(type=Boolean)]", 3833,\
+"= true if real interface for electrical load is activated [:#(type=Boolean)]", 3795,\
true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.realToElecCon.use_souGen", \
"= true if real interface for electrical generation is activated [:#(type=Boolean)]",\
- 3834, false, 0.0,0.0,0.0,0,515)
+ 3796, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.realToElecCon.PEleLoa", "Electrical power of load",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 0)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 0)
DeclareAlias2("hydraulic.generation.realToElecCon.internalElectricalPin.PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("hydraulic.generation.realToElecCon.internalElectricalPin.PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 3835, 0.0, 0.0,0.0,0.0,0,521)
+ 3797, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.generation.realToElecCon.NoFlowGen.k", \
-"Constant output value", 3836, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 3798, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.realToElecCon.NoFlowGen.y", \
-"Connector of Real output signal", 3837, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 3799, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.realToElecCon.realPassThroughLoa.u", \
"Connector of Real input signal", "electrical.internalElectricalPin[1].PElecLoa", 1,\
- 5, 9131, 0)
+ 5, 9094, 0)
DeclareAlias2("hydraulic.generation.realToElecCon.realPassThroughLoa.y", \
"Connector of Real output signal", "electrical.internalElectricalPin[1].PElecLoa", 1,\
- 5, 9131, 0)
+ 5, 9094, 0)
DeclareVariable("hydraulic.generation.realToElecCon.realPassThroughGen.u", \
-"Connector of Real input signal", 3838, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real input signal", 3800, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.realToElecCon.realPassThroughGen.y", \
-"Connector of Real output signal", 3839, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 3801, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.multiSum.significantDigits", \
"Number of significant digits to be shown in dynamic diagram layer for y [:#(type=Integer)]",\
- 1092, 3, 1.0,1E+100,0.0,0,564)
+ 1098, 3, 1.0,1E+100,0.0,0,564)
DeclareVariable("hydraulic.generation.multiSum.nu", "Number of input connections [:#(type=Integer)]",\
- 3840, 3, 0.0,1E+100,0.0,0,1541)
+ 3802, 3, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("hydraulic.generation.multiSum.u[1]", "", "hydraulic.generation.pump.P", 1,\
- 5, 8395, 0)
+ 5, 8358, 0)
DeclareAlias2("hydraulic.generation.multiSum.u[2]", "", "outputs.hydraulic.gen.PEleHeaPum.value", 1,\
3, 14, 0)
DeclareAlias2("hydraulic.generation.multiSum.u[3]", "", "outputs.hydraulic.gen.PEleEleHea.value", 1,\
3, 21, 0)
DeclareAlias2("hydraulic.generation.multiSum.y", "", "electrical.internalElectricalPin[1].PElecLoa", 1,\
- 5, 9131, 0)
-DeclareParameter("hydraulic.generation.multiSum.k[1]", "Input gains", 1093, 1, \
+ 5, 9094, 0)
+DeclareParameter("hydraulic.generation.multiSum.k[1]", "Input gains", 1099, 1, \
0.0,0.0,0.0,0,560)
-DeclareParameter("hydraulic.generation.multiSum.k[2]", "Input gains", 1094, 1, \
+DeclareParameter("hydraulic.generation.multiSum.k[2]", "Input gains", 1100, 1, \
0.0,0.0,0.0,0,560)
-DeclareParameter("hydraulic.generation.multiSum.k[3]", "Input gains", 1095, 1, \
+DeclareParameter("hydraulic.generation.multiSum.k[3]", "Input gains", 1101, 1, \
0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIHeaPum.use_reaInp", "=true to use a real input [:#(type=Boolean)]",\
- 3841, false, 0.0,0.0,0.0,0,515)
+ 3803, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.KPIHeaPum.thrOn", "If uRea is greater or equal to this treshhold the device is on",\
- 1096, 1E-13, 0.0,0.0,0.0,0,560)
+ 1102, 1E-13, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.KPIHeaPum.thrOff", "If uRea is lower or equal to this treshhold, the device is off",\
- 1097, 1E-15, 0.0,0.0,0.0,0,560)
+ 1103, 1E-15, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIHeaPum.calc_singleOnTime", \
-"True to calc singleOnTime [:#(type=Boolean)]", 3842, true, 0.0,0.0,0.0,0,515)
+"True to calc singleOnTime [:#(type=Boolean)]", 3804, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.KPIHeaPum.calc_totalOnTime", \
-"True to calc totalOnTime [:#(type=Boolean)]", 3843, true, 0.0,0.0,0.0,0,515)
+"True to calc totalOnTime [:#(type=Boolean)]", 3805, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.KPIHeaPum.calc_numSwi", "True to calc number of device on-switches [:#(type=Boolean)]",\
- 3844, true, 0.0,0.0,0.0,0,515)
+ 3806, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.KPIHeaPum.switch1.u1", "Connector of first Real input signal",\
- "hydraulic.generation.KPIHeaPum.const.k", 1, 7, 1098, 0)
+ "hydraulic.generation.KPIHeaPum.const.k", 1, 7, 1104, 0)
DeclareAlias2("hydraulic.generation.KPIHeaPum.switch1.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 65)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 65)
DeclareAlias2("hydraulic.generation.KPIHeaPum.switch1.u3", "Connector of second Real input signal",\
- "hydraulic.generation.KPIHeaPum.const1.k", 1, 7, 1099, 0)
+ "hydraulic.generation.KPIHeaPum.const1.k", 1, 7, 1105, 0)
DeclareVariable("hydraulic.generation.KPIHeaPum.switch1.y", "Connector of Real output signal",\
- 8411, 0.0, 0.0,0.0,0.0,0,640)
+ 8374, 0.0, 0.0,0.0,0.0,0,640)
DeclareParameter("hydraulic.generation.KPIHeaPum.const.k", "Constant output value",\
- 1098, 1, 0.0,0.0,0.0,0,560)
+ 1104, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIHeaPum.const.y", "Connector of Real output signal",\
- "hydraulic.generation.KPIHeaPum.const.k", 1, 7, 1098, 0)
+ "hydraulic.generation.KPIHeaPum.const.k", 1, 7, 1104, 0)
DeclareParameter("hydraulic.generation.KPIHeaPum.const1.k", "Constant output value",\
- 1099, 0, 0.0,0.0,0.0,0,560)
+ 1105, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIHeaPum.const1.y", "Connector of Real output signal",\
- "hydraulic.generation.KPIHeaPum.const1.k", 1, 7, 1099, 0)
+ "hydraulic.generation.KPIHeaPum.const1.k", 1, 7, 1105, 0)
DeclareParameter("hydraulic.generation.KPIHeaPum.integrator3.k", \
-"Integrator gain [1]", 1100, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1106, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator3.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3845, true, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3807, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator3.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3846, false, 0.0,0.0,0.0,0,1539)
+ 3808, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator3.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3847, 3, 1.0,4.0,0.0,0,517)
+ 3809, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIHeaPum.integrator3.y_start", \
-"Initial or guess value of output (= state)", 1101, 0, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1107, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIHeaPum.integrator3.u", "Connector of Real input signal",\
- "hydraulic.generation.KPIHeaPum.switch1.y", 1, 5, 8411, 0)
+ "hydraulic.generation.KPIHeaPum.switch1.y", 1, 5, 8374, 0)
DeclareState("hydraulic.generation.KPIHeaPum.integrator3.y", "Connector of Real output signal [s]",\
28, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.generation.KPIHeaPum.integrator3.der(y)", \
"der(Connector of Real output signal) [1]", 28, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.KPIHeaPum.integrator3.reset", \
"Optional connector of reset signal [:#(type=Boolean)]", "hydraulic.generation.KPIHeaPum.integrator3.local_reset", 1,\
- 5, 8412, 65)
+ 5, 8375, 65)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator3.local_reset", \
-"[:#(type=Boolean)]", 8412, false, 0.0,0.0,0.0,0,1666)
+"[:#(type=Boolean)]", 8375, false, 0.0,0.0,0.0,0,1666)
DeclareAlias2("hydraulic.generation.KPIHeaPum.integrator3.local_set", "", \
-"hydraulic.generation.KPIHeaPum.integrator3.y_start", 1, 7, 1101, 512)
+"hydraulic.generation.KPIHeaPum.integrator3.y_start", 1, 7, 1107, 512)
DeclareAlias2("hydraulic.generation.KPIHeaPum.not1.u", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 65)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 65)
DeclareAlias2("hydraulic.generation.KPIHeaPum.not1.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.generation.KPIHeaPum.integrator3.local_reset", 1, 5, 8412, 65)
+ "hydraulic.generation.KPIHeaPum.integrator3.local_reset", 1, 5, 8375, 65)
DeclareVariable("hydraulic.generation.KPIHeaPum.integerConstant.k", \
-"Constant output value [:#(type=Integer)]", 3848, 1, 0.0,0.0,0.0,0,517)
+"Constant output value [:#(type=Integer)]", 3810, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.KPIHeaPum.integerConstant.y", \
-"Connector of Integer output signal [:#(type=Integer)]", 3849, 1, 0.0,0.0,0.0,0,517)
+"Connector of Integer output signal [:#(type=Integer)]", 3811, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.u", \
-"Integer input signal [:#(type=Integer)]", 3850, 1, 0.0,0.0,0.0,0,517)
+"Integer input signal [:#(type=Integer)]", 3812, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.y", \
-"Integer output signal [:#(type=Integer)]", 8413, 0, 0.0,0.0,0.0,0,644)
+"Integer output signal [:#(type=Integer)]", 8376, 0, 0.0,0.0,0.0,0,644)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3851, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3813, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.use_set", \
"= true, if set port enabled and used as default value when reset [:#(type=Boolean)]",\
- 3852, false, 0.0,0.0,0.0,0,1539)
+ 3814, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.y_start", \
-"Initial and reset value of y if set port is not used [:#(type=Integer)]", 3853,\
+"Initial and reset value of y if set port is not used [:#(type=Integer)]", 3815,\
0, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.KPIHeaPum.triggeredAdd.trigger", \
-"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 65)
+"[:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 65)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.local_reset", \
-"[:#(type=Boolean)]", 3854, false, 0.0,0.0,0.0,0,1539)
+"[:#(type=Boolean)]", 3816, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.triggeredAdd.local_set", \
-"[:#(type=Integer)]", 3855, 0, 0.0,0.0,0.0,0,2565)
+"[:#(type=Integer)]", 3817, 0, 0.0,0.0,0.0,0,2565)
DeclareParameter("hydraulic.generation.KPIHeaPum.integrator1.k", \
-"Integrator gain [1]", 1102, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1108, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator1.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3856, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3818, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator1.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3857, false, 0.0,0.0,0.0,0,1539)
+ 3819, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator1.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3858, 3, 1.0,4.0,0.0,0,517)
+ 3820, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIHeaPum.integrator1.y_start", \
-"Initial or guess value of output (= state)", 1103, 0, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1109, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIHeaPum.integrator1.u", "Connector of Real input signal",\
- "hydraulic.generation.KPIHeaPum.switch1.y", 1, 5, 8411, 0)
+ "hydraulic.generation.KPIHeaPum.switch1.y", 1, 5, 8374, 0)
DeclareState("hydraulic.generation.KPIHeaPum.integrator1.y", "Connector of Real output signal [s]",\
29, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.generation.KPIHeaPum.integrator1.der(y)", \
"der(Connector of Real output signal) [1]", 29, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.KPIHeaPum.integrator1.local_reset", \
-"[:#(type=Boolean)]", 3859, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.generation.KPIHeaPum.integrator1.local_set", "", 3860,\
+"[:#(type=Boolean)]", 3821, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.generation.KPIHeaPum.integrator1.local_set", "", 3822,\
0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.generation.KPIHeaPum.KPI.numSwi", "Number of switches [:#(type=Integer)]",\
- "hydraulic.generation.KPIHeaPum.triggeredAdd.y", 1, 5, 8413, 70)
+ "hydraulic.generation.KPIHeaPum.triggeredAdd.y", 1, 5, 8376, 70)
DeclareAlias2("hydraulic.generation.KPIHeaPum.KPI.sinOnTim", "Time the device is on in a single on-cycle [s|h]",\
"hydraulic.generation.KPIHeaPum.integrator3.y", 1, 1, 28, 4)
DeclareAlias2("hydraulic.generation.KPIHeaPum.KPI.totOnTim", "Total time the device is on [s|h]",\
"hydraulic.generation.KPIHeaPum.integrator1.y", 1, 1, 29, 4)
DeclareAlias2("hydraulic.generation.KPIHeaPum.u", "=true if device is on [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 65)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 65)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.heaPumIsOn", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 69)
+ 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.THeaPumIn", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.THeaPumOut", \
-"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.THeaPumEvaIn", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.TGenOutMea", \
"Temperature of the passing fluid [K|degC]", "hydraulic.generation.senTGenOut.T", 1,\
1, 27, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.uEleHea", \
-"Control input [1]", "hydraulic.control.swiSecGen.y", 1, 5, 8451, 4)
+"Control input [1]", "hydraulic.control.swiSecGen.y", 1, 5, 8414, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.uPump", \
"Constant normalized rotational speed [1]", "hydraulic.generation.pump.y_actual", 1,\
- 5, 8394, 4)
+ 5, 8357, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.sigBusGen.yHeaPumSet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.onOffMea", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 69)
+ 5, 8355, 69)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.TConInMea", \
"Connector of Real input signal", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.TConOutMea", \
-"Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+"Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.TEvaInMea", \
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.PEleMea", \
"Routing block that picks the component for electric power consumption [W]", \
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.QEva_flow", \
"Actual cooling heat flow rate removed from fluid 2 [W]", "hydraulic.generation.heatPump.Q2_flow", 1,\
- 5, 9161, 4)
+ 5, 9128, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.TEvaOutMea", \
"Temperature of the condenser volume [K|degC]", "hydraulic.generation.heatPump.eva.T", 1,\
- 5, 9182, 4)
-DeclareVariable("hydraulic.generation.heaPumSigBusPasThr.vapComBus.hea", \
-"=true for heating, =false for cooling [:#(type=Boolean)]", 3861, true, 0.0,0.0,\
-0.0,0,523)
+ 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.hea", \
+"=true for heating, =false for cooling [:#(type=Boolean)]", "hydraulic.generation.defCtrl.hys.y", 1,\
+ 5, 8299, 69)
DeclareVariable("hydraulic.generation.heaPumSigBusPasThr.vapComBus.iceFacChiMea",\
- "Icing factor from 0 to 1 to estimate influence of icing [1]", 3862, 1.0, 0.0,\
+ "Icing factor from 0 to 1 to estimate influence of icing [1]", 3823, 1.0, 0.0,\
1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.icefacHPMea", \
"Icing factor from 0 to 1 to estimate influence of icing [1]", "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1,\
- 5, 9144, 4)
+ 5, 9110, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.mConMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.portGen_out[1].m_flow", -1,\
- 5, 8336, 4)
+ 5, 8296, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.mEvaMea_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.generation.bouEva.m_flow", 1,\
- 5, 3442, 4)
+ 5, 3404, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.relHum", \
-"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8491, 4)
+"Connector of Real output signal", "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.yMea", \
"Output for relative compressor speed from 0 to 1", "hydraulic.generation.heatPump.hys.u", 1,\
- 5, 9195, 4)
+ 5, 9162, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.vapComBus.ySet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.realPassThrough[1].u", \
"Connector of Real input signal", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 0)
+ 5, 9163, 0)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.realPassThrough[1].y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 0)
+ 5, 9163, 0)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.realPassThrough[2].u", \
-"Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+"Connector of Real input signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
0)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.realPassThrough[2].y", \
-"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
0)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.realPassThrough[3].u", \
"Connector of Real input signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.realPassThrough[3].y", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 0)
+ 5, 9164, 0)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.booleanPassThrough.u", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 65)
+ 5, 8355, 65)
DeclareAlias2("hydraulic.generation.heaPumSigBusPasThr.booleanPassThrough.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 65)
+ 5, 8355, 65)
DeclareAlias2("hydraulic.generation.sigBus.relHum", "Connector of Real output signal",\
- "building.weaBus.relHum", 1, 5, 8491, 4)
+ "building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.generation.sigBus.QEva_flow", "Actual cooling heat flow rate removed from fluid 2 [W]",\
- "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9161, 4)
+ "hydraulic.generation.heatPump.Q2_flow", 1, 5, 9128, 4)
DeclareAlias2("hydraulic.generation.sigBus.PEleMea", "Routing block that picks the component for electric power consumption [W]",\
"outputs.hydraulic.gen.PEleHeaPum.value", 1, 3, 14, 4)
DeclareAlias2("hydraulic.generation.sigBus.TConInMea", "Value of Real output [K|degC]",\
- "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9196, 4)
+ "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9163, 4)
DeclareAlias2("hydraulic.generation.sigBus.TConOutMea", "Temperature of the condenser volume [K|degC]",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareAlias2("hydraulic.generation.sigBus.TEvaInMea", "Value of Real output [K|degC]",\
- "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9197, 4)
+ "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9164, 4)
DeclareAlias2("hydraulic.generation.sigBus.TEvaOutMea", "Temperature of the condenser volume [K|degC]",\
- "hydraulic.generation.heatPump.eva.T", 1, 5, 9182, 4)
-DeclareVariable("hydraulic.generation.sigBus.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
- 3863, true, 0.0,0.0,0.0,0,523)
+ "hydraulic.generation.heatPump.eva.T", 1, 5, 9149, 4)
+DeclareAlias2("hydraulic.generation.sigBus.hea", "=true for heating, =false for cooling [:#(type=Boolean)]",\
+ "hydraulic.generation.defCtrl.hys.y", 1, 5, 8299, 69)
DeclareVariable("hydraulic.generation.sigBus.iceFacChiMea", "Icing factor from 0 to 1 to estimate influence of icing [1]",\
- 3864, 1.0, 0.0,1.0,0.0,0,521)
+ 3824, 1.0, 0.0,1.0,0.0,0,521)
DeclareAlias2("hydraulic.generation.sigBus.icefacHPMea", "Icing factor from 0 to 1 to estimate influence of icing [1]",\
- "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1, 5, 9144,\
+ "hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.iceFac", 1, 5, 9110,\
4)
DeclareAlias2("hydraulic.generation.sigBus.mConMea_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 4)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 4)
DeclareAlias2("hydraulic.generation.sigBus.mEvaMea_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "hydraulic.generation.bouEva.m_flow", 1, 5, 3442, 4)
+ "hydraulic.generation.bouEva.m_flow", 1, 5, 3404, 4)
DeclareAlias2("hydraulic.generation.sigBus.onOffMea", "[:#(type=Boolean)]", \
-"hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+"hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.generation.sigBus.yMea", "Output for relative compressor speed from 0 to 1",\
- "hydraulic.generation.heatPump.hys.u", 1, 5, 9195, 4)
+ "hydraulic.generation.heatPump.hys.u", 1, 5, 9162, 4)
DeclareAlias2("hydraulic.generation.sigBus.ySet", "Relative compressor speed between 0 and 1",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 4)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 4)
DeclareAlias2("hydraulic.generation.reaPasThrRelHum.u", "Connector of Real input signal",\
- "building.weaBus.relHum", 1, 5, 8491, 0)
+ "building.weaBus.relHum", 1, 5, 8454, 0)
DeclareAlias2("hydraulic.generation.reaPasThrRelHum.y", "Connector of Real output signal",\
- "building.weaBus.relHum", 1, 5, 8491, 0)
+ "building.weaBus.relHum", 1, 5, 8454, 0)
DeclareParameter("hydraulic.generation.parEleHea.eta", "Electric heater efficiency",\
- 1104, 0.97, 0.0,0.0,0.0,0,560)
+ 1110, 0.97, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.parEleHea.V_hr", "Volume to model thermal inertia of water [m3]",\
- 1105, 0.001, 0.0,0.0,0.0,0,560)
+ 1111, 0.001, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.parEleHea.dp_nominal", "Pressure difference [Pa|Pa]",\
- 3865, 1000, 0.0,0.0,0.0,0,513)
+ 3825, 1000, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.generation.parEleHea.discretizationSteps", \
"Number of steps to dicretize. =0 modulating, =1 resembels an on-off controller. =2 would sample 0, 0.5 and 1 [:#(type=Integer)]",\
- 1106, 0, 0.0,1E+100,0.0,0,564)
+ 1112, 0, 0.0,1E+100,0.0,0,564)
DeclareVariable("hydraulic.generation.use_eleHea", "=false to disable the electric heater [:#(type=Boolean)]",\
- 3866, true, 0.0,0.0,0.0,0,515)
+ 3826, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3867, true, 0.0,0.0,0.0,0,515)
+ 3827, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.eleHea.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.eleHea.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8340, 4)
+ "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8301, 4)
DeclareAlias2("hydraulic.generation.eleHea.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareAlias2("hydraulic.generation.eleHea.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.eleHea.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareAlias2("hydraulic.generation.eleHea.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareVariable("hydraulic.generation.eleHea.m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 3868, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ 3828, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 3869, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
+ 3829, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 3870, false, 0.0,0.0,0.0,0,1539)
+ 3830, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.eleHea.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.eleHea.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8414, 0, 0.0,0.0,0.0,0,640)
+ 8377, 0, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.generation.eleHea._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 3871, 0, 0.0,0.0,0.0,0,2561)
+ 3831, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 3872, 0, 0.0,0.0,0.0,0,2561)
+ 3832, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.computeFlowResistance", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 3873, true, 0.0,0.0,0.0,0,515)
+ 3833, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 3874, false, 0.0,0.0,0.0,0,515)
+ 3834, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.dp_nominal", "Pressure difference [Pa|Pa]",\
- 3875, 1000, 0.0,1E+100,0.0,0,513)
+ 3835, 1000, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.linearizeFlowResistance", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 3876, false, 0.0,0.0,0.0,0,515)
+ 3836, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.deltaM", "Fraction of nominal flow rate where flow transitions to laminar",\
- 3877, 0.1, 0.0,0.0,0.0,0,513)
+ 3837, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 3878, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 3838, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.eleHea.tau", "Time constant at nominal flow (if energyDynamics <> SteadyState) [s]",\
- 3879, 30, 0.0,0.0,0.0,0,513)
+ 3839, 30, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3880, 2, 1.0,4.0,0.0,0,517)
+ 3840, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.eleHea.p_start", "Start value of pressure [Pa|bar]",\
- 3881, 300000, 0.0,100000000.0,100000.0,0,513)
+ 3841, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.T_start", "Start value of temperature [K|degC]",\
- 3882, 293.15, 1.0,10000.0,300.0,0,513)
+ 3842, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.generation.eleHea.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1107, 1, 0.0,1.0,0.1,0,560)
+ 1113, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.generation.eleHea.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3883, 2, 1.0,4.0,0.0,0,517)
+ 3843, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.eleHea.vol.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3884, 2, 1.0,4.0,0.0,0,517)
+ 3844, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.eleHea.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3885, 2, 1.0,4.0,0.0,0,517)
+ 3845, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.eleHea.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3886, 2, 1.0,4.0,0.0,0,517)
+ 3846, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.generation.eleHea.vol.p_start", "Start value of pressure [Pa|bar]",\
- 3887, 300000, 0.0,100000000.0,100000.0,0,513)
+ 3847, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.vol.T_start", "Start value of temperature [K|degC]",\
- 3888, 293.15, 1.0,10000.0,300.0,0,513)
+ 3848, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.vol.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 3889, 0.0, 0.0,1.0,0.1,0,513)
+ 3849, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.generation.eleHea.vol.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 3890, 1, 1.0,1E+100,0.0,0,513)
+ 3850, 1, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3891, false, 0.0,0.0,0.0,0,2563)
+ 3851, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.initialize_p", "= true to set up initial equations for pressure [:#(type=Boolean)]",\
- 3892, false, 0.0,0.0,0.0,0,1539)
+ 3852, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.eleHea.vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 3893, true, 0.0,0.0,0.0,0,515)
+ 3853, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 3894, true, 0.0,0.0,0.0,0,515)
+ 3854, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 3895, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 3855, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 3896, 2, 0.0,0.0,0.0,0,517)
+ 3856, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.eleHea.vol.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 3897, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
+ 3857, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 3898, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.generation.eleHea.vol.V", "Volume [m3]", 3899, 0.0, \
+ 3858, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.generation.eleHea.vol.V", "Volume [m3]", 3859, 0.0, \
0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.eleHea.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.eleHea.vol.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareAlias2("hydraulic.generation.eleHea.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareAlias2("hydraulic.generation.eleHea.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.eleHea.vol.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareAlias2("hydraulic.generation.eleHea.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareVariable("hydraulic.generation.eleHea.vol.T", "Temperature of the fluid [K|degC]",\
- 9213, 300.0, 1.0,10000.0,300.0,0,512)
+ 9182, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.generation.eleHea.vol.U", "Internal energy of the component [J]",\
"hydraulic.generation.eleHea.vol.dynBal.U", 1, 1, 30, 0)
DeclareAlias2("hydraulic.generation.eleHea.vol.p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 0)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 0)
DeclareAlias2("hydraulic.generation.eleHea.vol.m", "Mass of the component [kg]",\
- "hydraulic.generation.eleHea.vol.dynBal.m", 1, 5, 3928, 0)
+ "hydraulic.generation.eleHea.vol.dynBal.m", 1, 5, 3888, 0)
DeclareVariable("hydraulic.generation.eleHea.vol.rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 3900, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3860, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3901, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3861, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.state_default.T", \
-"Temperature of medium [K|degC]", 3902, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3862, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 3903, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3863, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 3904, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 3864, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.state_start.T", \
-"Temperature of medium [K|degC]", 3905, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3865, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 3906, false, 0.0,0.0,0.0,0,2563)
+ 3866, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.eleHea.vol.hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 1024)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 1028)
+ "hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 1028)
DeclareAlias2("hydraulic.generation.eleHea.vol.preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 1156)
DeclareAlias2("hydraulic.generation.eleHea.vol.preTem.T", "[K]", \
-"hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 1024)
+"hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.portT.y", "Value of Real output",\
- "hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 1024)
+ "hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "outputs.hydraulic.gen.QEleHea_flow.value", 1,\
3, 19, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 1028)
DeclareAlias2("hydraulic.generation.eleHea.vol.heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 1156)
DeclareAlias2("hydraulic.generation.eleHea.vol.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 1028)
+"Port temperature [K|degC]", "hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 1028)
DeclareAlias2("hydraulic.generation.eleHea.vol.heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QEleHea_flow.value", -1, 3, 19, 1156)
DeclareVariable("hydraulic.generation.eleHea.vol.use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 3907, false, 0.0,0.0,0.0,0,515)
+ 3867, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.eleHea.vol.heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 4)
+ "hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 4)
DeclareAlias2("hydraulic.generation.eleHea.vol.heatPort.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 132)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3908, 2, 1.0,4.0,0.0,0,2565)
+ 3868, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3909, 2, 1.0,4.0,0.0,0,2565)
+ 3869, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3910, 2, 1.0,4.0,0.0,0,2565)
+ 3870, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 3911, 2, 1.0,4.0,0.0,0,2565)
+ 3871, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 3912, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 3872, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 3913, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 3873, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 3914, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 3874, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 3915, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 3875, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 3916, false, 0.0,0.0,0.0,0,2563)
+ 3876, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 3917, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 3877, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 3918, true, 0.0,0.0,0.0,0,2563)
+ 3878, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 3919, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 3879, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 3920, false, 0.0,0.0,0.0,0,2563)
+ 3880, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3921,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 3881,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 1024)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.generation.eleHea.vol.dynBal.U", 1, 1, 30, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.mOut", "Mass of the component [kg]",\
- "hydraulic.generation.eleHea.vol.dynBal.m", 1, 5, 3928, 1024)
+ "hydraulic.generation.eleHea.vol.dynBal.m", 1, 5, 3888, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1028)
+ 5, 8297, 1028)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 1028)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 1028)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 1156)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1028)
+ 5, 8297, 1028)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 1028)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 1028)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 3922, false, 0.0,0.0,0.0,0,2563)
+ 3882, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 3923, true, 0.0,0.0,0.0,0,2563)
+ 3883, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 3924, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 3884, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9214, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9183, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1024)
+ 5, 8297, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.generation.portGen_out[1].h_outflow", 1,\
- 5, 9137, 1024)
+ 5, 9100, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.generation.portGen_out[1].h_outflow", 1,\
- 5, 9137, 1024)
+ 5, 9100, 1024)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 3925, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 3885, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 3926, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 3886, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 3927, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 3887, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1024)
+ 5, 8297, 1024)
DeclareAlias2("hydraulic.generation.eleHea.vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.generation.eleHea.vol.dynBal.medium.T", 1,\
- 5, 9214, 1024)
+ 5, 9183, 1024)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9215, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9184, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 8415, 0.0, 0.0,0.0,0.0,0,2688)
+"Absolute pressure of medium in [bar] [bar]", 8378, 0.0, 0.0,0.0,0.0,0,2688)
DeclareState("hydraulic.generation.eleHea.vol.dynBal.U", "Internal energy of fluid [J]",\
30, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.generation.eleHea.vol.dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 30, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.m", "Mass of fluid [kg]",\
- 3928, 0.0, 0.0,1E+100,0.0,0,2561)
+ 3888, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 3929, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 3889, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 3930, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 3890, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9216, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9185, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.fluidVolume", \
-"Volume [m3]", 3931, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 3891, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 3932, 0.0, 0.0,0.0,0.0,0,2561)
+ 3892, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.ports_H_flow[1]", "[W]",\
- 9217, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9186, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.ports_H_flow[2]", "[W]",\
- 9218, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9187, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3933, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 3893, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3934, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3894, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 3935, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 3895, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 3936, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 3896, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 3937, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 3897, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 3938, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 3898, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 3939, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 3899, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 3940, false, 0.0,0.0,0.0,0,2563)
+ 3900, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.vol.dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 3941, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 3901, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.preDro.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 3942, true, 0.0,0.0,0.0,0,515)
+ 3902, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.eleHea.preDro.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.eleHea.preDro.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8340, 4)
+ "hydraulic.generation.heatPump.port_b1.p", 1, 5, 8301, 4)
DeclareAlias2("hydraulic.generation.eleHea.preDro.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareAlias2("hydraulic.generation.eleHea.preDro.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.generation.eleHea.preDro.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareAlias2("hydraulic.generation.eleHea.preDro.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9139, 4)
+ "hydraulic.generation.heatPump.port_a1.h_outflow", 1, 5, 9102, 4)
DeclareVariable("hydraulic.generation.eleHea.preDro.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 3943, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 3903, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.preDro.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 3944, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 3904, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.preDro.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 3945, false, 0.0,0.0,0.0,0,1539)
+ 3905, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.generation.eleHea.preDro.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.generation.eleHea.preDro.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8416, 0, 0.0,0.0,1000.0,0,640)
+ 8379, 0, 0.0,0.0,1000.0,0,640)
DeclareVariable("hydraulic.generation.eleHea.preDro._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 3946, 0, 0.0,0.0,0.0,0,2561)
+ 3906, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.preDro._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 3947, 0, 0.0,0.0,0.0,0,2561)
+ 3907, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.preDro.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 3948, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 3908, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.eleHea.preDro.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 3949, false, 0.0,0.0,0.0,0,515)
+ 3909, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.preDro.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 3950, 1000, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 3910, 1000, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.preDro.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 3951, false, 0.0,0.0,0.0,0,515)
+ 3911, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.eleHea.preDro.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 3952, 0.03379347183446045,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 3912, 0.03379347183446045,\
0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.generation.eleHea.preDro.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1108, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1114, 300000.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("hydraulic.generation.eleHea.preDro.sta_default.T", \
-"Temperature of medium [K|degC]", 1109, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1115, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.generation.eleHea.preDro.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 3953, 0.001, 0.0,1E+100,0.0,0,2561)
+ 3913, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.preDro.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 3954, 0.3379347183446045, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 3914, 0.3379347183446045, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.preDro.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 3955, 1000, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 3915, 1000, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.generation.eleHea.preDro.deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 3956, 0.1, 1E-06,1E+100,0.0,0,513)
+ 3916, 0.1, 1E-06,1E+100,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.preDro.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 3957, 0.010686434104164361, 0.0,0.0,0.0,0,513)
+ 3917, 0.010686434104164361, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.preDro.computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 3958,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 3918,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.generation.eleHea.preDro.coeff", "Precomputed coefficient to avoid division by parameter",\
- 3959, 0, 0.0,0.0,0.0,0,2561)
+ 3919, 0, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.generation.eleHea.sta_default.p", "Absolute pressure of medium [Pa|bar]",\
- 1110, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1116, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.generation.eleHea.sta_default.T", "Temperature of medium [K|degC]",\
- 1111, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1117, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.generation.eleHea.rho_default", "Density, used to compute fluid volume [kg/m3|g/cm3]",\
- 3960, 995.586, 0.0,1E+100,0.0,0,2561)
+ 3920, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.sta_start.p", "Absolute pressure of medium [Pa|bar]",\
- 3961, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 3921, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.sta_start.T", "Temperature of medium [K|degC]",\
- 3962, 293.15, 1.0,10000.0,300.0,0,2561)
+ 3922, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.h_outflow_start", "Start value for outflowing enthalpy [J/kg]",\
- 3963, 0.0, 0.0,0.0,0.0,0,2561)
+ 3923, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.generation.eleHea.Q_flow_nominal", "Heat flow rate at u=1, positive for heating [W]",\
- 3964, 0.0, 0.0,0.0,0.0,0,513)
+ 3924, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.V", "Volume of heat exchanger [m3]",\
- 3965, 0.0, 0.0,0.0,0.0,0,513)
+ 3925, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.eta", "Efficiency of the heating rod",\
- 3966, 0.0, 0.0,0.0,0.0,0,513)
+ 3926, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.eleHea.use_countNumSwi", "Turn the counting of the number of heating rod uses on or off. [:#(type=Boolean)]",\
- 3967, false, 0.0,0.0,0.0,0,515)
+ 3927, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.eleHea.u", "Control input [1]", \
-"hydraulic.control.swiSecGen.y", 1, 5, 8451, 0)
+"hydraulic.control.swiSecGen.y", 1, 5, 8414, 0)
DeclareAlias2("hydraulic.generation.eleHea.Pel", "Electrical power used to provide current heat flow [W]",\
"outputs.hydraulic.gen.PEleEleHea.value", 1, 3, 21, 0)
DeclareVariable("hydraulic.generation.eleHea.gai_eta.k", "Gain value multiplied with input signal [1]",\
- 3968, 1, 0.0,0.0,0.0,0,513)
+ 3928, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.generation.eleHea.gai_eta.u", "Input signal connector",\
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 0)
DeclareAlias2("hydraulic.generation.eleHea.gai_eta.y", "Output signal connector",\
"outputs.hydraulic.gen.PEleEleHea.value", 1, 3, 21, 0)
DeclareParameter("hydraulic.generation.eleHea.preHea.T_ref", "Reference temperature [K|degC]",\
- 1112, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1118, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.generation.eleHea.preHea.alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 3969, 0, 0.0,0.0,0.0,0,2561)
+ 3929, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.eleHea.preHea.Q_flow", "[W]", \
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 1024)
DeclareAlias2("hydraulic.generation.eleHea.preHea.port.T", "Port temperature [K|degC]",\
- "hydraulic.generation.eleHea.vol.T", 1, 5, 9213, 1028)
+ "hydraulic.generation.eleHea.vol.T", 1, 5, 9182, 1028)
DeclareAlias2("hydraulic.generation.eleHea.preHea.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
"outputs.hydraulic.gen.QEleHea_flow.value", -1, 3, 19, 1156)
DeclareVariable("hydraulic.generation.eleHea.gai.k", "Gain value multiplied with input signal [1]",\
- 3970, 1, 0.0,0.0,0.0,0,2561)
+ 3930, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.generation.eleHea.gai.u", "Input signal connector", \
-"hydraulic.control.swiSecGen.y", 1, 5, 8451, 1024)
+"hydraulic.control.swiSecGen.y", 1, 5, 8414, 1024)
DeclareAlias2("hydraulic.generation.eleHea.gai.y", "Output signal connector", \
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 1024)
DeclareVariable("hydraulic.generation.KPIEleHea.use_reaInp", "=true to use a real input [:#(type=Boolean)]",\
- 3971, true, 0.0,0.0,0.0,0,515)
+ 3931, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.generation.KPIEleHea.thrOn", "If uRea is greater or equal to this treshhold the device is on",\
- 1113, 1E-13, 0.0,0.0,0.0,0,560)
+ 1119, 1E-13, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.generation.KPIEleHea.thrOff", "If uRea is lower or equal to this treshhold, the device is off",\
- 1114, 1E-15, 0.0,0.0,0.0,0,560)
+ 1120, 1E-15, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIEleHea.calc_singleOnTime", \
-"True to calc singleOnTime [:#(type=Boolean)]", 3972, true, 0.0,0.0,0.0,0,515)
+"True to calc singleOnTime [:#(type=Boolean)]", 3932, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.KPIEleHea.calc_totalOnTime", \
-"True to calc totalOnTime [:#(type=Boolean)]", 3973, true, 0.0,0.0,0.0,0,515)
+"True to calc totalOnTime [:#(type=Boolean)]", 3933, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.KPIEleHea.calc_numSwi", "True to calc number of device on-switches [:#(type=Boolean)]",\
- 3974, true, 0.0,0.0,0.0,0,515)
+ 3934, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.generation.KPIEleHea.isOn.uLow", "If y=true and u<uLow, switch to y=false",\
- 3975, 0, 0.0,0.0,0.0,0,513)
+ 3935, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.KPIEleHea.isOn.uHigh", "If y=false and u>uHigh, switch to y=true",\
- 3976, 1, 0.0,0.0,0.0,0,513)
+ 3936, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.generation.KPIEleHea.isOn.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 3977, false, 0.0,0.0,0.0,0,515)
+"Value of pre(y) at initial time [:#(type=Boolean)]", 3937, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.KPIEleHea.isOn.u", "", "outputs.hydraulic.gen.PEleEleHea.value", 1,\
3, 21, 0)
-DeclareVariable("hydraulic.generation.KPIEleHea.isOn.y", "[:#(type=Boolean)]", 8417,\
+DeclareVariable("hydraulic.generation.KPIEleHea.isOn.y", "[:#(type=Boolean)]", 8380,\
false, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.generation.KPIEleHea.switch1.u1", "Connector of first Real input signal",\
- "hydraulic.generation.KPIEleHea.const.k", 1, 7, 1115, 0)
+ "hydraulic.generation.KPIEleHea.const.k", 1, 7, 1121, 0)
DeclareAlias2("hydraulic.generation.KPIEleHea.switch1.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.generation.KPIEleHea.isOn.y", 1, 5, 8417, 65)
+ "hydraulic.generation.KPIEleHea.isOn.y", 1, 5, 8380, 65)
DeclareAlias2("hydraulic.generation.KPIEleHea.switch1.u3", "Connector of second Real input signal",\
- "hydraulic.generation.KPIEleHea.const1.k", 1, 7, 1116, 0)
+ "hydraulic.generation.KPIEleHea.const1.k", 1, 7, 1122, 0)
DeclareVariable("hydraulic.generation.KPIEleHea.switch1.y", "Connector of Real output signal",\
- 8418, 0.0, 0.0,0.0,0.0,0,640)
+ 8381, 0.0, 0.0,0.0,0.0,0,640)
DeclareParameter("hydraulic.generation.KPIEleHea.const.k", "Constant output value",\
- 1115, 1, 0.0,0.0,0.0,0,560)
+ 1121, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIEleHea.const.y", "Connector of Real output signal",\
- "hydraulic.generation.KPIEleHea.const.k", 1, 7, 1115, 0)
+ "hydraulic.generation.KPIEleHea.const.k", 1, 7, 1121, 0)
DeclareParameter("hydraulic.generation.KPIEleHea.const1.k", "Constant output value",\
- 1116, 0, 0.0,0.0,0.0,0,560)
+ 1122, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIEleHea.const1.y", "Connector of Real output signal",\
- "hydraulic.generation.KPIEleHea.const1.k", 1, 7, 1116, 0)
+ "hydraulic.generation.KPIEleHea.const1.k", 1, 7, 1122, 0)
DeclareParameter("hydraulic.generation.KPIEleHea.integrator3.k", \
-"Integrator gain [1]", 1117, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1123, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator3.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3978, true, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3938, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator3.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3979, false, 0.0,0.0,0.0,0,1539)
+ 3939, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator3.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3980, 3, 1.0,4.0,0.0,0,517)
+ 3940, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIEleHea.integrator3.y_start", \
-"Initial or guess value of output (= state)", 1118, 0, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1124, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIEleHea.integrator3.u", "Connector of Real input signal",\
- "hydraulic.generation.KPIEleHea.switch1.y", 1, 5, 8418, 0)
+ "hydraulic.generation.KPIEleHea.switch1.y", 1, 5, 8381, 0)
DeclareState("hydraulic.generation.KPIEleHea.integrator3.y", "Connector of Real output signal [s]",\
31, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.generation.KPIEleHea.integrator3.der(y)", \
"der(Connector of Real output signal) [1]", 31, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.generation.KPIEleHea.integrator3.reset", \
"Optional connector of reset signal [:#(type=Boolean)]", "hydraulic.generation.KPIEleHea.integrator3.local_reset", 1,\
- 5, 8419, 65)
+ 5, 8382, 65)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator3.local_reset", \
-"[:#(type=Boolean)]", 8419, false, 0.0,0.0,0.0,0,1666)
+"[:#(type=Boolean)]", 8382, false, 0.0,0.0,0.0,0,1666)
DeclareAlias2("hydraulic.generation.KPIEleHea.integrator3.local_set", "", \
-"hydraulic.generation.KPIEleHea.integrator3.y_start", 1, 7, 1118, 512)
+"hydraulic.generation.KPIEleHea.integrator3.y_start", 1, 7, 1124, 512)
DeclareAlias2("hydraulic.generation.KPIEleHea.not1.u", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.generation.KPIEleHea.isOn.y", 1, 5, 8417, 65)
+ "hydraulic.generation.KPIEleHea.isOn.y", 1, 5, 8380, 65)
DeclareAlias2("hydraulic.generation.KPIEleHea.not1.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.generation.KPIEleHea.integrator3.local_reset", 1, 5, 8419, 65)
+ "hydraulic.generation.KPIEleHea.integrator3.local_reset", 1, 5, 8382, 65)
DeclareVariable("hydraulic.generation.KPIEleHea.integerConstant.k", \
-"Constant output value [:#(type=Integer)]", 3981, 1, 0.0,0.0,0.0,0,517)
+"Constant output value [:#(type=Integer)]", 3941, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.KPIEleHea.integerConstant.y", \
-"Connector of Integer output signal [:#(type=Integer)]", 3982, 1, 0.0,0.0,0.0,0,517)
+"Connector of Integer output signal [:#(type=Integer)]", 3942, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.u", \
-"Integer input signal [:#(type=Integer)]", 3983, 1, 0.0,0.0,0.0,0,517)
+"Integer input signal [:#(type=Integer)]", 3943, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.y", \
-"Integer output signal [:#(type=Integer)]", 8420, 0, 0.0,0.0,0.0,0,644)
+"Integer output signal [:#(type=Integer)]", 8383, 0, 0.0,0.0,0.0,0,644)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3984, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3944, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.use_set", \
"= true, if set port enabled and used as default value when reset [:#(type=Boolean)]",\
- 3985, false, 0.0,0.0,0.0,0,1539)
+ 3945, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.y_start", \
-"Initial and reset value of y if set port is not used [:#(type=Integer)]", 3986,\
+"Initial and reset value of y if set port is not used [:#(type=Integer)]", 3946,\
0, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.generation.KPIEleHea.triggeredAdd.trigger", \
-"[:#(type=Boolean)]", "hydraulic.generation.KPIEleHea.isOn.y", 1, 5, 8417, 65)
+"[:#(type=Boolean)]", "hydraulic.generation.KPIEleHea.isOn.y", 1, 5, 8380, 65)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.local_reset", \
-"[:#(type=Boolean)]", 3987, false, 0.0,0.0,0.0,0,1539)
+"[:#(type=Boolean)]", 3947, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.triggeredAdd.local_set", \
-"[:#(type=Integer)]", 3988, 0, 0.0,0.0,0.0,0,2565)
+"[:#(type=Integer)]", 3948, 0, 0.0,0.0,0.0,0,2565)
DeclareParameter("hydraulic.generation.KPIEleHea.integrator1.k", \
-"Integrator gain [1]", 1119, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1125, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator1.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3989, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3949, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator1.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3990, false, 0.0,0.0,0.0,0,1539)
+ 3950, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator1.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3991, 3, 1.0,4.0,0.0,0,517)
+ 3951, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIEleHea.integrator1.y_start", \
-"Initial or guess value of output (= state)", 1120, 0, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1126, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIEleHea.integrator1.u", "Connector of Real input signal",\
- "hydraulic.generation.KPIEleHea.switch1.y", 1, 5, 8418, 0)
+ "hydraulic.generation.KPIEleHea.switch1.y", 1, 5, 8381, 0)
DeclareState("hydraulic.generation.KPIEleHea.integrator1.y", "Connector of Real output signal [s]",\
32, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.generation.KPIEleHea.integrator1.der(y)", \
"der(Connector of Real output signal) [1]", 32, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.KPIEleHea.integrator1.local_reset", \
-"[:#(type=Boolean)]", 3992, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.generation.KPIEleHea.integrator1.local_set", "", 3993,\
+"[:#(type=Boolean)]", 3952, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.generation.KPIEleHea.integrator1.local_set", "", 3953,\
0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.generation.KPIEleHea.KPI.numSwi", "Number of switches [:#(type=Integer)]",\
- "hydraulic.generation.KPIEleHea.triggeredAdd.y", 1, 5, 8420, 70)
+ "hydraulic.generation.KPIEleHea.triggeredAdd.y", 1, 5, 8383, 70)
DeclareAlias2("hydraulic.generation.KPIEleHea.KPI.sinOnTim", "Time the device is on in a single on-cycle [s|h]",\
"hydraulic.generation.KPIEleHea.integrator3.y", 1, 1, 31, 4)
DeclareAlias2("hydraulic.generation.KPIEleHea.KPI.totOnTim", "Total time the device is on [s|h]",\
@@ -43078,22 +43118,22 @@ DeclareAlias2("hydraulic.generation.KPIEleHea.KPI.totOnTim", "Total time the dev
DeclareAlias2("hydraulic.generation.KPIEleHea.uRea", "Real input", \
"outputs.hydraulic.gen.PEleEleHea.value", 1, 3, 21, 0)
DeclareVariable("hydraulic.generation.KPIQEleHea_flow.use_inpCon", \
-"= false to use an internal variable as input [:#(type=Boolean)]", 3994, false, \
+"= false to use an internal variable as input [:#(type=Boolean)]", 3954, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.KPIQEleHea_flow.y", "Value of Real input [W]",\
"outputs.hydraulic.gen.QEleHea_flow.value", 1, 3, 19, 0)
DeclareParameter("hydraulic.generation.KPIQEleHea_flow.integrator2.k", \
-"Integrator gain [1]", 1121, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1127, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIQEleHea_flow.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 3995, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3955, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIQEleHea_flow.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 3996, false, 0.0,0.0,0.0,0,1539)
+ 3956, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIQEleHea_flow.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 3997, 3, 1.0,4.0,0.0,0,517)
+ 3957, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIQEleHea_flow.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1122, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1128, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIQEleHea_flow.integrator2.u", \
"Connector of Real input signal", "outputs.hydraulic.gen.QEleHea_flow.value", 1,\
3, 19, 0)
@@ -43102,9 +43142,9 @@ DeclareState("hydraulic.generation.KPIQEleHea_flow.integrator2.y", \
DeclareDerivative("hydraulic.generation.KPIQEleHea_flow.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 33, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.KPIQEleHea_flow.integrator2.local_reset", \
-"[:#(type=Boolean)]", 3998, false, 0.0,0.0,0.0,0,1539)
+"[:#(type=Boolean)]", 3958, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIQEleHea_flow.integrator2.local_set", "",\
- 3999, 0, 0.0,0.0,0.0,0,1537)
+ 3959, 0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.generation.KPIQEleHea_flow.internalU.u", \
"Connector of Real input signal", "outputs.hydraulic.gen.QEleHea_flow.value", 1,\
3, 19, 0)
@@ -43117,22 +43157,22 @@ DeclareAlias2("hydraulic.generation.KPIQEleHea_flow.KPI.integral", \
"Integral of value [J]", "hydraulic.generation.KPIQEleHea_flow.integrator2.y", 1,\
1, 33, 4)
DeclareVariable("hydraulic.generation.KPIPEleEleHea.use_inpCon", \
-"= false to use an internal variable as input [:#(type=Boolean)]", 4000, false, \
+"= false to use an internal variable as input [:#(type=Boolean)]", 3960, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.generation.KPIPEleEleHea.y", "Value of Real input [W]",\
"outputs.hydraulic.gen.PEleEleHea.value", 1, 3, 21, 0)
DeclareParameter("hydraulic.generation.KPIPEleEleHea.integrator2.k", \
-"Integrator gain [1]", 1123, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1129, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.generation.KPIPEleEleHea.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 4001, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 3961, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIPEleEleHea.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 4002, false, 0.0,0.0,0.0,0,1539)
+ 3962, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.generation.KPIPEleEleHea.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4003, 3, 1.0,4.0,0.0,0,517)
+ 3963, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.generation.KPIPEleEleHea.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1124, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1130, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.generation.KPIPEleEleHea.integrator2.u", \
"Connector of Real input signal", "outputs.hydraulic.gen.PEleEleHea.value", 1, 3,\
21, 0)
@@ -43141,8 +43181,8 @@ DeclareState("hydraulic.generation.KPIPEleEleHea.integrator2.y", \
DeclareDerivative("hydraulic.generation.KPIPEleEleHea.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 34, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.generation.KPIPEleEleHea.integrator2.local_reset", \
-"[:#(type=Boolean)]", 4004, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.generation.KPIPEleEleHea.integrator2.local_set", "", 4005,\
+"[:#(type=Boolean)]", 3964, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.generation.KPIPEleEleHea.integrator2.local_set", "", 3965,\
0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.generation.KPIPEleEleHea.internalU.u", "Connector of Real input signal",\
"outputs.hydraulic.gen.PEleEleHea.value", 1, 3, 21, 0)
@@ -43154,1458 +43194,1458 @@ DeclareAlias2("hydraulic.generation.KPIPEleEleHea.KPI.integral", \
"Integral of value [J]", "hydraulic.generation.KPIPEleEleHea.integrator2.y", 1, 1,\
34, 4)
DeclareVariable("hydraulic.generation.dpEleHea_nominal", "Possible electric heater nominal pressure drop [Pa|bar]",\
- 4006, 1000, 0.0,0.0,0.0,0,2561)
+ 3966, 1000, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.control.use_dhw", "=false to disable DHW [:#(type=Boolean)]",\
- 4007, true, 0.0,0.0,0.0,0,515)
+ 3967, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 4008, false, 0.0,0.0,0.0,0,515)
+ 3968, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.sigBusGen.heaPumIsOn", "True if the device is actually on [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 69)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 69)
DeclareAlias2("hydraulic.control.sigBusGen.uPump", "Connector of Real output signal",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 4)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 4)
DeclareAlias2("hydraulic.control.sigBusGen.yHeaPumSet", "Control output", \
-"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 4)
+"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 4)
DeclareAlias2("hydraulic.control.sigBusGen.uEleHea", "Connector of Real output signal",\
- "hydraulic.control.swiSecGen.y", 1, 5, 8451, 4)
+ "hydraulic.control.swiSecGen.y", 1, 5, 8414, 4)
DeclareAlias2("hydraulic.control.sigBusGen.TGenOutMea", "Temperature of the passing fluid [K|degC]",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 4)
DeclareAlias2("hydraulic.control.sigBusGen.THeaPumEvaIn", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9197, 4)
+ "hydraulic.generation.heatPump.senTEvaIn.y", 1, 5, 9164, 4)
DeclareAlias2("hydraulic.control.sigBusGen.THeaPumIn", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9196, 4)
+ "hydraulic.generation.heatPump.senTConIn.y", 1, 5, 9163, 4)
DeclareAlias2("hydraulic.control.sigBusGen.THeaPumOut", "Connector of Real output signal",\
- "hydraulic.generation.heatPump.con.T", 1, 5, 9167, 4)
+ "hydraulic.generation.heatPump.con.T", 1, 5, 9134, 4)
DeclareAlias2("hydraulic.control.sigBusDistr.TStoBufBotMea", "Value of Real output [K|degC]",\
- "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 4)
+ "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 4)
DeclareAlias2("hydraulic.control.sigBusDistr.TStoBufTopMea", "Value of Real output [K|degC]",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 4)
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 4)
DeclareAlias2("hydraulic.control.sigBusDistr.TStoDHWBotMea", "Value of Real output [K|degC]",\
- "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 4)
+ "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 4)
DeclareAlias2("hydraulic.control.sigBusDistr.TStoDHWTopMea", "Value of Real output [K|degC]",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 4)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 4)
DeclareAlias2("hydraulic.control.sigBusDistr.uThrWayVal", "Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)",\
- "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 4)
+ "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 4)
DeclareAlias2("hydraulic.control.weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("hydraulic.control.weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("hydraulic.control.weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("hydraulic.control.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("hydraulic.control.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.control.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("hydraulic.control.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("hydraulic.control.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("hydraulic.control.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("hydraulic.control.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("hydraulic.control.weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("hydraulic.control.weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("hydraulic.control.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("hydraulic.control.weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("hydraulic.control.weaBus.lat", "Latitude of the location [rad|deg]",\
- 4009, 0.9116922633158369, 0.0,0.0,0.0,0,521)
+ 3969, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.control.weaBus.lon", "Longitude of the location [rad|deg]",\
- 4010, 0.22757907099030072, 0.0,0.0,0.0,0,521)
+ 3970, 0.22757907099030072, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.control.weaBus.alt", "Location altitude above sea level [m]",\
- 4011, 0.0, 0.0,1E+100,0.0,0,521)
+ 3971, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("hydraulic.control.weaBus.pAtm", "Atmospheric pressure [Pa|bar]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("hydraulic.control.weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("hydraulic.control.weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("hydraulic.control.weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("hydraulic.control.weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("hydraulic.control.weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("hydraulic.control.weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
-DeclareVariable("hydraulic.control.sigBusTra.opening[1]", "Control output", 9219,\
+"building.weaBus.cloTim", 1, 5, 8469, 4)
+DeclareVariable("hydraulic.control.sigBusTra.opening[1]", "Control output", 9188,\
0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.control.parGen.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 4012, 1, 1.0,1E+100,0.0,0,517)
+ 3972, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.control.parGen.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 4013, 1, 1.0,1E+100,0.0,0,517)
+ 3973, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.control.parGen.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 4014, 14139.18861553825, 0.0,0.0,0.0,0,513)
+ 3974, 14139.18861553825, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parGen.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 4015, 262.65, 0.0,1E+100,300.0,0,513)
+ 3975, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parGen.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 4016, 288.15, 0.0,1E+100,300.0,0,513)
+ 3976, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parGen.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 4017, 288.15, 0.0,1E+100,300.0,0,513)
+ 3977, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parGen.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 4018, 10.0, 0.0,0.0,0.0,0,513)
+ 3978, 10.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parGen.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 4019, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ 3979, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parGen.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 4020, 1125.0, 0.0,0.0,0.0,0,513)
+ 3980, 1125.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parGen.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 4021, 0.0, 0.0,0.0,0.0,0,513)
+ 3981, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parGen.f_design[1]", "Factor for oversizing due to heat losses",\
- 4022, 1.0, 0.0,0.0,0.0,0,513)
+ 3982, 1.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parGen.QLoss_flow_nominal[1]", \
-"Nominal heat flow rate due to heat losses [W]", 4023, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate due to heat losses [W]", 3983, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 4024, 1, 1.0,1E+100,0.0,0,517)
+ 3984, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.control.parDis.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 4025, 1, 1.0,1E+100,0.0,0,517)
+ 3985, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.control.parDis.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 4026, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 3986, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 4027, 262.65, 0.0,1E+100,300.0,0,513)
+ 3987, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parDis.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 4028, 328.15, 0.0,1E+100,300.0,0,513)
+ 3988, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parDis.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 4029, 288.15, 0.0,1E+100,300.0,0,513)
+ 3989, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parDis.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 4030, 0.0, 0.0,0.0,0.0,0,513)
+ 3990, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 4031, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 3991, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 4032, 0.0, 0.0,0.0,0.0,0,513)
+ 3992, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 4033, 0.0, 0.0,0.0,0.0,0,513)
+ 3993, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.f_design[1]", "Factor for oversizing due to heat losses",\
- 4034, 0.0, 0.0,0.0,0.0,0,513)
+ 3994, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.QLoss_flow_nominal[1]", \
-"Nominal heat flow rate due to heat losses [W]", 4035, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate due to heat losses [W]", 3995, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.mDHW_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 4036, 0.1, 0.0,0.0,0.0,0,513)
+ 3996, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.TDHW_nominal", "Nominal DHW temperature [K|degC]",\
- 4037, 323.15, 0.0,1E+100,300.0,0,513)
+ 3997, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parDis.TDHWCold_nominal", "Nominal DHW temperature of cold city water [K|degC]",\
- 4038, 288.15, 0.0,1E+100,300.0,0,513)
+ 3998, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parDis.VDHWDay", "Daily volume of DHW tapping [m3]",\
- 4039, 0.123417, 0.0,0.0,0.0,0,513)
+ 3999, 0.123417, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.QDHW_flow_nominal", "Nominal heat flow rate of DHW system [W]",\
- 4040, 0.0, 0.0,0.0,0.0,0,513)
+ 4000, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.tCrit", "Time for critical period. Based on EN 15450 [s|h]",\
- 4041, 3600, 0.0,0.0,0.0,0,513)
+ 4001, 3600, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.QCrit", "Energy demand in kWh during critical period. Based on EN 15450",\
- 4042, 2.24, 0.0,0.0,0.0,0,513)
+ 4002, 2.24, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parDis.dTTraDHW_nominal", "Nominal temperature difference to transfer heat to DHW [K,]",\
- 4043, 0.0, 0.0,0.0,0.0,0,513)
+ 4003, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 4044, 1, 1.0,1E+100,0.0,0,517)
+ 4004, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.control.parTra.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 4045, 1, 1.0,1E+100,0.0,0,517)
+ 4005, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.control.parTra.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 4046, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 4006, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 4047, 262.65, 0.0,1E+100,300.0,0,513)
+ 4007, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parTra.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 4048, 294.15, 0.0,1E+100,300.0,0,513)
+ 4008, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parTra.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 4049, 328.15, 0.0,1E+100,300.0,0,513)
+ 4009, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parTra.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 4050, 10.0, 0.0,0.0,0.0,0,513)
+ 4010, 10.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 4051, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 4011, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 4052, 16854.05160830339, 0.0,0.0,0.0,0,513)
+ 4012, 16854.05160830339, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 4053, 0.0, 0.0,0.0,0.0,0,513)
+ 4013, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.f_design[1]", "Factor for oversizing due to heat losses",\
- 4054, 1.0, 0.0,0.0,0.0,0,513)
+ 4014, 1.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.QLoss_flow_nominal[1]", \
-"Nominal heat flow rate due to heat losses [W]", 4055, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate due to heat losses [W]", 4015, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.QSup_flow_nominal[1]", \
-"Nominal heat flow rate at supply ports to transfer system [W]", 4056, \
+"Nominal heat flow rate at supply ports to transfer system [W]", 4016, \
13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.TTra_nominal[1]", "Nominal supply temperature to transfer systems [K|degC]",\
- 4057, 328.15, 0.0,1E+100,300.0,0,513)
+ 4017, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.parTra.mSup_flow_nominal[1]", \
-"Nominal mass flow rate of the supply ports to the transfer system [kg/s]", 4058,\
+"Nominal mass flow rate of the supply ports to the transfer system [kg/s]", 4018,\
0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.dpSup_nominal[1]", "Nominal pressure loss of resistances in the supply system of the distribution [Pa|bar]",\
- 4059, 0.0, 0.0,0.0,0.0,0,513)
+ 4019, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.parTra.nHeaTra", "Exponent of heat transfer system",\
- 4060, 0.0, 0.0,0.0,0.0,0,513)
+ 4020, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.useProBus.TZoneSet[1]", "[K|degC]", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 4)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 4)
DeclareVariable("hydraulic.control.useProBus.intGains[1]", "Output signal connector",\
- 9220, 0.0, 0.0,0.0,0.0,0,520)
+ 9189, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.control.useProBus.intGains[2]", "Output signal connector",\
- 9221, 0.0, 0.0,0.0,0.0,0,520)
+ 9190, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.control.useProBus.intGains[3]", "Output signal connector",\
- 9222, 0.0, 0.0,0.0,0.0,0,520)
+ 9191, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("hydraulic.control.buiMeaBus.TZoneMea[1]", "[K|degC]", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareVariable("hydraulic.control.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9223, 0.0, 0.0,0.0,0.0,0,520)
+ 9192, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("hydraulic.control.sigBusHyd.TBuiLoc", "[K|degC]", \
-"hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 4)
+"hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 4)
DeclareVariable("hydraulic.control.sigBusHyd.TSetDHW", "DHW set temperature [K|degC]",\
- 4061, 323.15, 0.0,0.0,0.0,0,521)
+ 4021, 323.15, 0.0,0.0,0.0,0,521)
DeclareAlias2("hydraulic.control.sigBusHyd.TSetDHWOve", "Input from supervisory control",\
- "control.constTSetDHW.k", 1, 5, 8282, 4)
+ "control.constTSetDHW.k", 1, 5, 8242, 4)
DeclareAlias2("hydraulic.control.sigBusHyd.TStoDHWTop", "Connector of Real output signal",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 4)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 4)
DeclareAlias2("hydraulic.control.sigBusHyd.oveTSetDHW", "[:#(type=Boolean)]", \
-"control.hys.y", 1, 5, 8472, 69)
+"control.hys.y", 1, 5, 8435, 69)
DeclareVariable("hydraulic.control.useOpeTemCtrl", "=true to control the operative room temperature [:#(type=Boolean)]",\
- 4062, false, 0.0,0.0,0.0,0,515)
+ 4022, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.supCtrlTypTheVal", "Type of supervisory valve control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4063, 1, 1.0,3.0,0.0,0,517)
+ 4023, 1, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.valCtrl.nZones", "Number of zones [:#(type=Integer)]",\
- 4064, 1, 1.0,1E+100,0.0,0,517)
+ 4024, 1, 1.0,1E+100,0.0,0,517)
DeclareParameter("hydraulic.control.valCtrl.leakageOpening", "may be useful for simulation stability. Always check the influence it has on your results",\
- 1125, 0.0001, 0.0,0.0,0.0,0,560)
+ 1131, 0.0001, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.TZoneMea[1]", "[K|degC]", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("hydraulic.control.valCtrl.opening[1]", "", "hydraulic.control.sigBusTra.opening[1]", 1,\
- 5, 9219, 0)
+ 5, 9188, 0)
DeclareAlias2("hydraulic.control.valCtrl.TZoneSet[1]", "[K|degC]", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
-DeclareParameter("hydraulic.control.valCtrl.k[1]", "Gain of controller", 1126, \
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
+DeclareParameter("hydraulic.control.valCtrl.k[1]", "Gain of controller", 1132, \
0.2, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.Ti[1]", "Time constant of Integrator block [s]",\
- 1127, 1800, 0.0,0.0,0.0,0,560)
+ 1133, 1800, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].u_s", "Connector of setpoint input signal",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].u_m", "Connector of measurement input signal",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].y", "Connector of actuator output signal",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareVariable("hydraulic.control.valCtrl.PI[1].controlError", "Control error (set point - measurement)",\
- 9224, 0.0, 0.0,0.0,0.0,0,512)
+ 9193, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.valCtrl.PI[1].controllerType", \
-"Type of controller [:#(type=Modelica.Blocks.Types.SimpleController)]", 4065, 2,\
+"Type of controller [:#(type=Modelica.Blocks.Types.SimpleController)]", 4025, 2,\
1.0,4.0,0.0,0,517)
-DeclareVariable("hydraulic.control.valCtrl.PI[1].k", "Gain of controller [1]", 4066,\
+DeclareVariable("hydraulic.control.valCtrl.PI[1].k", "Gain of controller [1]", 4026,\
0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].Ti", "Time constant of Integrator block [s]",\
- 4067, 1E-60, 1E-60,1E+100,0.0,0,513)
+ 4027, 1E-60, 1E-60,1E+100,0.0,0,513)
DeclareParameter("hydraulic.control.valCtrl.PI[1].Td", "Time constant of Derivative block [s]",\
- 1128, 0.1, 0.0,1E+100,0.0,0,560)
+ 1134, 0.1, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.control.valCtrl.PI[1].yMax", "Upper limit of output",\
- 4068, 1, 0.0,0.0,0.0,0,513)
+ 4028, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].yMin", "Lower limit of output",\
- 4069, 0.0, 0.0,0.0,0.0,0,513)
+ 4029, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.valCtrl.PI[1].wp", "Set-point weight for Proportional block (0..1)",\
- 1129, 1, 0.0,1E+100,0.0,0,560)
+ 1135, 1, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].wd", "Set-point weight for Derivative block (0..1)",\
- 1130, 0, 0.0,1E+100,0.0,0,560)
+ 1136, 0, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].Ni", "Ni*Ti is time constant of anti-windup compensation",\
- 1131, 0.9, 1E-13,1E+100,0.0,0,560)
+ 1137, 0.9, 1E-13,1E+100,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].Nd", "The higher Nd, the more ideal the derivative block",\
- 1132, 10, 1E-13,1E+100,0.0,0,560)
+ 1138, 10, 1E-13,1E+100,0.0,0,560)
DeclareVariable("hydraulic.control.valCtrl.PI[1].withFeedForward", \
-"Use feed-forward input? [:#(type=Boolean)]", 4070, false, 0.0,0.0,0.0,0,515)
+"Use feed-forward input? [:#(type=Boolean)]", 4030, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.control.valCtrl.PI[1].kFF", "Gain of feed-forward input",\
- 1133, 1, 0.0,0.0,0.0,0,560)
+ 1139, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.valCtrl.PI[1].initType", "Type of initialization (1: no init, 2: steady state, 3: initial state, 4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4071, 3, 1.0,4.0,0.0,0,517)
+ 4031, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.control.valCtrl.PI[1].xi_start", "Initial or guess value for integrator output (= integrator state)",\
- 1134, 0, 0.0,0.0,0.0,0,560)
+ 1140, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].xd_start", "Initial or guess value for state of derivative block",\
- 1135, 0, 0.0,0.0,0.0,0,560)
+ 1141, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].y_start", "Initial value of output",\
- 1136, 0, 0.0,0.0,0.0,0,560)
+ 1142, 0, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.valCtrl.PI[1].homotopyType", "Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
- 4072, 2, 1.0,4.0,0.0,0,517)
+ 4032, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.valCtrl.PI[1].strict", "= true, if strict limits with noEvent(..) [:#(type=Boolean)]",\
- 4073, false, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.control.valCtrl.PI[1].unitTime", "[s]", 4074, 1, \
+ 4033, false, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.control.valCtrl.PI[1].unitTime", "[s]", 4034, 1, \
0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addP.u1", "Connector of Real input signal 1",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addP.u2", "Connector of Real input signal 2",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareVariable("hydraulic.control.valCtrl.PI[1].addP.y", "Connector of Real output signal",\
- 9225, 0.0, 0.0,0.0,0.0,0,512)
+ 9194, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.valCtrl.PI[1].addP.k1", "Gain of input signal 1",\
- 4075, 0.0, 0.0,0.0,0.0,0,513)
+ 4035, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addP.k2", "Gain of input signal 2",\
- 1137, -1, 0.0,0.0,0.0,0,560)
+ 1143, -1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].P.k", "Gain value multiplied with input signal [1]",\
- 1138, 1, 0.0,0.0,0.0,0,560)
+ 1144, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].P.u", "Input signal connector", \
-"hydraulic.control.valCtrl.PI[1].addP.y", 1, 5, 9225, 0)
+"hydraulic.control.valCtrl.PI[1].addP.y", 1, 5, 9194, 0)
DeclareVariable("hydraulic.control.valCtrl.PI[1].P.y", "Output signal connector",\
- 9226, 0.0, 0.0,0.0,0.0,0,512)
+ 9195, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.valCtrl.PI[1].gainPID.k", "Gain value multiplied with input signal [1]",\
- 4076, 1, 0.0,0.0,0.0,0,513)
+ 4036, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].gainPID.u", "Input signal connector",\
- 9227, 0.0, 0.0,0.0,0.0,0,512)
+ 9196, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.valCtrl.PI[1].gainPID.y", "Output signal connector",\
- 9228, 0.0, 0.0,0.0,0.0,0,512)
+ 9197, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addPID.k1", "Gain of input signal 1",\
- 1139, 1, 0.0,0.0,0.0,0,560)
+ 1145, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addPID.k2", "Gain of input signal 2",\
- 1140, 1, 0.0,0.0,0.0,0,560)
+ 1146, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addPID.k3", "Gain of input signal 3",\
- 1141, 1, 0.0,0.0,0.0,0,560)
+ 1147, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addPID.u1", "Connector of Real input signal 1",\
- "hydraulic.control.valCtrl.PI[1].P.y", 1, 5, 9226, 0)
+ "hydraulic.control.valCtrl.PI[1].P.y", 1, 5, 9195, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addPID.u2", "Connector of Real input signal 2",\
- "hydraulic.control.valCtrl.PI[1].Dzero.k", 1, 7, 1142, 0)
+ "hydraulic.control.valCtrl.PI[1].Dzero.k", 1, 7, 1148, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addPID.u3", "Connector of Real input signal 3",\
"hydraulic.control.valCtrl.PI[1].I.y", 1, 1, 35, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addPID.y", "Connector of Real output signal",\
- "hydraulic.control.valCtrl.PI[1].gainPID.u", 1, 5, 9227, 0)
+ "hydraulic.control.valCtrl.PI[1].gainPID.u", 1, 5, 9196, 0)
DeclareVariable("hydraulic.control.valCtrl.PI[1].limiter.uMax", "Upper limits of input signals",\
- 4077, 1.0, 0.0,0.0,0.0,0,513)
+ 4037, 1.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].limiter.uMin", "Lower limits of input signals",\
- 4078, 0.0, 0.0,0.0,0.0,0,513)
+ 4038, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].limiter.strict", \
-"= true, if strict limits with noEvent(..) [:#(type=Boolean)]", 4079, false, \
+"= true, if strict limits with noEvent(..) [:#(type=Boolean)]", 4039, false, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.valCtrl.PI[1].limiter.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
- 4080, 2, 1.0,4.0,0.0,0,517)
+ 4040, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.valCtrl.PI[1].limiter.u", "Connector of Real input signal",\
- 9229, 0.0, 0.0,0.0,0.0,0,512)
+ 9198, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].limiter.y", "Connector of Real output signal",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].limiter.simplifiedExpr", \
"Simplified expression for homotopy-based initialization", "hydraulic.control.valCtrl.PI[1].limiter.u", 1,\
- 5, 9229, 1024)
-DeclareVariable("hydraulic.control.valCtrl.PI[1].with_I", "[:#(type=Boolean)]", 4081,\
+ 5, 9198, 1024)
+DeclareVariable("hydraulic.control.valCtrl.PI[1].with_I", "[:#(type=Boolean)]", 4041,\
true, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.control.valCtrl.PI[1].with_D", "[:#(type=Boolean)]", 4082,\
+DeclareVariable("hydraulic.control.valCtrl.PI[1].with_D", "[:#(type=Boolean)]", 4042,\
false, 0.0,0.0,0.0,0,1539)
DeclareParameter("hydraulic.control.valCtrl.PI[1].Dzero.k", "Constant output value",\
- 1142, 0, 0.0,0.0,0.0,0,560)
+ 1148, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].Dzero.y", "Connector of Real output signal",\
- "hydraulic.control.valCtrl.PI[1].Dzero.k", 1, 7, 1142, 0)
+ "hydraulic.control.valCtrl.PI[1].Dzero.k", 1, 7, 1148, 0)
DeclareParameter("hydraulic.control.valCtrl.PI[1].FFzero.k", "Constant output value",\
- 1143, 0, 0.0,0.0,0.0,0,560)
+ 1149, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].FFzero.y", "Connector of Real output signal",\
- "hydraulic.control.valCtrl.PI[1].FFzero.k", 1, 7, 1143, 0)
+ "hydraulic.control.valCtrl.PI[1].FFzero.k", 1, 7, 1149, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addFF.u1", "Connector of Real input signal 1",\
- "hydraulic.control.valCtrl.PI[1].gainPID.y", 1, 5, 9228, 0)
+ "hydraulic.control.valCtrl.PI[1].gainPID.y", 1, 5, 9197, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addFF.u2", "Connector of Real input signal 2",\
- "hydraulic.control.valCtrl.PI[1].FFzero.k", 1, 7, 1143, 0)
+ "hydraulic.control.valCtrl.PI[1].FFzero.k", 1, 7, 1149, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addFF.y", "Connector of Real output signal",\
- "hydraulic.control.valCtrl.PI[1].limiter.u", 1, 5, 9229, 0)
+ "hydraulic.control.valCtrl.PI[1].limiter.u", 1, 5, 9198, 0)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addFF.k1", "Gain of input signal 1",\
- 1144, 1, 0.0,0.0,0.0,0,560)
+ 1150, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.valCtrl.PI[1].addFF.k2", "Gain of input signal 2",\
- 4083, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.control.valCtrl.PI[1].I.k", "Integrator gain [1]", 4084,\
+ 4043, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.control.valCtrl.PI[1].I.k", "Integrator gain [1]", 4044,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].I.use_reset", "= true, if reset port enabled [:#(type=Boolean)]",\
- 4085, false, 0.0,0.0,0.0,0,1539)
+ 4045, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.valCtrl.PI[1].I.use_set", "= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 4086, false, 0.0,0.0,0.0,0,1539)
+ 4046, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.valCtrl.PI[1].I.initType", "Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4087, 3, 1.0,4.0,0.0,0,517)
+ 4047, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.valCtrl.PI[1].I.y_start", "Initial or guess value of output (= state)",\
- 4088, 0.0, 0.0,0.0,0.0,0,513)
+ 4048, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.valCtrl.PI[1].I.u", "Connector of Real input signal",\
- 9230, 0.0, 0.0,0.0,0.0,0,512)
+ 9199, 0.0, 0.0,0.0,0.0,0,512)
DeclareState("hydraulic.control.valCtrl.PI[1].I.y", "Connector of Real output signal",\
35, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.control.valCtrl.PI[1].I.der(y)", "der(Connector of Real output signal)",\
35, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.valCtrl.PI[1].I.local_reset", \
-"[:#(type=Boolean)]", 4089, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.control.valCtrl.PI[1].I.local_set", "", 4090, 0, \
+"[:#(type=Boolean)]", 4049, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.control.valCtrl.PI[1].I.local_set", "", 4050, 0, \
0.0,0.0,0.0,0,1537)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addI.k1", "Gain of input signal 1",\
- 1145, 1, 0.0,0.0,0.0,0,560)
+ 1151, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addI.k2", "Gain of input signal 2",\
- 1146, -1, 0.0,0.0,0.0,0,560)
+ 1152, -1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addI.k3", "Gain of input signal 3",\
- 1147, 1, 0.0,0.0,0.0,0,560)
+ 1153, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addI.u1", "Connector of Real input signal 1",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addI.u2", "Connector of Real input signal 2",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareVariable("hydraulic.control.valCtrl.PI[1].addI.u3", "Connector of Real input signal 3",\
- 9231, 0.0, 0.0,0.0,0.0,0,512)
+ 9200, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addI.y", "Connector of Real output signal",\
- "hydraulic.control.valCtrl.PI[1].I.u", 1, 5, 9230, 0)
+ "hydraulic.control.valCtrl.PI[1].I.u", 1, 5, 9199, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addSat.u1", "Connector of Real input signal 1",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].addSat.u2", "Connector of Real input signal 2",\
- "hydraulic.control.valCtrl.PI[1].limiter.u", 1, 5, 9229, 0)
+ "hydraulic.control.valCtrl.PI[1].limiter.u", 1, 5, 9198, 0)
DeclareVariable("hydraulic.control.valCtrl.PI[1].addSat.y", "Connector of Real output signal",\
- 9232, 0.0, 0.0,0.0,0.0,0,512)
+ 9201, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addSat.k1", "Gain of input signal 1",\
- 1148, 1, 0.0,0.0,0.0,0,560)
+ 1154, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.valCtrl.PI[1].addSat.k2", "Gain of input signal 2",\
- 1149, -1, 0.0,0.0,0.0,0,560)
+ 1155, -1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.valCtrl.PI[1].gainTrack.k", "Gain value multiplied with input signal [1]",\
- 4091, 1, 0.0,0.0,0.0,0,513)
+ 4051, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].gainTrack.u", "Input signal connector",\
- "hydraulic.control.valCtrl.PI[1].addSat.y", 1, 5, 9232, 0)
+ "hydraulic.control.valCtrl.PI[1].addSat.y", 1, 5, 9201, 0)
DeclareAlias2("hydraulic.control.valCtrl.PI[1].gainTrack.y", "Output signal connector",\
- "hydraulic.control.valCtrl.PI[1].addI.u3", 1, 5, 9231, 0)
+ "hydraulic.control.valCtrl.PI[1].addI.u3", 1, 5, 9200, 0)
DeclareVariable("hydraulic.control.meaValPriGen", "Control measurement value for primary device [:#(type=BESMod.Systems.Hydraulical.Control.Components.BaseClasses.MeasuredValue)]",\
- 4092, 1, 1.0,2.0,0.0,0,517)
+ 4052, 1, 1.0,2.0,0.0,0,517)
DeclareVariable("hydraulic.control.supCtrlNSetTyp", "Type of supervisory control for compressor speed [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4093, 1, 1.0,3.0,0.0,0,517)
+ 4053, 1, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.meaValSecGen", "Control measurement value for secondary device [:#(type=BESMod.Systems.Hydraulical.Control.Components.BaseClasses.MeasuredValue)]",\
- 4094, 1, 1.0,2.0,0.0,0,517)
+ 4054, 1, 1.0,2.0,0.0,0,517)
DeclareParameter("hydraulic.control.dTHysBui", "Hysteresis for building demand control [K,]",\
- 1150, 10, 0.0,0.0,0.0,0,560)
+ 1156, 10, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.dTHysDHW", "Hysteresis for DHW demand control [K,]",\
- 1151, 10, 0.0,0.0,0.0,0,560)
+ 1157, 10, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.supCtrHeaCurTyp", "Heating curve supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4095, 1, 1.0,3.0,0.0,0,517)
+ 4055, 1, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.supCtrDHWTyp", "Supervisory control approach for DHW supply temperature [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4096, 2, 1.0,3.0,0.0,0,517)
+ 4056, 2, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.supCtrlThrWayValTyp", "Type of supervisory control for three way valve [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4097, 1, 1.0,3.0,0.0,0,517)
+ 4057, 1, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.useSGReady", "=true to use SG Ready [:#(type=Boolean)]",\
- 4098, false, 0.0,0.0,0.0,0,515)
+ 4058, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.useExtSGSig", "=true to use external SG ready signal [:#(type=Boolean)]",\
- 4099, true, 0.0,0.0,0.0,0,515)
+ 4059, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.control.TAddSta3Bui", "Increase for SG-Ready state 3 for building supply [K,]",\
- 1152, 5, 0.0,0.0,0.0,0,560)
+ 1158, 5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.TAddSta4Bui", "Increase for SG-Ready state 4 for building supply [K,]",\
- 1153, 10, 0.0,0.0,0.0,0,560)
+ 1159, 10, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.TAddSta3DHW", "Increase for SG-Ready state 3 for DHW supply [K,]",\
- 1154, 5, 0.0,0.0,0.0,0,560)
+ 1160, 5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.TAddSta4DHW", "Increase for SG-Ready state 4 for DHW supply [K,]",\
- 1155, 10, 0.0,0.0,0.0,0,560)
+ 1161, 10, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.parPIDHeaPum.yMax", "Upper limit of output",\
- 1156, 1, 0.0,0.0,0.0,0,560)
+ 1162, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.parPIDHeaPum.yOff", "Constant output value if device is turned off",\
- 1157, 0, 0.0,0.0,0.0,0,560)
+ 1163, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.parPIDHeaPum.y_start", "Initial value of output",\
- 1158, 0, 0.0,0.0,0.0,0,560)
+ 1164, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.parPIDHeaPum.yMin", "Lower limit of relative speed",\
- 1159, 0.3, 0.0,0.0,0.0,0,560)
-DeclareVariable("hydraulic.control.parPIDHeaPum.P", "Gain of PID-controller", 4100,\
+ 1165, 0.3, 0.0,0.0,0.0,0,560)
+DeclareVariable("hydraulic.control.parPIDHeaPum.P", "Gain of PID-controller", 4060,\
0.3, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.parPIDHeaPum.timeInt", "Time constant of Integrator block [s]",\
- 1160, 4000, 0.0,0.0,0.0,0,560)
+ 1166, 4000, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.parPIDHeaPum.Ni", "Ni*Ti is time constant of anti-windup compensation",\
- 1161, 0.9, 0.0,0.0,0.0,0,560)
+ 1167, 0.9, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.parPIDHeaPum.timeDer", "Time constant of Derivative block [s]",\
- 4101, 0, 0.0,0.0,0.0,0,513)
+ 4061, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.parPIDHeaPum.Nd", "The higher Nd, the more ideal the derivative block",\
- 1162, 10, 0.0,0.0,0.0,0,560)
+ 1168, 10, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.yMax", "Upper limit of output",\
- 4102, 0.0, 0.0,0.0,0.0,0,513)
+ 4062, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.setOn", "True if the device is set to turn on [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8424, 65)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.ySet", "Relative set value", 9233,\
+ "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8387, 65)
+DeclareVariable("hydraulic.control.priGenPIDCtrl.ySet", "Relative set value", 9202,\
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.TSet", "Current set temperature [K|degC]",\
- 9234, 0.0, 0.0,0.0,0.0,0,512)
+ 9203, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.TMea", "Current measured temperature [K|degC]",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.feedback.u1", "Commanded input", \
-"hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9234, 0)
+"hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9203, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.feedback.u2", "Feedback input", \
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.feedback.y", "", 9235, 0.0, \
+DeclareVariable("hydraulic.control.priGenPIDCtrl.feedback.y", "", 9204, 0.0, \
0.0,0.0,0.0,0,512)
DeclareParameter("hydraulic.control.priGenPIDCtrl.intAbs.k", "Integrator gain [1]",\
- 1163, 1, 0.0,0.0,0.0,0,560)
+ 1169, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 4103, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 4063, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 4104, false, 0.0,0.0,0.0,0,1539)
+ 4064, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4105, 3, 1.0,4.0,0.0,0,517)
+ 4065, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.control.priGenPIDCtrl.intAbs.y_start", \
-"Initial or guess value of output (= state)", 1164, 0, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1170, 0, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.u", "Connector of Real input signal",\
- 9236, 0.0, 0.0,0.0,0.0,0,512)
+ 9205, 0.0, 0.0,0.0,0.0,0,512)
DeclareState("hydraulic.control.priGenPIDCtrl.intAbs.y", "Connector of Real output signal",\
36, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.control.priGenPIDCtrl.intAbs.der(y)", \
"der(Connector of Real output signal)", 36, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.local_reset", \
-"[:#(type=Boolean)]", 4106, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.local_set", "", 4107, 0,\
+"[:#(type=Boolean)]", 4066, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.control.priGenPIDCtrl.intAbs.local_set", "", 4067, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.IAE", "Integral Absolute Error", \
"hydraulic.control.priGenPIDCtrl.intAbs.y", 1, 1, 36, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.ISE", "Integral Square Error", \
"hydraulic.control.priGenPIDCtrl.intSqu.y", 1, 1, 37, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.abs1.u", "Connector of Real input signal",\
- "hydraulic.control.priGenPIDCtrl.feedback.y", 1, 5, 9235, 0)
+ "hydraulic.control.priGenPIDCtrl.feedback.y", 1, 5, 9204, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.abs1.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.intAbs.u", 1, 5, 9236, 0)
+ "hydraulic.control.priGenPIDCtrl.intAbs.u", 1, 5, 9205, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.abs1.generateEvent", \
-"Choose whether events shall be generated [:#(type=Boolean)]", 4108, false, \
+"Choose whether events shall be generated [:#(type=Boolean)]", 4068, false, \
0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.control.priGenPIDCtrl.intSqu.k", "Integrator gain [1]",\
- 1165, 1, 0.0,0.0,0.0,0,560)
+ 1171, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 4109, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 4069, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 4110, false, 0.0,0.0,0.0,0,1539)
+ 4070, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4111, 3, 1.0,4.0,0.0,0,517)
+ 4071, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.control.priGenPIDCtrl.intSqu.y_start", \
-"Initial or guess value of output (= state)", 1166, 0, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1172, 0, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.u", "Connector of Real input signal",\
- 9237, 0.0, 0.0,0.0,0.0,0,512)
+ 9206, 0.0, 0.0,0.0,0.0,0,512)
DeclareState("hydraulic.control.priGenPIDCtrl.intSqu.y", "Connector of Real output signal",\
37, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.control.priGenPIDCtrl.intSqu.der(y)", \
"der(Connector of Real output signal)", 37, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.local_reset", \
-"[:#(type=Boolean)]", 4112, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.local_set", "", 4113, 0,\
+"[:#(type=Boolean)]", 4072, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.control.priGenPIDCtrl.intSqu.local_set", "", 4073, 0,\
0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.pro.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.feedback.y", 1, 5, 9235, 0)
+ "hydraulic.control.priGenPIDCtrl.feedback.y", 1, 5, 9204, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.pro.u2", "Connector of Real input signal 2",\
- "hydraulic.control.priGenPIDCtrl.feedback.y", 1, 5, 9235, 0)
+ "hydraulic.control.priGenPIDCtrl.feedback.y", 1, 5, 9204, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.pro.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.intSqu.u", 1, 5, 9237, 0)
+ "hydraulic.control.priGenPIDCtrl.intSqu.u", 1, 5, 9206, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.isOn", "True if the device is actually on [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 65)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 65)
DeclareVariable("hydraulic.control.priGenPIDCtrl.yOff", "Constant output value if device is turned off",\
- 4114, 0.0, 0.0,0.0,0.0,0,513)
+ 4074, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.y_start", "Initial value of output",\
- 4115, 0.0, 0.0,0.0,0.0,0,513)
+ 4075, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.yMin", "Lower limit of relative speed",\
- 4116, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.P", "Gain of PID-controller", 4117,\
+ 4076, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.control.priGenPIDCtrl.P", "Gain of PID-controller", 4077,\
0.3, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.timeInt", "Time constant of Integrator block [s]",\
- 4118, 0.0, 0.0,0.0,0.0,0,513)
+ 4078, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.Ni", "Ni*Ti is time constant of anti-windup compensation",\
- 4119, 0.0, 0.0,0.0,0.0,0,513)
+ 4079, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.timeDer", "Time constant of Derivative block [s]",\
- 4120, 0, 0.0,0.0,0.0,0,513)
+ 4080, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.Nd", "The higher Nd, the more ideal the derivative block",\
- 4121, 0.0, 0.0,0.0,0.0,0,513)
+ 4081, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.u_s", "Connector of setpoint input signal",\
- "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9234, 0)
+ "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9203, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.u_m", "Connector of measurement input signal",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.y", "Connector of actuator output signal",\
- 9238, 0.0, 0.0,0.0,0.0,0,512)
+ 9207, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.controlError", \
-"Control error (set point - measurement)", 9239, 0.0, 0.0,0.0,0.0,0,512)
+"Control error (set point - measurement)", 9208, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.controllerType", \
-"Type of controller [:#(type=Modelica.Blocks.Types.SimpleController)]", 4122, 4,\
+"Type of controller [:#(type=Modelica.Blocks.Types.SimpleController)]", 4082, 4,\
1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.k", "Gain of controller [1]",\
- 4123, 0.3, 0.0,1E+100,0.0,0,513)
+ 4083, 0.3, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.Ti", "Time constant of Integrator block [s]",\
- 4124, 1E-60, 1E-60,1E+100,0.0,0,513)
+ 4084, 1E-60, 1E-60,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.Td", "Time constant of Derivative block [s]",\
- 4125, 0.0, 0.0,1E+100,0.0,0,513)
+ 4085, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.yMax", "Upper limit of output",\
- 4126, 1, 0.0,0.0,0.0,0,513)
+ 4086, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.yMin", "Lower limit of output",\
- 4127, 0.0, 0.0,0.0,0.0,0,513)
+ 4087, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.wp", "Set-point weight for Proportional block (0..1)",\
- 4128, 1, 0.0,1E+100,0.0,0,513)
+ 4088, 1, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.wd", "Set-point weight for Derivative block (0..1)",\
- 4129, 0, 0.0,1E+100,0.0,0,513)
+ 4089, 0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.Ni", "Ni*Ti is time constant of anti-windup compensation",\
- 4130, 1E-13, 1E-13,1E+100,0.0,0,513)
+ 4090, 1E-13, 1E-13,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.Nd", "The higher Nd, the more ideal the derivative block",\
- 4131, 1E-13, 1E-13,1E+100,0.0,0,513)
+ 4091, 1E-13, 1E-13,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.withFeedForward", \
-"Use feed-forward input? [:#(type=Boolean)]", 4132, false, 0.0,0.0,0.0,0,515)
+"Use feed-forward input? [:#(type=Boolean)]", 4092, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.kFF", "Gain of feed-forward input",\
- 1167, 1, 0.0,0.0,0.0,0,560)
+ 1173, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.initType", "Type of initialization (1: no init, 2: steady state, 3: initial state, 4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4133, 3, 1.0,4.0,0.0,0,517)
+ 4093, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.xi_start", "Initial or guess value for integrator output (= integrator state)",\
- 4134, 0, 0.0,0.0,0.0,0,513)
+ 4094, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.xd_start", "Initial or guess value for state of derivative block",\
- 4135, 0, 0.0,0.0,0.0,0,513)
+ 4095, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.y_start", "Initial value of output",\
- 4136, 0.0, 0.0,0.0,0.0,0,513)
+ 4096, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
- 4137, 1, 1.0,4.0,0.0,0,517)
+ 4097, 1, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.strict", "= true, if strict limits with noEvent(..) [:#(type=Boolean)]",\
- 4138, false, 0.0,0.0,0.0,0,515)
+ 4098, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limitsAtInit", \
"Has no longer an effect and is only kept for backwards compatibility (the implementation uses now the homotopy operator) [:#(type=Boolean)]",\
- 4139, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.unitTime", "[s]", 4140, 1, \
+ 4099, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.unitTime", "[s]", 4100, 1, \
0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addP.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9234, 0)
+ "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9203, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addP.u2", "Connector of Real input signal 2",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addP.y", "Connector of Real output signal",\
- 9240, 0.0, 0.0,0.0,0.0,0,512)
+ 9209, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addP.k1", "Gain of input signal 1",\
- 4141, 1.0, 0.0,0.0,0.0,0,513)
+ 4101, 1.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addP.k2", "Gain of input signal 2",\
- 1168, -1, 0.0,0.0,0.0,0,560)
+ 1174, -1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.P.k", "Gain value multiplied with input signal [1]",\
- 1169, 1, 0.0,0.0,0.0,0,560)
+ 1175, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.P.u", "Input signal connector",\
- "hydraulic.control.priGenPIDCtrl.PID.addP.y", 1, 5, 9240, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.addP.y", 1, 5, 9209, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.P.y", "Output signal connector",\
- 9241, 0.0, 0.0,0.0,0.0,0,512)
+ 9210, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.gainPID.k", \
-"Gain value multiplied with input signal [1]", 4142, 0.3, 0.0,0.0,0.0,0,513)
+"Gain value multiplied with input signal [1]", 4102, 0.3, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.gainPID.u", \
-"Input signal connector", 9242, 0.0, 0.0,0.0,0.0,0,512)
+"Input signal connector", 9211, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.gainPID.y", \
-"Output signal connector", 9243, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 9212, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addPID.k1", \
-"Gain of input signal 1", 1170, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 1", 1176, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addPID.k2", \
-"Gain of input signal 2", 1171, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 2", 1177, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addPID.k3", \
-"Gain of input signal 3", 1172, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 3", 1178, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addPID.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.PID.P.y", 1, 5, 9241, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.P.y", 1, 5, 9210, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addPID.u2", \
-"Connector of Real input signal 2", 4143, 0, 0.0,0.0,0.0,0,513)
+"Connector of Real input signal 2", 4103, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addPID.u3", "Connector of Real input signal 3",\
"hydraulic.control.priGenPIDCtrl.PID.I.y", 1, 1, 38, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addPID.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.PID.gainPID.u", 1, 5, 9242, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.gainPID.u", 1, 5, 9211, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limiter.uMax", \
-"Upper limits of input signals", 4144, 1, 0.0,0.0,0.0,0,513)
+"Upper limits of input signals", 4104, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limiter.uMin", \
-"Lower limits of input signals", 4145, 0.0, 0.0,0.0,0.0,0,513)
+"Lower limits of input signals", 4105, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limiter.strict", \
-"= true, if strict limits with noEvent(..) [:#(type=Boolean)]", 4146, false, \
+"= true, if strict limits with noEvent(..) [:#(type=Boolean)]", 4106, false, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limiter.homotopyType", \
"Simplified model for homotopy-based initialization [:#(type=Modelica.Blocks.Types.LimiterHomotopy)]",\
- 4147, 1, 1.0,4.0,0.0,0,517)
+ 4107, 1, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limiter.u", \
-"Connector of Real input signal", 9244, 0.0, 0.0,0.0,0.0,0,512)
+"Connector of Real input signal", 9213, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.limiter.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.PID.y", 1, 5, 9238, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.y", 1, 5, 9207, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.limiter.simplifiedExpr", \
-"Simplified expression for homotopy-based initialization", 4148, 0, 0.0,0.0,0.0,\
+"Simplified expression for homotopy-based initialization", 4108, 0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.with_I", "[:#(type=Boolean)]",\
- 4149, true, 0.0,0.0,0.0,0,1539)
+ 4109, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.with_D", "[:#(type=Boolean)]",\
- 4150, true, 0.0,0.0,0.0,0,1539)
+ 4110, true, 0.0,0.0,0.0,0,1539)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.FFzero.k", \
-"Constant output value", 1173, 0, 0.0,0.0,0.0,0,560)
+"Constant output value", 1179, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.FFzero.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.PID.FFzero.k", 1, 7, 1173, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.FFzero.k", 1, 7, 1179, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addFF.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.PID.gainPID.y", 1, 5, 9243, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.gainPID.y", 1, 5, 9212, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addFF.u2", "Connector of Real input signal 2",\
- "hydraulic.control.priGenPIDCtrl.PID.FFzero.k", 1, 7, 1173, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.FFzero.k", 1, 7, 1179, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addFF.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.PID.limiter.u", 1, 5, 9244, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.limiter.u", 1, 5, 9213, 0)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addFF.k1", \
-"Gain of input signal 1", 1174, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 1", 1180, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addFF.k2", "Gain of input signal 2",\
- 4151, 0.0, 0.0,0.0,0.0,0,513)
+ 4111, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.IsOn", "True if heat pump is actually on [:#(type=Boolean)]",\
- 8421, true, 0.0,0.0,0.0,0,642)
+ 8384, true, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addD.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9234, 0)
+ "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9203, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addD.u2", "Connector of Real input signal 2",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addD.y", "Connector of Real output signal",\
- 9245, 0.0, 0.0,0.0,0.0,0,512)
+ 9214, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addD.k1", "Gain of input signal 1",\
- 4152, 0.0, 0.0,0.0,0.0,0,513)
+ 4112, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addD.k2", "Gain of input signal 2",\
- 1175, -1, 0.0,0.0,0.0,0,560)
+ 1181, -1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.k", "Integrator gain [1]",\
- 4153, 0.0, 0.0,0.0,0.0,0,513)
+ 4113, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 4154, true, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 4114, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 4155, false, 0.0,0.0,0.0,0,1539)
+ 4115, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4156, 3, 1.0,4.0,0.0,0,517)
+ 4116, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.y_start", \
-"Initial or guess value of output (= state)", 4157, 0.0, 0.0,0.0,0.0,0,513)
+"Initial or guess value of output (= state)", 4117, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.u", "Connector of Real input signal",\
- 9246, 0.0, 0.0,0.0,0.0,0,512)
+ 9215, 0.0, 0.0,0.0,0.0,0,512)
DeclareState("hydraulic.control.priGenPIDCtrl.PID.I.y", "Connector of Real output signal",\
38, 0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.control.priGenPIDCtrl.PID.I.der(y)", \
"der(Connector of Real output signal)", 38, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.I.reset", "Optional connector of reset signal [:#(type=Boolean)]",\
- "hydraulic.control.priGenPIDCtrl.PID.IsOn", 1, 5, 8421, 65)
+ "hydraulic.control.priGenPIDCtrl.PID.IsOn", 1, 5, 8384, 65)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.I.local_reset", \
-"[:#(type=Boolean)]", "hydraulic.control.priGenPIDCtrl.PID.IsOn", 1, 5, 8421, 577)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.local_set", "", 4158, 0.0,\
+"[:#(type=Boolean)]", "hydraulic.control.priGenPIDCtrl.PID.IsOn", 1, 5, 8384, 577)
+DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.I.local_set", "", 4118, 0.0,\
0.0,0.0,0.0,0,1537)
-DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.k", "Gains [1]", 4159, \
+DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.k", "Gains [1]", 4119, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.T", "Time constants (T>0 required; T=0 is ideal derivative block) [s]",\
- 4160, 1E-14, 1E-60,1E+100,0.0,0,513)
+ 4120, 1E-14, 1E-60,1E+100,0.0,0,513)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.initType", \
"Type of initialization (1: no init, 2: steady state, 3: initial state, 4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 4161, 3, 1.0,4.0,0.0,0,517)
+ 4121, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.x_start", \
-"Initial or guess value of state", 4162, 0.0, 0.0,0.0,0.0,0,513)
+"Initial or guess value of state", 4122, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.D.y_start", \
-"Initial value of output (= state)", 1176, 0, 0.0,0.0,0.0,0,560)
+"Initial value of output (= state)", 1182, 0, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.D.u", "Connector of Real input signal",\
- "hydraulic.control.priGenPIDCtrl.PID.addD.y", 1, 5, 9245, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.addD.y", 1, 5, 9214, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.y", "Connector of Real output signal",\
- 4163, 0.0, 0.0,0.0,0.0,0,513)
+ 4123, 0.0, 0.0,0.0,0.0,0,513)
DeclareState("hydraulic.control.priGenPIDCtrl.PID.D.x", "State of block", 39, \
0.0, 0.0,0.0,0.0,0,544)
DeclareDerivative("hydraulic.control.priGenPIDCtrl.PID.D.der(x)", \
"der(State of block)", 39, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.D.zeroGain", \
-"[:#(type=Boolean)]", 4164, true, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4124, true, 0.0,0.0,0.0,0,2563)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addI.k1", "Gain of input signal 1",\
- 1177, 1, 0.0,0.0,0.0,0,560)
+ 1183, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addI.k2", "Gain of input signal 2",\
- 1178, -1, 0.0,0.0,0.0,0,560)
+ 1184, -1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addI.k3", "Gain of input signal 3",\
- 1179, 1, 0.0,0.0,0.0,0,560)
+ 1185, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addI.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9234, 0)
+ "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9203, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addI.u2", "Connector of Real input signal 2",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addI.u3", "Connector of Real input signal 3",\
- 9247, 0.0, 0.0,0.0,0.0,0,512)
+ 9216, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addI.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.PID.I.u", 1, 5, 9246, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.I.u", 1, 5, 9215, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addSat.u1", "Connector of Real input signal 1",\
- "hydraulic.control.priGenPIDCtrl.PID.y", 1, 5, 9238, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.y", 1, 5, 9207, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.addSat.u2", "Connector of Real input signal 2",\
- "hydraulic.control.priGenPIDCtrl.PID.limiter.u", 1, 5, 9244, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.limiter.u", 1, 5, 9213, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.addSat.y", "Connector of Real output signal",\
- 9248, 0.0, 0.0,0.0,0.0,0,512)
+ 9217, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addSat.k1", \
-"Gain of input signal 1", 1180, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 1", 1186, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.priGenPIDCtrl.PID.addSat.k2", \
-"Gain of input signal 2", 1181, -1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 2", 1187, -1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.priGenPIDCtrl.PID.gainTrack.k", \
-"Gain value multiplied with input signal [1]", 4165, 1, 0.0,0.0,0.0,0,513)
+"Gain value multiplied with input signal [1]", 4125, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.gainTrack.u", \
-"Input signal connector", "hydraulic.control.priGenPIDCtrl.PID.addSat.y", 1, 5, 9248,\
+"Input signal connector", "hydraulic.control.priGenPIDCtrl.PID.addSat.y", 1, 5, 9217,\
0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.PID.gainTrack.y", \
-"Output signal connector", "hydraulic.control.priGenPIDCtrl.PID.addI.u3", 1, 5, 9247,\
+"Output signal connector", "hydraulic.control.priGenPIDCtrl.PID.addI.u3", 1, 5, 9216,\
0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.onOffSwi.u1", "Connector of first Real input signal",\
- "hydraulic.control.priGenPIDCtrl.PID.y", 1, 5, 9238, 0)
+ "hydraulic.control.priGenPIDCtrl.PID.y", 1, 5, 9207, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.onOffSwi.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8424, 65)
+ "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8387, 65)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.onOffSwi.u3", "Connector of second Real input signal",\
- "hydraulic.control.priGenPIDCtrl.const.k", 1, 5, 4166, 0)
+ "hydraulic.control.priGenPIDCtrl.const.k", 1, 5, 4126, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.onOffSwi.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareVariable("hydraulic.control.priGenPIDCtrl.const.k", "Constant output value",\
- 4166, 1, 0.0,0.0,0.0,0,513)
+ 4126, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.const.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.const.k", 1, 5, 4166, 0)
+ "hydraulic.control.priGenPIDCtrl.const.k", 1, 5, 4126, 0)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.and1.u1", "Connector of first Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8424, 65)
+ "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8387, 65)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.and1.u2", "Connector of second Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.generation.heatPump.hys.y", 1, 5, 8392, 65)
+ "hydraulic.generation.heatPump.hys.y", 1, 5, 8355, 65)
DeclareAlias2("hydraulic.control.priGenPIDCtrl.and1.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.priGenPIDCtrl.PID.IsOn", 1, 5, 8421, 65)
+ "hydraulic.control.priGenPIDCtrl.PID.IsOn", 1, 5, 8384, 65)
DeclareVariable("hydraulic.control.booToRea.u", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 8422, false, 0.0,0.0,0.0,0,642)
+ 8385, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.booToRea.realTrue", "Output signal for true Boolean input",\
- 4167, 1, 0.0,0.0,0.0,0,513)
+ 4127, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.booToRea.realFalse", "Output signal for false Boolean input",\
- 4168, 0, 0.0,0.0,0.0,0,513)
+ 4128, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.booToRea.y", "Connector of Real output signal",\
- "hydraulic.generation.pump.y_actual", 1, 5, 8394, 0)
+ "hydraulic.generation.pump.y_actual", 1, 5, 8357, 0)
DeclareVariable("hydraulic.control.anyGenDevIsOn.nu", "Number of input connections [:#(type=Integer)]",\
- 4169, 2, 0.0,1E+100,0.0,0,1541)
+ 4129, 2, 0.0,1E+100,0.0,0,1541)
DeclareVariable("hydraulic.control.anyGenDevIsOn.u[1]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8423, false, 0.0,0.0,0.0,0,642)
+ 8386, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.anyGenDevIsOn.u[2]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8424, true, 0.0,0.0,0.0,0,642)
+ 8387, true, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.control.anyGenDevIsOn.y", "Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.booToRea.u", 1, 5, 8422, 65)
+ "hydraulic.control.booToRea.u", 1, 5, 8385, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.use_dhw", "=false to disable DHW [:#(type=Boolean)]",\
- 4170, true, 0.0,0.0,0.0,0,515)
+ 4130, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.nZones", "Number of heated zones [:#(type=Integer)]",\
- 4171, 1, 0.0,0.0,0.0,0,517)
+ 4131, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSup_nominal", "Nominal supply temperature [K|degC]",\
- 4172, 328.15, 0.0,1E+100,300.0,0,513)
+ 4132, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TRet_nominal", "Nominal supply temperature [K|degC]",\
- 4173, 318.15, 0.0,1E+100,300.0,0,513)
+ 4133, 318.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 4174, 262.65, 0.0,1E+100,300.0,0,513)
+ 4134, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW_nominal", \
-"Nominal DHW temperature [K|degC]", 4175, 323.15, 0.0,1E+100,300.0,0,513)
+"Nominal DHW temperature [K|degC]", 4135, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.nHeaTra", "Exponent of heat transfer system",\
- 4176, 0.0, 0.0,0.0,0.0,0,513)
+ 4136, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCurTyp", \
"Heating curve supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4177, 1, 1.0,3.0,0.0,0,517)
+ 4137, 1, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrDHWTyp", "Supervisory control approach for DHW supply temperature [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4178, 2, 1.0,3.0,0.0,0,517)
+ 4138, 2, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrlThrWayValTyp", \
"Type of supervisory control for three way valve [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4179, 1, 1.0,3.0,0.0,0,517)
+ 4139, 1, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.useSGReady", "=true to use SG Ready [:#(type=Boolean)]",\
- 4180, false, 0.0,0.0,0.0,0,515)
+ 4140, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.useExtSGSig", "=true to use external SG ready signal [:#(type=Boolean)]",\
- 4181, true, 0.0,0.0,0.0,0,515)
+ 4141, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TAddSta3Bui", "Increase for SG-Ready state 3 for building supply [K,]",\
- 4182, 0.0, 0.0,0.0,0.0,0,513)
+ 4142, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TAddSta4Bui", "Increase for SG-Ready state 4 for building supply [K,]",\
- 4183, 0.0, 0.0,0.0,0.0,0,513)
+ 4143, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TAddSta3DHW", "Increase for SG-Ready state 3 for DHW supply [K,]",\
- 4184, 0.0, 0.0,0.0,0.0,0,513)
+ 4144, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TAddSta4DHW", "Increase for SG-Ready state 4 for DHW supply [K,]",\
- 4185, 0.0, 0.0,0.0,0.0,0,513)
+ 4145, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sumMod.TOda", "Outdoor air temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.sumMod.sumMod", "=true for summer mode [:#(type=Boolean)]",\
- 4186, false, 0.0,0.0,0.0,0,515)
+ 4146, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.sumMod.noSumMod.k", \
-"Constant output value [:#(type=Boolean)]", 4187, false, 0.0,0.0,0.0,0,515)
+"Constant output value [:#(type=Boolean)]", 4147, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.sumMod.noSumMod.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 4188, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 4148, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.dTHys", "Hysteresis for control [K,]",\
- 4189, 0.0, 0.0,0.0,0.0,0,513)
+ 4149, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.TStoTop", "Top layer temperature of the storage in distribution system",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 0)
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.priGenOn", "Turn the main the device on or off [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", 1, 5, 8426, 65)
+ "hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", 1, 5, 8389, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.TSupSet", "Set point temperature",\
- "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+ "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.TStoBot", "Supply temperature of the lower layers of the storage. Does not have to be the lowest layer, depending on comfort even the top may be selected",\
- "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 0)
+ "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.secGenOn", "Turn the auxilliar heater on or off [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", 1, 5, 8445, 65)
+ "hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", 1, 5, 8408, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.TOda", "Ambient air temperature",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", \
-"Setpoint of the auxilliar heater", 8425, 1, 0.0,0.0,0.0,0,640)
+"Setpoint of the auxilliar heater", 8388, 1, 0.0,0.0,0.0,0,640)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysBui.dtEleHea", \
"Seconds for regulation when hr should be activated: If lower set temperature is hurt for more than this time period [s|min]",\
- 1182, 1800, 0.0,0.0,0.0,0,560)
+ 1188, 1800, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysBui.addSetDelTimEleHea", \
"Each time electric heater time passes, the output of the electric heater is increased by this amount in percentage. Maximum and default is 100 (on-off hr)%",\
- 1183, 1, 0.0,0.0,0.0,0,560)
+ 1189, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_set", \
-"Set temperature", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+"Set temperature", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_top", \
"Connector of Real input signal used as measurement signal of upper level storage temperature",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 0)
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", \
-"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8426,\
+"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8389,\
true, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.hysSto.bandwidth", \
-"Bandwidth around reference signal", 4190, 0.1, 0.0,0.0,0.0,0,513)
+"Bandwidth around reference signal", 4150, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.hysSto.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 4191, true, 0.0,0.0,0.0,0,515)
+"Value of pre(y) at initial time [:#(type=Boolean)]", 4151, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.hysSto.T_bot", \
"Connector of Real input signal used as measurement signal of bottom temperature of storage",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 0)
-DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y", "", 8427, \
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 0)
+DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y", "", 8390, \
0.0, 0.0,0.0,0.0,0,656)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.trigTime.u", \
-"[:#(type=Boolean)]", 8428, false, 0.0,0.0,0.0,0,658)
+"[:#(type=Boolean)]", 8391, false, 0.0,0.0,0.0,0,658)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.reaExp.y", \
-"Value of Real output", 8429, 0.0, 0.0,0.0,0.0,0,640)
+"Value of Real output", 8392, 0.0, 0.0,0.0,0.0,0,640)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysBui.greThr.threshold", \
-"Comparison with respect to threshold", 1184, 1E-15, 0.0,0.0,0.0,0,560)
+"Comparison with respect to threshold", 1190, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.greThr.u", "Connector of Real input signal",\
- "hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", 1, 5, 8425, 0)
+ "hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", 1, 5, 8388, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.greThr.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", 1, 5, 8445, 65)
+ "hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", 1, 5, 8408, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.swiOn.u1", "Connector of first Real input signal",\
- "hydraulic.control.buiAndDHWCtr.hysBui.reaExp.y", 1, 5, 8429, 0)
+ "hydraulic.control.buiAndDHWCtr.hysBui.reaExp.y", 1, 5, 8392, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.swiOn.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.hysBui.trigTime.u", 1, 5, 8428, 65)
+ "hydraulic.control.buiAndDHWCtr.hysBui.trigTime.u", 1, 5, 8391, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.swiOn.u3", \
-"Connector of second Real input signal", 4192, 0, 0.0,0.0,0.0,0,513)
+"Connector of second Real input signal", 4152, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.swiOn.y", "Connector of Real output signal",\
- "hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", 1, 5, 8425, 0)
+ "hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", 1, 5, 8388, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.constOff.k", \
-"Constant output value", 4193, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 4153, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.constOff.y", \
-"Connector of Real output signal", 4194, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4154, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference", \
-"Connector of Real input signal used as reference signal", 9249, 0.0, 0.0,0.0,\
+"Connector of Real input signal used as reference signal", 9218, 0.0, 0.0,0.0,\
0.0,0,512)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.u", \
"Connector of Real input signal used as measurement signal", "hydraulic.distribution.T_stoBufTop.y", 1,\
- 5, 9431, 0)
+ 5, 9400, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.y", \
-"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8430,\
+"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8393,\
false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.bandwidth", \
-"Bandwidth around reference signal", 4195, 0.1, 0.0,0.0,0.0,0,513)
+"Bandwidth around reference signal", 4155, 0.1, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 1185, true, 0.0,0.0,0.0,0,562)
+"Value of pre(y) at initial time [:#(type=Boolean)]", 1191, true, 0.0,0.0,0.0,0,562)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.add1.u1", "Connector of Real input signal 1",\
- "hydraulic.control.buiAndDHWCtr.hysBui.constdTHys.k", 1, 5, 4196, 0)
+ "hydraulic.control.buiAndDHWCtr.hysBui.constdTHys.k", 1, 5, 4156, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.add1.u2", "Connector of Real input signal 2",\
- "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+ "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.add1.y", "Connector of Real output signal",\
- "hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference", 1, 5, 9249, 0)
+ "hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.reference", 1, 5, 9218, 0)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysBui.add1.k1", \
-"Gain of input signal 1", 1186, -1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 1", 1192, -1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysBui.add1.k2", \
-"Gain of input signal 2", 1187, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 2", 1193, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysBui.constdTHys.k", \
-"Constant output value", 4196, 1, 0.0,0.0,0.0,0,513)
+"Constant output value", 4156, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysBui.constdTHys.y", \
"Connector of Real output signal", "hydraulic.control.buiAndDHWCtr.hysBui.constdTHys.k", 1,\
- 5, 4196, 0)
+ 5, 4156, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSup.nZones", \
-"Number of heated zones [:#(type=Integer)]", 4197, 1, 0.0,0.0,0.0,0,517)
+"Number of heated zones [:#(type=Integer)]", 4157, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TSup_nominal", \
-"Nominal supply temperature [K|degC]", 4198, 328.15, 0.0,1E+100,300.0,0,513)
+"Nominal supply temperature [K|degC]", 4158, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TRet_nominal", \
-"Nominal supply temperature [K|degC]", 4199, 318.15, 0.0,1E+100,300.0,0,513)
+"Nominal supply temperature [K|degC]", 4159, 318.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda_nominal", \
-"Nominal outdoor air temperature [K|degC]", 4200, 262.65, 0.0,1E+100,300.0,0,513)
+"Nominal outdoor air temperature [K|degC]", 4160, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSup.nHeaTra", \
-"Exponent of heat transfer system", 4201, 0.0, 0.0,0.0,0.0,0,513)
+"Exponent of heat transfer system", 4161, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TSet", "[K|degC]", \
-"hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+"hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TOda", "[K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 0)
+"building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TZoneMea[1]", \
"Zones temperatures measurements [K|degC]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 0)
+ 5, 8470, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.TZoneSet[1]", \
-"Zones set temperatures [K|degC]", "building.useProBus.TZoneSet[1]", 1, 5, 8283,\
+"Zones set temperatures [K|degC]", "building.useProBus.TZoneSet[1]", 1, 5, 8243,\
0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.nu", \
-"Number of input connections [:#(type=Integer)]", 4202, 1, 0.0,1E+100,0.0,0,1541)
+"Number of input connections [:#(type=Integer)]", 4162, 1, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.u[1]", "", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMax", "", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSup.maxTZoneSet.yMin", "", \
-"building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+"building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareParameter("hydraulic.control.buiAndDHWCtr.TSetBuiSup.dTAddCon", \
-"Constant offset of ideal heating curve [K,]", 1188, 0, 0.0,0.0,0.0,0,560)
+"Constant offset of ideal heating curve [K,]", 1194, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.buiAndDHWCtr.TSetBuiSup.THeaThr", \
-"Heating threshold temeperature [K|degC]", 1189, 293.15, 0.0,1E+100,300.0,0,560)
+"Heating threshold temeperature [K|degC]", 1195, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.dTHys", "Hysteresis for control [K,]",\
- 4203, 0.0, 0.0,0.0,0.0,0,513)
+ 4163, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.TStoTop", "Top layer temperature of the storage in distribution system",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 0)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.priGenOn", "Turn the main the device on or off [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.orDHW.u[3]", 1, 5, 8439, 65)
+ "hydraulic.control.buiAndDHWCtr.orDHW.u[3]", 1, 5, 8402, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.TSupSet", "Set point temperature",\
- "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+ "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.TStoBot", "Supply temperature of the lower layers of the storage. Does not have to be the lowest layer, depending on comfort even the top may be selected",\
- "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 0)
+ "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.secGenOn", "Turn the auxilliar heater on or off [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.orDHW.u[2]", 1, 5, 8438, 65)
+ "hydraulic.control.buiAndDHWCtr.orDHW.u[2]", 1, 5, 8401, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.TOda", "Ambient air temperature",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.ySecGenSet", \
"Setpoint of the auxilliar heater", "hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", 1,\
- 5, 8441, 0)
+ 5, 8404, 0)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysDHW.dtEleHea", \
"Seconds for regulation when hr should be activated: If lower set temperature is hurt for more than this time period [s|min]",\
- 1190, 1800, 0.0,0.0,0.0,0,560)
+ 1196, 1800, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysDHW.addSetDelTimEleHea", \
"Each time electric heater time passes, the output of the electric heater is increased by this amount in percentage. Maximum and default is 100 (on-off hr)%",\
- 1191, 1, 0.0,0.0,0.0,0,560)
+ 1197, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_set", \
-"Set temperature", "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+"Set temperature", "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_top", \
"Connector of Real input signal used as measurement signal of upper level storage temperature",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 0)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.y", \
-"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8431,\
+"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8394,\
true, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.bandwidth", \
-"Bandwidth around reference signal", 4204, 0.1, 0.0,0.0,0.0,0,513)
+"Bandwidth around reference signal", 4164, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 4205, true, 0.0,0.0,0.0,0,515)
+"Value of pre(y) at initial time [:#(type=Boolean)]", 4165, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.T_bot", \
"Connector of Real input signal used as measurement signal of bottom temperature of storage",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 0)
-DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y", "", 8432, \
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 0)
+DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y", "", 8395, \
0.0, 0.0,0.0,0.0,0,656)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.u", \
-"[:#(type=Boolean)]", 8433, false, 0.0,0.0,0.0,0,658)
+"[:#(type=Boolean)]", 8396, false, 0.0,0.0,0.0,0,658)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.reaExp.y", \
-"Value of Real output", 8434, 0.0, 0.0,0.0,0.0,0,640)
+"Value of Real output", 8397, 0.0, 0.0,0.0,0.0,0,640)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysDHW.greThr.threshold", \
-"Comparison with respect to threshold", 1192, 1E-15, 0.0,0.0,0.0,0,560)
+"Comparison with respect to threshold", 1198, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.greThr.u", "Connector of Real input signal",\
- "hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", 1, 5, 8441, 0)
+ "hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", 1, 5, 8404, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.greThr.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.orDHW.u[2]", 1, 5, 8438, 65)
+ "hydraulic.control.buiAndDHWCtr.orDHW.u[2]", 1, 5, 8401, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.swiOn.u1", "Connector of first Real input signal",\
- "hydraulic.control.buiAndDHWCtr.hysDHW.reaExp.y", 1, 5, 8434, 0)
+ "hydraulic.control.buiAndDHWCtr.hysDHW.reaExp.y", 1, 5, 8397, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.swiOn.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.u", 1, 5, 8433, 65)
+ "hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.u", 1, 5, 8396, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.swiOn.u3", \
-"Connector of second Real input signal", 4206, 0, 0.0,0.0,0.0,0,513)
+"Connector of second Real input signal", 4166, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.swiOn.y", "Connector of Real output signal",\
- "hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", 1, 5, 8441, 0)
+ "hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", 1, 5, 8404, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.constOff.k", \
-"Constant output value", 4207, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 4167, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.constOff.y", \
-"Connector of Real output signal", 4208, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4168, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference", \
-"Connector of Real input signal used as reference signal", 8435, 0.0, 0.0,0.0,\
+"Connector of Real input signal used as reference signal", 8398, 0.0, 0.0,0.0,\
0.0,0,640)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.u", \
"Connector of Real input signal used as measurement signal", "hydraulic.distribution.T_stoDHWTop.y", 1,\
- 5, 9430, 0)
+ 5, 9399, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.y", \
-"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8436,\
+"Connector of Real output signal used as actuator signal [:#(type=Boolean)]", 8399,\
false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.bandwidth", \
-"Bandwidth around reference signal", 4209, 0.1, 0.0,0.0,0.0,0,513)
+"Bandwidth around reference signal", 4169, 0.1, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.pre_y_start", \
-"Value of pre(y) at initial time [:#(type=Boolean)]", 1193, true, 0.0,0.0,0.0,0,562)
+"Value of pre(y) at initial time [:#(type=Boolean)]", 1199, true, 0.0,0.0,0.0,0,562)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.add1.u1", "Connector of Real input signal 1",\
- "hydraulic.control.buiAndDHWCtr.hysDHW.constdTHys.k", 1, 5, 4210, 0)
+ "hydraulic.control.buiAndDHWCtr.hysDHW.constdTHys.k", 1, 5, 4170, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.add1.u2", "Connector of Real input signal 2",\
- "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+ "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.add1.y", "Connector of Real output signal",\
- "hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference", 1, 5, 8435, 0)
+ "hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.reference", 1, 5, 8398, 0)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysDHW.add1.k1", \
-"Gain of input signal 1", 1194, -1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 1", 1200, -1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.control.buiAndDHWCtr.hysDHW.add1.k2", \
-"Gain of input signal 2", 1195, 1, 0.0,0.0,0.0,0,560)
+"Gain of input signal 2", 1201, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.control.buiAndDHWCtr.hysDHW.constdTHys.k", \
-"Constant output value", 4210, 1, 0.0,0.0,0.0,0,513)
+"Constant output value", 4170, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.hysDHW.constdTHys.y", \
"Connector of Real output signal", "hydraulic.control.buiAndDHWCtr.hysDHW.constdTHys.k", 1,\
- 5, 4210, 0)
+ 5, 4170, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.TSetDHW_nominal", \
-"Nominal DHW set temperature [K|degC]", 4211, 323.15, 0.0,1E+100,300.0,0,513)
+"Nominal DHW set temperature [K|degC]", 4171, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.TSetDHW", \
-"DHW set temperature [K|degC]", 4212, 323.15, 0.0,0.0,0.0,0,513)
+"DHW set temperature [K|degC]", 4172, 323.15, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetDHW.sigBusDistr.TStoBufBotMea",\
- "Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+ "Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetDHW.sigBusDistr.TStoBufTopMea",\
- "Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+ "Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetDHW.sigBusDistr.TStoDHWBotMea",\
- "Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+ "Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetDHW.sigBusDistr.TStoDHWTopMea",\
- "Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+ "Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetDHW.sigBusDistr.uThrWayVal", \
"Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)", \
-"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 4)
+"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 4)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.y", "Set auxilliar heater to true [:#(type=Boolean)]",\
- 4213, false, 0.0,0.0,0.0,0,515)
+ 4173, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.const.k", \
-"Constant output value", 4214, 323.15, 0.0,0.0,0.0,0,513)
+"Constant output value", 4174, 323.15, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.const.y", \
-"Connector of Real output signal", 4215, 323.15, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4175, 323.15, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.booleanConstant.k", \
-"Constant output value [:#(type=Boolean)]", 4216, false, 0.0,0.0,0.0,0,515)
+"Constant output value [:#(type=Boolean)]", 4176, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHW.booleanConstant.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 4217, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 4177, false, 0.0,0.0,\
0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.priGenOn.u1", "Connector of first Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.orDHW.u[3]", 1, 5, 8439, 65)
+ "hydraulic.control.buiAndDHWCtr.orDHW.u[3]", 1, 5, 8402, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.priGenOn.u2", "Connector of second Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", 1, 5, 8426, 65)
+ "hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", 1, 5, 8389, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.priGenOn.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8424, 65)
+ "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8387, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.orDHW.nu", "Number of input connections [:#(type=Integer)]",\
- 4218, 3, 0.0,1E+100,0.0,0,1541)
+ 4178, 3, 0.0,1E+100,0.0,0,1541)
DeclareVariable("hydraulic.control.buiAndDHWCtr.orDHW.u[1]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8437, false, 0.0,0.0,0.0,0,515)
+ 8400, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.orDHW.u[2]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8438, true, 0.0,0.0,0.0,0,642)
+ 8401, true, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.orDHW.u[3]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8439, true, 0.0,0.0,0.0,0,642)
+ 8402, true, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.orDHW.y", "Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8447, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8410, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrDHW.ctrlType", \
"Type of supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4219, 2, 1.0,3.0,0.0,0,517)
+ 4179, 2, 1.0,3.0,0.0,0,517)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrDHW.uSup", "Input from supervisory control",\
- "control.constTSetDHW.k", 1, 5, 8282, 0)
+ "control.constTSetDHW.k", 1, 5, 8242, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrDHW.uLoc", \
-"Local control input", 4220, 323.15, 0.0,0.0,0.0,0,513)
+"Local control input", 4180, 323.15, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrDHW.actInt", \
-"[:#(type=Boolean)]", "control.hys.y", 1, 5, 8472, 65)
+"[:#(type=Boolean)]", "control.hys.y", 1, 5, 8435, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrDHW.y", "Control output", \
-"hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+"hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrDHW.swi.u1", \
-"Connector of first Real input signal", "control.constTSetDHW.k", 1, 5, 8282, 0)
+"Connector of first Real input signal", "control.constTSetDHW.k", 1, 5, 8242, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrDHW.swi.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", "control.hys.y", 1, 5, 8472,\
+"Connector of Boolean input signal [:#(type=Boolean)]", "control.hys.y", 1, 5, 8435,\
65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrDHW.swi.u3", \
-"Connector of second Real input signal", 4221, 323.15, 0.0,0.0,0.0,0,513)
+"Connector of second Real input signal", 4181, 323.15, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrDHW.swi.y", "Connector of Real output signal",\
- "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+ "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TOda", "Outdoor air temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TDHWSet", "DHW supply set temperature [K|degC]",\
- 8440, 0.0, 0.0,0.0,0.0,0,640)
+ 8403, 0.0, 0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.nu", \
-"Number of input connections [:#(type=Integer)]", 4222, 3, 0.0,1E+100,0.0,0,1541)
+"Number of input connections [:#(type=Integer)]", 4182, 3, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[1]", "", \
-"hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", 1, 5, 8425, 0)
-DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", "", 8441, \
+"hydraulic.control.buiAndDHWCtr.hysBui.ySecGenSet", 1, 5, 8388, 0)
+DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[2]", "", 8404, \
1.0, 0.0,0.0,0.0,0,640)
-DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[3]", "", 4223, \
+DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.u[3]", "", 4183, \
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.yMax", "", \
-"hydraulic.control.buiAndDHWCtr.ySecGenSet", 1, 5, 8446, 0)
-DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.yMin", "", 8442, \
+"hydraulic.control.buiAndDHWCtr.ySecGenSet", 1, 5, 8409, 0)
+DeclareVariable("hydraulic.control.buiAndDHWCtr.maxSecHeaGen.yMin", "", 8405, \
0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusDistr.TStoDHWTopMea", \
"Top layer temperature of the storage in distribution system", "hydraulic.distribution.T_stoDHWTop.y", 1,\
- 5, 9430, 4)
+ 5, 9399, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusDistr.TStoDHWBotMea", \
"Supply temperature of the lower layers of the storage. Does not have to be the lowest layer, depending on comfort even the top may be selected",\
- "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 4)
+ "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusDistr.TStoBufTopMea", \
"Top layer temperature of the storage in distribution system", "hydraulic.distribution.T_stoBufTop.y", 1,\
- 5, 9431, 4)
+ 5, 9400, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusDistr.TStoBufBotMea", \
"Supply temperature of the lower layers of the storage. Does not have to be the lowest layer, depending on comfort even the top may be selected",\
- "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 4)
+ "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusDistr.uThrWayVal", \
"Control output", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5,\
- 8464, 4)
+ 8427, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusHyd.TSetDHWOve", \
-"Input from supervisory control", "control.constTSetDHW.k", 1, 5, 8282, 4)
+"Input from supervisory control", "control.constTSetDHW.k", 1, 5, 8242, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusHyd.oveTSetDHW", \
-"[:#(type=Boolean)]", "control.hys.y", 1, 5, 8472, 69)
+"[:#(type=Boolean)]", "control.hys.y", 1, 5, 8435, 69)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusHyd.TBuiLoc", "[K|degC]", \
-"hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 4)
+"hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 4)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.sigBusHyd.TStoDHWTop", \
"Connector of Real output signal", "hydraulic.distribution.T_stoDHWTop.y", 1, 5,\
- 9430, 4)
+ 9399, 4)
DeclareVariable("hydraulic.control.buiAndDHWCtr.sigBusHyd.TSetDHW", \
-"DHW set temperature [K|degC]", 4224, 323.15, 0.0,0.0,0.0,0,521)
+"DHW set temperature [K|degC]", 4184, 323.15, 0.0,0.0,0.0,0,521)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.priGren", "=true to activate primary generation device [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8424, 65)
+ "hydraulic.control.anyGenDevIsOn.u[2]", 1, 5, 8387, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.secGenOn.nu", "Number of input connections [:#(type=Integer)]",\
- 4225, 3, 0.0,1E+100,0.0,0,1541)
+ 4185, 3, 0.0,1E+100,0.0,0,1541)
DeclareVariable("hydraulic.control.buiAndDHWCtr.secGenOn.u[1]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8443, false, 0.0,0.0,0.0,0,642)
+ 8406, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.secGenOn.u[2]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8444, false, 0.0,0.0,0.0,0,515)
+ 8407, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", "Vector of Boolean input signals [:#(type=Boolean)]",\
- 8445, true, 0.0,0.0,0.0,0,642)
+ 8408, true, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.secGenOn.y", "Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[1]", 1, 5, 8423, 65)
+ "hydraulic.control.anyGenDevIsOn.u[1]", 1, 5, 8386, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.secGen", "=true to activate secondary generator [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[1]", 1, 5, 8423, 65)
+ "hydraulic.control.anyGenDevIsOn.u[1]", 1, 5, 8386, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.swiAntLeg.u1", "Connector of first Real input signal",\
- 4226, 1, 0.0,0.0,0.0,0,513)
+ 4186, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.swiAntLeg.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 4227, false, 0.0,0.0,0.0,0,515)
+ 4187, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.swiAntLeg.u3", "Connector of second Real input signal",\
- 4228, 0, 0.0,0.0,0.0,0,513)
+ 4188, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.swiAntLeg.y", "Connector of Real output signal",\
- 4229, 0.0, 0.0,0.0,0.0,0,513)
+ 4189, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.ySecGenSet", "Suggested relative power of secondary heat generator",\
- 8446, 0.0, 0.0,0.0,0.0,0,640)
+ 8409, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TZoneMea[1]", "Zones temperatures measurements [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 0)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TZoneSet[1]", "Zones set temperatures [K|degC]",\
- "building.useProBus.TZoneSet[1]", 1, 5, 8283, 0)
+ "building.useProBus.TZoneSet[1]", 1, 5, 8243, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.ctrlType", \
"Type of supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4230, 1, 1.0,3.0,0.0,0,517)
+ 4190, 1, 1.0,3.0,0.0,0,517)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.uLoc", \
-"Local control input", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+"Local control input", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.y", "Control output",\
- "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+ "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.swi.u1", \
-"Connector of first Real input signal", 4231, 0, 0.0,0.0,0.0,0,513)
+"Connector of first Real input signal", 4191, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.swi.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 4232, false, 0.0,0.0,0.0,\
+"Connector of Boolean input signal [:#(type=Boolean)]", 4192, false, 0.0,0.0,0.0,\
0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.swi.u3", \
"Connector of second Real input signal", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1,\
- 5, 9250, 0)
+ 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.swi.y", \
"Connector of Real output signal", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5,\
- 9250, 0)
+ 9219, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.deActAlw.k", \
-"Constant output value [:#(type=Boolean)]", 4233, false, 0.0,0.0,0.0,0,515)
+"Constant output value [:#(type=Boolean)]", 4193, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.deActAlw.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 4234, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 4194, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.uSupDeAct.k", \
-"Constant output value", 4235, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 4195, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrHeaCur.uSupDeAct.y", \
-"Connector of Real output signal", 4236, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4196, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.constAntLeg.k", "Constant output value",\
- 4237, 1, 0.0,0.0,0.0,0,513)
+ 4197, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.constAntLeg.y", "Connector of Real output signal",\
- 4238, 1.0, 0.0,0.0,0.0,0,513)
+ 4198, 1.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.constAntLegOff.k", \
-"Constant output value", 4239, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 4199, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.constAntLegOff.y", \
-"Connector of Real output signal", 4240, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4200, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.bufOn.u", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 8447, false, 0.0,0.0,0.0,0,642)
+ 8410, false, 0.0,0.0,0.0,0,642)
DeclareVariable("hydraulic.control.buiAndDHWCtr.bufOn.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- 8448, false, 0.0,0.0,0.0,0,642)
+ 8411, false, 0.0,0.0,0.0,0,642)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.booToReal.u", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.y", 1, 5, 8448, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.y", 1, 5, 8411, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.booToReal.realTrue", \
-"Output signal for true Boolean input", 4241, 1, 0.0,0.0,0.0,0,513)
+"Output signal for true Boolean input", 4201, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.booToReal.realFalse", \
-"Output signal for false Boolean input", 4242, 0, 0.0,0.0,0.0,0,513)
+"Output signal for false Boolean input", 4202, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.booToReal.y", "Connector of Real output signal",\
- "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 0)
+ "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.DHW", "=true for DHW loading [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8447, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8410, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TBuiSet", "Building supply set temperature [K|degC]",\
- 9250, 0.0, 0.0,0.0,0.0,0,512)
+ 9219, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.logSwiDHW.u1", "Connector of first Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8447, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8410, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.logSwiDHW.u2", "Connector of second Boolean input signal [:#(type=Boolean)]",\
- 4243, true, 0.0,0.0,0.0,0,515)
+ 4203, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.logSwiDHW.u3", "Connector of third Boolean input signal [:#(type=Boolean)]",\
- 4244, true, 0.0,0.0,0.0,0,515)
+ 4204, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.logSwiDHW.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8447, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8410, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.conSumMod.k", "Constant output value [:#(type=Boolean)]",\
- 4245, true, 0.0,0.0,0.0,0,515)
+ 4205, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.conSumMod.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- 4246, true, 0.0,0.0,0.0,0,515)
+ 4206, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.logSwiSumModSecGen.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", 1,\
- 5, 8445, 65)
+ 5, 8408, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.logSwiSumModSecGen.u2", \
-"Connector of second Boolean input signal [:#(type=Boolean)]", 4247, true, \
+"Connector of second Boolean input signal [:#(type=Boolean)]", 4207, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.logSwiSumModSecGen.u3", \
-"Connector of third Boolean input signal [:#(type=Boolean)]", 4248, false, \
+"Connector of third Boolean input signal [:#(type=Boolean)]", 4208, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.logSwiSumModSecGen.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.control.buiAndDHWCtr.secGenOn.u[3]", 1,\
- 5, 8445, 65)
+ 5, 8408, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.logSwiSumModPriGen.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", 1,\
- 5, 8426, 65)
+ 5, 8389, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.logSwiSumModPriGen.u2", \
-"Connector of second Boolean input signal [:#(type=Boolean)]", 4249, true, \
+"Connector of second Boolean input signal [:#(type=Boolean)]", 4209, true, \
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.logSwiSumModPriGen.u3", \
-"Connector of third Boolean input signal [:#(type=Boolean)]", 4250, false, \
+"Connector of third Boolean input signal [:#(type=Boolean)]", 4210, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.logSwiSumModPriGen.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", 1,\
- 5, 8426, 65)
+ 5, 8389, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.conSumModGen.k", \
-"Constant output value [:#(type=Boolean)]", 4251, false, 0.0,0.0,0.0,0,515)
+"Constant output value [:#(type=Boolean)]", 4211, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.conSumModGen.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 4252, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 4212, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.winMod.u", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 4253, false, 0.0,0.0,0.0,0,515)
+ 4213, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.winMod.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- 4254, true, 0.0,0.0,0.0,0,515)
+ 4214, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.realPassThrough.u", \
-"Connector of Real input signal", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Connector of Real input signal", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.realPassThrough.y", \
"Connector of Real output signal", "hydraulic.distribution.T_stoDHWTop.y", 1, 5,\
- 9430, 0)
+ 9399, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.priGenOffSGRead.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.control.anyGenDevIsOn.u[2]", 1,\
- 5, 8424, 65)
+ 5, 8387, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.priGenOffSGRead.u2", \
-"Connector of second Boolean input signal [:#(type=Boolean)]", 4255, true, \
+"Connector of second Boolean input signal [:#(type=Boolean)]", 4215, true, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.priGenOffSGRead.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.control.anyGenDevIsOn.u[2]", 1,\
- 5, 8424, 65)
+ 5, 8387, 65)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.secGenOffSGRead.u1", \
"Connector of first Boolean input signal [:#(type=Boolean)]", "hydraulic.control.anyGenDevIsOn.u[1]", 1,\
- 5, 8423, 65)
+ 5, 8386, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.secGenOffSGRead.u2", \
-"Connector of second Boolean input signal [:#(type=Boolean)]", 4256, true, \
+"Connector of second Boolean input signal [:#(type=Boolean)]", 4216, true, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.secGenOffSGRead.y", \
"Connector of Boolean output signal [:#(type=Boolean)]", "hydraulic.control.anyGenDevIsOn.u[1]", 1,\
- 5, 8423, 65)
+ 5, 8386, 65)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.useSGReady", \
-"=true to use SG Ready [:#(type=Boolean)]", 4257, false, 0.0,0.0,0.0,0,515)
+"=true to use SG Ready [:#(type=Boolean)]", 4217, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.TAddSta3", \
-"Increase for SG-Ready state 3 [K,]", 4258, 0.0, 0.0,0.0,0.0,0,513)
+"Increase for SG-Ready state 3 [K,]", 4218, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.TAddSta4", \
-"Increase for SG-Ready state 4 [K,]", 4259, 0.0, 0.0,0.0,0.0,0,513)
+"Increase for SG-Ready state 4 [K,]", 4219, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.useExtSGSig", \
-"=true to use external SG ready signal [:#(type=Boolean)]", 4260, true, 0.0,0.0,\
+"=true to use external SG ready signal [:#(type=Boolean)]", 4220, true, 0.0,0.0,\
0.0,0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.TSetLocCtrl", \
"Set temperature of local control [K]", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1,\
- 5, 9250, 0)
+ 5, 9219, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.TSet", \
-"Set temperature [K]", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+"Set temperature [K]", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.internalSignal.u",\
- "Input signal [:#(type=Integer)]", 4261, 2, 0.0,0.0,0.0,0,517)
+ "Input signal [:#(type=Integer)]", 4221, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.internalSignal.y",\
- "Output signal [:#(type=Integer)]", 4262, 2, 0.0,0.0,0.0,0,517)
+ "Output signal [:#(type=Integer)]", 4222, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.canRun", \
-"If SG Ready blocks operation [:#(type=Boolean)]", 4263, true, 0.0,0.0,0.0,0,515)
+"If SG Ready blocks operation [:#(type=Boolean)]", 4223, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.conIntSig2.k",\
- "Constant output value [:#(type=Integer)]", 4264, 2, 0.0,0.0,0.0,0,517)
+ "Constant output value [:#(type=Integer)]", 4224, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetBuiSupSGReady.conIntSig2.y",\
- "Connector of Integer output signal [:#(type=Integer)]", 4265, 2, 0.0,0.0,0.0,0,517)
+ "Connector of Integer output signal [:#(type=Integer)]", 4225, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.useSGReady", \
-"=true to use SG Ready [:#(type=Boolean)]", 4266, false, 0.0,0.0,0.0,0,515)
+"=true to use SG Ready [:#(type=Boolean)]", 4226, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.TAddSta3", \
-"Increase for SG-Ready state 3 [K,]", 4267, 0.0, 0.0,0.0,0.0,0,513)
+"Increase for SG-Ready state 3 [K,]", 4227, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.TAddSta4", \
-"Increase for SG-Ready state 4 [K,]", 4268, 0.0, 0.0,0.0,0.0,0,513)
+"Increase for SG-Ready state 4 [K,]", 4228, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.useExtSGSig", \
-"=true to use external SG ready signal [:#(type=Boolean)]", 4269, true, 0.0,0.0,\
+"=true to use external SG ready signal [:#(type=Boolean)]", 4229, true, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.TSetLocCtrl", \
-"Set temperature of local control [K]", 4270, 323.15, 0.0,0.0,0.0,0,513)
+"Set temperature of local control [K]", 4230, 323.15, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.TSet", \
-"Set temperature [K]", 4271, 323.15, 0.0,0.0,0.0,0,513)
+"Set temperature [K]", 4231, 323.15, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.internalSignal.u",\
- "Input signal [:#(type=Integer)]", 4272, 2, 0.0,0.0,0.0,0,517)
+ "Input signal [:#(type=Integer)]", 4232, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.internalSignal.y",\
- "Output signal [:#(type=Integer)]", 4273, 2, 0.0,0.0,0.0,0,517)
+ "Output signal [:#(type=Integer)]", 4233, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.canRun", \
-"If SG Ready blocks operation [:#(type=Boolean)]", 4274, true, 0.0,0.0,0.0,0,515)
+"If SG Ready blocks operation [:#(type=Boolean)]", 4234, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.conIntSig2.k", \
-"Constant output value [:#(type=Integer)]", 4275, 2, 0.0,0.0,0.0,0,517)
+"Constant output value [:#(type=Integer)]", 4235, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.TSetDHWSGReady.conIntSig2.y", \
-"Connector of Integer output signal [:#(type=Integer)]", 4276, 2, 0.0,0.0,0.0,0,517)
+"Connector of Integer output signal [:#(type=Integer)]", 4236, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.ctrlType", \
"Type of supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4277, 1, 1.0,3.0,0.0,0,517)
+ 4237, 1, 1.0,3.0,0.0,0,517)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.uLoc", \
"Local control input", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.y", \
"Control output", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5,\
- 8464, 0)
+ 8427, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.swi.u1", \
-"Connector of first Real input signal", 4278, 0, 0.0,0.0,0.0,0,513)
+"Connector of first Real input signal", 4238, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.swi.u2", \
-"Connector of Boolean input signal [:#(type=Boolean)]", 4279, false, 0.0,0.0,0.0,\
+"Connector of Boolean input signal [:#(type=Boolean)]", 4239, false, 0.0,0.0,0.0,\
0,515)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.swi.u3", \
"Connector of second Real input signal", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareAlias2("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.swi.y", \
"Connector of Real output signal", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.deActAlw.k", \
-"Constant output value [:#(type=Boolean)]", 4280, false, 0.0,0.0,0.0,0,515)
+"Constant output value [:#(type=Boolean)]", 4240, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.deActAlw.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 4281, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 4241, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.uSupDeAct.k", \
-"Constant output value", 4282, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 4242, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.buiAndDHWCtr.supCtrThrWayVal.uSupDeAct.y", \
-"Connector of Real output signal", 4283, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4243, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelPri.meaVal", "Type of measurement to use in control [:#(type=BESMod.Systems.Hydraulical.Control.Components.BaseClasses.MeasuredValue)]",\
- 4284, 1, 1.0,2.0,0.0,0,517)
+ 4244, 1, 1.0,2.0,0.0,0,517)
DeclareVariable("hydraulic.control.setAndMeaSelPri.use_dhw", "=false to disable DHW [:#(type=Boolean)]",\
- 4285, true, 0.0,0.0,0.0,0,515)
+ 4245, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.setAndMeaSelPri.dTTraToDis_nominal", \
-"Nominal temperature difference between transfer and distribution system [K,]", 4286,\
+"Nominal temperature difference between transfer and distribution system [K,]", 4246,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelPri.dTDisToGen_nominal", \
"Nominal temperature difference between distribution and generation system [K,]",\
- 4287, 0.0, 0.0,0.0,0.0,0,513)
+ 4247, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelPri.dTDHWToGen_nominal", \
-"Nominal temperature difference between DHW and generation system [K,]", 4288, \
+"Nominal temperature difference between DHW and generation system [K,]", 4248, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelPri.dTHysDHW", "DHW hysteresis to ensure control completes DHW charging as quickly as possible [K,]",\
- 4289, 0.0, 0.0,0.0,0.0,0,513)
+ 4249, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusDistr.TStoBufBotMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusDistr.TStoBufTopMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusDistr.TStoDHWBotMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusDistr.TStoDHWTopMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusDistr.uThrWayVal", \
"Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)", \
-"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 4)
+"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.TGenOutMea", \
"Connector of Real input signal", "hydraulic.generation.senTGenOut.T", 1, 1, 27,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.THeaPumEvaIn", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.THeaPumIn", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.THeaPumOut", \
-"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.heaPumIsOn", \
"=true if device is on [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 69)
+ 5, 8355, 69)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.uEleHea", \
-"Control input [1]", "hydraulic.control.swiSecGen.y", 1, 5, 8451, 4)
+"Control input [1]", "hydraulic.control.swiSecGen.y", 1, 5, 8414, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.uPump", \
"Constant normalized rotational speed [1]", "hydraulic.generation.pump.y_actual", 1,\
- 5, 8394, 4)
+ 5, 8357, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.sigBusGen.yHeaPumSet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.DHW", "=true for DHW loading [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8447, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8410, 65)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.TBuiSet", "Building supply set temperature [K|degC]",\
- "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+ "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.TDHWSet", "DHW supply set temperature [K|degC]",\
- "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+ "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareVariable("hydraulic.control.setAndMeaSelPri.constAddBuf.k", \
-"Offset value added to input signal [1]", 4290, 1, 0.0,0.0,0.0,0,513)
+"Offset value added to input signal [1]", 4250, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.constAddBuf.u", \
-"Input signal connector", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+"Input signal connector", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareVariable("hydraulic.control.setAndMeaSelPri.constAddBuf.y", \
-"Output signal connector", 9251, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 9220, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.setAndMeaSelPri.swiDHWBuiSet.u1", \
-"Connector of first Real input signal", 8449, 0.0, 0.0,0.0,0.0,0,640)
+"Connector of first Real input signal", 8412, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.swiDHWBuiSet.u2", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.control.buiAndDHWCtr.bufOn.u", 1,\
- 5, 8447, 65)
+ 5, 8410, 65)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.swiDHWBuiSet.u3", \
"Connector of second Real input signal", "hydraulic.control.setAndMeaSelPri.constAddBuf.y", 1,\
- 5, 9251, 0)
+ 5, 9220, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.swiDHWBuiSet.y", \
"Connector of Real output signal", "hydraulic.control.priGenPIDCtrl.TSet", 1, 5,\
- 9234, 0)
+ 9203, 0)
DeclareVariable("hydraulic.control.setAndMeaSelPri.constAddDHW.k", \
-"Offset value added to input signal [1]", 4291, 1, 0.0,0.0,0.0,0,513)
+"Offset value added to input signal [1]", 4251, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.constAddDHW.u", \
-"Input signal connector", "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+"Input signal connector", "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.constAddDHW.y", \
"Output signal connector", "hydraulic.control.setAndMeaSelPri.swiDHWBuiSet.u1", 1,\
- 5, 8449, 0)
+ 5, 8412, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.TMea", "Building supply set temperature [K|degC]",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.TSet", "Set temperature [K|degC]",\
- "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9234, 0)
+ "hydraulic.control.priGenPIDCtrl.TSet", 1, 5, 9203, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelPri.reaPasTrhGenSup.u", \
"Connector of Real input signal", "hydraulic.generation.senTGenOut.T", 1, 1, 27,\
0)
@@ -44613,96 +44653,96 @@ DeclareAlias2("hydraulic.control.setAndMeaSelPri.reaPasTrhGenSup.y", \
"Connector of Real output signal", "hydraulic.generation.senTGenOut.T", 1, 1, 27,\
0)
DeclareVariable("hydraulic.control.setAndMeaSelPri.dTTraDHW_nominal", \
-"Helper for conditional sum in DHW dTs [K,]", 4292, 0.0, 0.0,0.0,0.0,0,2561)
+"Helper for conditional sum in DHW dTs [K,]", 4252, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.control.setAndMeaSelPri.dTBui_nominal", \
-"Helper for conditional sum in building dTs [K,]", 4293, 0.0, 0.0,0.0,0.0,0,2561)
+"Helper for conditional sum in building dTs [K,]", 4253, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.control.setAndMeaSelSec.meaVal", "Type of measurement to use in control [:#(type=BESMod.Systems.Hydraulical.Control.Components.BaseClasses.MeasuredValue)]",\
- 4294, 1, 1.0,2.0,0.0,0,517)
+ 4254, 1, 1.0,2.0,0.0,0,517)
DeclareVariable("hydraulic.control.setAndMeaSelSec.use_dhw", "=false to disable DHW [:#(type=Boolean)]",\
- 4295, true, 0.0,0.0,0.0,0,515)
+ 4255, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.setAndMeaSelSec.dTTraToDis_nominal", \
-"Nominal temperature difference between transfer and distribution system [K,]", 4296,\
+"Nominal temperature difference between transfer and distribution system [K,]", 4256,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelSec.dTDisToGen_nominal", \
"Nominal temperature difference between distribution and generation system [K,]",\
- 4297, 0.0, 0.0,0.0,0.0,0,513)
+ 4257, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelSec.dTDHWToGen_nominal", \
-"Nominal temperature difference between DHW and generation system [K,]", 4298, \
+"Nominal temperature difference between DHW and generation system [K,]", 4258, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.setAndMeaSelSec.dTHysDHW", "DHW hysteresis to ensure control completes DHW charging as quickly as possible [K,]",\
- 4299, 0.0, 0.0,0.0,0.0,0,513)
+ 4259, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusDistr.TStoBufBotMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusDistr.TStoBufTopMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusDistr.TStoDHWBotMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusDistr.TStoDHWTopMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusDistr.uThrWayVal", \
"Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)", \
-"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 4)
+"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.TGenOutMea", \
"Connector of Real input signal", "hydraulic.generation.senTGenOut.T", 1, 1, 27,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.THeaPumEvaIn", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTEvaIn.y", 1,\
- 5, 9197, 4)
+ 5, 9164, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.THeaPumIn", \
"Connector of Real output signal", "hydraulic.generation.heatPump.senTConIn.y", 1,\
- 5, 9196, 4)
+ 5, 9163, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.THeaPumOut", \
-"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9167,\
+"Connector of Real output signal", "hydraulic.generation.heatPump.con.T", 1, 5, 9134,\
4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.heaPumIsOn", \
"=true if device is on [:#(type=Boolean)]", "hydraulic.generation.heatPump.hys.y", 1,\
- 5, 8392, 69)
+ 5, 8355, 69)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.uEleHea", \
-"Control input [1]", "hydraulic.control.swiSecGen.y", 1, 5, 8451, 4)
+"Control input [1]", "hydraulic.control.swiSecGen.y", 1, 5, 8414, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.uPump", \
"Constant normalized rotational speed [1]", "hydraulic.generation.pump.y_actual", 1,\
- 5, 8394, 4)
+ 5, 8357, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.sigBusGen.yHeaPumSet", \
"Relative compressor speed between 0 and 1", "hydraulic.control.priGenPIDCtrl.ySet", 1,\
- 5, 9233, 4)
+ 5, 9202, 4)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.DHW", "=true for DHW loading [:#(type=Boolean)]",\
- "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8447, 65)
+ "hydraulic.control.buiAndDHWCtr.bufOn.u", 1, 5, 8410, 65)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.TBuiSet", "Building supply set temperature [K|degC]",\
- "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+ "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.TDHWSet", "DHW supply set temperature [K|degC]",\
- "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+ "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareVariable("hydraulic.control.setAndMeaSelSec.constAddBuf.k", \
-"Offset value added to input signal [1]", 4300, 1, 0.0,0.0,0.0,0,513)
+"Offset value added to input signal [1]", 4260, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.constAddBuf.u", \
-"Input signal connector", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9250, 0)
+"Input signal connector", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1, 5, 9219, 0)
DeclareVariable("hydraulic.control.setAndMeaSelSec.constAddBuf.y", \
-"Output signal connector", 9252, 0.0, 0.0,0.0,0.0,0,512)
+"Output signal connector", 9221, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.control.setAndMeaSelSec.swiDHWBuiSet.u1", \
-"Connector of first Real input signal", 8450, 0.0, 0.0,0.0,0.0,0,640)
+"Connector of first Real input signal", 8413, 0.0, 0.0,0.0,0.0,0,640)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.swiDHWBuiSet.u2", \
"Connector of Boolean input signal [:#(type=Boolean)]", "hydraulic.control.buiAndDHWCtr.bufOn.u", 1,\
- 5, 8447, 65)
+ 5, 8410, 65)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.swiDHWBuiSet.u3", \
"Connector of second Real input signal", "hydraulic.control.setAndMeaSelSec.constAddBuf.y", 1,\
- 5, 9252, 0)
+ 5, 9221, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.swiDHWBuiSet.y", \
"Connector of Real output signal", "hydraulic.control.setAndMeaSelSec.TSet", 1, 5,\
- 9253, 0)
+ 9222, 0)
DeclareVariable("hydraulic.control.setAndMeaSelSec.constAddDHW.k", \
-"Offset value added to input signal [1]", 4301, 1, 0.0,0.0,0.0,0,513)
+"Offset value added to input signal [1]", 4261, 1, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.constAddDHW.u", \
-"Input signal connector", "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8440, 0)
+"Input signal connector", "hydraulic.control.buiAndDHWCtr.TDHWSet", 1, 5, 8403, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.constAddDHW.y", \
"Output signal connector", "hydraulic.control.setAndMeaSelSec.swiDHWBuiSet.u1", 1,\
- 5, 8450, 0)
+ 5, 8413, 0)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.TMea", "Building supply set temperature [K|degC]",\
"hydraulic.generation.senTGenOut.T", 1, 1, 27, 0)
DeclareVariable("hydraulic.control.setAndMeaSelSec.TSet", "Set temperature [K|degC]",\
- 9253, 0.0, 0.0,0.0,0.0,0,512)
+ 9222, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.control.setAndMeaSelSec.reaPasTrhGenSup.u", \
"Connector of Real input signal", "hydraulic.generation.senTGenOut.T", 1, 1, 27,\
0)
@@ -44710,250 +44750,250 @@ DeclareAlias2("hydraulic.control.setAndMeaSelSec.reaPasTrhGenSup.y", \
"Connector of Real output signal", "hydraulic.generation.senTGenOut.T", 1, 1, 27,\
0)
DeclareVariable("hydraulic.control.setAndMeaSelSec.dTTraDHW_nominal", \
-"Helper for conditional sum in DHW dTs [K,]", 4302, 0.0, 0.0,0.0,0.0,0,2561)
+"Helper for conditional sum in DHW dTs [K,]", 4262, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.control.setAndMeaSelSec.dTBui_nominal", \
-"Helper for conditional sum in building dTs [K,]", 4303, 0.0, 0.0,0.0,0.0,0,2561)
+"Helper for conditional sum in building dTs [K,]", 4263, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.control.supCtrNSet.ctrlType", "Type of supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4304, 1, 1.0,3.0,0.0,0,517)
+ 4264, 1, 1.0,3.0,0.0,0,517)
DeclareAlias2("hydraulic.control.supCtrNSet.uLoc", "Local control input", \
-"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareAlias2("hydraulic.control.supCtrNSet.y", "Control output", \
-"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+"hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareVariable("hydraulic.control.supCtrNSet.swi.u1", "Connector of first Real input signal",\
- 4305, 0, 0.0,0.0,0.0,0,513)
+ 4265, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.supCtrNSet.swi.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 4306, false, 0.0,0.0,0.0,0,515)
+ 4266, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.supCtrNSet.swi.u3", "Connector of second Real input signal",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareAlias2("hydraulic.control.supCtrNSet.swi.y", "Connector of Real output signal",\
- "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9233, 0)
+ "hydraulic.control.priGenPIDCtrl.ySet", 1, 5, 9202, 0)
DeclareVariable("hydraulic.control.supCtrNSet.deActAlw.k", "Constant output value [:#(type=Boolean)]",\
- 4307, false, 0.0,0.0,0.0,0,515)
+ 4267, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.supCtrNSet.deActAlw.y", "Connector of Boolean output signal [:#(type=Boolean)]",\
- 4308, false, 0.0,0.0,0.0,0,515)
+ 4268, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.supCtrNSet.uSupDeAct.k", "Constant output value",\
- 4309, 0, 0.0,0.0,0.0,0,513)
+ 4269, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.supCtrNSet.uSupDeAct.y", "Connector of Real output signal",\
- 4310, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.control.constZero.k", "Constant output value", 4311, 0,\
+ 4270, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.control.constZero.k", "Constant output value", 4271, 0,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.constZero.y", "Connector of Real output signal",\
- 4312, 0, 0.0,0.0,0.0,0,513)
+ 4272, 0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.control.swiSecGen.u1", "Connector of first Real input signal",\
- "hydraulic.control.buiAndDHWCtr.ySecGenSet", 1, 5, 8446, 0)
+ "hydraulic.control.buiAndDHWCtr.ySecGenSet", 1, 5, 8409, 0)
DeclareAlias2("hydraulic.control.swiSecGen.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- "hydraulic.control.anyGenDevIsOn.u[1]", 1, 5, 8423, 65)
+ "hydraulic.control.anyGenDevIsOn.u[1]", 1, 5, 8386, 65)
DeclareVariable("hydraulic.control.swiSecGen.u3", "Connector of second Real input signal",\
- 4313, 0.0, 0.0,0.0,0.0,0,513)
+ 4273, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.swiSecGen.y", "Connector of Real output signal",\
- 8451, 0.0, 0.0,1.0,0.0,0,640)
+ 8414, 0.0, 0.0,1.0,0.0,0,640)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].ctrlType", "Type of supervisory control [:#(type=BESMod.Utilities.SupervisoryControl.Types.SupervisoryControlType)]",\
- 4314, 1, 1.0,3.0,0.0,0,517)
+ 4274, 1, 1.0,3.0,0.0,0,517)
DeclareAlias2("hydraulic.control.supCtrlTheVal[1].uLoc", "Local control input", \
-"hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+"hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareAlias2("hydraulic.control.supCtrlTheVal[1].y", "Control output", \
-"hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+"hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].swi.u1", "Connector of first Real input signal",\
- 4315, 0, 0.0,0.0,0.0,0,513)
+ 4275, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].swi.u2", "Connector of Boolean input signal [:#(type=Boolean)]",\
- 4316, false, 0.0,0.0,0.0,0,515)
+ 4276, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.control.supCtrlTheVal[1].swi.u3", "Connector of second Real input signal",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareAlias2("hydraulic.control.supCtrlTheVal[1].swi.y", "Connector of Real output signal",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].deActAlw.k", \
-"Constant output value [:#(type=Boolean)]", 4317, false, 0.0,0.0,0.0,0,515)
+"Constant output value [:#(type=Boolean)]", 4277, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].deActAlw.y", \
-"Connector of Boolean output signal [:#(type=Boolean)]", 4318, false, 0.0,0.0,\
+"Connector of Boolean output signal [:#(type=Boolean)]", 4278, false, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].uSupDeAct.k", \
-"Constant output value", 4319, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 4279, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.control.supCtrlTheVal[1].uSupDeAct.y", \
-"Connector of Real output signal", 4320, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 4280, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4321, 2, 1.0,4.0,0.0,0,517)
+ 4281, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4322, 2, 1.0,4.0,0.0,0,517)
+ 4282, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4323, 2, 1.0,4.0,0.0,0,517)
+ 4283, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4324, 2, 1.0,4.0,0.0,0,517)
+ 4284, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.p_start", "Start value of pressure [Pa|bar]",\
- 4325, 300000, 0.0,100000000.0,100000.0,0,513)
+ 4285, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.T_start", "Start value of temperature [K|degC]",\
- 4326, 293.15, 1.0,10000.0,300.0,0,513)
+ 4286, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.distribution.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 4327, 0.0, 0.0,1.0,0.1,0,513)
+ 4287, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.distribution.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 4328, 1.0, 1.0,1E+100,0.0,0,513)
+ 4288, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.wrongEnergyMassBalanceConfiguration", \
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4329, false, 0.0,0.0,0.0,0,2563)
+ 4289, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 4330, false, 0.0,0.0,0.0,0,515)
+ 4290, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 4331, true, 0.0,0.0,0.0,0,515)
+ 4291, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 4332, false, 0.0,0.0,0.0,0,515)
+ 4292, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.rho", "Density of medium / fluid in heat distribution system [kg/m3|g/cm3]",\
- 4333, 995.586, 0.0,1E+100,0.0,0,513)
+ 4293, 995.586, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.cp", "Specific heat capacaity of medium / fluid in heat distribution system [J/(kg.K)]",\
- 4334, 4184.0, 0.0,0.0,0.0,0,513)
+ 4294, 4184.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.sta_nominal.p", "Absolute pressure of medium [Pa|bar]",\
- 1196, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1202, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.distribution.sta_nominal.T", "Temperature of medium [K|degC]",\
- 1197, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1203, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.distribution.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 4335, 1, 1.0,1E+100,0.0,0,517)
+ 4295, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.distribution.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 4336, 1, 1.0,1E+100,0.0,0,517)
+ 4296, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.distribution.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 4337, 288.15, 0.0,1E+100,300.0,0,513)
+ 4297, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.TSupOld_design[1]", "Old design supply temperature [K|degC]",\
- 4338, 288.15, 0.0,1E+100,300.0,0,513)
+ 4298, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 4339, 0.0, 0.0,0.0,0.0,0,513)
+ 4299, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.dTTraOld_design[1]", "Old design temperature difference for heat transfer [K,]",\
- 4340, 0.0, 0.0,0.0,0.0,0,513)
+ 4300, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 4341, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 4301, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.mOld_flow_design[1]", "Old design mass flow rate of old design [kg/s]",\
- 4342, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 4302, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 4343, 0.0, 0.0,0.0,0.0,0,513)
+ 4303, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 1198, 0, 0.0,0.0,0.0,0,560)
+ 1204, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.f_design[1]", "Factor for oversizing due to heat losses",\
- 1199, 1, 0.0,0.0,0.0,0,560)
+ 1205, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.QLoss_flow_nominal[1]", "Nominal heat flow rate due to heat losses [W]",\
- 4344, 0.0, 0.0,0.0,0.0,0,513)
+ 4304, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 4345, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 4305, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.QOld_flow_design[1]", "Old design heat flow rate [W]",\
- 4346, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 4306, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 4347, 262.65, 0.0,1E+100,300.0,0,513)
+ 4307, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 4348, 328.15, 0.0,1E+100,300.0,0,513)
+ 4308, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.TDemOld_design[1]", "Old design demand temperature [K|degC]",\
- 4349, 328.15, 0.0,1E+100,300.0,0,513)
+ 4309, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.TAmb", "Ambient temperature of system. Used to calculate default heat loss. [K|degC]",\
- 4350, 294.15, 0.0,1E+100,300.0,0,513)
+ 4310, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.Q_flow_design[1]", "Nominal design heat flow rate [W]",\
- 4351, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 4311, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.m_flow_design[1]", "Nominal design mass flow rate [kg/s]",\
- 4352, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 4312, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.dTTra_design[1]", "Nominal design temperature difference for heat transfer [K,]",\
- 4353, 0.0, 0.0,0.0,0.0,0,513)
+ 4313, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.dp_design[1]", "Nominal design pressure difference at m_flow_design [Pa|bar]",\
- 4354, 0.0, 0.0,0.0,0.0,0,513)
+ 4314, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.mDHW_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 4355, 0.1, 1E-15,1E+100,0.0,0,513)
+ 4315, 0.1, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.dpDHW_nominal", "Nominal pressure drop of DHW [Pa|bar]",\
- 4356, 0, 0.0,0.0,0.0,0,513)
+ 4316, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.QDHW_flow_nominal", "Nominal heat flow rate to DHW [W]",\
- 4357, 1E-15, 1E-15,1E+100,0.0,0,513)
+ 4317, 1E-15, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.QDHWBefSto_flow_nominal", \
"Nominal heat flow rate to DHW before the storage. Used to design the size of heat generation devices if a storage is used. [W]",\
- 4358, 850.8057654170559, 1E-15,1E+100,0.0,0,513)
+ 4318, 850.8057654170559, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.TDHW_nominal", "Nominal DHW temperature [K|degC]",\
- 4359, 323.15, 0.0,1E+100,300.0,0,513)
+ 4319, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.dTTraDHW_nominal", "Nominal temperature difference to transfer heat to DHW [K,]",\
- 4360, 0.0, 0.0,0.0,0.0,0,513)
+ 4320, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.VDHWDay", "Daily volume of DHW tapping [m3]",\
- 4361, 0.123417, 1E-15,1E+100,0.0,0,513)
+ 4321, 0.123417, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.TDHWCold_nominal", "DHW cold city water [K|degC]",\
- 4362, 288.15, 0.0,1E+100,300.0,0,513)
+ 4322, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.designType", "Design according to EN 15450 [:#(type=BESMod.Systems.Hydraulical.Distribution.Types.DHWDesignType)]",\
- 4363, 2, 1.0,3.0,0.0,0,517)
+ 4323, 2, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.QDHWStoLoss_flow", "Losses of DHW storage [W]",\
- 4364, 45.185565417055784, 0.0,0.0,0.0,0,513)
+ 4324, 45.185565417055784, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.tCrit", "Time for critical period. Based on EN 15450 [s|h]",\
- 4365, 3600, 0.0,0.0,0.0,0,513)
+ 4325, 3600, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.QCrit", "Energy demand in kWh during critical period. Based on EN 15450",\
- 4366, 2.24, 0.0,0.0,0.0,0,513)
+ 4326, 2.24, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.fFullSto", "Oversize the DHW storage by this factor if full storage is used according to EN 15450",\
- 1200, 2, 0.0,0.0,0.0,0,560)
-DeclareVariable("hydraulic.distribution.VStoDHW", "Volume of DHW storage [m3]", 4367,\
+ 1206, 2, 0.0,0.0,0.0,0,560)
+DeclareVariable("hydraulic.distribution.VStoDHW", "Volume of DHW storage [m3]", 4327,\
0.123417, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.use_dhw", "=false to disable DHW [:#(type=Boolean)]",\
- 4368, true, 0.0,0.0,0.0,0,515)
+ 4328, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.mSup_flow_nominal[1]", "Nominal mass flow rate of system supplying the distribution [kg/s]",\
- 4369, 0.3379347183446045, 1E-15,1E+100,0.0,0,513)
+ 4329, 0.3379347183446045, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.mSupOld_flow_design[1]", \
-"Old design mass flow rate of system supplying the distribution [kg/s]", 4370, \
+"Old design mass flow rate of system supplying the distribution [kg/s]", 4330, \
1E-15, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.mSup_flow_design[1]", "Design mass flow rate of system supplying the distribution [kg/s]",\
- 4371, 0.3379347183446045, 1E-15,1E+100,0.0,0,513)
+ 4331, 0.3379347183446045, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.mDem_flow_nominal[1]", "Nominal mass flow rate of demand system of the distribution [kg/s]",\
- 4372, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 4332, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.mDemOld_flow_design[1]", \
-"Old design mass flow rate of demand system of the distribution [kg/s]", 4373, \
+"Old design mass flow rate of demand system of the distribution [kg/s]", 4333, \
0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.mDem_flow_design[1]", "Design mass flow rate of demand system of the distribution [kg/s]",\
- 4374, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 4334, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.dpSup_nominal[1]", "Nominal pressure loss of resistances connected to the supply system of the distribution [Pa|bar]",\
- 4375, 4000.0, 0.0,0.0,0.0,0,513)
+ 4335, 4000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.dpSupOld_design[1]", "Old design pressure loss of resistances connected to the supply system of the distribution [Pa|bar]",\
- 4376, 4000.0, 0.0,0.0,0.0,0,513)
+ 4336, 4000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.dpDem_nominal[1]", "Nominal pressure loss of resistances connected to the demand system of the distribution [Pa|bar]",\
- 4377, 0, 0.0,0.0,0.0,0,513)
+ 4337, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.dpDemOld_design[1]", "Old design pressure loss of resistances connected to the demand system of the distribution [Pa|bar]",\
- 4378, 0.0, 0.0,0.0,0.0,0,513)
+ 4338, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.portGen_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.distribution.portGen_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.portGen_out[1].p", 1, 5, 8337, 4)
+ "hydraulic.generation.portGen_out[1].p", 1, 5, 8297, 4)
DeclareVariable("hydraulic.distribution.portGen_in[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9254, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9223, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.portGen_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.generation.portGen_in[1].m_flow", -1, 5, 8338, 132)
+ "hydraulic.generation.portGen_in[1].m_flow", -1, 5, 8298, 132)
DeclareAlias2("hydraulic.distribution.portGen_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 4)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 4)
DeclareVariable("hydraulic.distribution.portGen_out[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9255, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9224, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareVariable("hydraulic.distribution.portBui_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 9256, 0, -100000.0,100000.0,0.0,0,776)
+ 9225, 0, -100000.0,100000.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.portBui_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.distribution.portBui_out[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9257, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9226, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.portBui_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.portBui_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.distribution.portBui_in[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9258, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9227, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.portDHW_out.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 132)
+ "DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.portDHW_out.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareAlias2("hydraulic.distribution.portDHW_out.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 4)
+ "hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 4)
DeclareAlias2("hydraulic.distribution.portDHW_in.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 132)
+ "DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.portDHW_in.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareAlias2("hydraulic.distribution.portDHW_in.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 4)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 4)
DeclareAlias2("hydraulic.distribution.sigBusDistr.TStoDHWBotMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.distribution.sigBusDistr.TStoDHWTopMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareAlias2("hydraulic.distribution.sigBusDistr.TStoBufBotMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.distribution.sigBusDistr.TStoBufTopMea", \
-"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Value of Real output [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareAlias2("hydraulic.distribution.sigBusDistr.uThrWayVal", "Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)",\
- "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 4)
+ "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 4)
DeclareAlias2("hydraulic.distribution.outBusDist.QDHWLos_flow.value", \
"Current value [W]", "outputs.hydraulic.dis.QDHWLos_flow.value", 1, 3, 8, 4)
DeclareAlias2("hydraulic.distribution.outBusDist.QDHWLos_flow.integral", \
@@ -44966,1910 +45006,1883 @@ DeclareAlias2("hydraulic.distribution.outBusDist.QBufLos_flow.integral", \
1, 57, 4)
DeclareVariable("hydraulic.distribution.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 4379, 0, 0.0,0.0,0.0,0,521)
+ 4339, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.distribution.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 4380, 0, 0.0,0.0,0.0,0,521)
+ 4340, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.distribution.use_old_design[1]", "If true, design parameters of the building with no retrofit (old state) are used [:#(type=Boolean)]",\
- 4381, false, 0.0,0.0,0.0,0,515)
+ 4341, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.n", "number of layers [:#(type=Integer)]",\
- 4382, 4, 3.0,1E+100,0.0,0,517)
-DeclareVariable("hydraulic.distribution.stoDHW.d", "storage diameter [m]", 4383,\
+ 4342, 4, 3.0,1E+100,0.0,0,517)
+DeclareVariable("hydraulic.distribution.stoDHW.d", "storage diameter [m]", 4343,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.h", "storage height [m]", 4384, \
+DeclareVariable("hydraulic.distribution.stoDHW.h", "storage height [m]", 4344, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.lambda_ins", "thermal conductivity of insulation [W/(m.K)]",\
- 4385, 0.0, 0.0,0.0,0.0,0,513)
+ 4345, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.s_ins", "thickness of insulation [m]",\
- 4386, 0.0, 0.0,0.0,0.0,0,513)
+ 4346, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.hConIn", "Iinternal heat transfer coefficient [W/(m2.K)]",\
- 4387, 0.0, 0.0,0.0,0.0,0,513)
+ 4347, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.hConOut", "External heat transfer coefficient [W/(m2.K)]",\
- 4388, 0.0, 0.0,0.0,0.0,0,513)
+ 4348, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.V_HE", "heat exchanger volume [m3]",\
- 4389, 0.0, 0.0,0.0,0.0,0,513)
+ 4349, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.k_HE", "heat exchanger heat transfer coefficient [W/(m2.K)]",\
- 4390, 0.0, 0.0,0.0,0.0,0,513)
+ 4350, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.A_HE", "heat exchanger area [m2]",\
- 4391, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.beta", "[1/K]", 4392, 0.0, \
+ 4351, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.distribution.stoDHW.beta", "[1/K]", 4352, 0.0, \
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.kappa", "", 4393, 0.0, 0.0,0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.kappa", "", 4353, 0.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.m_flow_nominal_layer", \
-"Nominal mass flow rate in layers [kg/s]", 4394, 0.1, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate in layers [kg/s]", 4354, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.m_flow_nominal_HE", \
-"Nominal mass flow rate of heat exchanger layers [kg/s]", 4395, 0.3379347183446045,\
+"Nominal mass flow rate of heat exchanger layers [kg/s]", 4355, 0.3379347183446045,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.use_TOut", "Use temperature real outputs [:#(type=Boolean)]",\
- 4396, true, 0.0,0.0,0.0,0,515)
+ 4356, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state in layers and layers_HE [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4397, 2, 1.0,4.0,0.0,0,517)
+ 4357, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.T_start[1]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4398, 323.15, 0.0,1E+100,300.0,0,513)
+ 4358, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.T_start[2]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4399, 323.15, 0.0,1E+100,300.0,0,513)
+ 4359, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.T_start[3]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4400, 323.15, 0.0,1E+100,300.0,0,513)
+ 4360, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.T_start[4]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4401, 323.15, 0.0,1E+100,300.0,0,513)
+ 4361, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.p_start", "Start value of pressure [Pa|bar]",\
- 4402, 100000.0, 0.0,100000000.0,100000.0,0,513)
+ 4362, 100000.0, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.m_flow_small_layer", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4403, 1E-05, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4363, 1E-05, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.m_flow_small_layer_HE", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4404, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4364, \
3.379347183446045E-05, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.port_a_consumer.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 132)
+"DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.port_a_consumer.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.port_a_consumer.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 4)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.port_b_consumer.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 132)
+"DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.port_b_consumer.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.port_b_consumer.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 4)
+ "hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 4)
DeclareVariable("hydraulic.distribution.stoDHW.heatPort.T", "Port temperature [K|degC]",\
- 4405, 294.15, 0.0,1E+100,300.0,0,521)
+ 4365, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoDHW.heatPort.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
"outputs.hydraulic.dis.QDHWLos_flow.value", -1, 3, 8, 132)
DeclareVariable("hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 8452, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 8415, 0, \
-100000.0,100000.0,0.0,0,904)
DeclareAlias2("hydraulic.distribution.stoDHW.port_b_heatGenerator.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9259, 209200.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9228, 209200.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.stoDHW.port_a_heatGenerator.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.port_a_heatGenerator.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9260, 209200.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9229, 209200.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer[1]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 0)
+ "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer[2]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268, 0)
+ "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer[3]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276, 0)
+ "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer[4]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 0)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer_HE[1]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5, 9289, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5, 9258, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer_HE[2]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5, 9297, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5, 9266, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer_HE[3]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5, 9305, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5, 9274, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.TLayer_HE[4]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5, 9312, 0)
-DeclareVariable("hydraulic.distribution.stoDHW.V", "[m3]", 4406, 0.0, 0.0,0.0,\
+ "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5, 9281, 0)
+DeclareVariable("hydraulic.distribution.stoDHW.V", "[m3]", 4366, 0.0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoDHW.A", "[m2]", 4407, 0.0, 0.0,0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.A", "[m2]", 4367, 0.0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoDHW.dx", "[m]", 4408, 0.0, 0.0,0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.dx", "[m]", 4368, 0.0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoDHW.G_middle", "[W/K]", 4409, 0.0, \
+DeclareVariable("hydraulic.distribution.stoDHW.G_middle", "[W/K]", 4369, 0.0, \
0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoDHW.G_top_bottom", "[W/K]", 4410, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.G_top_bottom", "[W/K]", 4370, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4411, 2, 1.0,4.0,0.0,0,517)
+ 4371, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4412, 2, 1.0,4.0,0.0,0,517)
+ 4372, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4413, 2, 1.0,4.0,0.0,0,517)
+ 4373, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4414, 2, 1.0,4.0,0.0,0,517)
+ 4374, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].p_start", \
-"Start value of pressure [Pa|bar]", 4415, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4375, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].T_start", \
-"Start value of temperature [K|degC]", 4416, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4376, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer[1].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1201, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1207, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4417, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4377, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4418, false, 0.0,0.0,0.0,0,2563)
+ 4378, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4419, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4379, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4420, false, 0.0,0.0,0.0,0,515)
+ 4380, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4421, true, 0.0,0.0,0.0,0,515)
+ 4381, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4422, 0.1, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4382, 0.1, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].nPorts", \
-"Number of ports [:#(type=Integer)]", 4423, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4383, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4424, 1E-05, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 4384, 1E-05, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4425, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer[1].V", "Volume [m3]", 4426,\
+ 4385, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer[1].V", "Volume [m3]", 4386,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 132)
+"DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 4)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 132)
+"DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 4)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].T", "Temperature of the fluid [K|degC]",\
- "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 0)
+ "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer[1].dynBal.U", 1, 1, 40, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].p", "Pressure of the fluid [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer[1].dynBal.m", 1, 5, 4456, 0)
+ "hydraulic.distribution.stoDHW.layer[1].dynBal.m", 1, 5, 4416, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4427, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4387, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4428, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4388, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].state_default.T", \
-"Temperature of medium [K|degC]", 4429, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4389, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4430, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4390, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4431, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4391, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].state_start.T", \
-"Temperature of medium [K|degC]", 4432, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4392, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4433, false, 0.0,0.0,0.0,0,2563)
+ 4393, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 1024)
+"hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1, 5, 9261, 1156)
+"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1, 5, 9230, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].preTem.T", "[K]", \
-"hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 1024)
+"hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].portT.y", "Value of Real output",\
- "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433, 1024)
+ "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1,\
- 5, 9261, 1024)
+ 5, 9230, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1, 5, 9261, 1156)
+"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1, 5, 9230, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", -1, 5, 9261, 1156)
+"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", -1, 5, 9230, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4434,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4394,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9261,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9230,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4435, 2, 1.0,4.0,0.0,0,2565)
+ 4395, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4436, 2, 1.0,4.0,0.0,0,2565)
+ 4396, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4437, 2, 1.0,4.0,0.0,0,2565)
+ 4397, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4438, 2, 1.0,4.0,0.0,0,2565)
+ 4398, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4439, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4399, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4440, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4400, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4441, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4401, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4442, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4402, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4443, false, 0.0,0.0,0.0,0,2563)
+ 4403, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4444, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4404, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4445, true, 0.0,0.0,0.0,0,2563)
+ 4405, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4446, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4406, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4447, false, 0.0,0.0,0.0,0,2563)
+ 4407, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4448,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4408,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1, 5, 9261, 1024)
+"hydraulic.distribution.stoDHW.layer[1].heatPort.Q_flow", 1, 5, 9230, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.portDHW_in.h_outflow", 1,\
- 5, 9527, 1024)
+ 5, 9496, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer[1].dynBal.U", 1,\
1, 40, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer[1].dynBal.m", 1,\
- 5, 4456, 1024)
+ 5, 4416, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1156)
+"DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 1028)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 1156)
+"DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_in.h_outflow", 1, 5, 9527, 1028)
+ "hydraulic.portDHW_in.h_outflow", 1, 5, 9496, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4449, false, 0.0,0.0,0.0,0,2563)
+ 4409, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4450, true, 0.0,0.0,0.0,0,2563)
+ 4410, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4451, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4411, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9262, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9231, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.h", \
-"Specific enthalpy of medium [J/kg]", "hydraulic.portDHW_in.h_outflow", 1, 5, 9527,\
+"Specific enthalpy of medium [J/kg]", "hydraulic.portDHW_in.h_outflow", 1, 5, 9496,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.portDHW_in.h_outflow", 1,\
- 5, 9527, 1024)
+ 5, 9496, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4452, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4412, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4453, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4413, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4454, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4414, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T", 1,\
- 5, 9262, 1024)
+ 5, 9231, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9263, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9232, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 4455, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 4415, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer[1].dynBal.U", "Internal energy of fluid [J]",\
40, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer[1].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 40, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.m", \
-"Mass of fluid [kg]", 4456, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4416, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4457, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4417, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4458, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4418, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9264, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9233, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.fluidVolume", \
-"Volume [m3]", 4459, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4419, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4460, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4420, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.ports_H_flow[1]",\
- "[W]", 9265, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9234, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.ports_H_flow[2]",\
- "[W]", 9266, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9235, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4461, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4421, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4462, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4422, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4463, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4423, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4464, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4424, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4465, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4425, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4466, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4426, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4467, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4427, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4468, false, 0.0,0.0,0.0,0,2563)
+ 4428, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[1].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4469, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4429, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4470, 2, 1.0,4.0,0.0,0,517)
+ 4430, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4471, 2, 1.0,4.0,0.0,0,517)
+ 4431, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4472, 2, 1.0,4.0,0.0,0,517)
+ 4432, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4473, 2, 1.0,4.0,0.0,0,517)
+ 4433, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].p_start", \
-"Start value of pressure [Pa|bar]", 4474, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4434, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].T_start", \
-"Start value of temperature [K|degC]", 4475, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4435, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer[2].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1202, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1208, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4476, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4436, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4477, false, 0.0,0.0,0.0,0,2563)
+ 4437, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4478, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4438, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4479, false, 0.0,0.0,0.0,0,515)
+ 4439, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4480, true, 0.0,0.0,0.0,0,515)
+ 4440, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4481, 0.1, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4441, 0.1, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].nPorts", \
-"Number of ports [:#(type=Integer)]", 4482, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4442, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4483, 1E-05, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 4443, 1E-05, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4484, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer[2].V", "Volume [m3]", 4485,\
+ 4444, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer[2].V", "Volume [m3]", 4445,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 132)
+"DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9267, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9236, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 132)
+"DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9267, 4)
+ "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9236, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].T", "Temperature of the fluid [K|degC]",\
- 9268, 323.15, 1.0,10000.0,300.0,0,512)
+ 9237, 323.15, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer[2].dynBal.U", 1, 1, 41, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].p", "Pressure of the fluid [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer[2].dynBal.m", 1, 5, 4515, 0)
+ "hydraulic.distribution.stoDHW.layer[2].dynBal.m", 1, 5, 4475, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4486, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4446, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4487, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4447, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].state_default.T", \
-"Temperature of medium [K|degC]", 4488, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4448, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4489, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4449, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4490, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4450, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].state_start.T", \
-"Temperature of medium [K|degC]", 4491, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4451, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4492, false, 0.0,0.0,0.0,0,2563)
+ 4452, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9267, 1024)
+"hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9236, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1, 5, 9269, 1156)
+"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1, 5, 9238, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].preTem.T", "[K]", \
-"hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268, 1024)
+"hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].portT.y", "Value of Real output",\
- "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268, 1024)
+ "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1,\
- 5, 9269, 1024)
+ 5, 9238, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1, 5, 9269, 1156)
+"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1, 5, 9238, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", -1, 5, 9269, 1156)
+"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", -1, 5, 9238, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4493,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4453,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9269,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9238,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4494, 2, 1.0,4.0,0.0,0,2565)
+ 4454, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4495, 2, 1.0,4.0,0.0,0,2565)
+ 4455, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4496, 2, 1.0,4.0,0.0,0,2565)
+ 4456, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4497, 2, 1.0,4.0,0.0,0,2565)
+ 4457, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4498, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4458, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4499, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4459, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4500, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4460, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4501, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4461, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4502, false, 0.0,0.0,0.0,0,2563)
+ 4462, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4503, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4463, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4504, true, 0.0,0.0,0.0,0,2563)
+ 4464, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4505, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4465, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4506, false, 0.0,0.0,0.0,0,2563)
+ 4466, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4507,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4467,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1, 5, 9269, 1024)
+"hydraulic.distribution.stoDHW.layer[2].heatPort.Q_flow", 1, 5, 9238, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1,\
- 5, 9267, 1024)
+ 5, 9236, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer[2].dynBal.U", 1,\
1, 41, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer[2].dynBal.m", 1,\
- 5, 4515, 1024)
+ 5, 4475, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1156)
+"DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9267, 1028)
+ "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9236, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 1156)
+"DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9267, 1028)
+ "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1, 5, 9236, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4508, false, 0.0,0.0,0.0,0,2563)
+ 4468, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4509, true, 0.0,0.0,0.0,0,2563)
+ 4469, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4510, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4470, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9270, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9239, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1,\
- 5, 9267, 1024)
+ 5, 9236, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer[2].ports[1].h_outflow", 1,\
- 5, 9267, 1024)
+ 5, 9236, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4511, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4471, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4512, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4472, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4513, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4473, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T", 1,\
- 5, 9270, 1024)
+ 5, 9239, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9271, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9240, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 4514, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 4474, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer[2].dynBal.U", "Internal energy of fluid [J]",\
41, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer[2].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 41, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.m", \
-"Mass of fluid [kg]", 4515, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4475, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4516, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4476, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4517, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4477, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9272, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9241, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.fluidVolume", \
-"Volume [m3]", 4518, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4478, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4519, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4479, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.ports_H_flow[1]",\
- "[W]", 9273, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9242, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.ports_H_flow[2]",\
- "[W]", 9274, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9243, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4520, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4480, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4521, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4481, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4522, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4482, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4523, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4483, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4524, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4484, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4525, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4485, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4526, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4486, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4527, false, 0.0,0.0,0.0,0,2563)
+ 4487, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[2].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4528, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4488, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4529, 2, 1.0,4.0,0.0,0,517)
+ 4489, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4530, 2, 1.0,4.0,0.0,0,517)
+ 4490, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4531, 2, 1.0,4.0,0.0,0,517)
+ 4491, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4532, 2, 1.0,4.0,0.0,0,517)
+ 4492, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].p_start", \
-"Start value of pressure [Pa|bar]", 4533, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4493, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].T_start", \
-"Start value of temperature [K|degC]", 4534, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4494, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer[3].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1203, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1209, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4535, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4495, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4536, false, 0.0,0.0,0.0,0,2563)
+ 4496, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4537, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4497, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4538, false, 0.0,0.0,0.0,0,515)
+ 4498, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4539, true, 0.0,0.0,0.0,0,515)
+ 4499, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4540, 0.1, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4500, 0.1, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].nPorts", \
-"Number of ports [:#(type=Integer)]", 4541, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4501, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4542, 1E-05, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 4502, 1E-05, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4543, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer[3].V", "Volume [m3]", 4544,\
+ 4503, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer[3].V", "Volume [m3]", 4504,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 132)
+"DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9275, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9244, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 132)
+"DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9275, 4)
+ "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9244, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].T", "Temperature of the fluid [K|degC]",\
- 9276, 323.15, 1.0,10000.0,300.0,0,512)
+ 9245, 323.15, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer[3].dynBal.U", 1, 1, 42, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].p", "Pressure of the fluid [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer[3].dynBal.m", 1, 5, 4574, 0)
+ "hydraulic.distribution.stoDHW.layer[3].dynBal.m", 1, 5, 4534, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4545, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4505, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4546, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4506, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].state_default.T", \
-"Temperature of medium [K|degC]", 4547, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4507, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4548, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4508, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4549, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4509, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].state_start.T", \
-"Temperature of medium [K|degC]", 4550, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4510, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4551, false, 0.0,0.0,0.0,0,2563)
+ 4511, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9275, 1024)
+"hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9244, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1, 5, 9277, 1156)
+"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1, 5, 9246, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].preTem.T", "[K]", \
-"hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276, 1024)
+"hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].portT.y", "Value of Real output",\
- "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276, 1024)
+ "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1,\
- 5, 9277, 1024)
+ 5, 9246, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1, 5, 9277, 1156)
+"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1, 5, 9246, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", -1, 5, 9277, 1156)
+"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", -1, 5, 9246, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4552,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4512,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9277,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9246,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4553, 2, 1.0,4.0,0.0,0,2565)
+ 4513, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4554, 2, 1.0,4.0,0.0,0,2565)
+ 4514, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4555, 2, 1.0,4.0,0.0,0,2565)
+ 4515, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4556, 2, 1.0,4.0,0.0,0,2565)
+ 4516, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4557, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4517, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4558, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4518, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4559, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4519, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4560, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4520, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4561, false, 0.0,0.0,0.0,0,2563)
+ 4521, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4562, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4522, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4563, true, 0.0,0.0,0.0,0,2563)
+ 4523, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4564, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4524, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4565, false, 0.0,0.0,0.0,0,2563)
+ 4525, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4566,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4526,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1, 5, 9277, 1024)
+"hydraulic.distribution.stoDHW.layer[3].heatPort.Q_flow", 1, 5, 9246, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1,\
- 5, 9275, 1024)
+ 5, 9244, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer[3].dynBal.U", 1,\
1, 42, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer[3].dynBal.m", 1,\
- 5, 4574, 1024)
+ 5, 4534, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1156)
+"DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9275, 1028)
+ "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9244, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 1156)
+"DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9275, 1028)
+ "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1, 5, 9244, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4567, false, 0.0,0.0,0.0,0,2563)
+ 4527, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4568, true, 0.0,0.0,0.0,0,2563)
+ 4528, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4569, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4529, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9278, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9247, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1,\
- 5, 9275, 1024)
+ 5, 9244, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer[3].ports[1].h_outflow", 1,\
- 5, 9275, 1024)
+ 5, 9244, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4570, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4530, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4571, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4531, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4572, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4532, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T", 1,\
- 5, 9278, 1024)
+ 5, 9247, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9279, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9248, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 4573, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 4533, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer[3].dynBal.U", "Internal energy of fluid [J]",\
42, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer[3].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 42, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.m", \
-"Mass of fluid [kg]", 4574, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4534, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4575, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4535, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4576, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4536, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9280, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9249, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.fluidVolume", \
-"Volume [m3]", 4577, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4537, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4578, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4538, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.ports_H_flow[1]",\
- "[W]", 9281, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9250, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.ports_H_flow[2]",\
- "[W]", 9282, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9251, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4579, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4539, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4580, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4540, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4581, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4541, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4582, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4542, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4583, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4543, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4584, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4544, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4585, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4545, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4586, false, 0.0,0.0,0.0,0,2563)
+ 4546, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[3].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4587, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4547, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4588, 2, 1.0,4.0,0.0,0,517)
+ 4548, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4589, 2, 1.0,4.0,0.0,0,517)
+ 4549, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4590, 2, 1.0,4.0,0.0,0,517)
+ 4550, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4591, 2, 1.0,4.0,0.0,0,517)
+ 4551, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].p_start", \
-"Start value of pressure [Pa|bar]", 4592, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4552, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].T_start", \
-"Start value of temperature [K|degC]", 4593, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4553, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer[4].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1204, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1210, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4594, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4554, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4595, false, 0.0,0.0,0.0,0,2563)
+ 4555, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4596, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4556, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4597, false, 0.0,0.0,0.0,0,515)
+ 4557, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4598, true, 0.0,0.0,0.0,0,515)
+ 4558, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4599, 0.1, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4559, 0.1, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].nPorts", \
-"Number of ports [:#(type=Integer)]", 4600, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4560, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4601, 1E-05, 0.0,\
+"Small mass flow rate for regularization of zero flow [kg/s]", 4561, 1E-05, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4602, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer[4].V", "Volume [m3]", 4603,\
+ 4562, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer[4].V", "Volume [m3]", 4563,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 132)
+"DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 4)
+ "hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 132)
+"DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 4)
+ "hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].T", "Temperature of the fluid [K|degC]",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 0)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer[4].dynBal.U", 1, 1, 43, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].p", "Pressure of the fluid [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer[4].dynBal.m", 1, 5, 4633, 0)
+ "hydraulic.distribution.stoDHW.layer[4].dynBal.m", 1, 5, 4593, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4604, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4564, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4605, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4565, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].state_default.T", \
-"Temperature of medium [K|degC]", 4606, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4566, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4607, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4567, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4608, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4568, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].state_start.T", \
-"Temperature of medium [K|degC]", 4609, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4569, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4610, false, 0.0,0.0,0.0,0,2563)
+ 4570, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 1024)
+"hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1, 5, 9283, 1156)
+"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1, 5, 9252, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].preTem.T", "[K]", \
-"hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 1024)
+"hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].portT.y", "Value of Real output",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 1024)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1,\
- 5, 9283, 1024)
+ 5, 9252, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1, 5, 9283, 1156)
+"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1, 5, 9252, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", -1, 5, 9283, 1156)
+"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", -1, 5, 9252, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4611,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4571,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9283,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9252,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4612, 2, 1.0,4.0,0.0,0,2565)
+ 4572, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4613, 2, 1.0,4.0,0.0,0,2565)
+ 4573, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4614, 2, 1.0,4.0,0.0,0,2565)
+ 4574, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4615, 2, 1.0,4.0,0.0,0,2565)
+ 4575, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4616, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4576, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4617, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4577, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4618, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4578, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4619, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4579, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4620, false, 0.0,0.0,0.0,0,2563)
+ 4580, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4621, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4581, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4622, true, 0.0,0.0,0.0,0,2563)
+ 4582, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4623, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4583, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4624, false, 0.0,0.0,0.0,0,2563)
+ 4584, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4625,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4585,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1, 5, 9283, 1024)
+"hydraulic.distribution.stoDHW.layer[4].heatPort.Q_flow", 1, 5, 9252, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.portDHW_out.h_outflow", 1,\
- 5, 9526, 1024)
+ 5, 9495, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer[4].dynBal.U", 1,\
1, 43, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer[4].dynBal.m", 1,\
- 5, 4633, 1024)
+ 5, 4593, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", 1, 5, 9021, 1156)
+"DHW.port_a.m_flow", 1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 1028)
+ "hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"DHW.port_a.m_flow", -1, 5, 9021, 1156)
+"DHW.port_a.m_flow", -1, 5, 8984, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "DHW.bou_sink.p", 1, 5,\
1470, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.portDHW_out.h_outflow", 1, 5, 9526, 1028)
+ "hydraulic.portDHW_out.h_outflow", 1, 5, 9495, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4626, false, 0.0,0.0,0.0,0,2563)
+ 4586, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4627, true, 0.0,0.0,0.0,0,2563)
+ 4587, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4628, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4588, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9284, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9253, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.h", \
-"Specific enthalpy of medium [J/kg]", "hydraulic.portDHW_out.h_outflow", 1, 5, 9526,\
+"Specific enthalpy of medium [J/kg]", "hydraulic.portDHW_out.h_outflow", 1, 5, 9495,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.portDHW_out.h_outflow", 1,\
- 5, 9526, 1024)
+ 5, 9495, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4629, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4589, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4630, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4590, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4631, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4591, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "DHW.bou_sink.p", 1, 5, 1470, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T", 1,\
- 5, 9284, 1024)
+ 5, 9253, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9285, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9254, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 4632, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 4592, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer[4].dynBal.U", "Internal energy of fluid [J]",\
43, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer[4].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 43, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.m", \
-"Mass of fluid [kg]", 4633, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4593, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4634, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4594, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4635, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4595, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9286, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9255, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.fluidVolume", \
-"Volume [m3]", 4636, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4596, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4637, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4597, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.ports_H_flow[1]",\
- "[W]", 9287, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9256, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.ports_H_flow[2]",\
- "[W]", 9288, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9257, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4638, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4598, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4639, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4599, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4640, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4600, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4641, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4601, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4642, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4602, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4643, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4603, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4644, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4604, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4645, false, 0.0,0.0,0.0,0,2563)
+ 4605, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer[4].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4646, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4606, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4647, 2, 1.0,4.0,0.0,0,517)
+ 4607, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4648, 2, 1.0,4.0,0.0,0,517)
+ 4608, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4649, 2, 1.0,4.0,0.0,0,517)
+ 4609, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4650, 2, 1.0,4.0,0.0,0,517)
+ 4610, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].p_start", \
-"Start value of pressure [Pa|bar]", 4651, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4611, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].T_start", \
-"Start value of temperature [K|degC]", 4652, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4612, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer_HE[1].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1205, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1211, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4653, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4613, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4654, false, 0.0,0.0,0.0,0,2563)
+ 4614, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4655, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4615, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4656, false, 0.0,0.0,0.0,0,515)
+ 4616, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4657, true, 0.0,0.0,0.0,0,515)
+ 4617, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4658, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4618, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].nPorts", \
-"Number of ports [:#(type=Integer)]", 4659, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4619, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4660, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4620, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4661, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].V", "Volume [m3]", 4662,\
+ 4621, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].V", "Volume [m3]", 4622,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9259, 4)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9228, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9259, 4)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9228, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].T", "Temperature of the fluid [K|degC]",\
- 9289, 323.15, 1.0,10000.0,300.0,0,512)
+ 9258, 323.15, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer_HE[1].dynBal.U", 1, 1, 44, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m", 1, 5, 4692, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m", 1, 5, 4652, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4663, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4623, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4664, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4624, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].state_default.T", \
-"Temperature of medium [K|degC]", 4665, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4625, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4666, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4626, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4667, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4627, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].state_start.T", \
-"Temperature of medium [K|degC]", 4668, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4628, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4669, false, 0.0,0.0,0.0,0,2563)
+ 4629, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9259, 1024)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9228, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5,\
- 9289, 1028)
+ 9258, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9290, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9259, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].preTem.T", "[K]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5, 9289, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5, 9258, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5, 9289,\
+"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5, 9258,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1,\
- 5, 9290, 1024)
+ 5, 9259, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5,\
- 9289, 1028)
+ 9258, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9290, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9259, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5,\
- 9289, 1028)
+ 9258, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", -1, 5, 9290, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", -1, 5, 9259, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4670,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4630,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5,\
- 9289, 4)
+ 9258, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9290,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9259,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4671, 2, 1.0,4.0,0.0,0,2565)
+ 4631, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4672, 2, 1.0,4.0,0.0,0,2565)
+ 4632, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4673, 2, 1.0,4.0,0.0,0,2565)
+ 4633, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4674, 2, 1.0,4.0,0.0,0,2565)
+ 4634, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4675, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4635, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4676, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4636, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4677, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4637, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4678, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4638, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4679, false, 0.0,0.0,0.0,0,2563)
+ 4639, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 4680, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 4640, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4681, true, 0.0,0.0,0.0,0,2563)
+ 4641, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4682, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4642, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4683, false, 0.0,0.0,0.0,0,2563)
+ 4643, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4684,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4644,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9290, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9259, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1,\
- 5, 9259, 1024)
+ 5, 9228, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer_HE[1].dynBal.U", 1,\
1, 44, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m", 1,\
- 5, 4692, 1024)
+ 5, 4652, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9259, 1028)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9228, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9259, 1028)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1, 5, 9228, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4685, false, 0.0,0.0,0.0,0,2563)
+ 4645, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4686, true, 0.0,0.0,0.0,0,2563)
+ 4646, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4687, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4647, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9291, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9260, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1,\
- 5, 9259, 1024)
+ 5, 9228, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoDHW.port_b_heatGenerator.h_outflow", 1,\
- 5, 9259, 1024)
+ 5, 9228, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4688, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4648, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4689, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4649, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4690, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4650, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T", 1,\
- 5, 9291, 1024)
+ 5, 9260, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9292, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9261, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 4691, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 4651, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.U", \
"Internal energy of fluid [J]", 44, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 44, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.m", \
-"Mass of fluid [kg]", 4692, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4652, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4693, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4653, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4694, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4654, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9293, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9262, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.fluidVolume", \
-"Volume [m3]", 4695, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4655, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4696, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4656, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports_H_flow[1]",\
- "[W]", 9294, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9263, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.ports_H_flow[2]",\
- "[W]", 9295, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9264, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4697, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4657, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4698, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4658, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4699, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4659, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4700, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4660, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4701, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4661, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4702, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4662, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4703, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4663, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4704, false, 0.0,0.0,0.0,0,2563)
+ 4664, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[1].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4705, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4665, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4706, 2, 1.0,4.0,0.0,0,517)
+ 4666, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4707, 2, 1.0,4.0,0.0,0,517)
+ 4667, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4708, 2, 1.0,4.0,0.0,0,517)
+ 4668, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4709, 2, 1.0,4.0,0.0,0,517)
+ 4669, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].p_start", \
-"Start value of pressure [Pa|bar]", 4710, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4670, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].T_start", \
-"Start value of temperature [K|degC]", 4711, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4671, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer_HE[2].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1206, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1212, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4712, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4672, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4713, false, 0.0,0.0,0.0,0,2563)
+ 4673, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4714, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4674, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4715, false, 0.0,0.0,0.0,0,515)
+ 4675, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4716, true, 0.0,0.0,0.0,0,515)
+ 4676, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4717, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4677, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].nPorts", \
-"Number of ports [:#(type=Integer)]", 4718, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4678, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4719, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4679, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4720, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].V", "Volume [m3]", 4721,\
+ 4680, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].V", "Volume [m3]", 4681,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9296, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9265, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9296, 4)
+ "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9265, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].T", "Temperature of the fluid [K|degC]",\
- 9297, 323.15, 1.0,10000.0,300.0,0,512)
+ 9266, 323.15, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer_HE[2].dynBal.U", 1, 1, 45, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m", 1, 5, 4751, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m", 1, 5, 4711, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4722, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4682, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4723, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4683, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].state_default.T", \
-"Temperature of medium [K|degC]", 4724, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4684, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4725, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4685, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4726, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4686, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].state_start.T", \
-"Temperature of medium [K|degC]", 4727, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4687, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4728, false, 0.0,0.0,0.0,0,2563)
+ 4688, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9296, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9265, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5,\
- 9297, 1028)
+ 9266, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9298, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9267, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].preTem.T", "[K]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5, 9297, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5, 9266, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5, 9297,\
+"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5, 9266,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1,\
- 5, 9298, 1024)
+ 5, 9267, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5,\
- 9297, 1028)
+ 9266, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9298, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9267, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5,\
- 9297, 1028)
+ 9266, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", -1, 5, 9298, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", -1, 5, 9267, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4729,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4689,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5,\
- 9297, 4)
+ 9266, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9298,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9267,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4730, 2, 1.0,4.0,0.0,0,2565)
+ 4690, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4731, 2, 1.0,4.0,0.0,0,2565)
+ 4691, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4732, 2, 1.0,4.0,0.0,0,2565)
+ 4692, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4733, 2, 1.0,4.0,0.0,0,2565)
+ 4693, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4734, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4694, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4735, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4695, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4736, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4696, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4737, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4697, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4738, false, 0.0,0.0,0.0,0,2563)
+ 4698, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 4739, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 4699, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4740, true, 0.0,0.0,0.0,0,2563)
+ 4700, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4741, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4701, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4742, false, 0.0,0.0,0.0,0,2563)
+ 4702, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4743,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4703,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9298, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9267, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1,\
- 5, 9296, 1024)
+ 5, 9265, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer_HE[2].dynBal.U", 1,\
1, 45, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m", 1,\
- 5, 4751, 1024)
+ 5, 4711, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9296, 1028)
+ "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9265, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9296, 1028)
+ "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1, 5, 9265, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4744, false, 0.0,0.0,0.0,0,2563)
+ 4704, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4745, true, 0.0,0.0,0.0,0,2563)
+ 4705, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4746, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4706, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9299, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9268, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1,\
- 5, 9296, 1024)
+ 5, 9265, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer_HE[2].ports[1].h_outflow", 1,\
- 5, 9296, 1024)
+ 5, 9265, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4747, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4707, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4748, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4708, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4749, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4709, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T", 1,\
- 5, 9299, 1024)
+ 5, 9268, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9300, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9269, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 4750, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 4710, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.U", \
"Internal energy of fluid [J]", 45, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 45, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.m", \
-"Mass of fluid [kg]", 4751, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4711, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4752, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4712, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4753, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4713, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9301, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9270, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.fluidVolume", \
-"Volume [m3]", 4754, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4714, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4755, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4715, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports_H_flow[1]",\
- "[W]", 9302, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9271, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.ports_H_flow[2]",\
- "[W]", 9303, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9272, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4756, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4716, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4757, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4717, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4758, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4718, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4759, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4719, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4760, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4720, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4761, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4721, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4762, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4722, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4763, false, 0.0,0.0,0.0,0,2563)
+ 4723, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[2].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4764, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4724, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4765, 2, 1.0,4.0,0.0,0,517)
+ 4725, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4766, 2, 1.0,4.0,0.0,0,517)
+ 4726, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4767, 2, 1.0,4.0,0.0,0,517)
+ 4727, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4768, 2, 1.0,4.0,0.0,0,517)
+ 4728, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].p_start", \
-"Start value of pressure [Pa|bar]", 4769, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4729, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].T_start", \
-"Start value of temperature [K|degC]", 4770, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4730, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer_HE[3].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1207, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1213, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4771, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4731, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4772, false, 0.0,0.0,0.0,0,2563)
+ 4732, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4773, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4733, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4774, false, 0.0,0.0,0.0,0,515)
+ 4734, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4775, true, 0.0,0.0,0.0,0,515)
+ 4735, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4776, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4736, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].nPorts", \
-"Number of ports [:#(type=Integer)]", 4777, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4737, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4778, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4738, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4779, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].V", "Volume [m3]", 4780,\
+ 4739, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].V", "Volume [m3]", 4740,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9304, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9273, 209200.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9304, 4)
+ "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9273, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].T", "Temperature of the fluid [K|degC]",\
- 9305, 323.15, 1.0,10000.0,300.0,0,512)
+ 9274, 323.15, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer_HE[3].dynBal.U", 1, 1, 46, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m", 1, 5, 4810, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m", 1, 5, 4770, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4781, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4741, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4782, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4742, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].state_default.T", \
-"Temperature of medium [K|degC]", 4783, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4743, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4784, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4744, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4785, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4745, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].state_start.T", \
-"Temperature of medium [K|degC]", 4786, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4746, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4787, false, 0.0,0.0,0.0,0,2563)
+ 4747, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9304, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9273, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
- 9305, 1028)
+ 9274, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9306, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9275, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].preTem.T", "[K]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5, 9305, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5, 9274, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5, 9305,\
+"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5, 9274,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1,\
- 5, 9306, 1024)
-DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
- 9305, 1028)
-DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_a.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9306, 1156)
-DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
- 9305, 1028)
-DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_b.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", -1, 5, 9306, 1156)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4788,\
- false, 0.0,0.0,0.0,0,515)
-DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
- 9305, 4)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9306,\
- 0.0, 0.0,0.0,0.0,0,776)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.energyDynamics",\
- "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4789, 2, 1.0,4.0,0.0,0,2565)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.massDynamics",\
- "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4790, 2, 1.0,4.0,0.0,0,2565)
+ 5, 9275, 1024)
EndNonAlias(4)
PreNonAliasNew(5)
FuncStartNonAlias(9)
@@ -46878,252 +46891,255 @@ FuncStartNonAlias(9)
#include <dsblock5.c>
DYMOLA_STATIC void UpdateInitVars(double*time, double* X_, double* XD_, double* U_, double* DP_, int IP_[], Dymola_bool LP_[], double* F_, double* Y_, double* W_, double QZ_[], double duser_[], int iuser_[], void*cuser_[],struct DYNInstanceData*did_,int initialCall) {
-if (initialCall) DYNX(did_->xInitial_var, 19)=DYNX(W_,9036);
-else if (DYNHReject) DYNX(W_,9036)=did_->xInitial_var2[19]; else did_->xInitial_var2[19]=
- DYNX(W_,9036);
-if (initialCall) DYNX(did_->xInitial_var, 11)=DYNX(W_,8572);
-else if (DYNHReject) DYNX(W_,8572)=did_->xInitial_var2[11]; else did_->xInitial_var2[11]=
- DYNX(W_,8572);
-if (initialCall) DYNX(did_->xInitial_var, 9)=DYNX(W_,8585);
-else if (DYNHReject) DYNX(W_,8585)=did_->xInitial_var2[9]; else did_->xInitial_var2[9]=
- DYNX(W_,8585);
-if (initialCall) DYNX(did_->xInitial_var, 5)=DYNX(W_,8518);
-else if (DYNHReject) DYNX(W_,8518)=did_->xInitial_var2[5]; else did_->xInitial_var2[5]=
- DYNX(W_,8518);
-if (initialCall) DYNX(did_->xInitial_var, 7)=DYNX(W_,8604);
-else if (DYNHReject) DYNX(W_,8604)=did_->xInitial_var2[7]; else did_->xInitial_var2[7]=
- DYNX(W_,8604);
-if (initialCall) DYNX(did_->xInitial_var, 10)=DYNX(W_,8549);
-else if (DYNHReject) DYNX(W_,8549)=did_->xInitial_var2[10]; else did_->xInitial_var2[10]=
- DYNX(W_,8549);
-if (initialCall) DYNX(did_->xInitial_var, 8)=DYNX(W_,8551);
-else if (DYNHReject) DYNX(W_,8551)=did_->xInitial_var2[8]; else did_->xInitial_var2[8]=
- DYNX(W_,8551);
-if (initialCall) DYNX(did_->xInitial_var, 6)=DYNX(W_,8520);
-else if (DYNHReject) DYNX(W_,8520)=did_->xInitial_var2[6]; else did_->xInitial_var2[6]=
- DYNX(W_,8520);
-if (initialCall) DYNX(did_->xInitial_var, 14)=DYNX(W_,8465);
-else if (DYNHReject) DYNX(W_,8465)=did_->xInitial_var2[14]; else did_->xInitial_var2[14]=
- DYNX(W_,8465);
-if (initialCall) DYNX(did_->xInitial_var, 12)=DYNX(W_,8466);
-else if (DYNHReject) DYNX(W_,8466)=did_->xInitial_var2[12]; else did_->xInitial_var2[12]=
- DYNX(W_,8466);
-if (initialCall) DYNX(did_->xInitial_var, 13)=DYNX(W_,8337);
-else if (DYNHReject) DYNX(W_,8337)=did_->xInitial_var2[13]; else did_->xInitial_var2[13]=
- DYNX(W_,8337);
-if (initialCall) DYNX(did_->xInitial_var, 20)=DYNX(W_,9503);
-else if (DYNHReject) DYNX(W_,9503)=did_->xInitial_var2[20]; else did_->xInitial_var2[20]=
- DYNX(W_,9503);
-if (initialCall) DYNX(did_->xInitial_var, 3)=DYNX(W_,5872);
-else if (DYNHReject) DYNX(W_,5872)=did_->xInitial_var2[3]; else did_->xInitial_var2[3]=
- DYNX(W_,5872);
-if (initialCall) DYNX(did_->xInitial_var, 2)=DYNX(W_,5873);
-else if (DYNHReject) DYNX(W_,5873)=did_->xInitial_var2[2]; else did_->xInitial_var2[2]=
- DYNX(W_,5873);
-if (initialCall) DYNX(did_->xInitial_var, 1)=DYNX(W_,5874);
-else if (DYNHReject) DYNX(W_,5874)=did_->xInitial_var2[1]; else did_->xInitial_var2[1]=
- DYNX(W_,5874);
-if (initialCall) DYNX(did_->xInitial_var, 0)=DYNX(W_,5880);
-else if (DYNHReject) DYNX(W_,5880)=did_->xInitial_var2[0]; else did_->xInitial_var2[0]=
- DYNX(W_,5880);
-if (initialCall) DYNX(did_->xInitial_var, 4)=DYNX(W_,5891);
-else if (DYNHReject) DYNX(W_,5891)=did_->xInitial_var2[4]; else did_->xInitial_var2[4]=
- DYNX(W_,5891);
-if (initialCall) DYNX(did_->xInitial_var, 16)=DYNX(W_,9616);
-else if (DYNHReject) DYNX(W_,9616)=did_->xInitial_var2[16]; else did_->xInitial_var2[16]=
- DYNX(W_,9616);
-if (initialCall) DYNX(did_->xInitial_var, 15)=DYNX(W_,9533);
-else if (DYNHReject) DYNX(W_,9533)=did_->xInitial_var2[15]; else did_->xInitial_var2[15]=
- DYNX(W_,9533);
-if (initialCall) DYNX(did_->xInitial_var, 17)=DYNX(W_,9670);
-else if (DYNHReject) DYNX(W_,9670)=did_->xInitial_var2[17]; else did_->xInitial_var2[17]=
- DYNX(W_,9670);
-if (initialCall) DYNX(did_->xInitial_var, 18)=DYNX(W_,9653);
-else if (DYNHReject) DYNX(W_,9653)=did_->xInitial_var2[18]; else did_->xInitial_var2[18]=
- DYNX(W_,9653);
+if (initialCall) DYNX(did_->xInitial_var, 19)=DYNX(W_,8999);
+else if (DYNHReject) DYNX(W_,8999)=did_->xInitial_var2[19]; else did_->xInitial_var2[19]=
+ DYNX(W_,8999);
+if (initialCall) DYNX(did_->xInitial_var, 11)=DYNX(W_,8535);
+else if (DYNHReject) DYNX(W_,8535)=did_->xInitial_var2[11]; else did_->xInitial_var2[11]=
+ DYNX(W_,8535);
+if (initialCall) DYNX(did_->xInitial_var, 9)=DYNX(W_,8548);
+else if (DYNHReject) DYNX(W_,8548)=did_->xInitial_var2[9]; else did_->xInitial_var2[9]=
+ DYNX(W_,8548);
+if (initialCall) DYNX(did_->xInitial_var, 5)=DYNX(W_,8481);
+else if (DYNHReject) DYNX(W_,8481)=did_->xInitial_var2[5]; else did_->xInitial_var2[5]=
+ DYNX(W_,8481);
+if (initialCall) DYNX(did_->xInitial_var, 7)=DYNX(W_,8567);
+else if (DYNHReject) DYNX(W_,8567)=did_->xInitial_var2[7]; else did_->xInitial_var2[7]=
+ DYNX(W_,8567);
+if (initialCall) DYNX(did_->xInitial_var, 10)=DYNX(W_,8512);
+else if (DYNHReject) DYNX(W_,8512)=did_->xInitial_var2[10]; else did_->xInitial_var2[10]=
+ DYNX(W_,8512);
+if (initialCall) DYNX(did_->xInitial_var, 8)=DYNX(W_,8514);
+else if (DYNHReject) DYNX(W_,8514)=did_->xInitial_var2[8]; else did_->xInitial_var2[8]=
+ DYNX(W_,8514);
+if (initialCall) DYNX(did_->xInitial_var, 6)=DYNX(W_,8483);
+else if (DYNHReject) DYNX(W_,8483)=did_->xInitial_var2[6]; else did_->xInitial_var2[6]=
+ DYNX(W_,8483);
+if (initialCall) DYNX(did_->xInitial_var, 14)=DYNX(W_,8428);
+else if (DYNHReject) DYNX(W_,8428)=did_->xInitial_var2[14]; else did_->xInitial_var2[14]=
+ DYNX(W_,8428);
+if (initialCall) DYNX(did_->xInitial_var, 12)=DYNX(W_,8429);
+else if (DYNHReject) DYNX(W_,8429)=did_->xInitial_var2[12]; else did_->xInitial_var2[12]=
+ DYNX(W_,8429);
+if (initialCall) DYNX(did_->xInitial_var, 13)=DYNX(W_,8297);
+else if (DYNHReject) DYNX(W_,8297)=did_->xInitial_var2[13]; else did_->xInitial_var2[13]=
+ DYNX(W_,8297);
+if (initialCall) DYNX(did_->xInitial_var, 20)=DYNX(W_,9472);
+else if (DYNHReject) DYNX(W_,9472)=did_->xInitial_var2[20]; else did_->xInitial_var2[20]=
+ DYNX(W_,9472);
+if (initialCall) DYNX(did_->xInitial_var, 3)=DYNX(W_,5832);
+else if (DYNHReject) DYNX(W_,5832)=did_->xInitial_var2[3]; else did_->xInitial_var2[3]=
+ DYNX(W_,5832);
+if (initialCall) DYNX(did_->xInitial_var, 2)=DYNX(W_,5833);
+else if (DYNHReject) DYNX(W_,5833)=did_->xInitial_var2[2]; else did_->xInitial_var2[2]=
+ DYNX(W_,5833);
+if (initialCall) DYNX(did_->xInitial_var, 1)=DYNX(W_,5834);
+else if (DYNHReject) DYNX(W_,5834)=did_->xInitial_var2[1]; else did_->xInitial_var2[1]=
+ DYNX(W_,5834);
+if (initialCall) DYNX(did_->xInitial_var, 0)=DYNX(W_,5840);
+else if (DYNHReject) DYNX(W_,5840)=did_->xInitial_var2[0]; else did_->xInitial_var2[0]=
+ DYNX(W_,5840);
+if (initialCall) DYNX(did_->xInitial_var, 4)=DYNX(W_,5851);
+else if (DYNHReject) DYNX(W_,5851)=did_->xInitial_var2[4]; else did_->xInitial_var2[4]=
+ DYNX(W_,5851);
+if (initialCall) DYNX(did_->xInitial_var, 16)=DYNX(W_,9585);
+else if (DYNHReject) DYNX(W_,9585)=did_->xInitial_var2[16]; else did_->xInitial_var2[16]=
+ DYNX(W_,9585);
+if (initialCall) DYNX(did_->xInitial_var, 15)=DYNX(W_,9502);
+else if (DYNHReject) DYNX(W_,9502)=did_->xInitial_var2[15]; else did_->xInitial_var2[15]=
+ DYNX(W_,9502);
+if (initialCall) DYNX(did_->xInitial_var, 17)=DYNX(W_,9639);
+else if (DYNHReject) DYNX(W_,9639)=did_->xInitial_var2[17]; else did_->xInitial_var2[17]=
+ DYNX(W_,9639);
+if (initialCall) DYNX(did_->xInitial_var, 18)=DYNX(W_,9622);
+else if (DYNHReject) DYNX(W_,9622)=did_->xInitial_var2[18]; else did_->xInitial_var2[18]=
+ DYNX(W_,9622);
}
StartDataBlock
StartPreBlock
-pre(DYNX(W_,8312),"DHW.combiTimeTableDHWInput.nextTimeEvent", 0, 62);
-preD(DYNX(W_,8313),"DHW.combiTimeTableDHWInput.nextTimeEventScaled", 0, 0);
-preD(DYNX(W_,8304),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.tNext",
+pre(DYNX(W_,8272),"DHW.combiTimeTableDHWInput.nextTimeEvent", 0, 67);
+preD(DYNX(W_,8273),"DHW.combiTimeTableDHWInput.nextTimeEventScaled", 0, 0);
+preD(DYNX(W_,8264),"building.thermalZone[1].HDifTilRoof[1].incAng.decAng.tNext",
0, 1);
-preD(DYNX(W_,8288),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.tNext",
+preD(DYNX(W_,8248),"building.thermalZone[1].HDifTilWall[1].incAng.decAng.tNext",
0, 2);
-preD(DYNX(W_,8289),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.tNext",
+preD(DYNX(W_,8249),"building.thermalZone[1].HDifTilWall[2].incAng.decAng.tNext",
0, 3);
-preD(DYNX(W_,8290),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.tNext",
+preD(DYNX(W_,8250),"building.thermalZone[1].HDifTilWall[3].incAng.decAng.tNext",
0, 4);
-preD(DYNX(W_,8291),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.tNext",
+preD(DYNX(W_,8251),"building.thermalZone[1].HDifTilWall[4].incAng.decAng.tNext",
0, 5);
-preD(DYNX(W_,8296),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.tNext",
+preD(DYNX(W_,8256),"building.thermalZone[1].HDirTilRoof[1].incAng.decAng.tNext",
0, 6);
-preD(DYNX(W_,8292),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.tNext",
+preD(DYNX(W_,8252),"building.thermalZone[1].HDirTilWall[1].incAng.decAng.tNext",
0, 7);
-preD(DYNX(W_,8293),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.tNext",
+preD(DYNX(W_,8253),"building.thermalZone[1].HDirTilWall[2].incAng.decAng.tNext",
0, 8);
-preD(DYNX(W_,8294),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.tNext",
+preD(DYNX(W_,8254),"building.thermalZone[1].HDirTilWall[3].incAng.decAng.tNext",
0, 9);
-preD(DYNX(W_,8295),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.tNext",
+preD(DYNX(W_,8255),"building.thermalZone[1].HDirTilWall[4].incAng.decAng.tNext",
0, 10);
-preWD(DYNX(W_,8297),"building.thermalZone[1].simpleExternalShading.switchShading[1].u2",
+preWD(DYNX(W_,8257),"building.thermalZone[1].simpleExternalShading.switchShading[1].u2",
false, 11);
-preWD(DYNX(W_,8298),"building.thermalZone[1].simpleExternalShading.switchShading[2].u2",
+preWD(DYNX(W_,8258),"building.thermalZone[1].simpleExternalShading.switchShading[2].u2",
false, 12);
-preWD(DYNX(W_,8299),"building.thermalZone[1].simpleExternalShading.switchShading[3].u2",
+preWD(DYNX(W_,8259),"building.thermalZone[1].simpleExternalShading.switchShading[3].u2",
false, 13);
-preWD(DYNX(W_,8300),"building.thermalZone[1].simpleExternalShading.switchShading[4].u2",
+preWD(DYNX(W_,8260),"building.thermalZone[1].simpleExternalShading.switchShading[4].u2",
false, 14);
-preD(DYNX(W_,8472),"control.hys.y", false, 15);
-preD(DYNX(W_,8321),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.tNext",
+preD(DYNX(W_,8435),"control.hys.y", false, 15);
+preD(DYNX(W_,8281),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.decAng.tNext",
0, 16);
-preD(DYNX(W_,8318),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.tNext",
+preD(DYNX(W_,8278),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.eqnTim.tNext",
0, 17);
-preD(DYNX(W_,8315),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.tNext",
+preD(DYNX(W_,8275),"electrical.generation.pVSystem[1].pVRadiationHorizontalTRY.locTim.tNext",
0, 18);
-preD(DYNX(W_,8332),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.tNext",
+preD(DYNX(W_,8292),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.decAng.tNext",
0, 19);
-preD(DYNX(W_,8329),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.tNext",
+preD(DYNX(W_,8289),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.eqnTim.tNext",
0, 20);
-preD(DYNX(W_,8326),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.tNext",
+preD(DYNX(W_,8286),"electrical.generation.pVSystem[2].pVRadiationHorizontalTRY.locTim.tNext",
0, 21);
-preWD(DYNX(W_,8423),"hydraulic.control.anyGenDevIsOn.u[1]", false, 22);
-preWD(DYNX(W_,8424),"hydraulic.control.anyGenDevIsOn.u[2]", true, 23);
-preWD(DYNX(W_,8422),"hydraulic.control.booToRea.u", false, 24);
-preWD(DYNX(W_,8447),"hydraulic.control.buiAndDHWCtr.bufOn.u", false, 25);
-preWD(DYNX(W_,8448),"hydraulic.control.buiAndDHWCtr.bufOn.y", false, 26);
-pre(DYNX(W_,8430),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.y", false, 48);
-pre(DYNX(W_,8426),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", true, 49);
-preD(DYNX(W_,8428),"hydraulic.control.buiAndDHWCtr.hysBui.trigTime.u", false, 27);
-preD(DYNX(W_,8427),"hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y", 0.0, 28);
-pre(DYNX(W_,8436),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.y", false, 46);
-pre(DYNX(W_,8431),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.y", true, 47);
-preD(DYNX(W_,8433),"hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.u", false, 29);
-preD(DYNX(W_,8432),"hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y", 0.0, 30);
-preD(DYNX(W_,8417),"hydraulic.generation.KPIEleHea.isOn.y", false, 31);
-preW(DYNX(W_,8420),"hydraulic.generation.KPIEleHea.triggeredAdd.y", 0, 64);
-preW(DYNX(W_,8413),"hydraulic.generation.KPIHeaPum.triggeredAdd.y", 0, 63);
-pre(DYNX(W_,8393),"hydraulic.generation.heatPump.eff.hys.y", false, 69);
-preD(DYNX(W_,8392),"hydraulic.generation.heatPump.hys.y", true, 32);
-preWD(DYNX(W_,8343),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.zon",
- 0, 33);
-preW(DYNX(W_,8388),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y",
- 0, 71);
-pre(DYNX(W_,8390),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.y",
- false, 50);
-pre(DYNX(W_,8391),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.y",
- false, 51);
-preWD(DYNX(W_,8387),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2",
+preWD(DYNX(W_,8386),"hydraulic.control.anyGenDevIsOn.u[1]", false, 22);
+preWD(DYNX(W_,8387),"hydraulic.control.anyGenDevIsOn.u[2]", true, 23);
+preWD(DYNX(W_,8385),"hydraulic.control.booToRea.u", false, 24);
+preWD(DYNX(W_,8410),"hydraulic.control.buiAndDHWCtr.bufOn.u", false, 25);
+preWD(DYNX(W_,8411),"hydraulic.control.buiAndDHWCtr.bufOn.y", false, 26);
+pre(DYNX(W_,8393),"hydraulic.control.buiAndDHWCtr.hysBui.hysAuxHea.y", false, 50);
+pre(DYNX(W_,8389),"hydraulic.control.buiAndDHWCtr.hysBui.hysSto.y", true, 51);
+preD(DYNX(W_,8391),"hydraulic.control.buiAndDHWCtr.hysBui.trigTime.u", false, 27);
+preD(DYNX(W_,8390),"hydraulic.control.buiAndDHWCtr.hysBui.trigTime.y", 0.0, 28);
+pre(DYNX(W_,8399),"hydraulic.control.buiAndDHWCtr.hysDHW.hysAuxHea.y", false, 48);
+pre(DYNX(W_,8394),"hydraulic.control.buiAndDHWCtr.hysDHW.hysSto.y", true, 49);
+preD(DYNX(W_,8396),"hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.u", false, 29);
+preD(DYNX(W_,8395),"hydraulic.control.buiAndDHWCtr.hysDHW.trigTime.y", 0.0, 30);
+preD(DYNX(W_,8380),"hydraulic.generation.KPIEleHea.isOn.y", false, 31);
+preW(DYNX(W_,8383),"hydraulic.generation.KPIEleHea.triggeredAdd.y", 0, 69);
+preW(DYNX(W_,8376),"hydraulic.generation.KPIHeaPum.triggeredAdd.y", 0, 68);
+preD(DYNX(W_,8299),"hydraulic.generation.defCtrl.hys.y", false, 32);
+pre(DYNX(W_,8356),"hydraulic.generation.heatPump.eff.hys.y", false, 71);
+preD(DYNX(W_,8355),"hydraulic.generation.heatPump.hys.y", true, 33);
+preWD(DYNX(W_,8303),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.switchGrowthRate.u2",
false, 34);
-pre(DYNX(W_,8369),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y",
- 0.0, 58);
-preW(DYNX(W_,8368),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y",
- 0, 57);
-preD(DYNX(W_,8386),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe",
- 1, 35);
-preD(DYNX(W_,8384),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin",
- 0, 36);
-pre(DYNX(W_,8385),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff",
- 0, 68);
-pre(DYNX(W_,8380),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOff",
- false, 60);
-pre(DYNX(W_,8378),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOn",
- false, 59);
-pre(DYNX(W_,8365),"hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.u",
- false, 55);
-pre(DYNX(W_,8363),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.y",
- false, 56);
-pre(DYNX(W_,8362),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y",
- false, 67);
-pre(DYNX(W_,8360),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y",
- false, 65);
-pre(DYNX(W_,8361),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y",
- false, 66);
-pre(DYNX(W_,8355),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.y",
- false, 54);
-pre(DYNX(W_,8353),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.y",
+preWD(DYNX(W_,8305),"hydraulic.generation.heatPump.refCyc.refCycHeaPumHea.iceFacCal.zhuFroZon.zon",
+ 0, 35);
+preW(DYNX(W_,8351),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.disErr.y",
+ 0, 73);
+pre(DYNX(W_,8353),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysCon.y",
false, 52);
-pre(DYNX(W_,8354),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.y",
+pre(DYNX(W_,8354),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.hysEva.y",
false, 53);
-preW(DYNX(W_,8348),"hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", 0, 70);
-preWD(DYNX(W_,8347),"hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2",
- false, 37);
-preWD(DYNX(W_,8310),"userProfiles.setBakTSetZone[1].T_start", 0.0, 38);
-preD(DYNX(W_,8311),"userProfiles.setBakTSetZone[1].count", 0, 39);
-pre(DYNX(W_,8308),"userProfiles.tabIntGai.nextTimeEvent", 0, 61);
-preD(DYNX(W_,8309),"userProfiles.tabIntGai.nextTimeEventScaled", 0, 40);
-preD(DYNX(W_,8469),"weaDat.conTim.tNext", 0, 41);
-preD(DYNX(W_,8468),"weaDat.conTimMin.tNext", 0, 42);
-preD(DYNX(W_,8471),"weaDat.decAng.tNext", 0, 43);
-preD(DYNX(W_,8470),"weaDat.eqnTim.tNext", 0, 44);
-preD(DYNX(W_,8467),"weaDat.locTim.tNext", 0, 45);
+preWD(DYNX(W_,8350),"hydraulic.generation.heatPump.safCtr.minVolFloRatSaf.swiErr.u2",
+ false, 36);
+pre(DYNX(W_,8332),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.intToRea.y",
+ 0.0, 63);
+preW(DYNX(W_,8331),"hydraulic.generation.heatPump.safCtr.onOffCtr.cycRatBou.triAdd.y",
+ 0, 62);
+preD(DYNX(W_,8349),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devNorOpe",
+ 1, 37);
+preD(DYNX(W_,8347),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devRunMin",
+ 0, 38);
+pre(DYNX(W_,8348),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.devTurOff",
+ 0, 70);
+pre(DYNX(W_,8343),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOff",
+ false, 65);
+pre(DYNX(W_,8341),"hydraulic.generation.heatPump.safCtr.onOffCtr.onOffFuzLog.turOn",
+ false, 64);
+pre(DYNX(W_,8328),"hydraulic.generation.heatPump.safCtr.onOffCtr.preOnOff.u",
+ false, 60);
+pre(DYNX(W_,8326),"hydraulic.generation.heatPump.safCtr.onOffCtr.ySetOn.y",
+ false, 61);
+pre(DYNX(W_,8325),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysBou.y",
+ false, 59);
+pre(DYNX(W_,8323),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysLef.y",
+ false, 57);
+pre(DYNX(W_,8324),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapCoo.hysRig.y",
+ false, 58);
+pre(DYNX(W_,8318),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysBou.y",
+ false, 56);
+pre(DYNX(W_,8316),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysLef.y",
+ false, 54);
+pre(DYNX(W_,8317),"hydraulic.generation.heatPump.safCtr.opeEnv.bouMapHea.hysRig.y",
+ false, 55);
+preW(DYNX(W_,8310),"hydraulic.generation.heatPump.safCtr.opeEnv.disErr.y", 0, 72);
+preWD(DYNX(W_,8309),"hydraulic.generation.heatPump.safCtr.opeEnv.swiErr.u2",
+ false, 39);
+preWD(DYNX(W_,8270),"userProfiles.setBakTSetZone[1].T_start", 0.0, 40);
+preD(DYNX(W_,8271),"userProfiles.setBakTSetZone[1].count", 0, 41);
+pre(DYNX(W_,8268),"userProfiles.tabIntGai.nextTimeEvent", 0, 66);
+preD(DYNX(W_,8269),"userProfiles.tabIntGai.nextTimeEventScaled", 0, 42);
+preD(DYNX(W_,8432),"weaDat.conTim.tNext", 0, 43);
+preD(DYNX(W_,8431),"weaDat.conTimMin.tNext", 0, 44);
+preD(DYNX(W_,8434),"weaDat.decAng.tNext", 0, 45);
+preD(DYNX(W_,8433),"weaDat.eqnTim.tNext", 0, 46);
+preD(DYNX(W_,8430),"weaDat.locTim.tNext", 0, 47);
EndPreBlock
StartEqBlock
-DoRemember_(DYNX(W_,9035), DYNX(W_,1185), 34);
-DoRememAcc_(DYNX(W_,9036), 10.0*DYNX(DP_,378), 63);
-DoRemember_(DYNX(Aux_,337), 0.0, 57);
-DoRemember_(DYNX(Aux_,339), 0.0, 59);
-DoRemember_(DYNX(Aux_,341), 0.0, 61);
-DoRemember_(DYNX(W_,8572), 0, 17);
-DoRemember_(DYNX(W_,8585), 0, 14);
-DoRemember_(DYNX(W_,8567), 0, 48);
-DoRemember_(DYNX(W_,8590), 0.0, 45);
-DoRemember_(DYNX(W_,8592), 0, 46);
-DoRemember_(DYNX(W_,8582), 0, 44);
-DoRemember_(DYNX(W_,8589), 0, 15);
-DoRemember_(DYNX(W_,8607), 0, 43);
-DoRemember_(DYNX(W_,8549), 288.15, 16);
-DoRemember_(DYNX(W_,8551), 288.15, 13);
-DoRememAcc_(DYNX(W_,8534), 20.0, 53);
-DoRemember_(DYNX(W_,8529), 0.0, 0);
-DoRememAcc_(DYNX(W_,8621), 288.15, 58);
-DoRememAcc_(DYNX(W_,8636), 288.15, 62);
-DoRememAcc_(DYNX(W_,8630), 288.15, 60);
-DoRemember_(DYNX(W_,8510), 0, 7);
-DoRemember_(DYNX(W_,8997), 0.0, 42);
-DoRemember_(DYNX(W_,8998), 0.0, 47);
-DoRemember_(DYNX(W_,8999), 0.0, 12);
-DoRememAcc_(DYNX(W_,8488), 293.15, 56);
-DoRemember_(DYNX(W_,9257), 83680.0, 2);
-DoRemember_(DYNX(W_,9254), 83680.0, 37);
-DoRemember_(DYNX(W_,9349), DYNX(W_,5065), 21);
-DoRemember_(DYNX(W_,9357), DYNX(W_,5124), 22);
-DoRemember_(DYNX(W_,9378), DYNX(W_,5301), 40);
-DoRemember_(DYNX(W_,9386), DYNX(W_,5360), 41);
-DoRemember_(DYNX(W_,9340), DYNX(W_,5006), 11);
-DoRemember_(DYNX(W_,9342), DYNX(W_,5419), 30);
-DoRemember_(DYNX(W_,9341), DYNX(W_,5242), 39);
-DoRemember_(DYNX(W_,9267), 209200.0, 19);
-DoRemember_(DYNX(W_,9275), 209200.0, 20);
-DoRemember_(DYNX(W_,9296), 209200.0, 33);
-DoRemember_(DYNX(W_,9304), 209200.0, 32);
-DoRemember_(DYNX(W_,9260), 209200.0, 31);
-DoRemember_(DYNX(W_,9259), 209200.0, 35);
-DoRemember_(DYNX(W_,8456), 0, 3);
-DoRemember_(DYNX(W_,8459), 0, 4);
-DoRememAcc_(DYNX(W_,9175), 20.0, 50);
-DoRemember_(DYNX(W_,9171), 0.0, 49);
-DoRemember_(DYNX(W_,9139), 83680.0, 5);
-DoRemember_(DYNX(W_,9137), DYNX(W_,3963), 36);
-DoRemember_(DYNX(W_,9203), DYNX(W_,3525), 38);
-DoRemember_(DYNX(W_,9527), DYNX(W_,1185), 18);
-DoRemember_(DYNX(W_,9526), 209200.0, 1);
-DoRemember_(DYNX(W_,9435), DYNX(W_,6345), 29);
-DoRememAcc_(DYNX(W_,9503), 1.0, 64);
-DoRemember_(DYNX(W_,9605), DYNX(W_,7266), 8);
-DoRememAcc_(DYNX(W_,9591), 20.0, 51);
-DoRemember_(DYNX(W_,9586), 0.0, 27);
-DoRemember_(DYNX(W_,9616), 0, 10);
-DoRememAcc_(DYNX(W_,9631), 20.0, 52);
-DoRemember_(DYNX(W_,9626), 0.0, 28);
-DoRemember_(DYNX(W_,9536), DYNX(W_,7000), 6);
-DoRemember_(DYNX(W_,9532), DYNX(W_,7378), 9);
-DoRememAcc_(DYNX(W_,9682), 20.0, 55);
-DoRemember_(DYNX(W_,9677), 0.0, 25);
-DoRemember_(DYNX(W_,9652), 0, 23);
-DoRemember_(DYNX(W_,9653), 0, 24);
-DoRememAcc_(DYNX(W_,9662), 20.0, 54);
-DoRemember_(DYNX(W_,9658), 0.0, 26);
+DoRemember_(DYNX(W_,8998), DYNX(W_,1185), 36);
+DoRememAcc_(DYNX(W_,8999), 10.0*DYNX(DP_,378), 63);
+DoRemember_(DYNX(Aux_,338), 0.0, 57);
+DoRemember_(DYNX(Aux_,340), 0.0, 59);
+DoRemember_(DYNX(Aux_,342), 0.0, 61);
+DoRemember_(DYNX(W_,8535), 0, 19);
+DoRemember_(DYNX(W_,8548), 0, 16);
+DoRemember_(DYNX(W_,8530), 0, 49);
+DoRemember_(DYNX(W_,8553), 0.0, 46);
+DoRemember_(DYNX(W_,8555), 0, 47);
+DoRemember_(DYNX(W_,8545), 0, 45);
+DoRemember_(DYNX(W_,8552), 0, 17);
+DoRemember_(DYNX(W_,8570), 0, 44);
+DoRemember_(DYNX(W_,8512), 288.15, 18);
+DoRemember_(DYNX(W_,8514), 288.15, 15);
+DoRememAcc_(DYNX(W_,8497), 20.0, 53);
+DoRemember_(DYNX(W_,8492), 0.0, 0);
+DoRememAcc_(DYNX(W_,8584), 288.15, 58);
+DoRememAcc_(DYNX(W_,8599), 288.15, 62);
+DoRememAcc_(DYNX(W_,8593), 288.15, 60);
+DoRemember_(DYNX(W_,8473), 0, 9);
+DoRemember_(DYNX(W_,8960), 0.0, 43);
+DoRemember_(DYNX(W_,8961), 0.0, 48);
+DoRemember_(DYNX(W_,8962), 0.0, 14);
+DoRememAcc_(DYNX(W_,8451), 293.15, 56);
+DoRemember_(DYNX(W_,9226), 83680.0, 2);
+DoRemember_(DYNX(W_,9223), 83680.0, 39);
+DoRemember_(DYNX(W_,9318), DYNX(W_,5025), 23);
+DoRemember_(DYNX(W_,9326), DYNX(W_,5084), 24);
+DoRemember_(DYNX(W_,9347), DYNX(W_,5261), 41);
+DoRemember_(DYNX(W_,9355), DYNX(W_,5320), 42);
+DoRemember_(DYNX(W_,9309), DYNX(W_,4966), 13);
+DoRemember_(DYNX(W_,9311), DYNX(W_,5379), 32);
+DoRemember_(DYNX(W_,9310), DYNX(W_,5202), 40);
+DoRemember_(DYNX(W_,9236), 209200.0, 21);
+DoRemember_(DYNX(W_,9244), 209200.0, 22);
+DoRemember_(DYNX(W_,9265), 209200.0, 35);
+DoRemember_(DYNX(W_,9273), 209200.0, 34);
+DoRemember_(DYNX(W_,9229), 209200.0, 33);
+DoRemember_(DYNX(W_,9228), 209200.0, 37);
+DoRemember_(DYNX(W_,8419), 0, 3);
+DoRemember_(DYNX(W_,8422), 0, 4);
+DoRememAcc_(DYNX(W_,9142), 20.0, 50);
+DoRemember_(DYNX(W_,9138), 0.0, 6);
+DoRemember_(DYNX(W_,9102), 83680.0, 5);
+DoRemember_(DYNX(W_,9100), DYNX(W_,3923), 38);
+DoRemember_(DYNX(W_,9172), DYNX(W_,3487), 7);
+DoRemember_(DYNX(W_,9496), DYNX(W_,1185), 20);
+DoRemember_(DYNX(W_,9495), 209200.0, 1);
+DoRemember_(DYNX(W_,9404), DYNX(W_,6305), 31);
+DoRememAcc_(DYNX(W_,9472), 1.0, 64);
+DoRemember_(DYNX(W_,9574), DYNX(W_,7226), 10);
+DoRememAcc_(DYNX(W_,9560), 20.0, 51);
+DoRemember_(DYNX(W_,9555), 0.0, 29);
+DoRemember_(DYNX(W_,9585), 0, 12);
+DoRememAcc_(DYNX(W_,9600), 20.0, 52);
+DoRemember_(DYNX(W_,9595), 0.0, 30);
+DoRemember_(DYNX(W_,9505), DYNX(W_,6960), 8);
+DoRemember_(DYNX(W_,9501), DYNX(W_,7338), 11);
+DoRememAcc_(DYNX(W_,9651), 20.0, 55);
+DoRemember_(DYNX(W_,9646), 0.0, 27);
+DoRemember_(DYNX(W_,9621), 0, 25);
+DoRemember_(DYNX(W_,9622), 0, 26);
+DoRememAcc_(DYNX(W_,9631), 20.0, 54);
+DoRemember_(DYNX(W_,9627), 0.0, 28);
EndEqBlock
UpdateQEvaluate(56)
UpdateSampleCounters(3)
@@ -47137,47 +47153,47 @@ BreakSectionStart(35);
/* Linear system of equations to solve. */
/* Tag: simplified homotopy initialization.linear[1] */
DYNX(DYNhelp,484) = DYNX(W_,506)*DYNX(W_,440);
-DYNX(DYNhelp,485) = DYNX(W_,5857)*DYNX(W_,5891);
-DYNX(DYNhelp,486) = DYNX(W_,5863)-1;
-DYNX(DYNhelp,487) = powGuarded(fabs(DYNX(W_,5881)),"abs(hydraulic.transfer.rad[1].dTRad_nominal[1])",
+DYNX(DYNhelp,485) = DYNX(W_,5817)*DYNX(W_,5851);
+DYNX(DYNhelp,486) = DYNX(W_,5823)-1;
+DYNX(DYNhelp,487) = powGuarded(fabs(DYNX(W_,5841)),"abs(hydraulic.transfer.rad[1].dTRad_nominal[1])",
DYNX(DYNhelp,486),"hydraulic.transfer.rad[1].n-1");
DYNX(DYNhelp,488) = DYNX(DYNhelp,485)*DYNX(DYNhelp,487);
-DYNX(DYNhelp,489) = powGuarded(fabs(DYNX(W_,5882)),"abs(hydraulic.transfer.rad[1].dTRad_nominal[2])",
+DYNX(DYNhelp,489) = powGuarded(fabs(DYNX(W_,5842)),"abs(hydraulic.transfer.rad[1].dTRad_nominal[2])",
DYNX(DYNhelp,486),"hydraulic.transfer.rad[1].n-1");
DYNX(DYNhelp,490) = DYNX(DYNhelp,485)*DYNX(DYNhelp,489);
-DYNX(DYNhelp,491) = DYNX(DYNhelp,485)*powGuarded(fabs(DYNX(W_,5883)),
+DYNX(DYNhelp,491) = DYNX(DYNhelp,485)*powGuarded(fabs(DYNX(W_,5843)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[3])",DYNX(DYNhelp,486),
"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,492) = DYNX(DYNhelp,485)*powGuarded(fabs(DYNX(W_,5884)),
+DYNX(DYNhelp,492) = DYNX(DYNhelp,485)*powGuarded(fabs(DYNX(W_,5844)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[4])",DYNX(DYNhelp,486),
"hydraulic.transfer.rad[1].n-1");
-DYNX(DYNhelp,493) = DYNX(DYNhelp,485)*powGuarded(fabs(DYNX(W_,5885)),
+DYNX(DYNhelp,493) = DYNX(DYNhelp,485)*powGuarded(fabs(DYNX(W_,5845)),
"abs(hydraulic.transfer.rad[1].dTRad_nominal[5])",DYNX(DYNhelp,486),
"hydraulic.transfer.rad[1].n-1");
DYNX(DYNhelp,494) = DYNX(DYNhelp,488)*DYNX(W_,439)+DYNX(DYNhelp,490)*
DYNX(W_,439)+DYNX(DYNhelp,491)*DYNX(W_,439)+DYNX(DYNhelp,492)*DYNX(W_,439)+
DYNX(DYNhelp,493)*DYNX(W_,439);
-DYNX(DYNhelp,495) = DYNX(DYNhelp,494)*DYNX(W_,8507);
+DYNX(DYNhelp,495) = DYNX(DYNhelp,494)*DYNX(W_,8470);
DYNX(DYNhelp,496) = DYNX(W_,450)*DYNX(W_,439);
DYNX(DYNhelp,497) = 0.004408460275494665*DYNX(DYNhelp,494);
DYNX(DYNhelp,498) = DYNX(DYNhelp,496)-DYNX(DYNhelp,497);
DYNX(DYNhelp,499) = DYNX(W_,398)*DYNX(DYNhelp,498);
DYNX(DYNhelp,500) = DYNX(W_,507)*DYNX(DYNhelp,499);
DYNX(DYNhelp,501) = (-0.017413418088203923)*DYNX(DYNhelp,495)-DYNX(DYNhelp,500)*
- DYNX(W_,8713)-DYNX(DYNhelp,498)*DYNX(W_,8507)-0.004408460275494665*
+ DYNX(W_,8676)-DYNX(DYNhelp,498)*DYNX(W_,8470)-0.004408460275494665*
DYNX(DYNhelp,495)-0.0808217717174022*DYNX(DYNhelp,495);
-DYNX(DYNhelp,502) = DYNX(DYNhelp,488)*DYNX(W_,9462);
+DYNX(DYNhelp,502) = DYNX(DYNhelp,488)*DYNX(W_,9431);
DYNX(DYNhelp,503) = 0.1319599109131403*DYNX(W_,439)*DYNX(DYNhelp,502);
-DYNX(DYNhelp,504) = DYNX(DYNhelp,490)*DYNX(W_,9470);
+DYNX(DYNhelp,504) = DYNX(DYNhelp,490)*DYNX(W_,9439);
DYNX(DYNhelp,505) = DYNX(W_,439)*DYNX(DYNhelp,504);
-DYNX(DYNhelp,506) = DYNX(DYNhelp,491)*DYNX(W_,9478);
-DYNX(DYNhelp,507) = DYNX(DYNhelp,492)*DYNX(W_,9486);
-DYNX(DYNhelp,508) = DYNX(DYNhelp,493)*DYNX(W_,9493);
-DYNX(DYNhelp,509) = DYNX(DYNhelp,484)*DYNX(W_,8712)-(DYNX(DYNhelp,501)+
+DYNX(DYNhelp,506) = DYNX(DYNhelp,491)*DYNX(W_,9447);
+DYNX(DYNhelp,507) = DYNX(DYNhelp,492)*DYNX(W_,9455);
+DYNX(DYNhelp,508) = DYNX(DYNhelp,493)*DYNX(W_,9462);
+DYNX(DYNhelp,509) = DYNX(DYNhelp,484)*DYNX(W_,8675)-(DYNX(DYNhelp,501)+
DYNX(DYNhelp,503)+0.1319599109131403*DYNX(DYNhelp,505)+0.1319599109131403*
DYNX(W_,439)*DYNX(DYNhelp,506)+0.1319599109131403*DYNX(W_,439)*
DYNX(DYNhelp,507)+0.1319599109131403*DYNX(W_,439)*DYNX(DYNhelp,508));
-DYNX(DYNhelp,510) = DYNX(W_,8624)+DYNX(W_,8639)+DYNX(W_,8633);
+DYNX(DYNhelp,510) = DYNX(W_,8587)+DYNX(W_,8602)+DYNX(W_,8596);
DYNX(DYNhelp,511) = 0.1319599109131403*DYNX(W_,439)*DYNX(DYNhelp,510);
DYNX(DYNhelp,512) = DYNX(W_,475)*DYNX(W_,439);
DYNX(DYNhelp,513) = DYNX(W_,490)*DYNX(W_,439);
@@ -47187,15 +47203,15 @@ DYNX(DYNhelp,516) = DYNX(DYNhelp,490)*DYNX(DYNhelp,514);
DYNX(DYNhelp,517) = DYNX(DYNhelp,515)+DYNX(DYNhelp,516)+DYNX(DYNhelp,491)*
DYNX(DYNhelp,514)+DYNX(DYNhelp,492)*DYNX(DYNhelp,514)+DYNX(DYNhelp,493)*
DYNX(DYNhelp,514);
-DYNX(DYNhelp,518) = DYNX(DYNhelp,517)*DYNX(W_,8507);
+DYNX(DYNhelp,518) = DYNX(DYNhelp,517)*DYNX(W_,8470);
DYNX(DYNhelp,519) = (-0.014658130416019759)*DYNX(DYNhelp,518);
DYNX(DYNhelp,520) = DYNX(W_,477)*DYNX(DYNhelp,514);
DYNX(DYNhelp,521) = 0.00371091909266323*DYNX(DYNhelp,517);
DYNX(DYNhelp,522) = DYNX(DYNhelp,520)-DYNX(DYNhelp,521);
DYNX(DYNhelp,523) = DYNX(W_,507)*DYNX(W_,398)*DYNX(DYNhelp,522);
-DYNX(DYNhelp,524) = DYNX(DYNhelp,523)*DYNX(W_,8713);
+DYNX(DYNhelp,524) = DYNX(DYNhelp,523)*DYNX(W_,8676);
DYNX(DYNhelp,525) = DYNX(DYNhelp,519)-DYNX(DYNhelp,524)-DYNX(DYNhelp,522)*
- DYNX(W_,8507)-0.00371091909266323*DYNX(DYNhelp,518)-0.06803351669882589*
+ DYNX(W_,8470)-0.00371091909266323*DYNX(DYNhelp,518)-0.06803351669882589*
DYNX(DYNhelp,518)+0.11108017817371936*DYNX(DYNhelp,514)*DYNX(DYNhelp,502)+
0.11108017817371936*DYNX(DYNhelp,514)*DYNX(DYNhelp,504);
DYNX(DYNhelp,526) = 0.11108017817371936*DYNX(DYNhelp,514)*DYNX(DYNhelp,506);
@@ -47205,19 +47221,19 @@ DYNX(DYNhelp,529) = DYNX(W_,475)*DYNX(DYNhelp,514);
DYNX(DYNhelp,530) = DYNX(DYNhelp,525)+DYNX(DYNhelp,526)+0.11108017817371936*
DYNX(DYNhelp,527)+0.11108017817371936*DYNX(DYNhelp,514)*DYNX(DYNhelp,508)-
0.11108017817371936*DYNX(DYNhelp,514)*DYNX(DYNhelp,510)+DYNX(DYNhelp,528)*
- DYNX(W_,8507)+DYNX(DYNhelp,529)*DYNX(W_,8507);
-DYNX(DYNhelp,531) = DYNX(DYNhelp,520)*DYNX(W_,8507);
+ DYNX(W_,8470)+DYNX(DYNhelp,529)*DYNX(W_,8470);
+DYNX(DYNhelp,531) = DYNX(DYNhelp,520)*DYNX(W_,8470);
DYNX(DYNhelp,532) = DYNX(W_,476)*DYNX(DYNhelp,514);
DYNX(DYNhelp,533) = DYNX(DYNhelp,488)*DYNX(W_,484)+DYNX(DYNhelp,490)*
DYNX(W_,484)+DYNX(DYNhelp,491)*DYNX(W_,484)+DYNX(DYNhelp,492)*DYNX(W_,484)+
DYNX(DYNhelp,493)*DYNX(W_,484);
-DYNX(DYNhelp,534) = DYNX(DYNhelp,533)*DYNX(W_,8507);
+DYNX(DYNhelp,534) = DYNX(DYNhelp,533)*DYNX(W_,8470);
DYNX(DYNhelp,535) = DYNX(W_,488)*DYNX(W_,484);
DYNX(DYNhelp,536) = 0.00371091909266323*DYNX(DYNhelp,533);
DYNX(DYNhelp,537) = DYNX(DYNhelp,535)-DYNX(DYNhelp,536);
DYNX(DYNhelp,538) = DYNX(W_,507)*DYNX(W_,398)*DYNX(DYNhelp,537);
DYNX(DYNhelp,539) = (-0.014658130416019759)*DYNX(DYNhelp,534)-DYNX(DYNhelp,538)*
- DYNX(W_,8713)-DYNX(DYNhelp,537)*DYNX(W_,8507)-0.00371091909266323*
+ DYNX(W_,8676)-DYNX(DYNhelp,537)*DYNX(W_,8470)-0.00371091909266323*
DYNX(DYNhelp,534)-0.06803351669882589*DYNX(DYNhelp,534)+0.11108017817371936*
DYNX(W_,484)*DYNX(DYNhelp,502);
DYNX(DYNhelp,540) = 0.11108017817371936*DYNX(W_,484)*DYNX(DYNhelp,504);
@@ -47226,27 +47242,27 @@ DYNX(DYNhelp,542) = DYNX(W_,498)*DYNX(W_,485);
DYNX(DYNhelp,543) = DYNX(DYNhelp,539)+DYNX(DYNhelp,540)+0.11108017817371936*
DYNX(DYNhelp,541)+0.11108017817371936*DYNX(W_,484)*DYNX(DYNhelp,507)+
0.11108017817371936*DYNX(W_,484)*DYNX(DYNhelp,508)-0.11108017817371936*
- DYNX(W_,484)*DYNX(DYNhelp,510)-DYNX(DYNhelp,542)*DYNX(W_,8718);
+ DYNX(W_,484)*DYNX(DYNhelp,510)-DYNX(DYNhelp,542)*DYNX(W_,8681);
DYNX(DYNhelp,544) = DYNX(W_,486)*DYNX(W_,484);
-DYNX(DYNhelp,545) = DYNX(DYNhelp,544)*DYNX(W_,8507);
+DYNX(DYNhelp,545) = DYNX(DYNhelp,544)*DYNX(W_,8470);
DYNX(DYNhelp,546) = DYNX(W_,487)*DYNX(W_,484);
DYNX(DYNhelp,547) = DYNX(W_,490)*DYNX(W_,484);
DYNX(DYNhelp,548) = DYNX(DYNhelp,488)+DYNX(DYNhelp,490)+DYNX(DYNhelp,491);
DYNX(DYNhelp,549) = DYNX(DYNhelp,548)+DYNX(DYNhelp,492)+DYNX(DYNhelp,493);
-DYNX(DYNhelp,550) = DYNX(DYNhelp,549)*DYNX(W_,8507);
+DYNX(DYNhelp,550) = DYNX(DYNhelp,549)*DYNX(W_,8470);
DYNX(DYNhelp,551) = 0.0808217717174022*DYNX(DYNhelp,550);
DYNX(DYNhelp,552) = 0.020461208029722074*DYNX(DYNhelp,549);
DYNX(DYNhelp,553) = DYNX(DYNhelp,552)-DYNX(W_,462);
DYNX(DYNhelp,554) = DYNX(W_,507)*DYNX(W_,398)*DYNX(DYNhelp,553);
-DYNX(DYNhelp,555) = DYNX(DYNhelp,551)-DYNX(DYNhelp,554)*DYNX(W_,8713)-
- DYNX(DYNhelp,553)*DYNX(W_,8507);
+DYNX(DYNhelp,555) = DYNX(DYNhelp,551)-DYNX(DYNhelp,554)*DYNX(W_,8676)-
+ DYNX(DYNhelp,553)*DYNX(W_,8470);
DYNX(DYNhelp,556) = 0.020461208029722074*DYNX(DYNhelp,550);
DYNX(DYNhelp,557) = DYNX(DYNhelp,555)+DYNX(DYNhelp,556)+0.3751221472115714*
DYNX(DYNhelp,550)-0.6124721603563474*DYNX(DYNhelp,502)-0.6124721603563474*
DYNX(DYNhelp,504)-0.6124721603563474*DYNX(DYNhelp,506)-0.6124721603563474*
DYNX(DYNhelp,507);
DYNX(DYNhelp,558) = 0.6124721603563474*DYNX(DYNhelp,508);
-DYNX(DYNhelp,559) = DYNX(W_,487)*DYNX(W_,8507);
+DYNX(DYNhelp,559) = DYNX(W_,487)*DYNX(W_,8470);
DYNX(DYNhelp,560) = 0.004408460275494665*DYNX(DYNhelp,550);
DYNX(DYNhelp,561) = 0.0011160658925302947*DYNX(DYNhelp,549);
DYNX(DYNhelp,562) = DYNX(DYNhelp,561)+DYNX(W_,305);
@@ -47254,40 +47270,40 @@ DYNX(DYNhelp,563) = DYNX(DYNhelp,562)+DYNX(W_,477)+DYNX(W_,462)+DYNX(W_,488)+
DYNX(W_,450);
DYNX(DYNhelp,564) = DYNX(W_,398)*DYNX(DYNhelp,563);
DYNX(DYNhelp,565) = DYNX(W_,507)*((-1.0)-DYNX(DYNhelp,564));
-DYNX(DYNhelp,566) = DYNX(DYNhelp,560)+DYNX(DYNhelp,565)*DYNX(W_,8713)-
- DYNX(DYNhelp,563)*DYNX(W_,8507)+DYNX(DYNhelp,562)*DYNX(W_,8507);
+DYNX(DYNhelp,566) = DYNX(DYNhelp,560)+DYNX(DYNhelp,565)*DYNX(W_,8676)-
+ DYNX(DYNhelp,563)*DYNX(W_,8470)+DYNX(DYNhelp,562)*DYNX(W_,8470);
DYNX(DYNhelp,567) = DYNX(DYNhelp,566)+DYNX(DYNhelp,556)-0.03340757238307349*
DYNX(DYNhelp,502)-0.03340757238307349*DYNX(DYNhelp,504)-0.03340757238307349*
DYNX(DYNhelp,506)-0.03340757238307349*DYNX(DYNhelp,507)-0.03340757238307349*
DYNX(DYNhelp,508);
DYNX(DYNhelp,568) = 0.03340757238307349*DYNX(DYNhelp,510);
-DYNX(DYNhelp,569) = DYNX(W_,488)*DYNX(W_,8507);
+DYNX(DYNhelp,569) = DYNX(W_,488)*DYNX(W_,8470);
DYNX(DYNhelp,570) = 0.004408460275494665*DYNX(DYNhelp,549)-DYNX(W_,450);
DYNX(DYNhelp,571) = DYNX(W_,398)*DYNX(DYNhelp,570);
DYNX(DYNhelp,572) = DYNX(W_,507)*DYNX(DYNhelp,571);
DYNX(DYNhelp,573) = 0.017413418088203923*DYNX(DYNhelp,550)-DYNX(DYNhelp,572)*
- DYNX(W_,8713)-DYNX(DYNhelp,570)*DYNX(W_,8507)+DYNX(DYNhelp,560)+
+ DYNX(W_,8676)-DYNX(DYNhelp,570)*DYNX(W_,8470)+DYNX(DYNhelp,560)+
DYNX(DYNhelp,551);
DYNX(DYNhelp,574) = 0.1319599109131403*DYNX(DYNhelp,502);
DYNX(DYNhelp,575) = DYNX(DYNhelp,573)-DYNX(DYNhelp,574)-0.1319599109131403*
DYNX(DYNhelp,504)-0.1319599109131403*DYNX(DYNhelp,506)-0.1319599109131403*
DYNX(DYNhelp,507)-0.1319599109131403*DYNX(DYNhelp,508)+0.1319599109131403*
DYNX(DYNhelp,510);
-DYNX(DYNhelp,576) = DYNX(W_,475)*DYNX(W_,8507);
-DYNX(DYNhelp,577) = DYNX(W_,490)*DYNX(W_,8507);
+DYNX(DYNhelp,576) = DYNX(W_,475)*DYNX(W_,8470);
+DYNX(DYNhelp,577) = DYNX(W_,490)*DYNX(W_,8470);
DYNX(DYNhelp,578) = 0.014658130416019759*DYNX(DYNhelp,550);
DYNX(DYNhelp,579) = 0.00371091909266323*DYNX(DYNhelp,549);
DYNX(DYNhelp,580) = DYNX(DYNhelp,579)-DYNX(W_,488);
DYNX(DYNhelp,581) = DYNX(W_,507)*DYNX(W_,398)*DYNX(DYNhelp,580);
-DYNX(DYNhelp,582) = DYNX(DYNhelp,581)*DYNX(W_,8713);
+DYNX(DYNhelp,582) = DYNX(DYNhelp,581)*DYNX(W_,8676);
DYNX(DYNhelp,583) = DYNX(DYNhelp,578)-DYNX(DYNhelp,582)-DYNX(DYNhelp,580)*
- DYNX(W_,8507)+0.00371091909266323*DYNX(DYNhelp,550)+0.06803351669882589*
+ DYNX(W_,8470)+0.00371091909266323*DYNX(DYNhelp,550)+0.06803351669882589*
DYNX(DYNhelp,550)-0.11108017817371936*DYNX(DYNhelp,502)-0.11108017817371936*
DYNX(DYNhelp,504);
DYNX(DYNhelp,584) = 0.11108017817371936*DYNX(DYNhelp,506);
DYNX(DYNhelp,585) = DYNX(DYNhelp,583)-DYNX(DYNhelp,584)-0.11108017817371936*
DYNX(DYNhelp,507)-0.11108017817371936*DYNX(DYNhelp,508)+0.11108017817371936*
- DYNX(DYNhelp,510)-DYNX(W_,498)*DYNX(W_,8718)-DYNX(W_,486)*DYNX(W_,8507);
+ DYNX(DYNhelp,510)-DYNX(W_,498)*DYNX(W_,8681)-DYNX(W_,486)*DYNX(W_,8470);
/* Automatic tearing of linear system of 70 simultaneous equations
gave a linear system of 7 equations for numerical solution.*/
{
@@ -47377,22 +47393,22 @@ gave a linear system of 7 equations for numerical solution.*/
SetMatrixLeading(J, 7, 7, 7, DYNX(DYNhelp,751));
}
SetVector(b, 1, DYNX(DYNhelp,509)+DYNX(DYNhelp,511)+DYNX(DYNhelp,512)*
- DYNX(W_,8507)+DYNX(DYNhelp,513)*DYNX(W_,8507)+DYNX(W_,439)*DYNX(W_,8561)+
- DYNX(W_,8507));
- SetVector(b, 2, DYNX(W_,473)*DYNX(W_,8593)-(DYNX(DYNhelp,530)+DYNX(DYNhelp,531)
- +DYNX(DYNhelp,532)*DYNX(W_,8507))+DYNX(DYNhelp,514)*DYNX(W_,8564)-286.15);
- SetVector(b, 3, DYNX(W_,484)*DYNX(W_,8565)-(DYNX(DYNhelp,543)+DYNX(DYNhelp,545)
- +DYNX(DYNhelp,546)*DYNX(W_,8507)+DYNX(DYNhelp,547)*DYNX(W_,8507)+
- DYNX(DYNhelp,535)*DYNX(W_,8507)));
- SetVector(b, 4, -(DYNX(W_,8581)+DYNX(W_,8563)+DYNX(DYNhelp,557)-
+ DYNX(W_,8470)+DYNX(DYNhelp,513)*DYNX(W_,8470)+DYNX(W_,439)*DYNX(W_,8524)+
+ DYNX(W_,8470));
+ SetVector(b, 2, DYNX(W_,473)*DYNX(W_,8556)-(DYNX(DYNhelp,530)+DYNX(DYNhelp,531)
+ +DYNX(DYNhelp,532)*DYNX(W_,8470))+DYNX(DYNhelp,514)*DYNX(W_,8527)-286.15);
+ SetVector(b, 3, DYNX(W_,484)*DYNX(W_,8528)-(DYNX(DYNhelp,543)+DYNX(DYNhelp,545)
+ +DYNX(DYNhelp,546)*DYNX(W_,8470)+DYNX(DYNhelp,547)*DYNX(W_,8470)+
+ DYNX(DYNhelp,535)*DYNX(W_,8470)));
+ SetVector(b, 4, -(DYNX(W_,8544)+DYNX(W_,8526)+DYNX(DYNhelp,557)-
DYNX(DYNhelp,558)+0.6124721603563474*DYNX(DYNhelp,510)+DYNX(W_,476)*
- DYNX(W_,8507)+DYNX(DYNhelp,559)));
- SetVector(b, 5, -(DYNX(W_,8562)+DYNX(DYNhelp,567)+DYNX(DYNhelp,568)+
- DYNX(W_,477)*DYNX(W_,8507)+DYNX(DYNhelp,569)-DYNX(W_,305)*DYNX(W_,8507)));
- SetVector(b, 6, -(DYNX(W_,8568)+DYNX(DYNhelp,575)+DYNX(DYNhelp,576)+
- DYNX(DYNhelp,577)+DYNX(W_,8561)-DYNX(W_,506)*DYNX(W_,8712)));
- SetVector(b, 7, -(DYNX(W_,8608)+DYNX(DYNhelp,585)-DYNX(DYNhelp,559)-
- DYNX(DYNhelp,577)-DYNX(DYNhelp,569)+DYNX(W_,8565)));
+ DYNX(W_,8470)+DYNX(DYNhelp,559)));
+ SetVector(b, 5, -(DYNX(W_,8525)+DYNX(DYNhelp,567)+DYNX(DYNhelp,568)+
+ DYNX(W_,477)*DYNX(W_,8470)+DYNX(DYNhelp,569)-DYNX(W_,305)*DYNX(W_,8470)));
+ SetVector(b, 6, -(DYNX(W_,8531)+DYNX(DYNhelp,575)+DYNX(DYNhelp,576)+
+ DYNX(DYNhelp,577)+DYNX(W_,8524)-DYNX(W_,506)*DYNX(W_,8675)));
+ SetVector(b, 7, -(DYNX(W_,8571)+DYNX(DYNhelp,585)-DYNX(DYNhelp,559)-
+ DYNX(DYNhelp,577)-DYNX(DYNhelp,569)+DYNX(W_,8528)));
SetVector(y, 1, 288.15);
SetVector(y, 2, 288.15);
SetVector(y, 3, 288.15);
@@ -47401,95 +47417,95 @@ gave a linear system of 7 equations for numerical solution.*/
SetVector(y, 6, 288.15);
SetVector(y, 7, 0);
SolveLinearSystemOfEquations(J, b, y, 1, "simplified homotopy initialization.linear[1]");
- DYNX(W_,8518) = GetVector(y, 1);
- DYNX(W_,8520) = GetVector(y, 2);
- DYNX(W_,8604) = GetVector(y, 3);
- DYNX(W_,8551) = GetVector(y, 4);
- DYNX(W_,8585) = GetVector(y, 5);
- DYNX(W_,8549) = GetVector(y, 6);
- DYNX(W_,8572) = GetVector(y, 7);
+ DYNX(W_,8481) = GetVector(y, 1);
+ DYNX(W_,8483) = GetVector(y, 2);
+ DYNX(W_,8567) = GetVector(y, 3);
+ DYNX(W_,8514) = GetVector(y, 4);
+ DYNX(W_,8548) = GetVector(y, 5);
+ DYNX(W_,8512) = GetVector(y, 6);
+ DYNX(W_,8535) = GetVector(y, 7);
EndStaticLinearSystemOfEquations(J);
}
BreakSectionCallNew(36);
BreakSectionEnd()
BreakSectionStart(36);
-DYNX(W_,8544) = DYNX(W_,8572)+DYNX(W_,8507);
-DYNX(W_,8999) = DYNX(W_,8520)-DYNX(W_,8713);
-DYNX(W_,8521) = -DYNX(W_,507)*DYNX(W_,8999);
-DYNX(W_,8541) = DYNX(W_,398)*DYNX(W_,8521);
-DYNX(DYNhelp,754) = DYNX(W_,8585)+DYNX(W_,8507);
-DYNX(W_,8589) = -(DYNX(W_,8541)-DYNX(W_,8520)+DYNX(DYNhelp,754));
-DYNX(W_,8542) = DYNX(W_,8589)+DYNX(DYNhelp,754);
-DYNX(W_,8547) = DYNX(DYNhelp,754);
-DYNX(W_,8477) = 0.1319599109131403*DYNX(W_,8544)+0.03340757238307349*
- DYNX(W_,8542)+0.6124721603563474*DYNX(W_,8547)+0.11108017817371936*
- DYNX(W_,8549)+0.11108017817371936*DYNX(W_,8551);
-DYNX(W_,9457) = DYNX(DYNhelp,488)*(DYNX(W_,8477)-DYNX(W_,9462));
-DYNX(W_,9458) = DYNX(DYNhelp,490)*(DYNX(W_,8477)-DYNX(W_,9470));
-DYNX(W_,9459) = DYNX(DYNhelp,491)*(DYNX(W_,8477)-DYNX(W_,9478));
-DYNX(W_,9460) = DYNX(DYNhelp,492)*(DYNX(W_,8477)-DYNX(W_,9486));
-DYNX(W_,9461) = DYNX(DYNhelp,493)*(DYNX(W_,8477)-DYNX(W_,9493));
-DYNX(W_,8523) = -(DYNX(DYNhelp,510)+DYNX(W_,9457)+DYNX(W_,9458)+DYNX(W_,9459)+
- DYNX(W_,9460)+DYNX(W_,9461));
-DYNX(W_,8545) = (-0.1319599109131403)*DYNX(W_,8523);
-DYNX(W_,8597) = DYNX(W_,8549)-DYNX(W_,8507);
-DYNX(W_,8596) = DYNX(W_,474)*DYNX(W_,8597);
-DYNX(W_,8550) = (-0.11108017817371936)*DYNX(W_,8523);
-DYNX(W_,8599) = DYNX(W_,8544)-DYNX(W_,8549);
-DYNX(W_,8598) = DYNX(W_,475)*DYNX(W_,8599);
-DYNX(W_,8603) = DYNX(W_,8542)-DYNX(W_,8549);
-DYNX(W_,8602) = DYNX(W_,477)*DYNX(W_,8603);
-DYNX(W_,8601) = DYNX(DYNhelp,754)-DYNX(W_,8549);
-DYNX(W_,8600) = DYNX(W_,476)*DYNX(W_,8601);
-DYNX(W_,8618) = DYNX(W_,8551)-DYNX(W_,8549);
-DYNX(W_,8617) = DYNX(W_,489)*DYNX(W_,8618);
-DYNX(DYNhelp,755) = DYNX(W_,8598)+DYNX(W_,8602);
-DYNX(W_,8591) = -(DYNX(W_,8596)+DYNX(W_,8550)-(DYNX(DYNhelp,755)+DYNX(W_,8600)+
- DYNX(W_,8617))+DYNX(W_,8564));
-DYNX(W_,8590) = DYNX(W_,8593)-DYNX(W_,8591);
-DYNX(W_,8595) = -DYNX(W_,473)*DYNX(W_,8590);
-DYNX(W_,8594) = DYNX(W_,471)*DYNX(W_,8591);
-DYNX(X_,5) = DYNX(W_,8549)-DYNX(W_,8594);
-DYNX(W_,8546) = (-0.03340757238307349)*DYNX(W_,8523);
-DYNX(W_,8548) = (-0.6124721603563474)*DYNX(W_,8523);
-DYNX(W_,8588) = DYNX(W_,462)*DYNX(W_,8589);
-DYNX(W_,8997) = DYNX(W_,8604)-DYNX(W_,8718);
-DYNX(W_,8605) = -DYNX(W_,498)*DYNX(W_,8997);
-DYNX(W_,8610) = -DYNX(W_,485)*DYNX(W_,8605);
-DYNX(W_,8612) = DYNX(W_,8551)-DYNX(W_,8507);
-DYNX(W_,8611) = DYNX(W_,486)*DYNX(W_,8612);
-DYNX(W_,8614) = DYNX(W_,8551)-DYNX(DYNhelp,754);
-DYNX(W_,8613) = DYNX(W_,487)*DYNX(W_,8614);
-DYNX(W_,8620) = DYNX(W_,8544)-DYNX(W_,8551);
-DYNX(W_,8619) = DYNX(W_,490)*DYNX(W_,8620);
-DYNX(W_,8616) = DYNX(W_,8542)-DYNX(W_,8551);
-DYNX(W_,8615) = DYNX(W_,488)*DYNX(W_,8616);
-DYNX(W_,8552) = DYNX(W_,8550);
-DYNX(DYNhelp,756) = DYNX(W_,8613)-DYNX(W_,8619);
-DYNX(W_,8606) = -(DYNX(W_,8611)+DYNX(DYNhelp,756)+DYNX(W_,8617)-DYNX(W_,8615)+
- DYNX(W_,8552)+DYNX(W_,8565));
-DYNX(W_,8609) = DYNX(W_,484)*DYNX(W_,8606);
-DYNX(X_,6) = DYNX(W_,8551)-DYNX(W_,8609);
-DYNX(W_,8587) = DYNX(W_,8572)-DYNX(W_,8585);
-DYNX(W_,8586) = DYNX(W_,461)*DYNX(W_,8587);
-DYNX(W_,8584) = DYNX(W_,460)*DYNX(W_,8585);
-DYNX(W_,8576) = DYNX(W_,8589)+DYNX(W_,8585)-DYNX(W_,8572);
-DYNX(W_,8575) = DYNX(W_,450)*DYNX(W_,8576);
-DYNX(W_,8574) = DYNX(W_,8542)-DYNX(W_,8507);
-DYNX(W_,8573) = DYNX(W_,305)*DYNX(W_,8574);
-DYNX(W_,8571) = DYNX(W_,441)*DYNX(W_,8572);
-DYNX(DYNhelp,757) = DYNX(W_,8598)+DYNX(W_,8586);
-DYNX(W_,8566) = -(DYNX(W_,8571)+DYNX(DYNhelp,757)+DYNX(W_,8619)-DYNX(W_,8575)+
- DYNX(W_,8545)+DYNX(W_,8561));
-DYNX(W_,8569) = DYNX(W_,439)*DYNX(W_,8566);
-DYNX(X_,3) = DYNX(W_,8544)-DYNX(W_,8569);
-DYNX(W_,8998) = DYNX(W_,8518)-DYNX(W_,8712);
-DYNX(W_,8519) = -DYNX(W_,506)*DYNX(W_,8998);
-DYNX(W_,8570) = -DYNX(W_,440)*DYNX(W_,8519);
+DYNX(W_,8507) = DYNX(W_,8535)+DYNX(W_,8470);
+DYNX(W_,8962) = DYNX(W_,8483)-DYNX(W_,8676);
+DYNX(W_,8484) = -DYNX(W_,507)*DYNX(W_,8962);
+DYNX(W_,8504) = DYNX(W_,398)*DYNX(W_,8484);
+DYNX(DYNhelp,754) = DYNX(W_,8548)+DYNX(W_,8470);
+DYNX(W_,8552) = -(DYNX(W_,8504)-DYNX(W_,8483)+DYNX(DYNhelp,754));
+DYNX(W_,8505) = DYNX(W_,8552)+DYNX(DYNhelp,754);
+DYNX(W_,8510) = DYNX(DYNhelp,754);
+DYNX(W_,8440) = 0.1319599109131403*DYNX(W_,8507)+0.03340757238307349*
+ DYNX(W_,8505)+0.6124721603563474*DYNX(W_,8510)+0.11108017817371936*
+ DYNX(W_,8512)+0.11108017817371936*DYNX(W_,8514);
+DYNX(W_,9426) = DYNX(DYNhelp,488)*(DYNX(W_,8440)-DYNX(W_,9431));
+DYNX(W_,9427) = DYNX(DYNhelp,490)*(DYNX(W_,8440)-DYNX(W_,9439));
+DYNX(W_,9428) = DYNX(DYNhelp,491)*(DYNX(W_,8440)-DYNX(W_,9447));
+DYNX(W_,9429) = DYNX(DYNhelp,492)*(DYNX(W_,8440)-DYNX(W_,9455));
+DYNX(W_,9430) = DYNX(DYNhelp,493)*(DYNX(W_,8440)-DYNX(W_,9462));
+DYNX(W_,8486) = -(DYNX(DYNhelp,510)+DYNX(W_,9426)+DYNX(W_,9427)+DYNX(W_,9428)+
+ DYNX(W_,9429)+DYNX(W_,9430));
+DYNX(W_,8508) = (-0.1319599109131403)*DYNX(W_,8486);
+DYNX(W_,8560) = DYNX(W_,8512)-DYNX(W_,8470);
+DYNX(W_,8559) = DYNX(W_,474)*DYNX(W_,8560);
+DYNX(W_,8513) = (-0.11108017817371936)*DYNX(W_,8486);
+DYNX(W_,8562) = DYNX(W_,8507)-DYNX(W_,8512);
+DYNX(W_,8561) = DYNX(W_,475)*DYNX(W_,8562);
+DYNX(W_,8566) = DYNX(W_,8505)-DYNX(W_,8512);
+DYNX(W_,8565) = DYNX(W_,477)*DYNX(W_,8566);
+DYNX(W_,8564) = DYNX(DYNhelp,754)-DYNX(W_,8512);
+DYNX(W_,8563) = DYNX(W_,476)*DYNX(W_,8564);
+DYNX(W_,8581) = DYNX(W_,8514)-DYNX(W_,8512);
+DYNX(W_,8580) = DYNX(W_,489)*DYNX(W_,8581);
+DYNX(DYNhelp,755) = DYNX(W_,8561)+DYNX(W_,8565);
+DYNX(W_,8554) = -(DYNX(W_,8559)+DYNX(W_,8513)-(DYNX(DYNhelp,755)+DYNX(W_,8563)+
+ DYNX(W_,8580))+DYNX(W_,8527));
+DYNX(W_,8553) = DYNX(W_,8556)-DYNX(W_,8554);
+DYNX(W_,8558) = -DYNX(W_,473)*DYNX(W_,8553);
+DYNX(W_,8557) = DYNX(W_,471)*DYNX(W_,8554);
+DYNX(X_,5) = DYNX(W_,8512)-DYNX(W_,8557);
+DYNX(W_,8509) = (-0.03340757238307349)*DYNX(W_,8486);
+DYNX(W_,8511) = (-0.6124721603563474)*DYNX(W_,8486);
+DYNX(W_,8551) = DYNX(W_,462)*DYNX(W_,8552);
+DYNX(W_,8960) = DYNX(W_,8567)-DYNX(W_,8681);
+DYNX(W_,8568) = -DYNX(W_,498)*DYNX(W_,8960);
+DYNX(W_,8573) = -DYNX(W_,485)*DYNX(W_,8568);
+DYNX(W_,8575) = DYNX(W_,8514)-DYNX(W_,8470);
+DYNX(W_,8574) = DYNX(W_,486)*DYNX(W_,8575);
+DYNX(W_,8577) = DYNX(W_,8514)-DYNX(DYNhelp,754);
+DYNX(W_,8576) = DYNX(W_,487)*DYNX(W_,8577);
+DYNX(W_,8583) = DYNX(W_,8507)-DYNX(W_,8514);
+DYNX(W_,8582) = DYNX(W_,490)*DYNX(W_,8583);
+DYNX(W_,8579) = DYNX(W_,8505)-DYNX(W_,8514);
+DYNX(W_,8578) = DYNX(W_,488)*DYNX(W_,8579);
+DYNX(W_,8515) = DYNX(W_,8513);
+DYNX(DYNhelp,756) = DYNX(W_,8576)-DYNX(W_,8582);
+DYNX(W_,8569) = -(DYNX(W_,8574)+DYNX(DYNhelp,756)+DYNX(W_,8580)-DYNX(W_,8578)+
+ DYNX(W_,8515)+DYNX(W_,8528));
+DYNX(W_,8572) = DYNX(W_,484)*DYNX(W_,8569);
+DYNX(X_,6) = DYNX(W_,8514)-DYNX(W_,8572);
+DYNX(W_,8550) = DYNX(W_,8535)-DYNX(W_,8548);
+DYNX(W_,8549) = DYNX(W_,461)*DYNX(W_,8550);
+DYNX(W_,8547) = DYNX(W_,460)*DYNX(W_,8548);
+DYNX(W_,8539) = DYNX(W_,8552)+DYNX(W_,8548)-DYNX(W_,8535);
+DYNX(W_,8538) = DYNX(W_,450)*DYNX(W_,8539);
+DYNX(W_,8537) = DYNX(W_,8505)-DYNX(W_,8470);
+DYNX(W_,8536) = DYNX(W_,305)*DYNX(W_,8537);
+DYNX(W_,8534) = DYNX(W_,441)*DYNX(W_,8535);
+DYNX(DYNhelp,757) = DYNX(W_,8561)+DYNX(W_,8549);
+DYNX(W_,8529) = -(DYNX(W_,8534)+DYNX(DYNhelp,757)+DYNX(W_,8582)-DYNX(W_,8538)+
+ DYNX(W_,8508)+DYNX(W_,8524));
+DYNX(W_,8532) = DYNX(W_,439)*DYNX(W_,8529);
+DYNX(X_,3) = DYNX(W_,8507)-DYNX(W_,8532);
+DYNX(W_,8961) = DYNX(W_,8481)-DYNX(W_,8675);
+DYNX(W_,8482) = -DYNX(W_,506)*DYNX(W_,8961);
+DYNX(W_,8533) = -DYNX(W_,440)*DYNX(W_,8482);
/* End of Equation Block */
BreakSectionEnd()
-BreakSectionStart(38);
+BreakSectionStart(37);
/* Introducing 7 common subexpressions used in 7 expressions */
/* Of the common subexpressions 7 are reals, 0 are integers, and 0
are booleans. */
@@ -47498,25 +47514,25 @@ BreakSectionStart(38);
/* Tag: simplified homotopy initialization.linear[2] */
DYNX(DYNhelp,1025) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0007128092485467548, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0007128092485467548,
- 1, RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
- 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3694),
- 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(DYNX(W_,3693)))))
+ 1, RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
+ 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3656),
+ 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(DYNX(W_,3655)))))
-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006449226534470638, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006449226534470638,
- 1, RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
- 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3694),
- 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(DYNX(W_,3693)))));
+ 1, RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
+ 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3656),
+ 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(DYNX(W_,3655)))));
PopAllMarks();
-DYNX(DYNhelp,1026) = 0.0010044335697769957*(14730.448603756127*DYNX(W_,8394)*
+DYNX(DYNhelp,1026) = 0.0010044335697769957*(14730.448603756127*DYNX(W_,8357)*
DYNX(DYNhelp,1025)-1579.6308437062728);
DYNX(DYNhelp,1027) = DYNX(DYNhelp,1026)-3329.0453419846494;
DYNX(DYNhelp,1028) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006788659509969093, \n1, \nhydraulic.generation.pump.eff.preDer2, \n5842.499999999999, \n0.0009246622435992386, \nhydraulic.generation.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006788659509969093,
- 1, RealTemporaryDense( &DYNX(W_,3716), 1, 4), 5842.499999999999,
- 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3694),
- 1, 4), RealTemporaryDense( &DYNX(W_,3698), 1, 4), (Integer)(DYNX(W_,3693)))));
+ 1, RealTemporaryDense( &DYNX(W_,3678), 1, 4), 5842.499999999999,
+ 0.0009246622435992386, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,3656),
+ 1, 4), RealTemporaryDense( &DYNX(W_,3660), 1, 4), (Integer)(DYNX(W_,3655)))));
PopAllMarks();
-DYNX(DYNhelp,1029) = -DYNX(W_,3815);
+DYNX(DYNhelp,1029) = -DYNX(W_,3777);
/* Automatic tearing of linear system of 14 simultaneous equations
gave a linear system of 3 equations for numerical solution.*/
DYNX(DYNhelp,1030) = 0.00033793471834460447*DYNX(DYNhelp,1027);
@@ -47524,33 +47540,33 @@ DYNX(DYNhelp,1030) = 0.00033793471834460447*DYNX(DYNhelp,1027);
const char*const varnames_[]={"hydraulic.distribution.resBui.dp",
"hydraulic.generation.portGen_out[1].p", "hydraulic.distribution.resDHW.dp"};
const double nominal_[]={1000.0, 100000.0, 1000.0};
-DYNX(W_,8465)=0;
-DYNX(W_,8337)=DYNX(W_,3912);
-DYNX(W_,8466)=0;
+DYNX(W_,8428)=0;
+DYNX(W_,8297)=DYNX(W_,3872);
+DYNX(W_,8429)=0;
SolveLinear3by3(DYNX(DYNhelp,1030), 1.0-0.0006758694366892089*DYNX(DYNhelp,1027),
DYNX(DYNhelp,1030),
2.0, -1.0, 0.0,
0.0, -1.0, 2.0,
-DYNX(W_,3815)-0.0006758694366892089*DYNX(DYNhelp,1027)*DYNX(W_,3815)+
- DYNX(W_,8394)*(DYNX(DYNhelp,1028)-9.999999999999998*DYNX(DYNhelp,1025)),
- DYNX(DYNhelp,1029), DYNX(DYNhelp,1029), &DYNX(W_,8465), &DYNX(W_,8337), &
- DYNX(W_,8466),
+DYNX(W_,3777)-0.0006758694366892089*DYNX(DYNhelp,1027)*DYNX(W_,3777)+
+ DYNX(W_,8357)*(DYNX(DYNhelp,1028)-9.999999999999998*DYNX(DYNhelp,1025)),
+ DYNX(DYNhelp,1029), DYNX(DYNhelp,1029), &DYNX(W_,8428), &DYNX(W_,8297), &
+ DYNX(W_,8429),
varnames_, (DSE_STRUCT QiErr), "simplified homotopy initialization.linear[2]");
if (*(DSE_STRUCT QiErr)!=0) {goto leave;}
}
-DYNX(W_,8456) = DYNX(W_,8465)+DYNX(W_,3815)-DYNX(W_,8337);
-DYNX(W_,8453) = 0.00033793471834460447*DYNX(W_,8456);
-DYNX(W_,8459) = DYNX(W_,8466)+DYNX(W_,3815)-DYNX(W_,8337);
-DYNX(W_,8452) = 0.00033793471834460447*DYNX(W_,8459);
-DYNX(W_,8336) = DYNX(W_,8453)+DYNX(W_,8452);
-DYNX(W_,8346) = (-369.8939268871833)*DYNX(W_,8336);
-DYNX(W_,8396) = (-0.0010044335697769957)*DYNX(W_,8336);
-DYNX(DYNhelp,1031) = DYNX(W_,8396)-0.0006788659509969093;
-DYNX(W_,8397) = DYNX(W_,8394)*(DYNX(DYNhelp,1028)+14730.448603756127*
- DYNX(DYNhelp,1031)*DYNX(DYNhelp,1025))-1579.6308437062728*DYNX(W_,8396);
-DYNX(W_,8339) = DYNX(W_,8397)+DYNX(W_,3815);
-DYNX(W_,8340) = DYNX(W_,8339)-DYNX(W_,8346);
-DYNX(W_,8416) = (-2959.1514150974663)*DYNX(W_,8336);
+DYNX(W_,8419) = DYNX(W_,8428)+DYNX(W_,3777)-DYNX(W_,8297);
+DYNX(W_,8416) = 0.00033793471834460447*DYNX(W_,8419);
+DYNX(W_,8422) = DYNX(W_,8429)+DYNX(W_,3777)-DYNX(W_,8297);
+DYNX(W_,8415) = 0.00033793471834460447*DYNX(W_,8422);
+DYNX(W_,8296) = DYNX(W_,8416)+DYNX(W_,8415);
+DYNX(W_,8308) = (-369.8939268871833)*DYNX(W_,8296);
+DYNX(W_,8359) = (-0.0010044335697769957)*DYNX(W_,8296);
+DYNX(DYNhelp,1031) = DYNX(W_,8359)-0.0006788659509969093;
+DYNX(W_,8360) = DYNX(W_,8357)*(DYNX(DYNhelp,1028)+14730.448603756127*
+ DYNX(DYNhelp,1031)*DYNX(DYNhelp,1025))-1579.6308437062728*DYNX(W_,8359);
+DYNX(W_,8300) = DYNX(W_,8360)+DYNX(W_,3777);
+DYNX(W_,8301) = DYNX(W_,8300)-DYNX(W_,8308);
+DYNX(W_,8379) = (-2959.1514150974663)*DYNX(W_,8296);
/* End of Equation Block */
BreakSectionEnd()
@@ -47565,49 +47581,49 @@ const char*const varnames_[]={"ventilation.generation.portVent_in[1].p"};
const double nominal_[]={100000.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 4, -2,
DYNX(DYNhelp,1119), 35, DYNX(did_->helpvari_vec,104), 23);
-SetInitVector(x__, 1, DYNX(W_,9533), DYNX(W_,6888));
+SetInitVector(x__, 1, DYNX(W_,9502), DYNX(W_,6848));
Residues;
- DYNX(W_,9690) = DYNX(W_,9533)-DYNX(W_,8511);
- DYNX(W_,8510) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.distribution.resSup[1].dp, 0.010888888888888889, 0.03266666666666667)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9690),
+ DYNX(W_,9659) = DYNX(W_,9502)-DYNX(W_,8474);
+ DYNX(W_,8473) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp(ventilation.distribution.resSup[1].dp, 0.010888888888888889, 0.03266666666666667)")
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dp(DYNX(W_,9659),
0.010888888888888889, 0.03266666666666667));
PopModelContext();
- DYNX(DYNhelp,1154) = divinvGuarded(DYNX(W_,9598),"ventilation.generation.fanFlow.eff.rho");
- DYNX(W_,9576) = DYNX(DYNhelp,1154)*DYNX(W_,8510);
- DYNX(DYNhelp,1155) = DYNX(W_,9576)-0.1814814814814815;
+ DYNX(DYNhelp,1154) = divinvGuarded(DYNX(W_,9567),"ventilation.generation.fanFlow.eff.rho");
+ DYNX(W_,9545) = DYNX(DYNhelp,1154)*DYNX(W_,8473);
+ DYNX(DYNhelp,1155) = DYNX(W_,9545)-0.1814814814814815;
DYNX(DYNhelp,1156) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1905555555555556, 1,
- RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121), 1,
- 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))))-
+ RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))))-
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1724074074074074, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1724074074074074, 1,
- RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121), 1,
- 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))));
+ RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))));
PopAllMarks();
- DYNX(W_,9577) = DYNX(DP_,1371)*((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
+ DYNX(W_,9546) = DYNX(DP_,1377)*((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanFlow.eff.preDer1, \n224.00000000000003, \n0.1814814814814815, \nventilation.generation.fanFlow.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1814814814814815, 1,
- RealTemporaryDense( &DYNX(W_,7147), 1, 3), 224.00000000000003,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7121), 1,
- 3), RealTemporaryDense( &DYNX(W_,7124), 1, 3), (Integer)(DYNX(W_,7120)))))+
+ RealTemporaryDense( &DYNX(W_,7107), 1, 3), 224.00000000000003,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7081), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7084), 1, 3), (Integer)(DYNX(W_,7080)))))+
55.10204081632653*DYNX(DYNhelp,1155)*DYNX(DYNhelp,1156))-0.30857142857142866
- *DYNX(W_,9576);
+ *DYNX(W_,9545);
PopAllMarks();
-SetVector(residue__, 1, DYNX(W_,9577)-DYNX(W_,9533)+DYNX(W_,9536));
+SetVector(residue__, 1, DYNX(W_,9546)-DYNX(W_,9502)+DYNX(W_,9505));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
-DYNX(DYNhelp,1157) = DYNX(DP_,1371)*DYNX(DYNhelp,1156);
+DYNX(DYNhelp,1157) = DYNX(DP_,1377)*DYNX(DYNhelp,1156);
SetMatrixLeading(Jacobian__, 1, 1, 1, DYNX(DYNhelp,1154)*(PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_dp_der(ventilation.distribution.resSup[1].dp, 0.010888888888888889, 0.03266666666666667, 1.0)")
- IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9690),
+ IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0dpx_0der(DYNX(W_,9659),
0.010888888888888889, 0.03266666666666667, 1.0))*(55.10204081632653*
DYNX(DYNhelp,1157)-0.30857142857142866)-1.0);
PopModelContext();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: simplified homotopy initialization.nonlinear[1]");
-DYNX(W_,9533) = GetVector(x__, 1);
+DYNX(W_,9502) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 4);
/* End of Non-Linear Equation Block */ }
@@ -47621,25 +47637,25 @@ BreakSectionStart(40);
/* Linear system of equations to solve. */
DYNX(DYNhelp,1197) = (PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1905555555555556, 1,
- RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))))-
+ RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))))-
(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1724074074074074, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1724074074074074, 1,
- RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))));
+ RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))));
PopAllMarks();
-DYNX(W_,9616) = 0;
-SolveScalarLinearParametric(0.925714285714286-55.10204081632653*DYNX(DP_,1371)*
+DYNX(W_,9585) = 0;
+SolveScalarLinearParametric(0.925714285714286-55.10204081632653*DYNX(DP_,1377)*
DYNX(DYNhelp,1197),"0.925714285714286-55.10204081632653*(ventilation.generation.fanRet.eff.r_N*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)-IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1724074074074074, \n1, \nventilation.generation.fanRet.e...",
- DYNX(DP_,1371)*((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
+ DYNX(DP_,1377)*((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.1814814814814815, 1,
- RealTemporaryDense( &DYNX(W_,7525), 1, 3), 672.0000000000001,
- 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7499), 1,
- 3), RealTemporaryDense( &DYNX(W_,7502), 1, 3), (Integer)(DYNX(W_,7498)))))-
- 10.0*DYNX(DYNhelp,1197))-DYNX(W_,9617),"ventilation.generation.fanRet.eff.r_N*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)-10.0*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001,...",
- DYNX(W_,9616),"ventilation.generation.fanRet.VMachine_flow");
+ RealTemporaryDense( &DYNX(W_,7485), 1, 3), 672.0000000000001,
+ 0.1814814814814815, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,7459), 1,
+ 3), RealTemporaryDense( &DYNX(W_,7462), 1, 3), (Integer)(DYNX(W_,7458)))))-
+ 10.0*DYNX(DYNhelp,1197))-DYNX(W_,9586),"ventilation.generation.fanRet.eff.r_N*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1814814814814815, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001, \n0.1814814814814815, \nventilation.generation.fanRet.eff.pCur1)-10.0*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.1905555555555556, \n1, \nventilation.generation.fanRet.eff.preDer1, \n672.0000000000001,...",
+ DYNX(W_,9585),"ventilation.generation.fanRet.VMachine_flow");
/* End of Equation Block */
BreakSectionEnd()
@@ -47651,26 +47667,26 @@ const char*const varnames_[]={"ventilation.generation.threeWayValve_a.res1.dp"};
const double nominal_[]={6000.0};
NonLinearSystemOfEquations(Jacobian__, residue__, x__, 1, 0, 0, 7, -2,
DYNX(DYNhelp,1235), 35, DYNX(did_->helpvari_vec,173), 23);
-SetInitVectorSimple(x__, 1, DYNX(W_,9670), 17, 0);
+SetInitVectorSimple(x__, 1, DYNX(W_,9639), 17, 0);
Residues;
- DYNX(W_,9649) = (-0.000362962962962963)*DYNX(W_,9670);
- DYNX(W_,9652) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.threeWayValve_b.res1.m_flow, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent)")
+ DYNX(W_,9618) = (-0.000362962962962963)*DYNX(W_,9639);
+ DYNX(W_,9621) = (PushModelContext(1,"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow(ventilation.generation.threeWayValve_b.res1.m_flow, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flow(
- DYNX(W_,9649), DYNX(W_,7672), DYNX(W_,7653)));
+ DYNX(W_,9618), DYNX(W_,7632), DYNX(W_,7613)));
PopModelContext();
-SetVector(residue__, 1, DYNX(W_,9670)-(DYNX(W_,9652)+DYNX(W_,7258))+
- DYNX(W_,9605));
+SetVector(residue__, 1, DYNX(W_,9639)-(DYNX(W_,9621)+DYNX(W_,7218))+
+ DYNX(W_,9574));
Jacobian(Jacobian__)
MatrixZeros(Jacobian__);
SetMatrixLeading(Jacobian__, 1, 1, 1, 1.0+0.000362962962962963*(PushModelContext(1,
"IBPSA.Fluid.BaseClasses.FlowModels.basicFlowFunction_m_flow_der(ventilation.generation.threeWayValve_b.res1.m_flow, ventilation.generation.threeWayValve_b.res1.k, ventilation.generation.threeWayValve_b.res1.m_flow_turbulent, 1.0)")
IBPSA_Fluid_BaseClasses_FlowModels_basicFlowFunctionx_0mx_0flowx_0der(
- DYNX(W_,9649), DYNX(W_,7672), DYNX(W_,7653), 1.0)));
+ DYNX(W_,9618), DYNX(W_,7632), DYNX(W_,7613), 1.0)));
PopModelContext();
SolveNonLinearSystemOfEquationsInit(Jacobian__, 0, 0, 0, residue__, x__,"Tag: simplified homotopy initialization.nonlinear[2]");
-DYNX(W_,9670) = GetVector(x__, 1);
+DYNX(W_,9639) = GetVector(x__, 1);
EndNonLinearSystemOfEquationsInit(residue__, x__, 7);
/* End of Non-Linear Equation Block */ }
@@ -47684,27 +47700,27 @@ BreakSectionStart(42);
/* Linear system of equations to solve. */
/* Tag: simplified homotopy initialization.linear[3] */
-DYNX(DYNhelp,1305) = divinvGuarded(DYNX(W_,7697),"ventilation.generation.threeWayValve_b.res3.dp_nominal_pos");
-DYNX(W_,9653) = 0;
-SolveScalarLinearParametric(1.0+DYNX(DYNhelp,1305)*(100.0+DYNX(W_,7887)),
+DYNX(DYNhelp,1305) = divinvGuarded(DYNX(W_,7657),"ventilation.generation.threeWayValve_b.res3.dp_nominal_pos");
+DYNX(W_,9622) = 0;
+SolveScalarLinearParametric(1.0+DYNX(DYNhelp,1305)*(100.0+DYNX(W_,7847)),
"1.0+(100.0+ventilation.generation.threeWayValve_a.res3.dp_nominal_pos)/ventilation.generation.threeWayValve_b.res3.dp_nominal_pos",
- DYNX(W_,9605)-DYNX(W_,7258),"ventilation.generation.threeWayValve_a.res1.port_b.p-ventilation.generation.threeWayValve_b.res1.port_b.p",
- DYNX(W_,9653),"ventilation.generation.threeWayValve_b.res3.dp");
-DYNX(W_,9538) = DYNX(DYNhelp,1305)*0.1088888888888889*DYNX(W_,9653);
-DYNX(W_,9671) = (-9.183673469387754)*DYNX(W_,9538)*DYNX(W_,7887);
-DYNX(W_,9560) = 918.3673469387754*DYNX(W_,9538);
+ DYNX(W_,9574)-DYNX(W_,7218),"ventilation.generation.threeWayValve_a.res1.port_b.p-ventilation.generation.threeWayValve_b.res1.port_b.p",
+ DYNX(W_,9622),"ventilation.generation.threeWayValve_b.res3.dp");
+DYNX(W_,9507) = DYNX(DYNhelp,1305)*0.1088888888888889*DYNX(W_,9622);
+DYNX(W_,9640) = (-9.183673469387754)*DYNX(W_,9507)*DYNX(W_,7847);
+DYNX(W_,9529) = 918.3673469387754*DYNX(W_,9507);
/* End of Equation Block */
BreakSectionEnd()
-BreakSectionStart(44);
+BreakSectionStart(43);
/* Linear system of equations to solve. */
-DYNX(W_,9036) = 10.0*DYNX(DP_,378);
+DYNX(W_,8999) = 10.0*DYNX(DP_,378);
SolveScalarLinear( -((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.00020088671395539914, \n1, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.00020088671395539914,
1, RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
0.0002736215586633885, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,1356),
1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(DYNX(W_,1355)))))
- +49779.299999999996*(DYNX(W_,9039)-0.00020088671395539914)*((PushModelContext(1,
+ +49779.299999999996*(DYNX(W_,9002)-0.00020088671395539914)*((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0002109310496531691, \n1, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0002109310496531691,
1, RealTemporaryDense( &DYNX(W_,1378), 1, 4), 113.99999999999999,
@@ -47716,33 +47732,33 @@ SolveScalarLinear( -((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Charact
0.0002736215586633885, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,1356),
1, 4), RealTemporaryDense( &DYNX(W_,1360), 1, 4), (Integer)(DYNX(W_,1355))))))),
" -(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.00020088671395539914, \n1, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nDHW.pump.eff.pCur2)+49779.299999999996*((DHW.pump.eff.V_flow-0.00020088671395539914)*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0002109310496531691, \n1, \nDHW.pump.eff.preDer2, \n113.99999999999999, \n0.0002736215586633885, \nD...",
- -(104.15845936708862*DYNX(W_,9039)+DYNX(W_,1270))," -(104.15845936708862*DHW.pump.eff.V_flow+DHW.pump.eff.dp_internal)",
- DYNX(W_,9036),"DHW.pump.y_actual");
+ -(104.15845936708862*DYNX(W_,9002)+DYNX(W_,1270))," -(104.15845936708862*DHW.pump.eff.V_flow+DHW.pump.eff.dp_internal)",
+ DYNX(W_,8999),"DHW.pump.y_actual");
/* End of Equation Block */
BreakSectionEnd()
-BreakSectionStart(45);
+BreakSectionStart(44);
/* Linear system of equations to solve. */
-DYNX(W_,9503) = 1.0;
+DYNX(W_,9472) = 1.0;
SolveScalarLinear( -((PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006380161483131281, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006380161483131281,
- 1, RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
- 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6514),
- 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(DYNX(W_,6513)))))
- +15673.584479702165*(DYNX(W_,9506)-0.0006380161483131281)*((PushModelContext(1,
+ 1, RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
+ 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6474),
+ 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(DYNX(W_,6473)))))
+ +15673.584479702165*(DYNX(W_,9475)-0.0006380161483131281)*((PushModelContext(1,
"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006699169557287845, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006699169557287845,
- 1, RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
- 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6514),
- 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(DYNX(W_,6513)))))
+ 1, RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
+ 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6474),
+ 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(DYNX(W_,6473)))))
-(PushModelContext(1,"IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006061153408974717, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)")
IBPSA_Fluid_Movers_BaseClasses_Characteristics_pressure(0.0006061153408974717,
- 1, RealTemporaryDense( &DYNX(W_,6536), 1, 4), 19213.618833465865,
- 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6514),
- 1, 4), RealTemporaryDense( &DYNX(W_,6518), 1, 4), (Integer)(DYNX(W_,6513))))))),
+ 1, RealTemporaryDense( &DYNX(W_,6496), 1, 4), 19213.618833465865,
+ 0.0008690219951161572, DymStruc6_construct(RealTemporaryDense( &DYNX(W_,6474),
+ 1, 4), RealTemporaryDense( &DYNX(W_,6478), 1, 4), (Integer)(DYNX(W_,6473))))))),
" -(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006380161483131281, \n1, \nhydraulic.transfer.pumFixMFlo[1].eff.preDer2, \n19213.618833465865, \n0.0008690219951161572, \nhydraulic.transfer.pumFixMFlo[1].eff.pCur2)+15673.584479702165*((hydraulic.transfer.pumFixMFlo[1].eff.V_flow-0.0006380161483131281)*(IBPSA.Fluid.Movers.BaseClasses.Characteristics.pressure(\n0.0006699169557287845, \n1, ...",
- -(5527.368392700377*DYNX(W_,9506)+DYNX(W_,9518))," -(5527.368392700377*hydraulic.transfer.pumFixMFlo[1].eff.V_flow+hydraulic.transfer.pumFixMFlo[1].eff.dp_internal)",
- DYNX(W_,9503),"hydraulic.transfer.pumFixMFlo[1].y_actual");
+ -(5527.368392700377*DYNX(W_,9475)+DYNX(W_,9487))," -(5527.368392700377*hydraulic.transfer.pumFixMFlo[1].eff.V_flow+hydraulic.transfer.pumFixMFlo[1].eff.dp_internal)",
+ DYNX(W_,9472),"hydraulic.transfer.pumFixMFlo[1].y_actual");
/* End of Equation Block */
BreakSectionEnd()
@@ -47781,8 +47797,8 @@ BreakSectionFunctionCallNew(31);
BreakSectionFunctionCallNew(32);
BreakSectionFunctionCallNew(33);
BreakSectionFunctionCallNew(34);
-BreakSectionFunctionCallNew(37);
-BreakSectionFunctionCallNew(43);
+BreakSectionFunctionCallNew(38);
+BreakSectionFunctionCallNew(45);
BreakSectionFunctionCallNew(46);
BreakSectionFunctionCallNew(47);
BreakSectionFunctionCallNew(48);
diff --git a/BuildingSim/working_dir/Modelica_RollOut/dsmodelext1.c b/BuildingSim/working_dir/Modelica_RollOut/dsmodelext1.c
index f9c521570c99754c84344aa990a62586d9daf060..2294e2c3a9f7c46a90f6d920992eacdb342604ce 100644
--- a/BuildingSim/working_dir/Modelica_RollOut/dsmodelext1.c
+++ b/BuildingSim/working_dir/Modelica_RollOut/dsmodelext1.c
@@ -5,4353 +5,4380 @@ PreNonAliasDef(8)
PreNonAliasDef(9)
PreNonAliasDef(10)
StartNonAlias(5)
+DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_a.T", \
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
+ 9274, 1028)
+DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_a.Q_flow",\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", \
+"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9275, 1156)
+DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_b.T", \
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
+ 9274, 1028)
+DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heaFloSen.port_b.Q_flow",\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", \
+"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", -1, 5, 9275, 1156)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].use_C_flow", \
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4748,\
+ false, 0.0,0.0,0.0,0,515)
+DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].heatPort.T", \
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
+ 9274, 4)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", \
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9275,\
+ 0.0, 0.0,0.0,0.0,0,776)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.energyDynamics",\
+ "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
+ 4749, 2, 1.0,4.0,0.0,0,2565)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.massDynamics",\
+ "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
+ 4750, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4791, 2, 1.0,4.0,0.0,0,2565)
+ 4751, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4792, 2, 1.0,4.0,0.0,0,2565)
+ 4752, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4793, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4753, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4794, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4754, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4795, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4755, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4796, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4756, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4797, false, 0.0,0.0,0.0,0,2563)
+ 4757, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 4798, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 4758, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4799, true, 0.0,0.0,0.0,0,2563)
+ 4759, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4800, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4760, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4801, false, 0.0,0.0,0.0,0,2563)
+ 4761, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4802,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4762,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9306, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9275, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1,\
- 5, 9304, 1024)
+ 5, 9273, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer_HE[3].dynBal.U", 1,\
1, 46, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m", 1,\
- 5, 4810, 1024)
+ 5, 4770, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9304, 1028)
+ "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9273, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9304, 1028)
+ "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1, 5, 9273, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4803, false, 0.0,0.0,0.0,0,2563)
+ 4763, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4804, true, 0.0,0.0,0.0,0,2563)
+ 4764, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4805, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4765, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9307, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9276, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1,\
- 5, 9304, 1024)
+ 5, 9273, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoDHW.layer_HE[3].ports[1].h_outflow", 1,\
- 5, 9304, 1024)
+ 5, 9273, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4806, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4766, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4807, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4767, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4808, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4768, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T", 1,\
- 5, 9307, 1024)
+ 5, 9276, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9308, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9277, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 4809, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 4769, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.U", \
"Internal energy of fluid [J]", 46, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 46, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.m", \
-"Mass of fluid [kg]", 4810, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4770, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4811, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4771, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4812, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4772, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9309, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9278, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.fluidVolume", \
-"Volume [m3]", 4813, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4773, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4814, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4774, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports_H_flow[1]",\
- "[W]", 9310, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9279, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.ports_H_flow[2]",\
- "[W]", 9311, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9280, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4815, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4775, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4816, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4776, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4817, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4777, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4818, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4778, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4819, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4779, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4820, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4780, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4821, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4781, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4822, false, 0.0,0.0,0.0,0,2563)
+ 4782, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[3].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4823, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4783, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4824, 2, 1.0,4.0,0.0,0,517)
+ 4784, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4825, 2, 1.0,4.0,0.0,0,517)
+ 4785, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4826, 2, 1.0,4.0,0.0,0,517)
+ 4786, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4827, 2, 1.0,4.0,0.0,0,517)
+ 4787, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].p_start", \
-"Start value of pressure [Pa|bar]", 4828, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4788, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].T_start", \
-"Start value of temperature [K|degC]", 4829, 323.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4789, 323.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoDHW.layer_HE[4].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1208, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1214, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4830, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4790, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4831, false, 0.0,0.0,0.0,0,2563)
+ 4791, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4832, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4792, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4833, false, 0.0,0.0,0.0,0,515)
+ 4793, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4834, true, 0.0,0.0,0.0,0,515)
+ 4794, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4835, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4795, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].nPorts", \
-"Number of ports [:#(type=Integer)]", 4836, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4796, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4837, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4797, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4838, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].V", "Volume [m3]", 4839,\
+ 4798, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].V", "Volume [m3]", 4799,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 4)
+ "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 4)
+ "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].T", "Temperature of the fluid [K|degC]",\
- 9312, 323.15, 1.0,10000.0,300.0,0,512)
+ 9281, 323.15, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoDHW.layer_HE[4].dynBal.U", 1, 1, 47, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m", 1, 5, 4869, 0)
+ "hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m", 1, 5, 4829, 0)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4840, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4800, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4841, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4801, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].state_default.T", \
-"Temperature of medium [K|degC]", 4842, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4802, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4843, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4803, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4844, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4804, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].state_start.T", \
-"Temperature of medium [K|degC]", 4845, 323.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4805, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4846, false, 0.0,0.0,0.0,0,2563)
+ 4806, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 1024)
+"hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5,\
- 9312, 1028)
+ 9281, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9313, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9282, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].preTem.T", "[K]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5, 9312, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5, 9281, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5, 9312,\
+"Value of Real output", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5, 9281,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1,\
- 5, 9313, 1024)
+ 5, 9282, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5,\
- 9312, 1028)
+ 9281, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9313, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9282, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5,\
- 9312, 1028)
+ 9281, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", -1, 5, 9313, 1156)
+"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", -1, 5, 9282, 1156)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4847,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4807,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5,\
- 9312, 4)
+ 9281, 4)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9313,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9282,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4848, 2, 1.0,4.0,0.0,0,2565)
+ 4808, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4849, 2, 1.0,4.0,0.0,0,2565)
+ 4809, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4850, 2, 1.0,4.0,0.0,0,2565)
+ 4810, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4851, 2, 1.0,4.0,0.0,0,2565)
+ 4811, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4852, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4812, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4853, 323.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4813, 323.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4854, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4814, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4855, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4815, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4856, false, 0.0,0.0,0.0,0,2563)
+ 4816, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 4857, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 4817, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4858, true, 0.0,0.0,0.0,0,2563)
+ 4818, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4859, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4819, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4860, false, 0.0,0.0,0.0,0,2563)
+ 4820, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4861,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4821,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9313, 1024)
+"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9282, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1,\
- 5, 9260, 1024)
+ 5, 9229, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoDHW.layer_HE[4].dynBal.U", 1,\
1, 47, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m", 1,\
- 5, 4869, 1024)
+ 5, 4829, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 1028)
+ "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 1028)
+ "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 1028)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4862, false, 0.0,0.0,0.0,0,2563)
+ 4822, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4863, true, 0.0,0.0,0.0,0,2563)
+ 4823, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4864, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4824, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9314, 323.15, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9283, 323.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1,\
- 5, 9260, 1024)
+ 5, 9229, 1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1,\
- 5, 9260, 1024)
+ 5, 9229, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4865, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4825, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4866, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4826, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4867, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4827, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T", 1,\
- 5, 9314, 1024)
+ 5, 9283, 1024)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9315, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9284, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 4868, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 4828, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.U", \
"Internal energy of fluid [J]", 47, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 47, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.m", \
-"Mass of fluid [kg]", 4869, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4829, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4870, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4830, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4871, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4831, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9316, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9285, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.fluidVolume", \
-"Volume [m3]", 4872, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4832, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4873, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4833, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports_H_flow[1]",\
- "[W]", 9317, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9286, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.ports_H_flow[2]",\
- "[W]", 9318, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9287, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4874, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4834, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4875, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4835, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 4876, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4836, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 4877, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4837, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 4878, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4838, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4879, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4839, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 4880, 209200.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4840, 209200.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 4881, false, 0.0,0.0,0.0,0,2563)
+ 4841, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoDHW.layer_HE[4].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 4882, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4842, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[1].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1,\
- 5, 9290, 0)
+ 5, 9259, 0)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[1].dT", \
-"port_a.T - port_b.T [K,]", 9319, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9288, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[1].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[1].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9290, 132)
+"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", 1, 5, 9259, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[1].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[1].T", 1, 5,\
- 9289, 4)
+ 9258, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[1].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", -1, 5, 9290, 132)
+"hydraulic.distribution.stoDHW.layer_HE[1].heatPort.Q_flow", -1, 5, 9259, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[1].G", \
-"Constant thermal conductance of material [W/K]", 4883, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4843, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[2].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1,\
- 5, 9298, 0)
+ 5, 9267, 0)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[2].dT", \
-"port_a.T - port_b.T [K,]", 9320, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9289, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[2].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[2].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9298, 132)
+"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", 1, 5, 9267, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[2].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[2].T", 1, 5,\
- 9297, 4)
+ 9266, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[2].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", -1, 5, 9298, 132)
+"hydraulic.distribution.stoDHW.layer_HE[2].heatPort.Q_flow", -1, 5, 9267, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[2].G", \
-"Constant thermal conductance of material [W/K]", 4884, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4844, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[3].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1,\
- 5, 9306, 0)
+ 5, 9275, 0)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[3].dT", \
-"port_a.T - port_b.T [K,]", 9321, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9290, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[3].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[3].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9306, 132)
+"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", 1, 5, 9275, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[3].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[3].T", 1, 5,\
- 9305, 4)
+ 9274, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[3].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", -1, 5, 9306, 132)
+"hydraulic.distribution.stoDHW.layer_HE[3].heatPort.Q_flow", -1, 5, 9275, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[3].G", \
-"Constant thermal conductance of material [W/K]", 4885, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4845, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[4].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1,\
- 5, 9313, 0)
+ 5, 9282, 0)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[4].dT", \
-"port_a.T - port_b.T [K,]", 9322, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9291, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[4].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[4].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9313, 132)
+"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", 1, 5, 9282, 132)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[4].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer_HE[4].T", 1, 5,\
- 9312, 4)
+ 9281, 4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer_HE[4].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", -1, 5, 9313, 132)
+"hydraulic.distribution.stoDHW.layer_HE[4].heatPort.Q_flow", -1, 5, 9282, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer_HE[4].G", \
-"Constant thermal conductance of material [W/K]", 4886, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4846, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[1].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9323, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9292, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[1].dT", \
-"port_a.T - port_b.T [K,]", 9324, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9293, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[1].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[1].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[1].Q_flow", 1, 5, 9323, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[1].Q_flow", 1, 5, 9292, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[1].port_b.T", \
-"Port temperature [K|degC]", 4887, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 4847, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[1].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[1].Q_flow", -1, 5, 9323, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[1].Q_flow", -1, 5, 9292, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[1].G", \
-"Constant thermal conductance of material [W/K]", 4888, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4848, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[2].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9325, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9294, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[2].dT", \
-"port_a.T - port_b.T [K,]", 9326, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9295, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[2].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[2].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[2].Q_flow", 1, 5, 9325, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[2].Q_flow", 1, 5, 9294, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[2].port_b.T", \
-"Port temperature [K|degC]", 4889, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 4849, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[2].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[2].Q_flow", -1, 5, 9325, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[2].Q_flow", -1, 5, 9294, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[2].G", \
-"Constant thermal conductance of material [W/K]", 4890, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4850, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[3].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9327, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9296, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[3].dT", \
-"port_a.T - port_b.T [K,]", 9328, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9297, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[3].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[3].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[3].Q_flow", 1, 5, 9327, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[3].Q_flow", 1, 5, 9296, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[3].port_b.T", \
-"Port temperature [K|degC]", 4891, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 4851, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[3].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[3].Q_flow", -1, 5, 9327, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[3].Q_flow", -1, 5, 9296, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[3].G", \
-"Constant thermal conductance of material [W/K]", 4892, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 4852, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[4].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9329, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9298, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[4].dT", \
-"port_a.T - port_b.T [K,]", 9330, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9299, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[4].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[4].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[4].Q_flow", 1, 5, 9329, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[4].Q_flow", 1, 5, 9298, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[4].port_b.T", \
-"Port temperature [K|degC]", 4893, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 4853, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoDHW.heatTransfer[4].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.heatTransfer[4].Q_flow", -1, 5, 9329, 132)
+"hydraulic.distribution.stoDHW.heatTransfer[4].Q_flow", -1, 5, 9298, 132)
DeclareVariable("hydraulic.distribution.stoDHW.heatTransfer[4].G", \
-"Constant thermal conductance of material [W/K]", 4894, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].A", "[m2]", 4895, 0.0,\
+"Constant thermal conductance of material [W/K]", 4854, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].A", "[m2]", 4855, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].beta", "[1/K]", 4896,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].beta", "[1/K]", 4856,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].dx", "[m]", 4897, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].dx", "[m]", 4857, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].kappa", "", 4898, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].kappa", "", 4858, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].dT", "[K,]", 9331, \
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].dT", "[K,]", 9300, \
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].lambda_eff", \
-"[W/(m.K)]", 9332, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].g", "[m/s2]", 4899, \
+"[W/(m.K)]", 9301, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].g", "[m/s2]", 4859, \
9.80665, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].cp", "[J/(kg.K)]", 4900,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].cp", "[J/(kg.K)]", 4860,\
4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].lambda", "[W/(m.K)]",\
- 4901, 0.598, 0.0,0.0,0.0,0,513)
+ 4861, 0.598, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].rho", "[kg/m3|g/cm3]",\
- 4902, 995.586, 0.0,1E+100,0.0,0,513)
+ 4862, 995.586, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[1].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[1].port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9333,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9302,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[1].port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9433,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWBot.y", 1, 5, 9402,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[1].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.bouyancy[1].port_a.Q_flow", -1, 5, 9333, 132)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].A", "[m2]", 4903, 0.0,\
+"hydraulic.distribution.stoDHW.bouyancy[1].port_a.Q_flow", -1, 5, 9302, 132)
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].A", "[m2]", 4863, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].beta", "[1/K]", 4904,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].beta", "[1/K]", 4864,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].dx", "[m]", 4905, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].dx", "[m]", 4865, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].kappa", "", 4906, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].kappa", "", 4866, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].dT", "[K,]", 9334, \
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].dT", "[K,]", 9303, \
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].lambda_eff", \
-"[W/(m.K)]", 9335, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].g", "[m/s2]", 4907, \
+"[W/(m.K)]", 9304, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].g", "[m/s2]", 4867, \
9.80665, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].cp", "[J/(kg.K)]", 4908,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].cp", "[J/(kg.K)]", 4868,\
4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].lambda", "[W/(m.K)]",\
- 4909, 0.598, 0.0,0.0,0.0,0,513)
+ 4869, 0.598, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].rho", "[kg/m3|g/cm3]",\
- 4910, 995.586, 0.0,1E+100,0.0,0,513)
+ 4870, 995.586, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[2].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[2].port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9336,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9305,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[2].port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9268,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[2].T", 1, 5, 9237,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[2].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.bouyancy[2].port_a.Q_flow", -1, 5, 9336, 132)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].A", "[m2]", 4911, 0.0,\
+"hydraulic.distribution.stoDHW.bouyancy[2].port_a.Q_flow", -1, 5, 9305, 132)
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].A", "[m2]", 4871, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].beta", "[1/K]", 4912,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].beta", "[1/K]", 4872,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].dx", "[m]", 4913, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].dx", "[m]", 4873, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].kappa", "", 4914, 0.0,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].kappa", "", 4874, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].dT", "[K,]", 9337, \
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].dT", "[K,]", 9306, \
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].lambda_eff", \
-"[W/(m.K)]", 9338, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].g", "[m/s2]", 4915, \
+"[W/(m.K)]", 9307, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].g", "[m/s2]", 4875, \
9.80665, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].cp", "[J/(kg.K)]", 4916,\
+DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].cp", "[J/(kg.K)]", 4876,\
4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].lambda", "[W/(m.K)]",\
- 4917, 0.598, 0.0,0.0,0.0,0,513)
+ 4877, 0.598, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].rho", "[kg/m3|g/cm3]",\
- 4918, 995.586, 0.0,1E+100,0.0,0,513)
+ 4878, 995.586, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[3].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399,\
4)
DeclareVariable("hydraulic.distribution.stoDHW.bouyancy[3].port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9339,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9308,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[3].port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9276,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoDHW.layer[3].T", 1, 5, 9245,\
4)
DeclareAlias2("hydraulic.distribution.stoDHW.bouyancy[3].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoDHW.bouyancy[3].port_a.Q_flow", -1, 5, 9339, 132)
+"hydraulic.distribution.stoDHW.bouyancy[3].port_a.Q_flow", -1, 5, 9308, 132)
DeclareVariable("hydraulic.distribution.fixTemBuf.T", "Fixed temperature at port [K|degC]",\
- 4919, 294.15, 0.0,1E+100,300.0,0,513)
+ 4879, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.fixTemBuf.port.T", "Port temperature [K|degC]",\
- 4920, 294.15, 0.0,1E+100,300.0,0,521)
+ 4880, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.fixTemBuf.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
"outputs.hydraulic.dis.QBufLos_flow.value", 1, 3, 10, 132)
DeclareVariable("hydraulic.distribution.stoBuf.n", "number of layers [:#(type=Integer)]",\
- 4921, 4, 3.0,1E+100,0.0,0,517)
-DeclareVariable("hydraulic.distribution.stoBuf.d", "storage diameter [m]", 4922,\
+ 4881, 4, 3.0,1E+100,0.0,0,517)
+DeclareVariable("hydraulic.distribution.stoBuf.d", "storage diameter [m]", 4882,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.h", "storage height [m]", 4923, \
+DeclareVariable("hydraulic.distribution.stoBuf.h", "storage height [m]", 4883, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.lambda_ins", "thermal conductivity of insulation [W/(m.K)]",\
- 4924, 0.0, 0.0,0.0,0.0,0,513)
+ 4884, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.s_ins", "thickness of insulation [m]",\
- 4925, 0.0, 0.0,0.0,0.0,0,513)
+ 4885, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.hConIn", "Iinternal heat transfer coefficient [W/(m2.K)]",\
- 4926, 0.0, 0.0,0.0,0.0,0,513)
+ 4886, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.hConOut", "External heat transfer coefficient [W/(m2.K)]",\
- 4927, 0.0, 0.0,0.0,0.0,0,513)
+ 4887, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.V_HE", "heat exchanger volume [m3]",\
- 4928, 0.0, 0.0,0.0,0.0,0,513)
+ 4888, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.k_HE", "heat exchanger heat transfer coefficient [W/(m2.K)]",\
- 4929, 0.0, 0.0,0.0,0.0,0,513)
+ 4889, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.A_HE", "heat exchanger area [m2]",\
- 4930, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.beta", "[1/K]", 4931, 0.0, \
+ 4890, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.distribution.stoBuf.beta", "[1/K]", 4891, 0.0, \
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.kappa", "", 4932, 0.0, 0.0,0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.kappa", "", 4892, 0.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.m_flow_nominal_layer", \
-"Nominal mass flow rate in layers [kg/s]", 4933, 0.317599972517237, 0.0,0.0,0.0,\
+"Nominal mass flow rate in layers [kg/s]", 4893, 0.317599972517237, 0.0,0.0,0.0,\
0,513)
DeclareVariable("hydraulic.distribution.stoBuf.m_flow_nominal_HE", \
-"Nominal mass flow rate of heat exchanger layers [kg/s]", 4934, 0.3379347183446045,\
+"Nominal mass flow rate of heat exchanger layers [kg/s]", 4894, 0.3379347183446045,\
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.use_TOut", "Use temperature real outputs [:#(type=Boolean)]",\
- 4935, true, 0.0,0.0,0.0,0,515)
+ 4895, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state in layers and layers_HE [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4936, 2, 1.0,4.0,0.0,0,517)
+ 4896, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.T_start[1]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4937, 288.15, 0.0,1E+100,300.0,0,513)
+ 4897, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.T_start[2]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4938, 288.15, 0.0,1E+100,300.0,0,513)
+ 4898, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.T_start[3]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4939, 288.15, 0.0,1E+100,300.0,0,513)
+ 4899, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.T_start[4]", "Start value of temperature of each layer, e.g. for 3 layers: {20, 20, 20} [K|degC]",\
- 4940, 288.15, 0.0,1E+100,300.0,0,513)
+ 4900, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.p_start", "Start value of pressure [Pa|bar]",\
- 4941, 100000.0, 0.0,100000000.0,100000.0,0,513)
+ 4901, 100000.0, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.m_flow_small_layer", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4942, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4902, \
3.17599972517237E-05, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.m_flow_small_layer_HE", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4943, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4903, \
3.379347183446045E-05, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.port_a_consumer.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.port_a_consumer.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareVariable("hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9340, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9309, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.port_b_consumer.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.port_b_consumer.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.port_b_consumer.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 4)
+ "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 4)
DeclareVariable("hydraulic.distribution.stoBuf.heatPort.T", "Port temperature [K|degC]",\
- 4944, 294.15, 0.0,1E+100,300.0,0,521)
+ 4904, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoBuf.heatPort.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
"outputs.hydraulic.dis.QBufLos_flow.value", -1, 3, 10, 132)
DeclareVariable("hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 8453, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 8416, 0, \
-100000.0,100000.0,0.0,0,904)
DeclareAlias2("hydraulic.distribution.stoBuf.port_b_heatGenerator.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9341, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9310, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.port_a_heatGenerator.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.port_a_heatGenerator.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9342, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9311, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer[1]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 0)
+ "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer[2]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350, 0)
+ "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer[3]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358, 0)
+ "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer[4]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 0)
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer_HE[1]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5, 9371, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5, 9340, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer_HE[2]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5, 9379, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5, 9348, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer_HE[3]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5, 9387, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5, 9356, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.TLayer_HE[4]", "Temperature in the top layer [K|degC]",\
- "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5, 9394, 0)
-DeclareVariable("hydraulic.distribution.stoBuf.V", "[m3]", 4945, 0.0, 0.0,0.0,\
+ "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5, 9363, 0)
+DeclareVariable("hydraulic.distribution.stoBuf.V", "[m3]", 4905, 0.0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoBuf.A", "[m2]", 4946, 0.0, 0.0,0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.A", "[m2]", 4906, 0.0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoBuf.dx", "[m]", 4947, 0.0, 0.0,0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.dx", "[m]", 4907, 0.0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoBuf.G_middle", "[W/K]", 4948, 0.0, \
+DeclareVariable("hydraulic.distribution.stoBuf.G_middle", "[W/K]", 4908, 0.0, \
0.0,0.0,0.0,0,2561)
-DeclareVariable("hydraulic.distribution.stoBuf.G_top_bottom", "[W/K]", 4949, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.G_top_bottom", "[W/K]", 4909, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4950, 2, 1.0,4.0,0.0,0,517)
+ 4910, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4951, 2, 1.0,4.0,0.0,0,517)
+ 4911, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4952, 2, 1.0,4.0,0.0,0,517)
+ 4912, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4953, 2, 1.0,4.0,0.0,0,517)
+ 4913, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].p_start", \
-"Start value of pressure [Pa|bar]", 4954, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4914, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].T_start", \
-"Start value of temperature [K|degC]", 4955, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4915, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer[1].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1209, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1215, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4956, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4916, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4957, false, 0.0,0.0,0.0,0,2563)
+ 4917, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4958, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4918, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 4959, false, 0.0,0.0,0.0,0,515)
+ 4919, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 4960, true, 0.0,0.0,0.0,0,515)
+ 4920, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 4961, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4921, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].nPorts", \
-"Number of ports [:#(type=Integer)]", 4962, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4922, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 4963, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4923, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 4964, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer[1].V", "Volume [m3]", 4965,\
+ 4924, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer[1].V", "Volume [m3]", 4925,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9340, 4)
+ "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9309, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9340, 4)
+ "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9309, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].T", "Temperature of the fluid [K|degC]",\
- "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 0)
+ "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer[1].dynBal.U", 1, 1, 48, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer[1].dynBal.m", 1, 5, 4995, 0)
+ "hydraulic.distribution.stoBuf.layer[1].dynBal.m", 1, 5, 4955, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 4966, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4926, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 4967, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4927, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].state_default.T", \
-"Temperature of medium [K|degC]", 4968, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4928, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 4969, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4929, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 4970, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4930, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].state_start.T", \
-"Temperature of medium [K|degC]", 4971, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4931, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 4972, false, 0.0,0.0,0.0,0,2563)
+ 4932, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9340, 1024)
+"hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9309, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1, 5, 9343, 1156)
+"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1, 5, 9312, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].preTem.T", "[K]", \
-"hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 1024)
+"hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].portT.y", "Value of Real output",\
- "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432, 1024)
+ "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1,\
- 5, 9343, 1024)
+ 5, 9312, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1, 5, 9343, 1156)
+"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1, 5, 9312, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", -1, 5, 9343, 1156)
+"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", -1, 5, 9312, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4973,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4933,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9343,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9312,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4974, 2, 1.0,4.0,0.0,0,2565)
+ 4934, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4975, 2, 1.0,4.0,0.0,0,2565)
+ 4935, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4976, 2, 1.0,4.0,0.0,0,2565)
+ 4936, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 4977, 2, 1.0,4.0,0.0,0,2565)
+ 4937, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 4978, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4938, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.T_start", \
-"Start value of temperature [K|degC]", 4979, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4939, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 4980, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4940, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 4981, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4941, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 4982, false, 0.0,0.0,0.0,0,2563)
+ 4942, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 4983, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4943, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 4984, true, 0.0,0.0,0.0,0,2563)
+ 4944, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 4985, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 4945, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 4986, false, 0.0,0.0,0.0,0,2563)
+ 4946, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4987,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4947,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1, 5, 9343, 1024)
+"hydraulic.distribution.stoBuf.layer[1].heatPort.Q_flow", 1, 5, 9312, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1,\
- 5, 9340, 1024)
+ 5, 9309, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer[1].dynBal.U", 1,\
1, 48, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer[1].dynBal.m", 1,\
- 5, 4995, 1024)
+ 5, 4955, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9340, 1028)
+ "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9309, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9340, 1028)
+ "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1, 5, 9309, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 4988, false, 0.0,0.0,0.0,0,2563)
+ 4948, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 4989, true, 0.0,0.0,0.0,0,2563)
+ 4949, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 4990, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 4950, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9344, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9313, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1,\
- 5, 9340, 1024)
+ 5, 9309, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.port_a_consumer.h_outflow", 1,\
- 5, 9340, 1024)
+ 5, 9309, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4991, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 4951, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 4992, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 4952, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 4993, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 4953, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T", 1,\
- 5, 9344, 1024)
+ 5, 9313, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9345, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9314, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 4994, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 4954, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer[1].dynBal.U", "Internal energy of fluid [J]",\
48, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer[1].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 48, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.m", \
-"Mass of fluid [kg]", 4995, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 4955, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 4996, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 4956, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 4997, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 4957, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9346, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9315, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.fluidVolume", \
-"Volume [m3]", 4998, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 4958, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 4999, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 4959, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.ports_H_flow[1]",\
- "[W]", 9347, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9316, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.ports_H_flow[2]",\
- "[W]", 9348, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9317, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5000, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 4960, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5001, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4961, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5002, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 4962, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5003, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 4963, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5004, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 4964, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5005, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4965, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5006, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 4966, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5007, false, 0.0,0.0,0.0,0,2563)
+ 4967, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[1].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5008, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 4968, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5009, 2, 1.0,4.0,0.0,0,517)
+ 4969, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5010, 2, 1.0,4.0,0.0,0,517)
+ 4970, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5011, 2, 1.0,4.0,0.0,0,517)
+ 4971, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5012, 2, 1.0,4.0,0.0,0,517)
+ 4972, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].p_start", \
-"Start value of pressure [Pa|bar]", 5013, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 4973, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].T_start", \
-"Start value of temperature [K|degC]", 5014, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 4974, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer[2].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1210, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1216, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5015, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 4975, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5016, false, 0.0,0.0,0.0,0,2563)
+ 4976, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5017, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 4977, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5018, false, 0.0,0.0,0.0,0,515)
+ 4978, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5019, true, 0.0,0.0,0.0,0,515)
+ 4979, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5020, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 4980, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].nPorts", \
-"Number of ports [:#(type=Integer)]", 5021, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 4981, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5022, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 4982, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5023, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer[2].V", "Volume [m3]", 5024,\
+ 4983, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer[2].V", "Volume [m3]", 4984,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9349, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9318, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9349, 4)
+ "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9318, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].T", "Temperature of the fluid [K|degC]",\
- 9350, 300.0, 1.0,10000.0,300.0,0,512)
+ 9319, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer[2].dynBal.U", 1, 1, 49, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer[2].dynBal.m", 1, 5, 5054, 0)
+ "hydraulic.distribution.stoBuf.layer[2].dynBal.m", 1, 5, 5014, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5025, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 4985, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5026, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 4986, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].state_default.T", \
-"Temperature of medium [K|degC]", 5027, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4987, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5028, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 4988, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5029, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 4989, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].state_start.T", \
-"Temperature of medium [K|degC]", 5030, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 4990, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5031, false, 0.0,0.0,0.0,0,2563)
+ 4991, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9349, 1024)
+"hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9318, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1, 5, 9351, 1156)
+"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1, 5, 9320, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].preTem.T", "[K]", \
-"hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350, 1024)
+"hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].portT.y", "Value of Real output",\
- "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350, 1024)
+ "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1,\
- 5, 9351, 1024)
+ 5, 9320, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1, 5, 9351, 1156)
+"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1, 5, 9320, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", -1, 5, 9351, 1156)
+"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", -1, 5, 9320, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5032,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 4992,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9351,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9320,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5033, 2, 1.0,4.0,0.0,0,2565)
+ 4993, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5034, 2, 1.0,4.0,0.0,0,2565)
+ 4994, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5035, 2, 1.0,4.0,0.0,0,2565)
+ 4995, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5036, 2, 1.0,4.0,0.0,0,2565)
+ 4996, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5037, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 4997, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5038, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 4998, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5039, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 4999, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5040, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5000, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5041, false, 0.0,0.0,0.0,0,2563)
+ 5001, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5042, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5002, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5043, true, 0.0,0.0,0.0,0,2563)
+ 5003, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5044, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5004, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5045, false, 0.0,0.0,0.0,0,2563)
+ 5005, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5046,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5006,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1, 5, 9351, 1024)
+"hydraulic.distribution.stoBuf.layer[2].heatPort.Q_flow", 1, 5, 9320, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1,\
- 5, 9349, 1024)
+ 5, 9318, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer[2].dynBal.U", 1,\
1, 49, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer[2].dynBal.m", 1,\
- 5, 5054, 1024)
+ 5, 5014, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9349, 1028)
+ "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9318, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9349, 1028)
+ "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1, 5, 9318, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5047, false, 0.0,0.0,0.0,0,2563)
+ 5007, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5048, true, 0.0,0.0,0.0,0,2563)
+ 5008, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5049, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5009, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9352, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9321, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1,\
- 5, 9349, 1024)
+ 5, 9318, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer[2].ports[1].h_outflow", 1,\
- 5, 9349, 1024)
+ 5, 9318, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5050, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5010, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5051, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5011, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5052, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5012, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T", 1,\
- 5, 9352, 1024)
+ 5, 9321, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9353, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9322, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 5053, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 5013, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer[2].dynBal.U", "Internal energy of fluid [J]",\
49, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer[2].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 49, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.m", \
-"Mass of fluid [kg]", 5054, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5014, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5055, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5015, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5056, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5016, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9354, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9323, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.fluidVolume", \
-"Volume [m3]", 5057, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5017, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5058, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5018, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.ports_H_flow[1]",\
- "[W]", 9355, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9324, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.ports_H_flow[2]",\
- "[W]", 9356, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9325, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5059, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5019, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5060, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5020, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5061, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5021, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5062, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5022, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5063, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5023, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5064, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5024, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5065, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5025, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5066, false, 0.0,0.0,0.0,0,2563)
+ 5026, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[2].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5067, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5027, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5068, 2, 1.0,4.0,0.0,0,517)
+ 5028, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5069, 2, 1.0,4.0,0.0,0,517)
+ 5029, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5070, 2, 1.0,4.0,0.0,0,517)
+ 5030, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5071, 2, 1.0,4.0,0.0,0,517)
+ 5031, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].p_start", \
-"Start value of pressure [Pa|bar]", 5072, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5032, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].T_start", \
-"Start value of temperature [K|degC]", 5073, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5033, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer[3].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1211, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1217, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5074, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5034, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5075, false, 0.0,0.0,0.0,0,2563)
+ 5035, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5076, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5036, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5077, false, 0.0,0.0,0.0,0,515)
+ 5037, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5078, true, 0.0,0.0,0.0,0,515)
+ 5038, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5079, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5039, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].nPorts", \
-"Number of ports [:#(type=Integer)]", 5080, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 5040, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5081, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5041, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5082, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer[3].V", "Volume [m3]", 5083,\
+ 5042, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer[3].V", "Volume [m3]", 5043,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9357, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9326, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9357, 4)
+ "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9326, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].T", "Temperature of the fluid [K|degC]",\
- 9358, 300.0, 1.0,10000.0,300.0,0,512)
+ 9327, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer[3].dynBal.U", 1, 1, 50, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer[3].dynBal.m", 1, 5, 5113, 0)
+ "hydraulic.distribution.stoBuf.layer[3].dynBal.m", 1, 5, 5073, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5084, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 5044, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5085, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5045, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].state_default.T", \
-"Temperature of medium [K|degC]", 5086, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5046, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5087, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5047, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5088, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5048, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].state_start.T", \
-"Temperature of medium [K|degC]", 5089, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5049, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5090, false, 0.0,0.0,0.0,0,2563)
+ 5050, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9357, 1024)
+"hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9326, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1, 5, 9359, 1156)
+"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1, 5, 9328, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].preTem.T", "[K]", \
-"hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358, 1024)
+"hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].portT.y", "Value of Real output",\
- "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358, 1024)
+ "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1,\
- 5, 9359, 1024)
+ 5, 9328, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1, 5, 9359, 1156)
+"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1, 5, 9328, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", -1, 5, 9359, 1156)
+"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", -1, 5, 9328, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5091,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5051,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9359,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9328,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5092, 2, 1.0,4.0,0.0,0,2565)
+ 5052, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5093, 2, 1.0,4.0,0.0,0,2565)
+ 5053, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5094, 2, 1.0,4.0,0.0,0,2565)
+ 5054, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5095, 2, 1.0,4.0,0.0,0,2565)
+ 5055, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5096, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5056, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5097, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5057, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5098, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5058, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5099, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5059, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5100, false, 0.0,0.0,0.0,0,2563)
+ 5060, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5101, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5061, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5102, true, 0.0,0.0,0.0,0,2563)
+ 5062, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5103, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5063, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5104, false, 0.0,0.0,0.0,0,2563)
+ 5064, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5105,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5065,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1, 5, 9359, 1024)
+"hydraulic.distribution.stoBuf.layer[3].heatPort.Q_flow", 1, 5, 9328, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1,\
- 5, 9357, 1024)
+ 5, 9326, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer[3].dynBal.U", 1,\
1, 50, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer[3].dynBal.m", 1,\
- 5, 5113, 1024)
+ 5, 5073, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9357, 1028)
+ "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9326, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9357, 1028)
+ "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1, 5, 9326, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5106, false, 0.0,0.0,0.0,0,2563)
+ 5066, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5107, true, 0.0,0.0,0.0,0,2563)
+ 5067, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5108, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5068, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9360, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9329, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1,\
- 5, 9357, 1024)
+ 5, 9326, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer[3].ports[1].h_outflow", 1,\
- 5, 9357, 1024)
+ 5, 9326, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5109, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5069, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5110, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5070, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5111, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5071, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T", 1,\
- 5, 9360, 1024)
+ 5, 9329, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9361, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9330, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 5112, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 5072, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer[3].dynBal.U", "Internal energy of fluid [J]",\
50, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer[3].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 50, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.m", \
-"Mass of fluid [kg]", 5113, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5073, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5114, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5074, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5115, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5075, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9362, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9331, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.fluidVolume", \
-"Volume [m3]", 5116, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5076, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5117, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5077, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.ports_H_flow[1]",\
- "[W]", 9363, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9332, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.ports_H_flow[2]",\
- "[W]", 9364, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9333, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5118, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5078, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5119, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5079, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5120, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5080, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5121, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5081, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5122, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5082, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5123, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5083, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5124, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5084, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5125, false, 0.0,0.0,0.0,0,2563)
+ 5085, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[3].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5126, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5086, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5127, 2, 1.0,4.0,0.0,0,517)
+ 5087, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5128, 2, 1.0,4.0,0.0,0,517)
+ 5088, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5129, 2, 1.0,4.0,0.0,0,517)
+ 5089, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5130, 2, 1.0,4.0,0.0,0,517)
+ 5090, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].p_start", \
-"Start value of pressure [Pa|bar]", 5131, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5091, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].T_start", \
-"Start value of temperature [K|degC]", 5132, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5092, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer[4].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1212, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1218, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5133, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5093, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5134, false, 0.0,0.0,0.0,0,2563)
+ 5094, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5135, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5095, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5136, false, 0.0,0.0,0.0,0,515)
+ 5096, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5137, true, 0.0,0.0,0.0,0,515)
+ 5097, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5138, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5098, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].nPorts", \
-"Number of ports [:#(type=Integer)]", 5139, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 5099, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5140, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5100, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5141, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer[4].V", "Volume [m3]", 5142,\
+ 5101, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer[4].V", "Volume [m3]", 5102,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 4)
+ "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 4)
+ 5, 5741, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 4)
+ "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].T", "Temperature of the fluid [K|degC]",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 0)
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer[4].dynBal.U", 1, 1, 51, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer[4].dynBal.m", 1, 5, 5172, 0)
+ "hydraulic.distribution.stoBuf.layer[4].dynBal.m", 1, 5, 5132, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5143, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 5103, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5144, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5104, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].state_default.T", \
-"Temperature of medium [K|degC]", 5145, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5105, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5146, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5106, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5147, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5107, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].state_start.T", \
-"Temperature of medium [K|degC]", 5148, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5108, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5149, false, 0.0,0.0,0.0,0,2563)
+ 5109, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 1024)
+"hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].preTem.port.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1, 5, 9365, 1156)
+"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1, 5, 9334, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].preTem.T", "[K]", \
-"hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 1024)
+"hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].portT.y", "Value of Real output",\
- "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431, 1024)
+ "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1,\
- 5, 9365, 1024)
+ 5, 9334, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1, 5, 9365, 1156)
+"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1, 5, 9334, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", -1, 5, 9365, 1156)
+"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", -1, 5, 9334, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5150,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5110,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].heatPort.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9365,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9334,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5151, 2, 1.0,4.0,0.0,0,2565)
+ 5111, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5152, 2, 1.0,4.0,0.0,0,2565)
+ 5112, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5153, 2, 1.0,4.0,0.0,0,2565)
+ 5113, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5154, 2, 1.0,4.0,0.0,0,2565)
+ 5114, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5155, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5115, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5156, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5116, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5157, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5117, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5158, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5118, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5159, false, 0.0,0.0,0.0,0,2563)
+ 5119, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5160, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5120, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5161, true, 0.0,0.0,0.0,0,2563)
+ 5121, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5162, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5122, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5163, false, 0.0,0.0,0.0,0,2563)
+ 5123, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5164,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5124,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1, 5, 9365, 1024)
+"hydraulic.distribution.stoBuf.layer[4].heatPort.Q_flow", 1, 5, 9334, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.portBui_out[1].h_outflow", 1,\
- 5, 9257, 1024)
+ 5, 9226, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer[4].dynBal.U", 1,\
1, 51, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer[4].dynBal.m", 1,\
- 5, 5172, 1024)
+ 5, 5132, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 1028)
+ "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 1028)
+ "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5165, false, 0.0,0.0,0.0,0,2563)
+ 5125, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5166, true, 0.0,0.0,0.0,0,2563)
+ 5126, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5167, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5127, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9366, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9335, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.portBui_out[1].h_outflow", 1,\
- 5, 9257, 1024)
+ 5, 9226, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.portBui_out[1].h_outflow", 1,\
- 5, 9257, 1024)
+ 5, 9226, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5168, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5128, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5169, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5129, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5170, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5130, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T", 1,\
- 5, 9366, 1024)
+ 5, 9335, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9367, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9336, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 5171, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 5131, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer[4].dynBal.U", "Internal energy of fluid [J]",\
51, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer[4].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 51, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.m", \
-"Mass of fluid [kg]", 5172, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5132, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5173, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5133, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5174, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5134, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9368, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9337, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.fluidVolume", \
-"Volume [m3]", 5175, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5135, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5176, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5136, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.ports_H_flow[1]",\
- "[W]", 9369, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9338, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.ports_H_flow[2]",\
- "[W]", 9370, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9339, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5177, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5137, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5178, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5138, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5179, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5139, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5180, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5140, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5181, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5141, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5182, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5142, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5183, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5143, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5184, false, 0.0,0.0,0.0,0,2563)
+ 5144, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer[4].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5185, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5145, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5186, 2, 1.0,4.0,0.0,0,517)
+ 5146, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5187, 2, 1.0,4.0,0.0,0,517)
+ 5147, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5188, 2, 1.0,4.0,0.0,0,517)
+ 5148, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5189, 2, 1.0,4.0,0.0,0,517)
+ 5149, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].p_start", \
-"Start value of pressure [Pa|bar]", 5190, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5150, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].T_start", \
-"Start value of temperature [K|degC]", 5191, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5151, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer_HE[1].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1213, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1219, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5192, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5152, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5193, false, 0.0,0.0,0.0,0,2563)
+ 5153, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5194, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5154, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5195, false, 0.0,0.0,0.0,0,515)
+ 5155, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5196, true, 0.0,0.0,0.0,0,515)
+ 5156, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5197, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5157, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].nPorts", \
-"Number of ports [:#(type=Integer)]", 5198, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 5158, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5199, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5159, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5200, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].V", "Volume [m3]", 5201,\
+ 5160, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].V", "Volume [m3]", 5161,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9341, 4)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9310, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9341, 4)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9310, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].T", "Temperature of the fluid [K|degC]",\
- 9371, 300.0, 1.0,10000.0,300.0,0,512)
+ 9340, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer_HE[1].dynBal.U", 1, 1, 52, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m", 1, 5, 5231, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m", 1, 5, 5191, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5202, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 5162, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5203, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5163, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].state_default.T", \
-"Temperature of medium [K|degC]", 5204, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5164, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5205, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5165, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5206, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5166, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].state_start.T", \
-"Temperature of medium [K|degC]", 5207, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5167, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5208, false, 0.0,0.0,0.0,0,2563)
+ 5168, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9341, 1024)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9310, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5,\
- 9371, 1028)
+ 9340, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9372, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9341, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].preTem.T", "[K]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5, 9371, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5, 9340, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5, 9371,\
+"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5, 9340,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1,\
- 5, 9372, 1024)
+ 5, 9341, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5,\
- 9371, 1028)
+ 9340, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9372, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9341, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5,\
- 9371, 1028)
+ 9340, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", -1, 5, 9372, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", -1, 5, 9341, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5209,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5169,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5,\
- 9371, 4)
+ 9340, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9372,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9341,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5210, 2, 1.0,4.0,0.0,0,2565)
+ 5170, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5211, 2, 1.0,4.0,0.0,0,2565)
+ 5171, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5212, 2, 1.0,4.0,0.0,0,2565)
+ 5172, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5213, 2, 1.0,4.0,0.0,0,2565)
+ 5173, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5214, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5174, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5215, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5175, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5216, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5176, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5217, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5177, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5218, false, 0.0,0.0,0.0,0,2563)
+ 5178, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 5219, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 5179, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5220, true, 0.0,0.0,0.0,0,2563)
+ 5180, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5221, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5181, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5222, false, 0.0,0.0,0.0,0,2563)
+ 5182, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5223,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5183,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9372, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9341, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1,\
- 5, 9341, 1024)
+ 5, 9310, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer_HE[1].dynBal.U", 1,\
1, 52, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m", 1,\
- 5, 5231, 1024)
+ 5, 5191, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9341, 1028)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9310, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9341, 1028)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1, 5, 9310, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5224, false, 0.0,0.0,0.0,0,2563)
+ 5184, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5225, true, 0.0,0.0,0.0,0,2563)
+ 5185, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5226, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5186, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9373, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9342, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1,\
- 5, 9341, 1024)
+ 5, 9310, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.port_b_heatGenerator.h_outflow", 1,\
- 5, 9341, 1024)
+ 5, 9310, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5227, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5187, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5228, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5188, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5229, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5189, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T", 1,\
- 5, 9373, 1024)
+ 5, 9342, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9374, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9343, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 5230, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 5190, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.U", \
"Internal energy of fluid [J]", 52, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 52, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.m", \
-"Mass of fluid [kg]", 5231, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5191, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5232, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5192, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5233, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5193, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9375, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9344, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.fluidVolume", \
-"Volume [m3]", 5234, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5194, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5235, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5195, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports_H_flow[1]",\
- "[W]", 9376, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9345, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.ports_H_flow[2]",\
- "[W]", 9377, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9346, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5236, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5196, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5237, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5197, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5238, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5198, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5239, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5199, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5240, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5200, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5241, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5201, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5242, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5202, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5243, false, 0.0,0.0,0.0,0,2563)
+ 5203, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[1].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5244, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5204, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5245, 2, 1.0,4.0,0.0,0,517)
+ 5205, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5246, 2, 1.0,4.0,0.0,0,517)
+ 5206, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5247, 2, 1.0,4.0,0.0,0,517)
+ 5207, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5248, 2, 1.0,4.0,0.0,0,517)
+ 5208, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].p_start", \
-"Start value of pressure [Pa|bar]", 5249, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5209, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].T_start", \
-"Start value of temperature [K|degC]", 5250, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5210, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer_HE[2].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1214, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1220, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5251, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5211, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5252, false, 0.0,0.0,0.0,0,2563)
+ 5212, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5253, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5213, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5254, false, 0.0,0.0,0.0,0,515)
+ 5214, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5255, true, 0.0,0.0,0.0,0,515)
+ 5215, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5256, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5216, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].nPorts", \
-"Number of ports [:#(type=Integer)]", 5257, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 5217, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5258, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5218, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5259, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].V", "Volume [m3]", 5260,\
+ 5219, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].V", "Volume [m3]", 5220,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9378, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9347, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9378, 4)
+ "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9347, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].T", "Temperature of the fluid [K|degC]",\
- 9379, 300.0, 1.0,10000.0,300.0,0,512)
+ 9348, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer_HE[2].dynBal.U", 1, 1, 53, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m", 1, 5, 5290, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m", 1, 5, 5250, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5261, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 5221, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5262, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5222, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].state_default.T", \
-"Temperature of medium [K|degC]", 5263, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5223, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5264, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5224, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5265, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5225, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].state_start.T", \
-"Temperature of medium [K|degC]", 5266, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5226, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5267, false, 0.0,0.0,0.0,0,2563)
+ 5227, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9378, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9347, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5,\
- 9379, 1028)
+ 9348, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9380, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9349, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].preTem.T", "[K]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5, 9379, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5, 9348, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5, 9379,\
+"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5, 9348,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1,\
- 5, 9380, 1024)
+ 5, 9349, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5,\
- 9379, 1028)
+ 9348, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9380, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9349, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5,\
- 9379, 1028)
+ 9348, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", -1, 5, 9380, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", -1, 5, 9349, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5268,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5228,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5,\
- 9379, 4)
+ 9348, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9380,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9349,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5269, 2, 1.0,4.0,0.0,0,2565)
+ 5229, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5270, 2, 1.0,4.0,0.0,0,2565)
+ 5230, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5271, 2, 1.0,4.0,0.0,0,2565)
+ 5231, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5272, 2, 1.0,4.0,0.0,0,2565)
+ 5232, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5273, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5233, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5274, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5234, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5275, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5235, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5276, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5236, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5277, false, 0.0,0.0,0.0,0,2563)
+ 5237, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 5278, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 5238, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5279, true, 0.0,0.0,0.0,0,2563)
+ 5239, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5280, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5240, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5281, false, 0.0,0.0,0.0,0,2563)
+ 5241, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5282,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5242,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9380, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9349, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1,\
- 5, 9378, 1024)
+ 5, 9347, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer_HE[2].dynBal.U", 1,\
1, 53, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m", 1,\
- 5, 5290, 1024)
+ 5, 5250, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9378, 1028)
+ "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9347, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9378, 1028)
+ "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1, 5, 9347, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5283, false, 0.0,0.0,0.0,0,2563)
+ 5243, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5284, true, 0.0,0.0,0.0,0,2563)
+ 5244, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5285, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5245, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9381, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9350, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1,\
- 5, 9378, 1024)
+ 5, 9347, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer_HE[2].ports[1].h_outflow", 1,\
- 5, 9378, 1024)
+ 5, 9347, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5286, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5246, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5287, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5247, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5288, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5248, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T", 1,\
- 5, 9381, 1024)
+ 5, 9350, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9382, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9351, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 5289, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 5249, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.U", \
"Internal energy of fluid [J]", 53, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 53, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.m", \
-"Mass of fluid [kg]", 5290, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5250, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5291, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5251, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5292, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5252, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9383, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9352, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.fluidVolume", \
-"Volume [m3]", 5293, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5253, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5294, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5254, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports_H_flow[1]",\
- "[W]", 9384, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9353, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.ports_H_flow[2]",\
- "[W]", 9385, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9354, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5295, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5255, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5296, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5256, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5297, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5257, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5298, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5258, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5299, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5259, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5300, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5260, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5301, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5261, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5302, false, 0.0,0.0,0.0,0,2563)
+ 5262, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[2].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5303, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5263, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5304, 2, 1.0,4.0,0.0,0,517)
+ 5264, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5305, 2, 1.0,4.0,0.0,0,517)
+ 5265, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5306, 2, 1.0,4.0,0.0,0,517)
+ 5266, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5307, 2, 1.0,4.0,0.0,0,517)
+ 5267, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].p_start", \
-"Start value of pressure [Pa|bar]", 5308, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5268, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].T_start", \
-"Start value of temperature [K|degC]", 5309, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5269, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer_HE[3].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1215, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1221, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5310, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5270, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5311, false, 0.0,0.0,0.0,0,2563)
+ 5271, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5312, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5272, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5313, false, 0.0,0.0,0.0,0,515)
+ 5273, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5314, true, 0.0,0.0,0.0,0,515)
+ 5274, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5315, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5275, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].nPorts", \
-"Number of ports [:#(type=Integer)]", 5316, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 5276, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5317, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5277, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5318, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].V", "Volume [m3]", 5319,\
+ 5278, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].V", "Volume [m3]", 5279,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9386, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9355, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9386, 4)
+ "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9355, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].T", "Temperature of the fluid [K|degC]",\
- 9387, 300.0, 1.0,10000.0,300.0,0,512)
+ 9356, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer_HE[3].dynBal.U", 1, 1, 54, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m", 1, 5, 5349, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m", 1, 5, 5309, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5320, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 5280, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5321, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5281, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].state_default.T", \
-"Temperature of medium [K|degC]", 5322, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5282, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5323, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5283, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5324, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5284, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].state_start.T", \
-"Temperature of medium [K|degC]", 5325, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5285, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5326, false, 0.0,0.0,0.0,0,2563)
+ 5286, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9386, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9355, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5,\
- 9387, 1028)
+ 9356, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9388, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9357, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].preTem.T", "[K]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5, 9387, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5, 9356, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5, 9387,\
+"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5, 9356,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1,\
- 5, 9388, 1024)
+ 5, 9357, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5,\
- 9387, 1028)
+ 9356, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9388, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9357, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5,\
- 9387, 1028)
+ 9356, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", -1, 5, 9388, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", -1, 5, 9357, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5327,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5287,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5,\
- 9387, 4)
+ 9356, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9388,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9357,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5328, 2, 1.0,4.0,0.0,0,2565)
+ 5288, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5329, 2, 1.0,4.0,0.0,0,2565)
+ 5289, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5330, 2, 1.0,4.0,0.0,0,2565)
+ 5290, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5331, 2, 1.0,4.0,0.0,0,2565)
+ 5291, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5332, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5292, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5333, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5293, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5334, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5294, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5335, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5295, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5336, false, 0.0,0.0,0.0,0,2563)
+ 5296, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 5337, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 5297, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5338, true, 0.0,0.0,0.0,0,2563)
+ 5298, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5339, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5299, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5340, false, 0.0,0.0,0.0,0,2563)
+ 5300, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5341,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5301,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9388, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9357, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1,\
- 5, 9386, 1024)
+ 5, 9355, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer_HE[3].dynBal.U", 1,\
1, 54, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m", 1,\
- 5, 5349, 1024)
+ 5, 5309, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9386, 1028)
+ "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9355, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9386, 1028)
+ "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1, 5, 9355, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5342, false, 0.0,0.0,0.0,0,2563)
+ 5302, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5343, true, 0.0,0.0,0.0,0,2563)
+ 5303, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5344, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5304, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9389, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9358, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1,\
- 5, 9386, 1024)
+ 5, 9355, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.layer_HE[3].ports[1].h_outflow", 1,\
- 5, 9386, 1024)
+ 5, 9355, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5345, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5305, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5346, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5306, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5347, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5307, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T", 1,\
- 5, 9389, 1024)
+ 5, 9358, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9390, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9359, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 5348, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 5308, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.U", \
"Internal energy of fluid [J]", 54, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 54, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.m", \
-"Mass of fluid [kg]", 5349, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5309, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5350, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5310, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5351, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5311, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9391, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9360, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.fluidVolume", \
-"Volume [m3]", 5352, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5312, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5353, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5313, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports_H_flow[1]",\
- "[W]", 9392, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9361, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.ports_H_flow[2]",\
- "[W]", 9393, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9362, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5354, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5314, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5355, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5315, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5356, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5316, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5357, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5317, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5358, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5318, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5359, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5319, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5360, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5320, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5361, false, 0.0,0.0,0.0,0,2563)
+ 5321, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[3].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5362, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5322, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5363, 2, 1.0,4.0,0.0,0,517)
+ 5323, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5364, 2, 1.0,4.0,0.0,0,517)
+ 5324, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5365, 2, 1.0,4.0,0.0,0,517)
+ 5325, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5366, 2, 1.0,4.0,0.0,0,517)
+ 5326, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].p_start", \
-"Start value of pressure [Pa|bar]", 5367, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5327, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].T_start", \
-"Start value of temperature [K|degC]", 5368, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5328, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.stoBuf.layer_HE[4].X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1216, 1, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1222, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5369, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5329, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5370, false, 0.0,0.0,0.0,0,2563)
+ 5330, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5371, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5331, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5372, false, 0.0,0.0,0.0,0,515)
+ 5332, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5373, true, 0.0,0.0,0.0,0,515)
+ 5333, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5374, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5334, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].nPorts", \
-"Number of ports [:#(type=Integer)]", 5375, 2, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 5335, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5376, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5336, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5377, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].V", "Volume [m3]", 5378,\
+ 5337, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].V", "Volume [m3]", 5338,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 4)
+ "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 4)
+ "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].T", "Temperature of the fluid [K|degC]",\
- 9394, 300.0, 1.0,10000.0,300.0,0,512)
+ 9363, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].U", "Internal energy of the component [J]",\
"hydraulic.distribution.stoBuf.layer_HE[4].dynBal.U", 1, 1, 55, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 0)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 0)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].m", "Mass of the component [kg]",\
- "hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m", 1, 5, 5408, 0)
+ "hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m", 1, 5, 5368, 0)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 5379, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 5339, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5380, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5340, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].state_default.T", \
-"Temperature of medium [K|degC]", 5381, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5341, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5382, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5342, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5383, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5343, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].state_start.T", \
-"Temperature of medium [K|degC]", 5384, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5344, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5385, false, 0.0,0.0,0.0,0,2563)
+ 5345, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 1024)
+"hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5,\
- 9394, 1028)
+ 9363, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9395, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9364, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].preTem.T", "[K]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5, 9394, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5, 9363, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].portT.y", \
-"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5, 9394,\
+"Value of Real output", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5, 9363,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1,\
- 5, 9395, 1024)
+ 5, 9364, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5,\
- 9394, 1028)
+ 9363, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].heaFloSen.port_a.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9395, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9364, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5,\
- 9394, 1028)
+ 9363, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].heaFloSen.port_b.Q_flow",\
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", -1, 5, 9395, 1156)
+"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", -1, 5, 9364, 1156)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5386,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5346,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].heatPort.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5,\
- 9394, 4)
+ 9363, 4)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9395,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9364,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5387, 2, 1.0,4.0,0.0,0,2565)
+ 5347, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5388, 2, 1.0,4.0,0.0,0,2565)
+ 5348, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5389, 2, 1.0,4.0,0.0,0,2565)
+ 5349, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5390, 2, 1.0,4.0,0.0,0,2565)
+ 5350, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5391, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5351, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5392, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5352, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5393, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5353, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5394, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5354, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5395, false, 0.0,0.0,0.0,0,2563)
+ 5355, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 5396, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 5356, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5397, true, 0.0,0.0,0.0,0,2563)
+ 5357, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5398, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5358, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5399, false, 0.0,0.0,0.0,0,2563)
+ 5359, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5400,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5360,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.Q_flow", \
"Sensible plus latent heat flow rate transferred into the medium [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9395, 1024)
+"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9364, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1,\
- 5, 9342, 1024)
+ 5, 9311, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.distribution.stoBuf.layer_HE[4].dynBal.U", 1,\
1, 55, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m", 1,\
- 5, 5408, 1024)
+ 5, 5368, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 1028)
+ "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 1028)
+ 5, 3777, 1028)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 1028)
+ "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 1028)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5401, false, 0.0,0.0,0.0,0,2563)
+ 5361, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5402, true, 0.0,0.0,0.0,0,2563)
+ 5362, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5403, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5363, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9396, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9365, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1,\
- 5, 9342, 1024)
+ 5, 9311, 1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1,\
- 5, 9342, 1024)
+ 5, 9311, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5404, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5364, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5405, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5365, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5406, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5366, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3815,\
+ "Absolute pressure of medium [Pa|bar]", "hydraulic.generation.bouPum.p", 1, 5, 3777,\
1024)
DeclareAlias2("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T", 1,\
- 5, 9396, 1024)
+ 5, 9365, 1024)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9397, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9366, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 5407, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 5367, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.U", \
"Internal energy of fluid [J]", 55, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 55, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.m", \
-"Mass of fluid [kg]", 5408, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 5368, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5409, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5369, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5410, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5370, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9398, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9367, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.fluidVolume", \
-"Volume [m3]", 5411, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5371, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 5412, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 5372, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports_H_flow[1]",\
- "[W]", 9399, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9368, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.ports_H_flow[2]",\
- "[W]", 9400, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9369, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5413, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5373, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5414, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5374, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5415, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5375, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5416, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5376, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5417, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5377, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5418, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5378, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5419, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5379, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5420, false, 0.0,0.0,0.0,0,2563)
+ 5380, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.stoBuf.layer_HE[4].dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5421, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5381, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[1].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1,\
- 5, 9372, 0)
+ 5, 9341, 0)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[1].dT", \
-"port_a.T - port_b.T [K,]", 9401, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9370, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[1].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[1].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9372, 132)
+"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", 1, 5, 9341, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[1].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[1].T", 1, 5,\
- 9371, 4)
+ 9340, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[1].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", -1, 5, 9372, 132)
+"hydraulic.distribution.stoBuf.layer_HE[1].heatPort.Q_flow", -1, 5, 9341, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[1].G", \
-"Constant thermal conductance of material [W/K]", 5422, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5382, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[2].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1,\
- 5, 9380, 0)
+ 5, 9349, 0)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[2].dT", \
-"port_a.T - port_b.T [K,]", 9402, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9371, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[2].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[2].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9380, 132)
+"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", 1, 5, 9349, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[2].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[2].T", 1, 5,\
- 9379, 4)
+ 9348, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[2].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", -1, 5, 9380, 132)
+"hydraulic.distribution.stoBuf.layer_HE[2].heatPort.Q_flow", -1, 5, 9349, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[2].G", \
-"Constant thermal conductance of material [W/K]", 5423, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5383, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[3].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1,\
- 5, 9388, 0)
+ 5, 9357, 0)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[3].dT", \
-"port_a.T - port_b.T [K,]", 9403, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9372, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[3].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[3].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9388, 132)
+"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", 1, 5, 9357, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[3].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[3].T", 1, 5,\
- 9387, 4)
+ 9356, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[3].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", -1, 5, 9388, 132)
+"hydraulic.distribution.stoBuf.layer_HE[3].heatPort.Q_flow", -1, 5, 9357, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[3].G", \
-"Constant thermal conductance of material [W/K]", 5424, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5384, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[4].Q_flow", \
"Heat flow rate from port_a -> port_b [W]", "hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1,\
- 5, 9395, 0)
+ 5, 9364, 0)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[4].dT", \
-"port_a.T - port_b.T [K,]", 9404, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9373, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[4].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[4].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9395, 132)
+"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", 1, 5, 9364, 132)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[4].port_b.T", \
"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer_HE[4].T", 1, 5,\
- 9394, 4)
+ 9363, 4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer_HE[4].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", -1, 5, 9395, 132)
+"hydraulic.distribution.stoBuf.layer_HE[4].heatPort.Q_flow", -1, 5, 9364, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer_HE[4].G", \
-"Constant thermal conductance of material [W/K]", 5425, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5385, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[1].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9405, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9374, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[1].dT", \
-"port_a.T - port_b.T [K,]", 9406, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9375, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[1].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[1].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[1].Q_flow", 1, 5, 9405, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[1].Q_flow", 1, 5, 9374, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[1].port_b.T", \
-"Port temperature [K|degC]", 5426, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 5386, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[1].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[1].Q_flow", -1, 5, 9405, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[1].Q_flow", -1, 5, 9374, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[1].G", \
-"Constant thermal conductance of material [W/K]", 5427, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5387, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[2].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9407, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9376, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[2].dT", \
-"port_a.T - port_b.T [K,]", 9408, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9377, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[2].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[2].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[2].Q_flow", 1, 5, 9407, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[2].Q_flow", 1, 5, 9376, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[2].port_b.T", \
-"Port temperature [K|degC]", 5428, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 5388, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[2].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[2].Q_flow", -1, 5, 9407, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[2].Q_flow", -1, 5, 9376, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[2].G", \
-"Constant thermal conductance of material [W/K]", 5429, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5389, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[3].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9409, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9378, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[3].dT", \
-"port_a.T - port_b.T [K,]", 9410, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9379, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[3].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[3].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[3].Q_flow", 1, 5, 9409, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[3].Q_flow", 1, 5, 9378, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[3].port_b.T", \
-"Port temperature [K|degC]", 5430, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 5390, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[3].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[3].Q_flow", -1, 5, 9409, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[3].Q_flow", -1, 5, 9378, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[3].G", \
-"Constant thermal conductance of material [W/K]", 5431, 0.0, 0.0,0.0,0.0,0,513)
+"Constant thermal conductance of material [W/K]", 5391, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[4].Q_flow", \
-"Heat flow rate from port_a -> port_b [W]", 9411, 0.0, 0.0,0.0,0.0,0,512)
+"Heat flow rate from port_a -> port_b [W]", 9380, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[4].dT", \
-"port_a.T - port_b.T [K,]", 9412, 0.0, 0.0,0.0,0.0,0,512)
+"port_a.T - port_b.T [K,]", 9381, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[4].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[4].port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[4].Q_flow", 1, 5, 9411, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[4].Q_flow", 1, 5, 9380, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[4].port_b.T", \
-"Port temperature [K|degC]", 5432, 294.15, 0.0,1E+100,300.0,0,521)
+"Port temperature [K|degC]", 5392, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.stoBuf.heatTransfer[4].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.heatTransfer[4].Q_flow", -1, 5, 9411, 132)
+"hydraulic.distribution.stoBuf.heatTransfer[4].Q_flow", -1, 5, 9380, 132)
DeclareVariable("hydraulic.distribution.stoBuf.heatTransfer[4].G", \
-"Constant thermal conductance of material [W/K]", 5433, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].A", "[m2]", 5434, 0.0,\
+"Constant thermal conductance of material [W/K]", 5393, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].A", "[m2]", 5394, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].beta", "[1/K]", 5435,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].beta", "[1/K]", 5395,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].dx", "[m]", 5436, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].dx", "[m]", 5396, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].kappa", "", 5437, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].kappa", "", 5397, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].dT", "[K,]", 9413, \
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].dT", "[K,]", 9382, \
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].lambda_eff", \
-"[W/(m.K)]", 9414, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].g", "[m/s2]", 5438, \
+"[W/(m.K)]", 9383, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].g", "[m/s2]", 5398, \
9.80665, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].cp", "[J/(kg.K)]", 5439,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].cp", "[J/(kg.K)]", 5399,\
4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].lambda", "[W/(m.K)]",\
- 5440, 0.598, 0.0,0.0,0.0,0,513)
+ 5400, 0.598, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].rho", "[kg/m3|g/cm3]",\
- 5441, 995.586, 0.0,1E+100,0.0,0,513)
+ 5401, 995.586, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[1].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[1].port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9415,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9384,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[1].port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9432,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufBot.y", 1, 5, 9401,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[1].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.bouyancy[1].port_a.Q_flow", -1, 5, 9415, 132)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].A", "[m2]", 5442, 0.0,\
+"hydraulic.distribution.stoBuf.bouyancy[1].port_a.Q_flow", -1, 5, 9384, 132)
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].A", "[m2]", 5402, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].beta", "[1/K]", 5443,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].beta", "[1/K]", 5403,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].dx", "[m]", 5444, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].dx", "[m]", 5404, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].kappa", "", 5445, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].kappa", "", 5405, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].dT", "[K,]", 9416, \
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].dT", "[K,]", 9385, \
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].lambda_eff", \
-"[W/(m.K)]", 9417, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].g", "[m/s2]", 5446, \
+"[W/(m.K)]", 9386, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].g", "[m/s2]", 5406, \
9.80665, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].cp", "[J/(kg.K)]", 5447,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].cp", "[J/(kg.K)]", 5407,\
4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].lambda", "[W/(m.K)]",\
- 5448, 0.598, 0.0,0.0,0.0,0,513)
+ 5408, 0.598, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].rho", "[kg/m3|g/cm3]",\
- 5449, 995.586, 0.0,1E+100,0.0,0,513)
+ 5409, 995.586, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[2].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[2].port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9418,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9387,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[2].port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9350,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[2].T", 1, 5, 9319,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[2].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.bouyancy[2].port_a.Q_flow", -1, 5, 9418, 132)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].A", "[m2]", 5450, 0.0,\
+"hydraulic.distribution.stoBuf.bouyancy[2].port_a.Q_flow", -1, 5, 9387, 132)
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].A", "[m2]", 5410, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].beta", "[1/K]", 5451,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].beta", "[1/K]", 5411,\
0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].dx", "[m]", 5452, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].dx", "[m]", 5412, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].kappa", "", 5453, 0.0,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].kappa", "", 5413, 0.0,\
0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].dT", "[K,]", 9419, \
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].dT", "[K,]", 9388, \
0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].lambda_eff", \
-"[W/(m.K)]", 9420, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].g", "[m/s2]", 5454, \
+"[W/(m.K)]", 9389, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].g", "[m/s2]", 5414, \
9.80665, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].cp", "[J/(kg.K)]", 5455,\
+DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].cp", "[J/(kg.K)]", 5415,\
4184, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].lambda", "[W/(m.K)]",\
- 5456, 0.598, 0.0,0.0,0.0,0,513)
+ 5416, 0.598, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].rho", "[kg/m3|g/cm3]",\
- 5457, 995.586, 0.0,1E+100,0.0,0,513)
+ 5417, 995.586, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[3].port_a.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9431,\
+"Port temperature [K|degC]", "hydraulic.distribution.T_stoBufTop.y", 1, 5, 9400,\
4)
DeclareVariable("hydraulic.distribution.stoBuf.bouyancy[3].port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9421,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9390,\
0.0, 0.0,0.0,0.0,0,776)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[3].port_b.T", \
-"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9358,\
+"Port temperature [K|degC]", "hydraulic.distribution.stoBuf.layer[3].T", 1, 5, 9327,\
4)
DeclareAlias2("hydraulic.distribution.stoBuf.bouyancy[3].port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.distribution.stoBuf.bouyancy[3].port_a.Q_flow", -1, 5, 9421, 132)
+"hydraulic.distribution.stoBuf.bouyancy[3].port_a.Q_flow", -1, 5, 9390, 132)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5458, 2, 1.0,4.0,0.0,0,517)
+ 5418, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5459, 2, 1.0,4.0,0.0,0,517)
+ 5419, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5460, 2, 1.0,4.0,0.0,0,517)
+ 5420, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5461, 2, 1.0,4.0,0.0,0,517)
+ 5421, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.p_start", \
-"Start value of pressure [Pa|bar]", 5462, 300000, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 5422, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.T_start", \
-"Start value of temperature [K|degC]", 5463, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 5423, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.X_start[1]",\
- "Start value of mass fractions m_i/m [kg/kg]", 5464, 0.0, 0.0,1.0,0.1,0,513)
+ "Start value of mass fractions m_i/m [kg/kg]", 5424, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5465, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 5425, 1.0, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5466, false, 0.0,0.0,0.0,0,2563)
+ 5426, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.m_flow_nominal",\
- "Nominal mass flow rate [kg/s]", 5467, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ "Nominal mass flow rate [kg/s]", 5427, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.dp_nominal[1]",\
- "Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5468,\
+ "Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5428,\
1000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.dp_nominal[2]",\
- "Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5469,\
+ "Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5429,\
1000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.dpValve_nominal",\
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|bar]",\
- 5470, 1000.0, 0.0,0.0,0.0,0,513)
+ 5430, 1000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.dpFixed_nominal[1]",\
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|bar]",\
- 5471, 0.0, 0.0,0.0,0.0,0,513)
+ 5431, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.dpFixed_nominal[2]",\
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|bar]",\
- 5472, 0.0, 0.0,0.0,0.0,0,513)
+ 5432, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.deltaM",\
- "Fraction of nominal flow rate where linearization starts, if y=1", 5473, 0.0, \
+ "Fraction of nominal flow rate where linearization starts, if y=1", 5433, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.delta0",\
- "Range of significant deviation from equal percentage law", 5474, 0.0, 0.0,0.0,\
+ "Range of significant deviation from equal percentage law", 5434, 0.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.R",\
- "Rangeability, R=50...100 typically", 5475, 0.0, 0.0,0.0,0.0,0,513)
+ "Rangeability, R=50...100 typically", 5435, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.l[1]",\
- "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5476, 0.0, 0.0,0.0,0.0,0,513)
+ "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5436, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.l[2]",\
- "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5477, 0.0, 0.0,0.0,0.0,0,513)
+ "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5437, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.fraK",\
- "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)", 5478, 1.0, 0.0,0.0,\
+ "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)", 5438, 1.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.valveAutho",\
- "Assumed valve authority (typical value: 0.5) [1]", 5479, 0.5, 0.0,0.0,0.0,0,513)
+ "Assumed valve authority (typical value: 0.5) [1]", 5439, 0.5, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.tau",\
- "Time constant at nominal flow for dynamic energy and momentum balance [s]", 5480,\
+ "Time constant at nominal flow for dynamic energy and momentum balance [s]", 5440,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.use_strokeTime",\
"= true, if opening is filtered with a 2nd order CriticalDamping filter [:#(type=Boolean)]",\
- 5481, false, 0.0,0.0,0.0,0,515)
+ 5441, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.strokeTime",\
- "Rise time of the filter (time to reach 99.6 % of an opening step) [s]", 5482, \
+ "Rise time of the filter (time to reach 99.6 % of an opening step) [s]", 5442, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.order",\
- "Order of filter [:#(type=Integer)]", 5483, 0, 0.0,0.0,0.0,0,517)
+ "Order of filter [:#(type=Integer)]", 5443, 0, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.init",\
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 5484, 1, 1.0,4.0,0.0,0,517)
+ 5444, 1, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.y_start",\
- "Initial value of output", 5485, 0.0, 0.0,0.0,0.0,0,513)
+ "Initial value of output", 5445, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.parameters.from_dp",\
- "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5486, \
+ "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5446, \
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portGen_a.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portGen_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portGen_a.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_in[1].m_flow", -1, 5, 8338, 132)
+"hydraulic.generation.portGen_in[1].m_flow", -1, 5, 8298, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portGen_b.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_out[1].h_outflow", 1, 5, 9255, 4)
+ "hydraulic.distribution.portGen_out[1].h_outflow", 1, 5, 9224, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_a.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9422, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9391, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.p",\
- "Thermodynamic pressure in the connection point [Pa|bar]", 8454, 300000, 0.0,\
+ "Thermodynamic pressure in the connection point [Pa|bar]", 8417, 300000, 0.0,\
100000000.0,100000.0,0,648)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.bouPum.p", 1,\
- 5, 3815, 4)
+ 5, 3777, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.portBui_a.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9423, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9392, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.p",\
- "Thermodynamic pressure in the connection point [Pa|bar]", 8455, 300000, 0.0,\
+ "Thermodynamic pressure in the connection point [Pa|bar]", 8418, 300000, 0.0,\
100000000.0,100000.0,0,648)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5487, 2, 1.0,4.0,0.0,0,517)
+ 5447, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5488, 2, 1.0,4.0,0.0,0,517)
+ 5448, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5489, 2, 1.0,4.0,0.0,0,517)
+ 5449, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5490, 2, 1.0,4.0,0.0,0,517)
+ 5450, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.p_start",\
- "Start value of pressure [Pa|bar]", 5491, 300000, 0.0,100000000.0,100000.0,0,513)
+ "Start value of pressure [Pa|bar]", 5451, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.T_start",\
- "Start value of temperature [K|degC]", 5492, 293.15, 1.0,10000.0,300.0,0,513)
+ "Start value of temperature [K|degC]", 5452, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.X_start[1]",\
- "Start value of mass fractions m_i/m [kg/kg]", 1217, 1, 0.0,1.0,0.1,0,560)
+ "Start value of mass fractions m_i/m [kg/kg]", 1223, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.mSenFac",\
- "Factor for scaling the sensible thermal mass of the volume", 5493, 1, 1.0,\
+ "Factor for scaling the sensible thermal mass of the volume", 5453, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5494, false, 0.0,0.0,0.0,0,2563)
+ 5454, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_1.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_1.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.p", 1,\
- 5, 8455, 4)
+ 5, 8418, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_1.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_2.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_2.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_2.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_3.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_3.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.p", 1,\
- 5, 8454, 4)
+ 5, 8417, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.port_3.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.tau",\
- "Time constant at nominal flow for dynamic energy and momentum balance [s]", 5495,\
+ "Time constant at nominal flow for dynamic energy and momentum balance [s]", 5455,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.mDyn_flow_nominal",\
- "Nominal mass flow rate for dynamic momentum and energy balance [kg/s]", 5496, \
+ "Nominal mass flow rate for dynamic momentum and energy balance [kg/s]", 5456, \
0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.from_dp",\
- "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5497, true,\
+ "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5457, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.portFlowDirection_1",\
- "Flow direction for port_1 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5498,\
+ "Flow direction for port_1 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5458,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.portFlowDirection_2",\
- "Flow direction for port_2 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5499,\
+ "Flow direction for port_2 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5459,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.portFlowDirection_3",\
- "Flow direction for port_3 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5500,\
+ "Flow direction for port_3 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5460,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.verifyFlowReversal",\
"=true, to assert that the flow does not reverse when portFlowDirection_* does not equal Bidirectional [:#(type=Boolean)]",\
- 5501, false, 0.0,0.0,0.0,0,515)
+ 5461, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.m_flow_small",\
- "Small mass flow rate for checking flow reversal [kg/s]", 5502, \
+ "Small mass flow rate for checking flow reversal [kg/s]", 5462, \
3.379347183446045E-05, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5503, true, 0.0,0.0,0.0,0,515)
+ 5463, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_a.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_a.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.p", 1,\
- 5, 8455, 4)
+ 5, 8418, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_a.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.port_b.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 4)
+ "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_nominal",\
- "Nominal mass flow rate [kg/s]", 5504, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ "Nominal mass flow rate [kg/s]", 5464, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_small",\
- "Small mass flow rate for regularization of zero flow [kg/s]", 5505, \
+ "Small mass flow rate for regularization of zero flow [kg/s]", 5465, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.show_T",\
- "= true, if actual temperature at port is computed [:#(type=Boolean)]", 5506, \
+ "= true, if actual temperature at port is computed [:#(type=Boolean)]", 5466, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow",\
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 0)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp",\
- "Pressure difference between port_a and port_b [Pa|Pa]", 8456, 0, 0.0,0.0,\
+ "Pressure difference between port_a and port_b [Pa|Pa]", 8419, 0, 0.0,0.0,\
6000.0,0,640)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1._m_flow_start",\
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5507, 0, 0.0,0.0,0.0,0,2561)
+ 5467, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1._dp_start",\
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5508, 0, 0.0,0.0,0.0,0,2561)
+ 5468, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 5509, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 5469, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.from_dp",\
- "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5510, true,\
+ "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5470, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp_nominal",\
- "Pressure drop at nominal mass flow rate [Pa|Pa]", 5511, 1000.0, 0.0,0.0,0.0,0,513)
+ "Pressure drop at nominal mass flow rate [Pa|Pa]", 5471, 1000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.linearized",\
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5512, false, 0.0,0.0,0.0,0,515)
+ 5472, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_turbulent",\
- "Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5513, 0.0, 0.0,1E+100,\
+ "Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5473, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.sta_default.p",\
- "Absolute pressure of medium [Pa|bar]", 1218, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 1224, 300000.0, 0.0,100000000.0,\
100000.0,0,2608)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.sta_default.T",\
- "Temperature of medium [K|degC]", 1219, 293.15, 1.0,10000.0,300.0,0,2608)
+ "Temperature of medium [K|degC]", 1225, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.eta_default",\
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 5514, 0.001, 0.0,1E+100,0.0,0,2561)
+ 5474, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.m_flow_nominal_pos",\
- "Absolute value of nominal flow rate [kg/s]", 5515, 0.3379347183446045, \
+ "Absolute value of nominal flow rate [kg/s]", 5475, 0.3379347183446045, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dp_nominal_pos",\
- "Absolute value of nominal pressure difference [Pa|Pa]", 5516, 1000.0, 0.0,0.0,\
+ "Absolute value of nominal pressure difference [Pa|Pa]", 5476, 1000.0, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.CvData",\
- "Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 5517, 1, \
+ "Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 5477, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.Kv",\
- "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 5518, 0.0, 0.0,0.0,0.0,0,513)
+ "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 5478, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.Cv",\
- "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 5519, 0.0, 0.0,0.0,0.0,0,513)
+ "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 5479, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.Av",\
- "Av (metric) flow coefficient [m2]", 5520, 0.0, 0.0,0.0,0.0,0,513)
+ "Av (metric) flow coefficient [m2]", 5480, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.deltaM",\
- "Fraction of nominal flow rate where linearization starts, if y=1", 5521, 0.0, \
+ "Fraction of nominal flow rate where linearization starts, if y=1", 5481, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dpValve_nominal",\
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 5522, 1000.0, 0.0,1E+100,0.0,0,513)
+ 5482, 1000.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.rhoStd",\
- "Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1220, \
+ "Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1226, \
995.586, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.Kv_SI",\
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 5523, 0.0, 0.0,1E+100,0.0,0,2561)
+ 5483, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.use_strokeTime",\
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 5524, false, 0.0,0.0,0.0,0,515)
+ 5484, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.strokeTime",\
- "Time needed to fully open or close actuator [s]", 5525, 0.0, 0.0,0.0,0.0,0,513)
+ "Time needed to fully open or close actuator [s]", 5485, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.init",\
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1221, 4, 1.0,4.0,0.0,0,564)
+ 1227, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.y_start",\
- "Initial position of actuator", 1222, 1, 0.0,0.0,0.0,0,560)
+ "Initial position of actuator", 1228, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.y",\
"Actuator position (0: closed, 1: open)", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.y_actual",\
"Actual actuator position", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.casePreInd",\
- "In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 5526,\
+ "In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 5486,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.y_internal",\
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 1024)
+"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.dpFixed_nominal",\
- "Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 5527,\
+ "Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 5487,\
0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.l",\
- "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5528, 1E-10, 1E-10,1.0,0.0,0,513)
+ "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5488, 1E-10, 1E-10,1.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.phi",\
- "Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 8457, 0.0,\
+ "Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 8420, 0.0,\
0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.kFixed",\
"Flow coefficient of fixed resistance that may be in series with valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 5529, 0, 0.0,1E+100,0.0,0,513)
+ 5489, 0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.kVal",\
- "Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 8458, \
+ "Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 8421, \
1E-60, 1E-60,1E+100,0.0,0,640)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.k",\
"Flow coefficient of valve and pipe in series, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.kVal", 1,\
- 5, 8458, 0)
+ 5, 8421, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.R",\
- "Rangeability, R=50...100 typically", 5530, 0.0, 0.0,0.0,0.0,0,513)
+ "Rangeability, R=50...100 typically", 5490, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res1.delta0",\
- "Range of significant deviation from equal percentage law", 5531, 0.0, 0.0,0.0,\
+ "Range of significant deviation from equal percentage law", 5491, 0.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5532, true, 0.0,0.0,0.0,0,515)
+ 5492, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.port_a.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.port_a.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.port_a.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.port_b.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", 1, 5, 8296, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.port_b.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.port_b.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9137, 4)
+ "hydraulic.generation.portGen_out[1].h_outflow", 1, 5, 9100, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.m_flow_nominal",\
- "Nominal mass flow rate [kg/s]", 5533, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ "Nominal mass flow rate [kg/s]", 5493, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.m_flow_small",\
- "Small mass flow rate for regularization of zero flow [kg/s]", 5534, \
+ "Small mass flow rate for regularization of zero flow [kg/s]", 5494, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.show_T",\
- "= true, if actual temperature at port is computed [:#(type=Boolean)]", 5535, \
+ "= true, if actual temperature at port is computed [:#(type=Boolean)]", 5495, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.m_flow",\
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 0)
+ "hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.dp",\
- "Pressure difference between port_a and port_b [Pa|Pa]", 5536, 0, 0.0,0.0,0.0,0,513)
+ "Pressure difference between port_a and port_b [Pa|Pa]", 5496, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2._m_flow_start",\
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5537, 0, 0.0,0.0,0.0,0,2561)
+ 5497, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2._dp_start",\
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5538, 0, 0.0,0.0,0.0,0,2561)
+ 5498, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res2.from_dp",\
- "Used to satisfy replaceable models [:#(type=Boolean)]", 5539, true, 0.0,0.0,\
+ "Used to satisfy replaceable models [:#(type=Boolean)]", 5499, true, 0.0,0.0,\
0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5540, true, 0.0,0.0,0.0,0,515)
+ 5500, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.port_a.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.port_a.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.p", 1,\
- 5, 8454, 4)
+ 5, 8417, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.port_a.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.port_b.m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.port_b.p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.port_b.h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 4)
+ "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_nominal",\
- "Nominal mass flow rate [kg/s]", 5541, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ "Nominal mass flow rate [kg/s]", 5501, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_small",\
- "Small mass flow rate for regularization of zero flow [kg/s]", 5542, \
+ "Small mass flow rate for regularization of zero flow [kg/s]", 5502, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.show_T",\
- "= true, if actual temperature at port is computed [:#(type=Boolean)]", 5543, \
+ "= true, if actual temperature at port is computed [:#(type=Boolean)]", 5503, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow",\
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 0)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp",\
- "Pressure difference between port_a and port_b [Pa|Pa]", 8459, 0, 0.0,0.0,\
+ "Pressure difference between port_a and port_b [Pa|Pa]", 8422, 0, 0.0,0.0,\
6000.0,0,640)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3._m_flow_start",\
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5544, 0, 0.0,0.0,0.0,0,2561)
+ 5504, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3._dp_start",\
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5545, 0, 0.0,0.0,0.0,0,2561)
+ 5505, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 5546, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 5506, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.from_dp",\
- "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5547, true,\
+ "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 5507, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp_nominal",\
- "Pressure drop at nominal mass flow rate [Pa|Pa]", 5548, 1000.0, 0.0,0.0,0.0,0,513)
+ "Pressure drop at nominal mass flow rate [Pa|Pa]", 5508, 1000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.linearized",\
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5549, false, 0.0,0.0,0.0,0,515)
+ 5509, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_turbulent",\
- "Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5550, 0.0, 0.0,1E+100,\
+ "Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5510, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.sta_default.p",\
- "Absolute pressure of medium [Pa|bar]", 1223, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 1229, 300000.0, 0.0,100000000.0,\
100000.0,0,2608)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.sta_default.T",\
- "Temperature of medium [K|degC]", 1224, 293.15, 1.0,10000.0,300.0,0,2608)
+ "Temperature of medium [K|degC]", 1230, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.eta_default",\
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 5551, 0.001, 0.0,1E+100,0.0,0,2561)
+ 5511, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.m_flow_nominal_pos",\
- "Absolute value of nominal flow rate [kg/s]", 5552, 0.3379347183446045, \
+ "Absolute value of nominal flow rate [kg/s]", 5512, 0.3379347183446045, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dp_nominal_pos",\
- "Absolute value of nominal pressure difference [Pa|Pa]", 5553, 1000.0, 0.0,0.0,\
+ "Absolute value of nominal pressure difference [Pa|Pa]", 5513, 1000.0, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.CvData",\
- "Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 5554, 1, \
+ "Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 5514, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.Kv",\
- "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 5555, 0.0, 0.0,0.0,0.0,0,513)
+ "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 5515, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.Cv",\
- "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 5556, 0.0, 0.0,0.0,0.0,0,513)
+ "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 5516, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.Av",\
- "Av (metric) flow coefficient [m2]", 5557, 0.0, 0.0,0.0,0.0,0,513)
+ "Av (metric) flow coefficient [m2]", 5517, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.deltaM",\
- "Fraction of nominal flow rate where linearization starts, if y=1", 5558, 0.0, \
+ "Fraction of nominal flow rate where linearization starts, if y=1", 5518, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dpValve_nominal",\
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 5559, 1000.0, 0.0,1E+100,0.0,0,513)
+ 5519, 1000.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.rhoStd",\
- "Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1225, \
+ "Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1231, \
995.586, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.Kv_SI",\
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 5560, 0.0, 0.0,1E+100,0.0,0,2561)
+ 5520, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.use_strokeTime",\
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 5561, false, 0.0,0.0,0.0,0,515)
+ 5521, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.strokeTime",\
- "Time needed to fully open or close actuator [s]", 5562, 0.0, 0.0,0.0,0.0,0,513)
+ "Time needed to fully open or close actuator [s]", 5522, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.init",\
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1226, 4, 1.0,4.0,0.0,0,564)
+ 1232, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y_start",\
- "Initial position of actuator", 1227, 1, 0.0,0.0,0.0,0,560)
+ "Initial position of actuator", 1233, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y",\
- "Actuator position (0: closed, 1: open)", 8460, 0.0, 0.0,1.0,0.0,0,640)
+ "Actuator position (0: closed, 1: open)", 8423, 0.0, 0.0,1.0,0.0,0,640)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y_actual",\
"Actual actuator position", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y", 1,\
- 5, 8460, 0)
+ 5, 8423, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.casePreInd",\
- "In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 5563,\
+ "In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 5523,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y_internal",\
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y", 1, 5,\
- 8460, 1024)
+ 8423, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.dpFixed_nominal",\
- "Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 5564,\
+ "Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 5524,\
0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.l",\
- "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5565, 1E-10, 1E-10,1.0,0.0,0,513)
+ "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5525, 1E-10, 1E-10,1.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.phi",\
- "Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 8461, 0.0,\
+ "Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 8424, 0.0,\
0.0,0.0,0.0,0,640)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.kFixed",\
"Flow coefficient of fixed resistance that may be in series with valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 5566, 0, 0.0,1E+100,0.0,0,513)
+ 5526, 0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.kVal",\
- "Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 8462, \
+ "Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 8425, \
1E-60, 1E-60,1E+100,0.0,0,640)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.k",\
"Flow coefficient of valve and pipe in series, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
"hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.kVal", 1,\
- 5, 8462, 0)
+ 5, 8425, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.have_controlVolume",\
- "Boolean flag used to remove conditional components [:#(type=Boolean)]", 5567, \
+ "Boolean flag used to remove conditional components [:#(type=Boolean)]", 5527, \
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.use_strokeTime",\
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 5568, false, 0.0,0.0,0.0,0,515)
+ 5528, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.strokeTime",\
- "Time needed to fully open or close actuator [s]", 5569, 0.0, 0.0,0.0,0.0,0,513)
+ "Time needed to fully open or close actuator [s]", 5529, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.init",\
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 5570, 1, 1.0,4.0,0.0,0,517)
+ 5530, 1, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.y_start",\
- "Initial position of actuator", 5571, 0.0, 0.0,0.0,0.0,0,513)
+ "Initial position of actuator", 5531, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.y",\
"Actuator position (0: closed, 1: open)", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.y_actual",\
"Actual actuator position", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 0)
+ 5, 8427, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.casePreInd",\
- "In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 5572,\
+ "In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 5532,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.y_internal",\
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8464, 1024)
+"hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1, 5, 8427, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.CvData",\
- "Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 5573, 1, \
+ "Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 5533, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.Kv",\
- "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 5574, 0.0, 0.0,0.0,0.0,0,513)
+ "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 5534, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.Cv",\
- "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 5575, 0.0, 0.0,0.0,0.0,0,513)
+ "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 5535, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.Av",\
- "Av (metric) flow coefficient [m2]", 5576, 0.0, 0.0,0.0,0.0,0,513)
+ "Av (metric) flow coefficient [m2]", 5536, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.deltaM",\
- "Fraction of nominal flow rate where linearization starts, if y=1", 5577, 0.0, \
+ "Fraction of nominal flow rate where linearization starts, if y=1", 5537, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.m_flow_nominal",\
- "Nominal mass flow rate [kg/s]", 5578, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ "Nominal mass flow rate [kg/s]", 5538, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.dpValve_nominal",\
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 5579, 1000.0, 0.0,1E+100,0.0,0,513)
+ 5539, 1000.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.rhoStd",\
- "Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1228, \
+ "Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1234, \
995.586, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.Kv_SI",\
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 5580, 0.0, 0.0,1E+100,0.0,0,2561)
+ 5540, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 5581, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 5541, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.dpFixed_nominal[1]",\
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|Pa]",\
- 5582, 0.0, 0.0,1E+100,0.0,0,513)
+ 5542, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.dpFixed_nominal[2]",\
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|Pa]",\
- 5583, 0.0, 0.0,1E+100,0.0,0,513)
+ 5543, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.fraK",\
- "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)", 5584, 1.0, 0.0,1.0,\
+ "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)", 5544, 1.0, 0.0,1.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.l[1]",\
- "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5585, 0.0, 0.0,1.0,0.0,0,513)
+ "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5545, 0.0, 0.0,1.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.l[2]",\
- "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5586, 0.0, 0.0,1.0,0.0,0,513)
+ "Valve leakage, l=Kv(y=0)/Kv(y=1)", 5546, 0.0, 0.0,1.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.linearized[1]",\
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5587, false, 0.0,0.0,0.0,0,515)
+ 5547, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.linearized[2]",\
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5588, false, 0.0,0.0,0.0,0,515)
+ 5548, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.inv.u1",\
- "Commanded input", 5589, 1, 0.0,0.0,0.0,0,2561)
+ "Commanded input", 5549, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.inv.u2",\
"Feedback input", "hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", 1,\
- 5, 8464, 1024)
+ 5, 8427, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.inv.y",\
"", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.res3.y", 1,\
- 5, 8460, 1024)
+ 5, 8423, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.uni.k",\
- "Constant output value", 5590, 1, 0.0,0.0,0.0,0,2561)
+ "Constant output value", 5550, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.uni.y",\
- "Connector of Real output signal", 5591, 1.0, 0.0,0.0,0.0,0,2561)
+ "Connector of Real output signal", 5551, 1.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.R",\
- "Rangeability, R=50...100 typically", 5592, 0.0, 0.0,0.0,0.0,0,513)
+ "Rangeability, R=50...100 typically", 5552, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.delta0",\
- "Range of significant deviation from equal percentage law", 5593, 0.0, 0.0,0.0,\
+ "Range of significant deviation from equal percentage law", 5553, 0.0, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5594, 2, 1.0,4.0,0.0,0,517)
+ 5554, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5595, 2, 1.0,4.0,0.0,0,517)
+ 5555, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5596, 2, 1.0,4.0,0.0,0,517)
+ 5556, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5597, 2, 1.0,4.0,0.0,0,517)
+ 5557, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.p_start",\
- "Start value of pressure [Pa|bar]", 5598, 300000, 0.0,100000000.0,100000.0,0,513)
+ "Start value of pressure [Pa|bar]", 5558, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T_start",\
- "Start value of temperature [K|degC]", 5599, 293.15, 1.0,10000.0,300.0,0,513)
+ "Start value of temperature [K|degC]", 5559, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.X_start[1]",\
- "Start value of mass fractions m_i/m [kg/kg]", 5600, 0.0, 0.0,1.0,0.1,0,513)
+ "Start value of mass fractions m_i/m [kg/kg]", 5560, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.mSenFac",\
- "Factor for scaling the sensible thermal mass of the volume", 5601, 1, 1.0,\
+ "Factor for scaling the sensible thermal mass of the volume", 5561, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5602, false, 0.0,0.0,0.0,0,2563)
+ 5562, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 5603, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 5563, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5604, false, 0.0,0.0,0.0,0,515)
+ 5564, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5605, true, 0.0,0.0,0.0,0,515)
+ 5565, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.m_flow_nominal",\
- "Nominal mass flow rate [kg/s]", 5606, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
+ "Nominal mass flow rate [kg/s]", 5566, 0.3379347183446045, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.nPorts",\
- "Number of ports [:#(type=Integer)]", 5607, 3, 0.0,0.0,0.0,0,517)
+ "Number of ports [:#(type=Integer)]", 5567, 3, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.m_flow_small",\
- "Small mass flow rate for regularization of zero flow [kg/s]", 5608, \
+ "Small mass flow rate for regularization of zero flow [kg/s]", 5568, \
3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5609, true, 0.0,0.0,0.0,0,515)
+ 5569, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.V",\
- "Volume [m3]", 5610, 0.0, 0.0,0.0,0.0,0,513)
+ "Volume [m3]", 5570, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[1].p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 132)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[2].p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[3].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[3].p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 4)
+ 5, 8297, 4)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.ports[3].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T",\
- "Temperature of the fluid [K|degC]", 9424, 300.0, 1.0,10000.0,300.0,0,512)
+ "Temperature of the fluid [K|degC]", 9393, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.U",\
"Internal energy of the component [J]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.U", 1,\
1, 56, 0)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.p",\
"Pressure of the fluid [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1, 5,\
- 8337, 0)
+ 8297, 0)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.m",\
"Mass of the component [kg]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.m", 1,\
- 5, 5647, 0)
+ 5, 5607, 0)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.rho_start",\
- "Density, used to compute start and guess values [kg/m3|g/cm3]", 5611, 995.586,\
+ "Density, used to compute start and guess values [kg/m3|g/cm3]", 5571, 995.586,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5612, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5572, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.state_default.T",\
- "Temperature of medium [K|degC]", 5613, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5573, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.rho_default",\
- "Density, used to compute fluid mass [kg/m3|g/cm3]", 5614, 995.586, 0.0,1E+100,\
+ "Density, used to compute fluid mass [kg/m3|g/cm3]", 5574, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.state_start.p",\
- "Absolute pressure of medium [Pa|bar]", 5615, 300000, 0.0,100000000.0,100000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5575, 300000, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.state_start.T",\
- "Temperature of medium [K|degC]", 5616, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5576, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5617, false, 0.0,0.0,0.0,0,2563)
+ 5577, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.hOut_internal",\
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 1024)
+"hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.preTem.port.T",\
"Port temperature [K|degC]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T", 1,\
- 5, 9424, 1028)
+ 5, 9393, 1028)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.preTem.port.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 5618,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 5578,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.preTem.T",\
"[K]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T", 1,\
- 5, 9424, 1024)
+ 5, 9393, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.portT.y",\
"Value of Real output", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T", 1,\
- 5, 9424, 1024)
+ 5, 9393, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heaFloSen.Q_flow",\
- "Heat flow from port_a to port_b as output signal [W]", 5619, 0.0, 0.0,0.0,0.0,\
+ "Heat flow from port_a to port_b as output signal [W]", 5579, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heaFloSen.port_a.T",\
"Port temperature [K|degC]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T", 1,\
- 5, 9424, 1028)
+ 5, 9393, 1028)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heaFloSen.port_a.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 5620,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 5580,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heaFloSen.port_b.T",\
"Port temperature [K|degC]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T", 1,\
- 5, 9424, 1028)
+ 5, 9393, 1028)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heaFloSen.port_b.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 5621,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 5581,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.use_C_flow",\
"Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 5622, false, 0.0,0.0,0.0,0,515)
+ 5582, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heatPort.T",\
"Port temperature [K|degC]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.T", 1,\
- 5, 9424, 4)
+ 5, 9393, 4)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.heatPort.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 5623,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 5583,\
0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.tau",\
- "Time constant at nominal flow [s]", 5624, 0.0, 0.0,0.0,0.0,0,513)
+ "Time constant at nominal flow [s]", 5584, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.V_nominal",\
- "Volume of delay element [m3]", 5625, 0.0, 0.0,0.0,0.0,0,2561)
+ "Volume of delay element [m3]", 5585, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5626, 2, 1.0,4.0,0.0,0,2565)
+ 5586, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5627, 2, 1.0,4.0,0.0,0,2565)
+ 5587, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5628, 2, 1.0,4.0,0.0,0,2565)
+ 5588, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5629, 2, 1.0,4.0,0.0,0,2565)
+ 5589, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.p_start",\
- "Start value of pressure [Pa|bar]", 5630, 300000, 0.0,100000000.0,100000.0,0,2561)
+ "Start value of pressure [Pa|bar]", 5590, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.T_start",\
- "Start value of temperature [K|degC]", 5631, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Start value of temperature [K|degC]", 5591, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.X_start[1]",\
- "Start value of mass fractions m_i/m [kg/kg]", 5632, 0.0, 0.0,1.0,0.1,0,2561)
+ "Start value of mass fractions m_i/m [kg/kg]", 5592, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.mSenFac",\
- "Factor for scaling the sensible thermal mass of the volume", 5633, 1.0, 1.0,\
+ "Factor for scaling the sensible thermal mass of the volume", 5593, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5634, false, 0.0,0.0,0.0,0,2563)
+ 5594, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 5635, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 5595, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5636, true, 0.0,0.0,0.0,0,2563)
+ 5596, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.nPorts",\
- "Number of ports [:#(type=Integer)]", 5637, 3, 0.0,0.0,0.0,0,2565)
+ "Number of ports [:#(type=Integer)]", 5597, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5638, false, 0.0,0.0,0.0,0,2563)
+ 5598, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.use_C_flow",\
"Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 5639, false, 0.0,0.0,0.0,0,2563)
+ 5599, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.Q_flow",\
- "Sensible plus latent heat flow rate transferred into the medium [W]", 5640, \
+ "Sensible plus latent heat flow rate transferred into the medium [W]", 5600, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.hOut",\
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.distribution.portGen_in[1].h_outflow", 1,\
- 5, 9254, 1024)
+ 5, 9223, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.UOut",\
"Internal energy of the component [J]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.U", 1,\
1, 56, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.mOut",\
"Mass of the component [kg]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.m", 1,\
- 5, 5647, 1024)
+ 5, 5607, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 1156)
+"hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 1156)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[1].p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1028)
+ 5, 8297, 1028)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 1028)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 1028)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8336, 1156)
+"hydraulic.generation.portGen_out[1].m_flow", -1, 5, 8296, 1156)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[2].p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1028)
+ 5, 8297, 1028)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 1028)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 1028)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[3].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 1156)
+"hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 1156)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[3].p",\
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1028)
+ 5, 8297, 1028)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports[3].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 1028)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 1028)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5641, false, 0.0,0.0,0.0,0,2563)
+ 5601, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5642, true, 0.0,0.0,0.0,0,2563)
+ 5602, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.d",\
- "Density of medium [kg/m3|g/cm3]", 5643, 995.586, 0.0,1E+100,0.0,0,2561)
+ "Density of medium [kg/m3|g/cm3]", 5603, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T",\
- "Temperature of medium [K|degC]", 9425, 300.0, 1.0,10000.0,300.0,0,2560)
+ "Temperature of medium [K|degC]", 9394, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.p",\
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1024)
+ 5, 8297, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.h",\
"Specific enthalpy of medium [J/kg]", "hydraulic.distribution.portGen_in[1].h_outflow", 1,\
- 5, 9254, 1024)
+ 5, 9223, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.u",\
"Specific internal energy of medium [J/kg]", "hydraulic.distribution.portGen_in[1].h_outflow", 1,\
- 5, 9254, 1024)
+ 5, 9223, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [1]", 5644, 1, 0.0,1.0,\
+ "Mass fractions (= (component mass)/total mass m_i/m) [1]", 5604, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.R_s",\
- "Gas constant (of mixture if applicable) [J/(kg.K)]", 5645, 0, 0.0,0.0,0.0,0,2561)
+ "Gas constant (of mixture if applicable) [J/(kg.K)]", 5605, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.MM",\
- "Molar mass (of mixture or single fluid) [kg/mol]", 5646, 0.018015268, 0.0,\
+ "Molar mass (of mixture or single fluid) [kg/mol]", 5606, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.state.p",\
"Absolute pressure of medium [Pa|bar]", "hydraulic.generation.portGen_out[1].p", 1,\
- 5, 8337, 1024)
+ 5, 8297, 1024)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T", 1,\
- 5, 9425, 1024)
+ 5, 9394, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9426, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9395, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 8463, 0.0, 0.0,0.0,0.0,0,2688)
+ "Absolute pressure of medium in [bar] [bar]", 8426, 0.0, 0.0,0.0,0.0,0,2688)
DeclareState("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.U",\
"Internal energy of fluid [J]", 56, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.der(U)",\
"der(Internal energy of fluid) [W]", 56, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.m",\
- "Mass of fluid [kg]", 5647, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Mass of fluid [kg]", 5607, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.der(m)",\
- "der(Mass of fluid) [kg/s]", 5648, 0.0, 0.0,0.0,0.0,0,2561)
+ "der(Mass of fluid) [kg/s]", 5608, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.mb_flow",\
- "Mass flows across boundaries [kg/s]", 5649, 0.0, 0.0,0.0,0.0,0,2561)
+ "Mass flows across boundaries [kg/s]", 5609, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.Hb_flow",\
"Enthalpy flow across boundaries or energy source/sink [W]", "hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.der(U)", 1,\
6, 56, 1024)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.fluidVolume",\
- "Volume [m3]", 5650, 0.0, 0.0,0.0,0.0,0,2561)
+ "Volume [m3]", 5610, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.CSen",\
- "Aditional heat capacity for implementing mFactor [J/K]", 5651, 0.0, 0.0,0.0,\
+ "Aditional heat capacity for implementing mFactor [J/K]", 5611, 0.0, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports_H_flow[1]",\
- "[W]", 9427, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9396, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports_H_flow[2]",\
- "[W]", 9428, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9397, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.ports_H_flow[3]",\
- "[W]", 9429, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9398, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.cp_default",\
- "Heat capacity, to compute additional dry mass [J/(kg.K)]", 5652, 4184, \
+ "Heat capacity, to compute additional dry mass [J/(kg.K)]", 5612, 4184, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.rho_start",\
- "Density, used to compute fluid mass [kg/m3|g/cm3]", 5653, 995.586, 0.0,1E+100,\
+ "Density, used to compute fluid mass [kg/m3|g/cm3]", 5613, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.computeCSen",\
- "[:#(type=Boolean)]", 5654, false, 0.0,0.0,0.0,0,2563)
+ "[:#(type=Boolean)]", 5614, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 5655, 300000.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 5615, 300000.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 5656, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 5616, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.rho_default",\
- "Density, used to compute fluid mass [kg/m3|g/cm3]", 5657, 995.586, 0.0,1E+100,\
+ "Density, used to compute fluid mass [kg/m3|g/cm3]", 5617, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.hStart",\
- "Start value for specific enthalpy [J/kg]", 5658, 0.0, 0.0,0.0,0.0,0,2561)
+ "Start value for specific enthalpy [J/kg]", 5618, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5659, false, 0.0,0.0,0.0,0,2563)
+ 5619, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.threWayValFlow.vol.dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 5660, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 5620, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.threeWayValveWithFlowReturn.uBuf", \
-"Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)", 8464, \
+"Actuator position (0: DHW Loading, 1: Buffer / Space heating loading)", 8427, \
0.0, 0.0,1.0,0.0,0,640)
DeclareVariable("hydraulic.distribution.T_stoDHWTop.y", "Value of Real output [K|degC]",\
- 9430, 323.15, 1.0,10000.0,300.0,0,512)
+ 9399, 323.15, 1.0,10000.0,300.0,0,512)
DeclareVariable("hydraulic.distribution.T_stoBufTop.y", "Value of Real output [K|degC]",\
- 9431, 300.0, 1.0,10000.0,300.0,0,512)
+ 9400, 300.0, 1.0,10000.0,300.0,0,512)
DeclareVariable("hydraulic.distribution.T_stoBufBot.y", "Value of Real output [K|degC]",\
- 9432, 300.0, 1.0,10000.0,300.0,0,512)
+ 9401, 300.0, 1.0,10000.0,300.0,0,512)
DeclareVariable("hydraulic.distribution.T_stoDHWBot.y", "Value of Real output [K|degC]",\
- 9433, 323.15, 1.0,10000.0,300.0,0,512)
+ 9402, 323.15, 1.0,10000.0,300.0,0,512)
DeclareVariable("hydraulic.distribution.parStoBuf.rho", "Density of liquid water [kg/m3|kg/m3]",\
- 5661, 995.586, 0.0,1E+100,0.0,0,513)
+ 5621, 995.586, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.c_p", "Heat capacity of water [J/(kg.K)]",\
- 5662, 4184.0, 0.0,0.0,0.0,0,513)
+ 5622, 4184.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.Q_flow_nominal", \
-"Nominal heat flow rate [W]", 5663, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate [W]", 5623, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoBuf.v_nominal", "Nominal fluid velocity to calculate pipe diameters for given m_flow_nominal [m/s]",\
- 1229, 0.5, 0.0,0.0,0.0,0,560)
+ 1235, 0.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.VPerQ_flow", "Litre per kW of nominal heat flow rate",\
- 1230, 23.5, 0.0,0.0,0.0,0,560)
+ 1236, 23.5, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.storage_H_dia_ratio", \
"Storage tank height-diameter ration. SOURCE: Working Assumption of all paper before",\
- 1231, 2, 0.0,0.0,0.0,0,560)
+ 1237, 2, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoBuf.nLayer", "Number of layers in storage [:#(type=Integer)]",\
- 5664, 4, 0.0,0.0,0.0,0,517)
-DeclareVariable("hydraulic.distribution.parStoBuf.V", "Volume of storage [m3]", 5665,\
+ 5624, 4, 0.0,0.0,0.0,0,517)
+DeclareVariable("hydraulic.distribution.parStoBuf.V", "Volume of storage [m3]", 5625,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.d", "Diameter of storage [m]",\
- 5666, 0.0, 0.0,1E+100,0.0,0,513)
-DeclareVariable("hydraulic.distribution.parStoBuf.h", "[m]", 5667, 0.0, 0.0,\
+ 5626, 0.0, 0.0,1E+100,0.0,0,513)
+DeclareVariable("hydraulic.distribution.parStoBuf.h", "[m]", 5627, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoBuf.dTLoaMin", "Minimal temperature difference for loading [K,]",\
- 1232, 0.01, 0.0,0.0,0.0,0,560)
+ 1238, 0.01, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoBuf.use_HC1", "=false to disable heating coil 1 [:#(type=Boolean)]",\
- 5668, true, 0.0,0.0,0.0,0,515)
+ 5628, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.distribution.parStoBuf.dTLoadingHC1", \
-"Temperature difference for loading of first heating coil [K,]", 1233, 0, \
+"Temperature difference for loading of first heating coil [K,]", 1239, 0, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.fHeiHC1", "Percentage of the storage height used for the heating coil",\
- 1234, 1, 0.0,0.0,0.0,0,560)
+ 1240, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.fDiaHC1", "Percentage of the storage diameter used for the heating coil",\
- 1235, 1, 0.0,0.0,0.0,0,560)
+ 1241, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoBuf.QHC1_flow_nominal", \
-"Nominal heat flow rate in first heating coil [W]", 5669, 13288.382850121196, \
+"Nominal heat flow rate in first heating coil [W]", 5629, 13288.382850121196, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.lengthHC1", "Lenght of first HC [m]",\
- 5670, 0.0, 0.0,0.0,0.0,0,513)
+ 5630, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.mHC1_flow_nominal", \
-"Nominal mass flow rate of HC fluid [kg/s]", 5671, 0.3379347183446045, 0.0,0.0,\
+"Nominal mass flow rate of HC fluid [kg/s]", 5631, 0.3379347183446045, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.vHC1_nominal", \
-"Fluid velocity in pipe of HC 1 at nominal conditions [m/s]", 5672, 0.0, \
+"Fluid velocity in pipe of HC 1 at nominal conditions [m/s]", 5632, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.pipeHC1.d_i", "Inner pipe diameter [m]",\
- 5673, 0.0, 0.0,1E+100,0.0,0,513)
+ 5633, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.pipeHC1.d_o", "Outer pipe diameter [m]",\
- 5674, 0.0, 0.0,1E+100,0.0,0,513)
+ 5634, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoBuf.pipeHC1.d", "Density of pipe material [kg/m3|g/cm3]",\
- 1236, 8900, 0.0,1E+100,0.0,0,560)
+ 1242, 8900, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.pipeHC1.lambda", \
-"Thermal conductivity of pipe material [W/(m.K)]", 1237, 393, 0.0,0.0,0.0,0,560)
+"Thermal conductivity of pipe material [W/(m.K)]", 1243, 393, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.pipeHC1.c", "Heat capacity of pipe material [J/(kg.K)]",\
- 1238, 390, 0.0,0.0,0.0,0,560)
+ 1244, 390, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoBuf.hConHC1", "Model assumptions Coefficient of Heat Transfer HC1 <-> Heating Water [W/(m2.K)]",\
- 5675, 0.0, 0.0,0.0,0.0,0,513)
+ 5635, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoBuf.energyLabel", \
"Level of Storage Tank Insulation [:#(type=BESMod.Systems.Hydraulical.Distribution.Types.EnergyLabel)]",\
- 1239, 3, 1.0,8.0,0.0,0,564)
+ 1245, 3, 1.0,8.0,0.0,0,564)
DeclareVariable("hydraulic.distribution.parStoBuf.QLosPerDay", "Heat loss per day. MUST BE IN kWh/d",\
- 5676, 0.0, 0.0,0.0,0.0,0,513)
+ 5636, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.T_m", "Average storage temperature. Used to calculate default heat loss [K|degC]",\
- 5677, 328.15, 0.0,1E+100,300.0,0,513)
+ 5637, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.TAmb", "Ambient temperature. Used to calculate default heat loss [K|degC]",\
- 5678, 294.15, 0.0,1E+100,300.0,0,513)
+ 5638, 294.15, 0.0,1E+100,300.0,0,513)
DeclareParameter("hydraulic.distribution.parStoBuf.use_QLos", "=true to use QLosPerDay instead of TLosPerDay [:#(type=Boolean)]",\
- 1240, true, 0.0,0.0,0.0,0,562)
+ 1246, true, 0.0,0.0,0.0,0,562)
DeclareParameter("hydraulic.distribution.parStoBuf.TLosPerDay", "Temperature decline per day in K/d",\
- 1241, 1, 0.0,0.0,0.0,0,560)
+ 1247, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.hConIn", "Model assumptions heat transfer coefficient water <-> wall [W/(m2.K)]",\
- 1242, 100, 0.0,0.0,0.0,0,560)
+ 1248, 100, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.hConOut", "Model assumptions heat transfer coefficient insulation <-> air [W/(m2.K)]",\
- 1243, 10, 0.0,0.0,0.0,0,560)
+ 1249, 10, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoBuf.lambda_ins", "thermal conductivity of insulation [W/(m.K)]",\
- 1244, 0.045, 0.0,0.0,0.0,0,560)
+ 1250, 0.045, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoBuf.QLoss_flow", "Actual heat flow rate loss [W]",\
- 5679, 0.0, 0.0,0.0,0.0,0,513)
+ 5639, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.sIns", "thickness of insulation [m]",\
- 5680, 0.0, 0.0,1E+100,0.0,0,513)
+ 5640, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.V_HE", "heat exchanger volume based on pipe length and diameter [m3]",\
- 5681, 0.0, 0.0,0.0,0.0,0,513)
+ 5641, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.k_HE", "heat exchanger heat transfer coefficient [W/(m2.K)]",\
- 5682, 0.0, 0.0,0.0,0.0,0,513)
+ 5642, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoBuf.A_HE", "heat exchanger area based on length and average diameter [m2]",\
- 5683, 0.0, 0.0,0.0,0.0,0,513)
-DeclareParameter("hydraulic.distribution.parStoBuf.beta", "[1/K]", 1245, 0.00035,\
+ 5643, 0.0, 0.0,0.0,0.0,0,513)
+DeclareParameter("hydraulic.distribution.parStoBuf.beta", "[1/K]", 1251, 0.00035,\
0.0,0.0,0.0,0,560)
-DeclareParameter("hydraulic.distribution.parStoBuf.kappa", "", 1246, 0.4, \
+DeclareParameter("hydraulic.distribution.parStoBuf.kappa", "", 1252, 0.4, \
0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.rho", "Density of liquid water [kg/m3|kg/m3]",\
- 5684, 995.586, 0.0,1E+100,0.0,0,513)
+ 5644, 995.586, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.c_p", "Heat capacity of water [J/(kg.K)]",\
- 5685, 4184.0, 0.0,0.0,0.0,0,513)
+ 5645, 4184.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.Q_flow_nominal", \
-"Nominal heat flow rate [W]", 5686, 0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate [W]", 5646, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoDHW.v_nominal", "Nominal fluid velocity to calculate pipe diameters for given m_flow_nominal [m/s]",\
- 1247, 0.5, 0.0,0.0,0.0,0,560)
+ 1253, 0.5, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.VPerQ_flow", "Litre per kW of nominal heat flow rate",\
- 5687, 0, 0.0,0.0,0.0,0,513)
+ 5647, 0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoDHW.storage_H_dia_ratio", \
"Storage tank height-diameter ration. SOURCE: Working Assumption of all paper before",\
- 1248, 2, 0.0,0.0,0.0,0,560)
+ 1254, 2, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.nLayer", "Number of layers in storage [:#(type=Integer)]",\
- 5688, 4, 0.0,0.0,0.0,0,517)
-DeclareVariable("hydraulic.distribution.parStoDHW.V", "Volume of storage [m3]", 5689,\
+ 5648, 4, 0.0,0.0,0.0,0,517)
+DeclareVariable("hydraulic.distribution.parStoDHW.V", "Volume of storage [m3]", 5649,\
0.123417, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.d", "Diameter of storage [m]",\
- 5690, 0.0, 0.0,1E+100,0.0,0,513)
-DeclareVariable("hydraulic.distribution.parStoDHW.h", "[m]", 5691, 0.0, 0.0,\
+ 5650, 0.0, 0.0,1E+100,0.0,0,513)
+DeclareVariable("hydraulic.distribution.parStoDHW.h", "[m]", 5651, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoDHW.dTLoaMin", "Minimal temperature difference for loading [K,]",\
- 1249, 0.01, 0.0,0.0,0.0,0,560)
+ 1255, 0.01, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.use_HC1", "=false to disable heating coil 1 [:#(type=Boolean)]",\
- 5692, true, 0.0,0.0,0.0,0,515)
+ 5652, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.distribution.parStoDHW.dTLoadingHC1", \
-"Temperature difference for loading of first heating coil [K,]", 1250, 10, \
+"Temperature difference for loading of first heating coil [K,]", 1256, 10, \
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.fHeiHC1", "Percentage of the storage height used for the heating coil",\
- 1251, 1, 0.0,0.0,0.0,0,560)
+ 1257, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.fDiaHC1", "Percentage of the storage diameter used for the heating coil",\
- 1252, 1, 0.0,0.0,0.0,0,560)
+ 1258, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.QHC1_flow_nominal", \
-"Nominal heat flow rate in first heating coil [W]", 5693, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate in first heating coil [W]", 5653, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.lengthHC1", "Lenght of first HC [m]",\
- 5694, 0.0, 0.0,0.0,0.0,0,513)
+ 5654, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.mHC1_flow_nominal", \
-"Nominal mass flow rate of HC fluid [kg/s]", 5695, 0.3379347183446045, 0.0,0.0,\
+"Nominal mass flow rate of HC fluid [kg/s]", 5655, 0.3379347183446045, 0.0,0.0,\
0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.vHC1_nominal", \
-"Fluid velocity in pipe of HC 1 at nominal conditions [m/s]", 5696, 0.0, \
+"Fluid velocity in pipe of HC 1 at nominal conditions [m/s]", 5656, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.pipeHC1.d_i", "Inner pipe diameter [m]",\
- 5697, 0.0, 0.0,1E+100,0.0,0,513)
+ 5657, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.pipeHC1.d_o", "Outer pipe diameter [m]",\
- 5698, 0.0, 0.0,1E+100,0.0,0,513)
+ 5658, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.parStoDHW.pipeHC1.d", "Density of pipe material [kg/m3|g/cm3]",\
- 1253, 8900, 0.0,1E+100,0.0,0,560)
+ 1259, 8900, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.pipeHC1.lambda", \
-"Thermal conductivity of pipe material [W/(m.K)]", 1254, 393, 0.0,0.0,0.0,0,560)
+"Thermal conductivity of pipe material [W/(m.K)]", 1260, 393, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.pipeHC1.c", "Heat capacity of pipe material [J/(kg.K)]",\
- 1255, 390, 0.0,0.0,0.0,0,560)
+ 1261, 390, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.hConHC1", "Model assumptions Coefficient of Heat Transfer HC1 <-> Heating Water [W/(m2.K)]",\
- 5699, 0.0, 0.0,0.0,0.0,0,513)
+ 5659, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.energyLabel", "Level of Storage Tank Insulation [:#(type=BESMod.Systems.Hydraulical.Distribution.Types.EnergyLabel)]",\
- 5700, 3, 1.0,8.0,0.0,0,517)
+ 5660, 3, 1.0,8.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.parStoDHW.QLosPerDay", "Heat loss per day. MUST BE IN kWh/d",\
- 5701, 1.084453570009339, 0.0,0.0,0.0,0,513)
+ 5661, 1.084453570009339, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.T_m", "Average storage temperature. Used to calculate default heat loss [K|degC]",\
- 5702, 323.15, 0.0,1E+100,300.0,0,513)
+ 5662, 323.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.TAmb", "Ambient temperature. Used to calculate default heat loss [K|degC]",\
- 5703, 294.15, 0.0,1E+100,300.0,0,513)
+ 5663, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.use_QLos", "=true to use QLosPerDay instead of TLosPerDay [:#(type=Boolean)]",\
- 5704, true, 0.0,0.0,0.0,0,515)
+ 5664, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.distribution.parStoDHW.TLosPerDay", "Temperature decline per day in K/d",\
- 1256, 1, 0.0,0.0,0.0,0,560)
+ 1262, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.hConIn", "Model assumptions heat transfer coefficient water <-> wall [W/(m2.K)]",\
- 1257, 100, 0.0,0.0,0.0,0,560)
+ 1263, 100, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.hConOut", "Model assumptions heat transfer coefficient insulation <-> air [W/(m2.K)]",\
- 1258, 10, 0.0,0.0,0.0,0,560)
+ 1264, 10, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parStoDHW.lambda_ins", "thermal conductivity of insulation [W/(m.K)]",\
- 1259, 0.045, 0.0,0.0,0.0,0,560)
+ 1265, 0.045, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parStoDHW.QLoss_flow", "Actual heat flow rate loss [W]",\
- 5705, 45.185565417055784, 0.0,0.0,0.0,0,513)
+ 5665, 45.185565417055784, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.sIns", "thickness of insulation [m]",\
- 5706, 0.0, 0.0,1E+100,0.0,0,513)
+ 5666, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.V_HE", "heat exchanger volume based on pipe length and diameter [m3]",\
- 5707, 0.0, 0.0,0.0,0.0,0,513)
+ 5667, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.k_HE", "heat exchanger heat transfer coefficient [W/(m2.K)]",\
- 5708, 0.0, 0.0,0.0,0.0,0,513)
+ 5668, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parStoDHW.A_HE", "heat exchanger area based on length and average diameter [m2]",\
- 5709, 0.0, 0.0,0.0,0.0,0,513)
-DeclareParameter("hydraulic.distribution.parStoDHW.beta", "[1/K]", 1260, 0.00035,\
+ 5669, 0.0, 0.0,0.0,0.0,0,513)
+DeclareParameter("hydraulic.distribution.parStoDHW.beta", "[1/K]", 1266, 0.00035,\
0.0,0.0,0.0,0,560)
-DeclareParameter("hydraulic.distribution.parStoDHW.kappa", "", 1261, 0.4, \
+DeclareParameter("hydraulic.distribution.parStoDHW.kappa", "", 1267, 0.4, \
0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.fixTemDHW.T", "Fixed temperature at port [K|degC]",\
- 5710, 294.15, 0.0,1E+100,300.0,0,513)
+ 5670, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.distribution.fixTemDHW.port.T", "Port temperature [K|degC]",\
- 5711, 294.15, 0.0,1E+100,300.0,0,521)
+ 5671, 294.15, 0.0,1E+100,300.0,0,521)
DeclareAlias2("hydraulic.distribution.fixTemDHW.port.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
"outputs.hydraulic.dis.QDHWLos_flow.value", 1, 3, 8, 132)
DeclareVariable("hydraulic.distribution.eneKPICalBuf.use_inpCon", \
-"= false to use an internal variable as input [:#(type=Boolean)]", 5712, false, \
+"= false to use an internal variable as input [:#(type=Boolean)]", 5672, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.eneKPICalBuf.y", "Value of Real input [W]",\
"outputs.hydraulic.dis.QBufLos_flow.value", 1, 3, 10, 0)
DeclareParameter("hydraulic.distribution.eneKPICalBuf.integrator2.k", \
-"Integrator gain [1]", 1262, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1268, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.eneKPICalBuf.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 5713, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 5673, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.eneKPICalBuf.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 5714, false, 0.0,0.0,0.0,0,1539)
+ 5674, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.eneKPICalBuf.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 5715, 3, 1.0,4.0,0.0,0,517)
+ 5675, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.distribution.eneKPICalBuf.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1263, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1269, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.distribution.eneKPICalBuf.integrator2.u", \
"Connector of Real input signal", "outputs.hydraulic.dis.QBufLos_flow.value", 1,\
3, 10, 0)
@@ -4360,9 +4387,9 @@ DeclareState("hydraulic.distribution.eneKPICalBuf.integrator2.y", \
DeclareDerivative("hydraulic.distribution.eneKPICalBuf.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 57, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.eneKPICalBuf.integrator2.local_reset", \
-"[:#(type=Boolean)]", 5716, false, 0.0,0.0,0.0,0,1539)
+"[:#(type=Boolean)]", 5676, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.eneKPICalBuf.integrator2.local_set", "",\
- 5717, 0, 0.0,0.0,0.0,0,1537)
+ 5677, 0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.distribution.eneKPICalBuf.internalU.u", \
"Connector of Real input signal", "outputs.hydraulic.dis.QBufLos_flow.value", 1,\
3, 10, 0)
@@ -4375,22 +4402,22 @@ DeclareAlias2("hydraulic.distribution.eneKPICalBuf.KPI.integral", \
"Integral of value [J]", "hydraulic.distribution.eneKPICalBuf.integrator2.y", 1,\
1, 57, 4)
DeclareVariable("hydraulic.distribution.eneKPICalDHW.use_inpCon", \
-"= false to use an internal variable as input [:#(type=Boolean)]", 5718, false, \
+"= false to use an internal variable as input [:#(type=Boolean)]", 5678, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.eneKPICalDHW.y", "Value of Real input [W]",\
"outputs.hydraulic.dis.QDHWLos_flow.value", 1, 3, 8, 0)
DeclareParameter("hydraulic.distribution.eneKPICalDHW.integrator2.k", \
-"Integrator gain [1]", 1264, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1270, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.eneKPICalDHW.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 5719, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 5679, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.eneKPICalDHW.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 5720, false, 0.0,0.0,0.0,0,1539)
+ 5680, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.eneKPICalDHW.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 5721, 3, 1.0,4.0,0.0,0,517)
+ 5681, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.distribution.eneKPICalDHW.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1265, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1271, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.distribution.eneKPICalDHW.integrator2.u", \
"Connector of Real input signal", "outputs.hydraulic.dis.QDHWLos_flow.value", 1,\
3, 8, 0)
@@ -4399,9 +4426,9 @@ DeclareState("hydraulic.distribution.eneKPICalDHW.integrator2.y", \
DeclareDerivative("hydraulic.distribution.eneKPICalDHW.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 58, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.distribution.eneKPICalDHW.integrator2.local_reset", \
-"[:#(type=Boolean)]", 5722, false, 0.0,0.0,0.0,0,1539)
+"[:#(type=Boolean)]", 5682, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.eneKPICalDHW.integrator2.local_set", "",\
- 5723, 0, 0.0,0.0,0.0,0,1537)
+ 5683, 0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.distribution.eneKPICalDHW.internalU.u", \
"Connector of Real input signal", "outputs.hydraulic.dis.QDHWLos_flow.value", 1,\
3, 8, 0)
@@ -4415,2175 +4442,2175 @@ DeclareAlias2("hydraulic.distribution.eneKPICalDHW.KPI.integral", \
1, 58, 4)
DeclareVariable("hydraulic.distribution.zeroLoad.internalElectricalPin.PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 5724, 0.0, 0.0,0.0,0.0,0,521)
+ 5684, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.distribution.zeroLoad.internalElectricalPin.PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 5725, 0.0, 0.0,0.0,0.0,0,521)
+ 5685, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.distribution.parThrWayVal.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5726, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5686, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parThrWayVal.dp_nominal[1]", \
-"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5727,\
+"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5687,\
1000, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parThrWayVal.dp_nominal[2]", \
-"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5728,\
+"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 5688,\
1000, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parThrWayVal.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|bar]",\
- 5729, 1000.0, 0.0,0.0,0.0,0,513)
+ 5689, 1000.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parThrWayVal.dpFixed_nominal[1]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|bar]",\
- 5730, 0.0, 0.0,0.0,0.0,0,513)
+ 5690, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parThrWayVal.dpFixed_nominal[2]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|bar]",\
- 5731, 0.0, 0.0,0.0,0.0,0,513)
+ 5691, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.parThrWayVal.deltaM", "Fraction of nominal flow rate where linearization starts, if y=1",\
- 1266, 0.02, 0.0,0.0,0.0,0,560)
+ 1272, 0.02, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parThrWayVal.delta0", "Range of significant deviation from equal percentage law",\
- 1267, 0.01, 0.0,0.0,0.0,0,560)
+ 1273, 0.01, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parThrWayVal.R", "Rangeability, R=50...100 typically",\
- 1268, 50, 0.0,0.0,0.0,0,560)
+ 1274, 50, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parThrWayVal.l[1]", "Valve leakage, l=Kv(y=0)/Kv(y=1)",\
- 1269, 0.0001, 0.0,0.0,0.0,0,560)
+ 1275, 0.0001, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parThrWayVal.l[2]", "Valve leakage, l=Kv(y=0)/Kv(y=1)",\
- 1270, 0.0001, 0.0,0.0,0.0,0,560)
+ 1276, 0.0001, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parThrWayVal.fraK", "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)",\
- 5732, 1, 0.0,0.0,0.0,0,513)
+ 5692, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.parThrWayVal.valveAutho", \
-"Assumed valve authority (typical value: 0.5) [1]", 5733, 0.5, 0.0,0.0,0.0,0,513)
+"Assumed valve authority (typical value: 0.5) [1]", 5693, 0.5, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.distribution.parThrWayVal.tau", "Time constant at nominal flow for dynamic energy and momentum balance [s]",\
- 1271, 10, 0.0,0.0,0.0,0,560)
+ 1277, 10, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.distribution.parThrWayVal.use_strokeTime", \
"= true, if opening is filtered with a 2nd order CriticalDamping filter [:#(type=Boolean)]",\
- 5734, false, 0.0,0.0,0.0,0,515)
+ 5694, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.distribution.parThrWayVal.strokeTime", \
-"Rise time of the filter (time to reach 99.6 % of an opening step) [s]", 1272, 120,\
+"Rise time of the filter (time to reach 99.6 % of an opening step) [s]", 1278, 120,\
0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parThrWayVal.order", "Order of filter [:#(type=Integer)]",\
- 1273, 2, 0.0,0.0,0.0,0,564)
+ 1279, 2, 0.0,0.0,0.0,0,564)
DeclareParameter("hydraulic.distribution.parThrWayVal.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1274, 4, 1.0,4.0,0.0,0,564)
+ 1280, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("hydraulic.distribution.parThrWayVal.y_start", "Initial value of output",\
- 1275, 1, 0.0,0.0,0.0,0,560)
+ 1281, 1, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.distribution.parThrWayVal.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 1276, true, 0.0,0.0,0.0,0,562)
+ 1282, true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.distribution.resBui.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5735, true, 0.0,0.0,0.0,0,515)
+ 5695, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.resBui.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 132)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.resBui.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.p", 1, 5, 8455, 4)
+ "hydraulic.distribution.threeWayValveWithFlowReturn.portBui_b.p", 1, 5, 8418, 4)
DeclareAlias2("hydraulic.distribution.resBui.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9342, 4)
+ "hydraulic.distribution.stoBuf.port_a_heatGenerator.h_outflow", 1, 5, 9311, 4)
DeclareAlias2("hydraulic.distribution.resBui.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8453, 132)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", 1, 5, 8416, 132)
DeclareAlias2("hydraulic.distribution.resBui.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 4)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.resBui.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareVariable("hydraulic.distribution.resBui.m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 5736, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ 5696, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.resBui.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 5737, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
+ 5697, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.resBui.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 5738, false, 0.0,0.0,0.0,0,1539)
+ 5698, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.distribution.resBui.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8453, 0)
+ "hydraulic.distribution.stoBuf.port_b_heatGenerator.m_flow", -1, 5, 8416, 0)
DeclareVariable("hydraulic.distribution.resBui.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8465, 0, 0.0,0.0,1000.0,0,704)
+ 8428, 0, 0.0,0.0,1000.0,0,704)
DeclareVariable("hydraulic.distribution.resBui._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5739, 0, 0.0,0.0,0.0,0,2561)
+ 5699, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resBui._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5740, 0, 0.0,0.0,0.0,0,2561)
+ 5700, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resBui.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 5741, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 5701, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.resBui.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 5742, false, 0.0,0.0,0.0,0,515)
+ 5702, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.resBui.dp_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 5743, 1000, 0.0,0.0,0.0,0,513)
+ 5703, 1000, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.resBui.linearized", "= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5744, false, 0.0,0.0,0.0,0,515)
+ 5704, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.resBui.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5745, 0.10138041550338134,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5705, 0.10138041550338134,\
0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.resBui.sta_default.p", "Absolute pressure of medium [Pa|bar]",\
- 1277, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1283, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.distribution.resBui.sta_default.T", "Temperature of medium [K|degC]",\
- 1278, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1284, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.distribution.resBui.eta_default", "Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 5746, 0.001, 0.0,1E+100,0.0,0,2561)
+ 5706, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resBui.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 5747, 0.3379347183446045, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 5707, 0.3379347183446045, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.resBui.dp_nominal_pos", "Absolute value of nominal pressure difference [Pa|Pa]",\
- 5748, 1000, 0.0,0.0,0.0,0,2561)
+ 5708, 1000, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resBui.deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 5749, 0.3, 1E-06,1E+100,0.0,0,513)
+ 5709, 0.3, 1E-06,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.resBui.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 5750, 0.010686434104164361, 0.0,0.0,0.0,0,513)
+ 5710, 0.010686434104164361, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.resBui.computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 5751,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 5711,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.resBui.coeff", "Precomputed coefficient to avoid division by parameter",\
- 5752, 0, 0.0,0.0,0.0,0,2561)
+ 5712, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resDHW.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5753, true, 0.0,0.0,0.0,0,515)
+ 5713, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.distribution.resDHW.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 132)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.resDHW.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.p", 1, 5, 8454, 4)
+ "hydraulic.distribution.threeWayValveWithFlowReturn.portDHW_b.p", 1, 5, 8417, 4)
DeclareAlias2("hydraulic.distribution.resDHW.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9260, 4)
+ "hydraulic.distribution.stoDHW.port_a_heatGenerator.h_outflow", 1, 5, 9229, 4)
DeclareAlias2("hydraulic.distribution.resDHW.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8452, 132)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", 1, 5, 8415, 132)
DeclareAlias2("hydraulic.distribution.resDHW.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.generation.bouPum.p", 1, 5, 3815, 4)
+ "hydraulic.generation.bouPum.p", 1, 5, 3777, 4)
DeclareAlias2("hydraulic.distribution.resDHW.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9254, 4)
+ "hydraulic.distribution.portGen_in[1].h_outflow", 1, 5, 9223, 4)
DeclareVariable("hydraulic.distribution.resDHW.m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 5754, 0.3379347183446045, 0.0,0.0,0.0,0,513)
+ 5714, 0.3379347183446045, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.resDHW.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 5755, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
+ 5715, 3.379347183446045E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.resDHW.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 5756, false, 0.0,0.0,0.0,0,1539)
+ 5716, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.distribution.resDHW.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8452, 0)
+ "hydraulic.distribution.stoDHW.port_b_heatGenerator.m_flow", -1, 5, 8415, 0)
DeclareVariable("hydraulic.distribution.resDHW.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 8466, 0, 0.0,0.0,1000.0,0,704)
+ 8429, 0, 0.0,0.0,1000.0,0,704)
DeclareVariable("hydraulic.distribution.resDHW._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5757, 0, 0.0,0.0,0.0,0,2561)
+ 5717, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resDHW._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5758, 0, 0.0,0.0,0.0,0,2561)
+ 5718, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resDHW.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 5759, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 5719, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.distribution.resDHW.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 5760, false, 0.0,0.0,0.0,0,515)
+ 5720, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.resDHW.dp_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 5761, 1000, 0.0,0.0,0.0,0,513)
+ 5721, 1000, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.resDHW.linearized", "= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5762, false, 0.0,0.0,0.0,0,515)
+ 5722, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.resDHW.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5763, 0.10138041550338134,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5723, 0.10138041550338134,\
0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.distribution.resDHW.sta_default.p", "Absolute pressure of medium [Pa|bar]",\
- 1279, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1285, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.distribution.resDHW.sta_default.T", "Temperature of medium [K|degC]",\
- 1280, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1286, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.distribution.resDHW.eta_default", "Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 5764, 0.001, 0.0,1E+100,0.0,0,2561)
+ 5724, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resDHW.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 5765, 0.3379347183446045, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 5725, 0.3379347183446045, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.distribution.resDHW.dp_nominal_pos", "Absolute value of nominal pressure difference [Pa|Pa]",\
- 5766, 1000, 0.0,0.0,0.0,0,2561)
+ 5726, 1000, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.resDHW.deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 5767, 0.3, 1E-06,1E+100,0.0,0,513)
+ 5727, 0.3, 1E-06,1E+100,0.0,0,513)
DeclareVariable("hydraulic.distribution.resDHW.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 5768, 0.010686434104164361, 0.0,0.0,0.0,0,513)
+ 5728, 0.010686434104164361, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.distribution.resDHW.computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 5769,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 5729,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.resDHW.coeff", "Precomputed coefficient to avoid division by parameter",\
- 5770, 0, 0.0,0.0,0.0,0,2561)
+ 5730, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.bouPumBuf.nPorts", "Number of ports [:#(type=Integer)]",\
- 5771, 1, 0.0,0.0,0.0,0,517)
+ 5731, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.distribution.bouPumBuf.verifyInputs", \
"Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
- 5772, false, 0.0,0.0,0.0,0,515)
+ 5732, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.bouPumBuf.ports[1].m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 5773, 0.0,\
+"Mass flow rate from the connection point into the component [kg/s]", 5733, 0.0,\
-1E+60,1E+60,0.0,0,777)
DeclareAlias2("hydraulic.distribution.bouPumBuf.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.distribution.bouPumBuf.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 5774, 0.0, -10000000000.0,10000000000.0,83680.0,0,521)
+ 5734, 0.0, -10000000000.0,10000000000.0,83680.0,0,521)
DeclareVariable("hydraulic.distribution.bouPumBuf.flowDirection", \
-"Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5775,\
+"Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 5735,\
3, 1.0,3.0,0.0,0,2565)
DeclareAlias2("hydraulic.distribution.bouPumBuf.p_in_internal", "Needed to connect to conditional connector [Pa]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 1024)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 1024)
DeclareVariable("hydraulic.distribution.bouPumBuf.X_in_internal[1]", \
-"Needed to connect to conditional connector [kg/kg]", 5776, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 5736, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.distribution.bouPumBuf.use_X_in", "Get the composition (all fractions) from the input connector [:#(type=Boolean)]",\
- 5777, false, 0.0,0.0,0.0,0,515)
+ 5737, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.bouPumBuf.use_Xi_in", "Get the composition (independent fractions) from the input connector [:#(type=Boolean)]",\
- 5778, false, 0.0,0.0,0.0,0,515)
+ 5738, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.bouPumBuf.use_C_in", "Get the trace substances from the input connector [:#(type=Boolean)]",\
- 5779, false, 0.0,0.0,0.0,0,515)
+ 5739, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.distribution.bouPumBuf.X[1]", "Fixed value of composition [kg/kg]",\
- 1281, 1, 0.0,1.0,0.1,0,560)
+ 1287, 1, 0.0,1.0,0.1,0,560)
DeclareVariable("hydraulic.distribution.bouPumBuf.use_p_in", "Get the pressure from the input connector [:#(type=Boolean)]",\
- 5780, false, 0.0,0.0,0.0,0,515)
+ 5740, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.bouPumBuf.p", "Fixed value of pressure [Pa|bar]",\
- 5781, 300000, 0.0,100000000.0,100000.0,0,513)
+ 5741, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.distribution.bouPumBuf.use_T_in", "Get the temperature from the input connector [:#(type=Boolean)]",\
- 5782, false, 0.0,0.0,0.0,0,515)
+ 5742, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.distribution.bouPumBuf.T", "Fixed value of temperature [K|degC]",\
- 5783, 293.15, 1.0,10000.0,300.0,0,513)
+ 5743, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.distribution.bouPumBuf.checkWaterPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 5784, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 5744, \
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.distribution.bouPumBuf.checkAirPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 5785, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 5745, \
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.distribution.bouPumBuf.T_in_internal", "Needed to connect to conditional connector [K|degC]",\
- "hydraulic.distribution.bouPumBuf.T", 1, 5, 5783, 1024)
+ "hydraulic.distribution.bouPumBuf.T", 1, 5, 5743, 1024)
DeclareAlias2("hydraulic.distribution.bouPumBuf.h_internal", "Internal connector for enthalpy",\
- "hydraulic.distribution.bouPumBuf.ports[1].h_outflow", 1, 5, 5774, 1024)
+ "hydraulic.distribution.bouPumBuf.ports[1].h_outflow", 1, 5, 5734, 1024)
DeclareVariable("hydraulic.transfer.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5786, 2, 1.0,4.0,0.0,0,517)
+ 5746, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5787, 2, 1.0,4.0,0.0,0,517)
+ 5747, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5788, 2, 1.0,4.0,0.0,0,517)
+ 5748, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5789, 2, 1.0,4.0,0.0,0,517)
+ 5749, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.p_start", "Start value of pressure [Pa|bar]",\
- 5790, 300000, 0.0,100000000.0,100000.0,0,513)
+ 5750, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.T_start", "Start value of temperature [K|degC]",\
- 5791, 293.15, 1.0,10000.0,300.0,0,513)
+ 5751, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 5792, 0.0, 0.0,1.0,0.1,0,513)
+ 5752, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 5793, 1.0, 1.0,1E+100,0.0,0,513)
+ 5753, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.wrongEnergyMassBalanceConfiguration", \
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5794, false, 0.0,0.0,0.0,0,2563)
+ 5754, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 5795, false, 0.0,0.0,0.0,0,515)
+ 5755, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5796, true, 0.0,0.0,0.0,0,515)
+ 5756, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 5797, false, 0.0,0.0,0.0,0,515)
+ 5757, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rho", "Density of medium / fluid in heat distribution system [kg/m3|g/cm3]",\
- 5798, 995.586, 0.0,1E+100,0.0,0,513)
+ 5758, 995.586, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.cp", "Specific heat capacaity of medium / fluid in heat distribution system [J/(kg.K)]",\
- 5799, 4184.0, 0.0,0.0,0.0,0,513)
+ 5759, 4184.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.transfer.sta_nominal.p", "Absolute pressure of medium [Pa|bar]",\
- 1282, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1288, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.transfer.sta_nominal.T", "Temperature of medium [K|degC]",\
- 1283, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1289, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.transfer.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 5800, 1, 1.0,1E+100,0.0,0,517)
+ 5760, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.transfer.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 5801, 1, 1.0,1E+100,0.0,0,517)
+ 5761, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.transfer.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 5802, 328.15, 0.0,1E+100,300.0,0,513)
+ 5762, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.TSupOld_design[1]", "Old design supply temperature [K|degC]",\
- 5803, 328.15, 0.0,1E+100,300.0,0,513)
+ 5763, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 5804, 10, 0.0,0.0,0.0,0,513)
+ 5764, 10, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.dTTraOld_design[1]", "Old design temperature difference for heat transfer [K,]",\
- 5805, 10, 0.0,0.0,0.0,0,513)
+ 5765, 10, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 5806, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 5766, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.mOld_flow_design[1]", "Old design mass flow rate of old design [kg/s]",\
- 5807, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 5767, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 5808, 16854.05160830339, 0.0,0.0,0.0,0,513)
+ 5768, 16854.05160830339, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 5809, 0, 0.0,0.0,0.0,0,513)
+ 5769, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.f_design[1]", "Factor for oversizing due to heat losses",\
- 5810, 1.0, 0.0,0.0,0.0,0,513)
+ 5770, 1.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.QLoss_flow_nominal[1]", "Nominal heat flow rate due to heat losses [W]",\
- 5811, 0.0, 0.0,0.0,0.0,0,513)
+ 5771, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 5812, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 5772, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.QOld_flow_design[1]", "Old design heat flow rate [W]",\
- 5813, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 5773, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 5814, 262.65, 0.0,1E+100,300.0,0,513)
+ 5774, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 5815, 294.15, 0.0,1E+100,300.0,0,513)
+ 5775, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.TDemOld_design[1]", "Old design demand temperature [K|degC]",\
- 5816, 294.15, 0.0,1E+100,300.0,0,513)
+ 5776, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.TAmb", "Ambient temperature of system. Used to calculate default heat loss. [K|degC]",\
- 5817, 294.15, 0.0,1E+100,300.0,0,513)
+ 5777, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.Q_flow_design[1]", "Nominal design heat flow rate [W]",\
- 5818, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 5778, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.m_flow_design[1]", "Nominal design mass flow rate [kg/s]",\
- 5819, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
+ 5779, 0.317599972517237, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.dTTra_design[1]", "Nominal design temperature difference for heat transfer [K,]",\
- 5820, 10, 0.0,0.0,0.0,0,513)
+ 5780, 10, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.dp_design[1]", "Nominal design pressure difference at m_flow_design [Pa|bar]",\
- 5821, 16854.05160830339, 0.0,0.0,0.0,0,513)
+ 5781, 16854.05160830339, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.QSup_flow_nominal[1]", "Nominal heat flow rate at supply ports to transfer system [W]",\
- 5822, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 5782, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.QSupOld_flow_design[1]", "Old design heat flow rate at supply ports to transfer system [W]",\
- 5823, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 5783, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.TTra_nominal[1]", "Nominal supply temperature to transfer systems [K|degC]",\
- 5824, 328.15, 0.0,1E+100,300.0,0,513)
+ 5784, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.TTraOld_design[1]", "Old design nominal supply temperature to transfer systems [K|degC]",\
- 5825, 328.15, 0.0,1E+100,300.0,0,513)
+ 5785, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.TTra_design[1]", "Nominal design supply temperature to transfer systems [K|degC]",\
- 5826, 328.15, 0.0,1E+100,300.0,0,513)
+ 5786, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.mSup_flow_nominal[1]", "Nominal mass flow rate of the supply ports to the transfer system [kg/s]",\
- 5827, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 5787, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.mSupOld_flow_design[1]", "Old design mass flow rate of the supply ports to the transfer system [kg/s]",\
- 5828, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 5788, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.dpSup_nominal[1]", "Nominal pressure loss of resistances in the supply system of the distribution [Pa|bar]",\
- 5829, 0.0, 0.0,0.0,0.0,0,513)
+ 5789, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.dpSupOld_design[1]", "Old design pressure loss of resistances in the supply system of the distribution [Pa|bar]",\
- 5830, 0.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.transfer.AZone[1]", "Area of zones/rooms [m2]", 5831,\
+ 5790, 0.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.transfer.AZone[1]", "Area of zones/rooms [m2]", 5791,\
200.0, 0.1,1E+100,0.0,0,513)
-DeclareVariable("hydraulic.transfer.hZone[1]", "Height of zones [m]", 5832, 3.2,\
+DeclareVariable("hydraulic.transfer.hZone[1]", "Height of zones [m]", 5792, 3.2,\
0.1,1E+100,0.0,0,513)
-DeclareVariable("hydraulic.transfer.ABui", "Ground area of building [m2]", 5833,\
+DeclareVariable("hydraulic.transfer.ABui", "Ground area of building [m2]", 5793,\
133.0, 0.1,1E+100,0.0,0,513)
-DeclareVariable("hydraulic.transfer.hBui", "Height of building [m]", 5834, 6.4, \
+DeclareVariable("hydraulic.transfer.hBui", "Height of building [m]", 5794, 6.4, \
0.1,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.nHeaTra", "Exponent of heat transfer system",\
- 5835, 0.0, 0.0,0.0,0.0,0,513)
+ 5795, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.portTra_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.portTra_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.portTra_out[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9434, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9403, 83680.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.transfer.portTra_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.portTra_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.portTra_in[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9435, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9404, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.transfer.heatPortRad[1].T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 4)
+ "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("hydraulic.transfer.heatPortRad[1].Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortRad[1].Q_flow", -1, 5, 8478, 132)
+ "building.heatPortRad[1].Q_flow", -1, 5, 8441, 132)
DeclareAlias2("hydraulic.transfer.heatPortCon[1].T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("hydraulic.transfer.heatPortCon[1].Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortCon[1].Q_flow", -1, 5, 8476, 132)
+ "building.heatPortCon[1].Q_flow", -1, 5, 8439, 132)
DeclareAlias2("hydraulic.transfer.outBusTra.QRad_flow.value", "Current value [W]",\
"outputs.hydraulic.tra.QRad_flow.value", 1, 3, 26, 4)
DeclareAlias2("hydraulic.transfer.outBusTra.QRad_flow.integral", \
"Integral of value [J]", "hydraulic.transfer.intKPICalHeaFlo.integrator2.y", 1, 1,\
64, 4)
DeclareVariable("hydraulic.transfer.outBusTra.opening[1]", "Connector of Real output signal",\
- 9436, 0.0, 0.0,0.0,0.0,0,520)
+ 9405, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.transfer.outBusTra.TSup[1]", "Value of Real output [K|degC]",\
- 9437, 0.0, 0.0,0.0,0.0,0,520)
+ 9406, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.transfer.outBusTra.TRet[1]", "Value of Real output [K|degC]",\
- 9438, 0.0, 0.0,0.0,0.0,0,520)
+ 9407, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.transfer.traControlBus.opening[1]", "Connector of Real input signal",\
- 9439, 0.0, 0.0,0.0,0.0,0,520)
+ 9408, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.transfer.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 5836, 0, 0.0,0.0,0.0,0,521)
+ 5796, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.transfer.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 5837, 0, 0.0,0.0,0.0,0,521)
+ 5797, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.transfer.use_oldRad_design[1]", "If true, radiator design of old building state is used [:#(type=Boolean)]",\
- 5838, false, 0.0,0.0,0.0,0,515)
+ 5798, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5839, true, 0.0,0.0,0.0,0,515)
+ 5799, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.rad[1].port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9440, 83680.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9409, 83680.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.transfer.rad[1].port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 4)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 4)
DeclareVariable("hydraulic.transfer.rad[1].m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 5840, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 5800, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 5841, 3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
+ 5801, 3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 5842, false, 0.0,0.0,0.0,0,1539)
+ 5802, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.transfer.rad[1].m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 0)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 0)
DeclareVariable("hydraulic.transfer.rad[1].dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 5843, 0.0, 0.0,0.0,0.0,0,513)
+ 5803, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1]._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5844, 0, 0.0,0.0,0.0,0,2561)
+ 5804, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1]._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5845, 0, 0.0,0.0,0.0,0,2561)
+ 5805, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5846, 2, 1.0,4.0,0.0,0,517)
+ 5806, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5847, 2, 1.0,4.0,0.0,0,517)
+ 5807, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5848, 2, 1.0,4.0,0.0,0,517)
+ 5808, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5849, 2, 1.0,4.0,0.0,0,517)
+ 5809, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].p_start", "Start value of pressure [Pa|bar]",\
- 5850, 300000, 0.0,100000000.0,100000.0,0,513)
+ 5810, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].T_start", "Start value of temperature [K|degC]",\
- 5851, 293.15, 1.0,10000.0,300.0,0,513)
+ 5811, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 5852, 1, 0.0,1.0,0.1,0,513)
+ 5812, 1, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.rad[1].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 5853, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
+ 5813, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5854, false, 0.0,0.0,0.0,0,2563)
+ 5814, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 5855, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 5815, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].nEle", "Number of elements used in the discretization [:#(type=Integer)]",\
- 5856, 5, 1.0,1E+100,0.0,0,517)
+ 5816, 5, 1.0,1E+100,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].fraRad", "Fraction radiant heat transfer",\
- 5857, 0.0, 0.0,1.0,0.0,0,513)
+ 5817, 0.0, 0.0,1.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].Q_flow_nominal", "Nominal heating power (positive for heating) [W]",\
- 5858, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 5818, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].T_a_nominal", "Water inlet temperature at nominal condition [K|degC]",\
- 5859, 328.15, 0.0,1E+100,300.0,0,513)
+ 5819, 328.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].T_b_nominal", "Water outlet temperature at nominal condition [K|degC]",\
- 5860, 318.15, 0.0,1E+100,300.0,0,513)
+ 5820, 318.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].TAir_nominal", "Air temperature at nominal condition [K|degC]",\
- 5861, 294.15, 0.0,1E+100,300.0,0,513)
+ 5821, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].TRad_nominal", "Radiative temperature at nominal condition [K|degC]",\
- 5862, 294.15, 0.0,1E+100,300.0,0,513)
-DeclareVariable("hydraulic.transfer.rad[1].n", "Exponent for heat transfer", 5863,\
+ 5822, 294.15, 0.0,1E+100,300.0,0,513)
+DeclareVariable("hydraulic.transfer.rad[1].n", "Exponent for heat transfer", 5823,\
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].VWat", "Water volume of radiator [m3]",\
- 5864, 0.07707262053070293, 0.0,0.0,0.0,0,513)
+ 5824, 0.07707262053070293, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].mDry", "Dry mass of radiator that will be lumped to water heat capacity [kg]",\
- 5865, 349.48446895818745, 0.0,1E+100,0.0,0,513)
+ 5825, 349.48446895818745, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 5866, 0.3, 0.01,1E+100,0.0,0,513)
+ 5826, 0.3, 0.01,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 5867, false, 0.0,0.0,0.0,0,515)
+ 5827, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].dp_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 5868, 0, 0.0,0.0,0.0,0,513)
+ 5828, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].linearized", "= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5869, false, 0.0,0.0,0.0,0,515)
+ 5829, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].QCon_flow", "Heat input into the water due to convective heat transfer with room air [W]",\
- "building.heatPortCon[1].Q_flow", -1, 5, 8476, 0)
+ "building.heatPortCon[1].Q_flow", -1, 5, 8439, 0)
DeclareAlias2("hydraulic.transfer.rad[1].QRad_flow", "Heat input into the water due to radiative heat transfer with room [W]",\
- "building.heatPortRad[1].Q_flow", -1, 5, 8478, 0)
+ "building.heatPortRad[1].Q_flow", -1, 5, 8441, 0)
DeclareVariable("hydraulic.transfer.rad[1].Q_flow", "Heat input into the water [W]",\
- 9441, 0.0, 0.0,0.0,0.0,0,512)
+ 9410, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("hydraulic.transfer.rad[1].heatPortCon.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("hydraulic.transfer.rad[1].heatPortCon.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortCon[1].Q_flow", -1, 5, 8476, 132)
+ "building.heatPortCon[1].Q_flow", -1, 5, 8439, 132)
DeclareAlias2("hydraulic.transfer.rad[1].heatPortRad.T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 4)
+ "building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("hydraulic.transfer.rad[1].heatPortRad.Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortRad[1].Q_flow", -1, 5, 8478, 132)
+ "building.heatPortRad[1].Q_flow", -1, 5, 8441, 132)
DeclareVariable("hydraulic.transfer.rad[1].cp_nominal", "Specific heat capacity at nominal conditions [J/(kg.K)]",\
- 5870, 4184, 0.0,0.0,0.0,0,2561)
+ 5830, 4184, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].QEle_flow_nominal[1]", \
-"Nominal heating power of each element [W]", 5871, 0.0, 0.0,0.0,0.0,0,2561)
+"Nominal heating power of each element [W]", 5831, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].QEle_flow_nominal[2]", \
-"Nominal heating power of each element [W]", 5872, 0.0, 0.0,0.0,0.0,0,2561)
+"Nominal heating power of each element [W]", 5832, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].QEle_flow_nominal[3]", \
-"Nominal heating power of each element [W]", 5873, 0.0, 0.0,0.0,0.0,0,2561)
+"Nominal heating power of each element [W]", 5833, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].QEle_flow_nominal[4]", \
-"Nominal heating power of each element [W]", 5874, 0.0, 0.0,0.0,0.0,0,2561)
+"Nominal heating power of each element [W]", 5834, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].QEle_flow_nominal[5]", \
-"Nominal heating power of each element [W]", 5875, 0.0, 0.0,0.0,0.0,0,2561)
+"Nominal heating power of each element [W]", 5835, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].TWat_nominal[1]", "Water temperature in each element at nominal conditions [K|degC]",\
- 5876, 0.0, 0.0,1E+100,300.0,0,2561)
+ 5836, 0.0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].TWat_nominal[2]", "Water temperature in each element at nominal conditions [K|degC]",\
- 5877, 0.0, 0.0,1E+100,300.0,0,2561)
+ 5837, 0.0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].TWat_nominal[3]", "Water temperature in each element at nominal conditions [K|degC]",\
- 5878, 0.0, 0.0,1E+100,300.0,0,2561)
+ 5838, 0.0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].TWat_nominal[4]", "Water temperature in each element at nominal conditions [K|degC]",\
- 5879, 0.0, 0.0,1E+100,300.0,0,2561)
+ 5839, 0.0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].TWat_nominal[5]", "Water temperature in each element at nominal conditions [K|degC]",\
- 5880, 0.0, 0.0,1E+100,300.0,0,2561)
+ 5840, 0.0, 0.0,1E+100,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTRad_nominal[1]", "Temperature difference for radiative heat transfer at nominal conditions [K,]",\
- 5881, 0.0, 0.0,0.0,0.0,0,2561)
+ 5841, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTRad_nominal[2]", "Temperature difference for radiative heat transfer at nominal conditions [K,]",\
- 5882, 0.0, 0.0,0.0,0.0,0,2561)
+ 5842, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTRad_nominal[3]", "Temperature difference for radiative heat transfer at nominal conditions [K,]",\
- 5883, 0.0, 0.0,0.0,0.0,0,2561)
+ 5843, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTRad_nominal[4]", "Temperature difference for radiative heat transfer at nominal conditions [K,]",\
- 5884, 0.0, 0.0,0.0,0.0,0,2561)
+ 5844, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTRad_nominal[5]", "Temperature difference for radiative heat transfer at nominal conditions [K,]",\
- 5885, 0.0, 0.0,0.0,0.0,0,2561)
+ 5845, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTCon_nominal[1]", "Temperature difference for convective heat transfer at nominal conditions [K,]",\
- 5886, 0.0, 0.0,0.0,0.0,0,2561)
+ 5846, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTCon_nominal[2]", "Temperature difference for convective heat transfer at nominal conditions [K,]",\
- 5887, 0.0, 0.0,0.0,0.0,0,2561)
+ 5847, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTCon_nominal[3]", "Temperature difference for convective heat transfer at nominal conditions [K,]",\
- 5888, 0.0, 0.0,0.0,0.0,0,2561)
+ 5848, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTCon_nominal[4]", "Temperature difference for convective heat transfer at nominal conditions [K,]",\
- 5889, 0.0, 0.0,0.0,0.0,0,2561)
+ 5849, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTCon_nominal[5]", "Temperature difference for convective heat transfer at nominal conditions [K,]",\
- 5890, 0.0, 0.0,0.0,0.0,0,2561)
+ 5850, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].UAEle", "UA value at nominal condition for each element [W/K]",\
- 5891, 0.0, 0.0,1E+100,0.0,0,2561)
+ 5851, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].k", "Parameter that is used to compute QEle_flow_nominal for heating or cooling mode",\
- 5892, 1, 0.0,0.0,0.0,0,2561)
+ 5852, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].dTCon[1]", "Temperature difference for convective heat transfer [K,]",\
- 9442, 0.0, 0.0,0.0,0.0,0,2560)
+ 9411, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTCon[2]", "Temperature difference for convective heat transfer [K,]",\
- 9443, 0.0, 0.0,0.0,0.0,0,2560)
+ 9412, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTCon[3]", "Temperature difference for convective heat transfer [K,]",\
- 9444, 0.0, 0.0,0.0,0.0,0,2560)
+ 9413, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTCon[4]", "Temperature difference for convective heat transfer [K,]",\
- 9445, 0.0, 0.0,0.0,0.0,0,2560)
+ 9414, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTCon[5]", "Temperature difference for convective heat transfer [K,]",\
- 9446, 0.0, 0.0,0.0,0.0,0,2560)
+ 9415, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTRad[1]", "Temperature difference for radiative heat transfer [K,]",\
- 9447, 0.0, 0.0,0.0,0.0,0,2560)
+ 9416, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTRad[2]", "Temperature difference for radiative heat transfer [K,]",\
- 9448, 0.0, 0.0,0.0,0.0,0,2560)
+ 9417, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTRad[3]", "Temperature difference for radiative heat transfer [K,]",\
- 9449, 0.0, 0.0,0.0,0.0,0,2560)
+ 9418, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTRad[4]", "Temperature difference for radiative heat transfer [K,]",\
- 9450, 0.0, 0.0,0.0,0.0,0,2560)
+ 9419, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].dTRad[5]", "Temperature difference for radiative heat transfer [K,]",\
- 9451, 0.0, 0.0,0.0,0.0,0,2560)
+ 9420, 0.0, 0.0,0.0,0.0,0,2560)
DeclareParameter("hydraulic.transfer.rad[1].preSumCon.T_ref", "Reference temperature [K|degC]",\
- 1284, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1290, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preSumCon.alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 5893, 0, 0.0,0.0,0.0,0,2561)
+ 5853, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preSumCon.Q_flow", "[W]", \
-"building.heatPortCon[1].Q_flow", 1, 5, 8476, 1024)
+"building.heatPortCon[1].Q_flow", 1, 5, 8439, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preSumCon.port.T", "Port temperature [K|degC]",\
- "building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 1028)
+ "building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preSumCon.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.heatPortCon[1].Q_flow", -1, 5, 8476, 1156)
+"building.heatPortCon[1].Q_flow", -1, 5, 8439, 1156)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.nin", "Number of inputs [:#(type=Integer)]",\
- 5894, 5, 0.0,0.0,0.0,0,2565)
+ 5854, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.u[1]", "Connector of Real input signals",\
- 9452, 0.0, 0.0,0.0,0.0,0,2560)
+ 9421, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.u[2]", "Connector of Real input signals",\
- 9453, 0.0, 0.0,0.0,0.0,0,2560)
+ 9422, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.u[3]", "Connector of Real input signals",\
- 9454, 0.0, 0.0,0.0,0.0,0,2560)
+ 9423, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.u[4]", "Connector of Real input signals",\
- 9455, 0.0, 0.0,0.0,0.0,0,2560)
+ 9424, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.u[5]", "Connector of Real input signals",\
- 9456, 0.0, 0.0,0.0,0.0,0,2560)
+ 9425, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].sumCon.y", "Connector of Real output signal",\
- "building.heatPortCon[1].Q_flow", 1, 5, 8476, 1024)
+ "building.heatPortCon[1].Q_flow", 1, 5, 8439, 1024)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.k[1]", "Optional: sum coefficients",\
- 5895, -1, 0.0,0.0,0.0,0,2561)
+ 5855, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.k[2]", "Optional: sum coefficients",\
- 5896, -1, 0.0,0.0,0.0,0,2561)
+ 5856, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.k[3]", "Optional: sum coefficients",\
- 5897, -1, 0.0,0.0,0.0,0,2561)
+ 5857, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.k[4]", "Optional: sum coefficients",\
- 5898, -1, 0.0,0.0,0.0,0,2561)
+ 5858, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumCon.k[5]", "Optional: sum coefficients",\
- 5899, -1, 0.0,0.0,0.0,0,2561)
+ 5859, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.nin", "Number of inputs [:#(type=Integer)]",\
- 5900, 5, 0.0,0.0,0.0,0,2565)
+ 5860, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.u[1]", "Connector of Real input signals",\
- 9457, 0.0, 0.0,0.0,0.0,0,2560)
+ 9426, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.u[2]", "Connector of Real input signals",\
- 9458, 0.0, 0.0,0.0,0.0,0,2560)
+ 9427, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.u[3]", "Connector of Real input signals",\
- 9459, 0.0, 0.0,0.0,0.0,0,2560)
+ 9428, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.u[4]", "Connector of Real input signals",\
- 9460, 0.0, 0.0,0.0,0.0,0,2560)
+ 9429, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.u[5]", "Connector of Real input signals",\
- 9461, 0.0, 0.0,0.0,0.0,0,2560)
+ 9430, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].sumRad.y", "Connector of Real output signal",\
- "building.heatPortRad[1].Q_flow", 1, 5, 8478, 1024)
+ "building.heatPortRad[1].Q_flow", 1, 5, 8441, 1024)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.k[1]", "Optional: sum coefficients",\
- 5901, -1, 0.0,0.0,0.0,0,2561)
+ 5861, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.k[2]", "Optional: sum coefficients",\
- 5902, -1, 0.0,0.0,0.0,0,2561)
+ 5862, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.k[3]", "Optional: sum coefficients",\
- 5903, -1, 0.0,0.0,0.0,0,2561)
+ 5863, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.k[4]", "Optional: sum coefficients",\
- 5904, -1, 0.0,0.0,0.0,0,2561)
+ 5864, -1, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].sumRad.k[5]", "Optional: sum coefficients",\
- 5905, -1, 0.0,0.0,0.0,0,2561)
+ 5865, -1, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.transfer.rad[1].preSumRad.T_ref", "Reference temperature [K|degC]",\
- 1285, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1291, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preSumRad.alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 5906, 0, 0.0,0.0,0.0,0,2561)
+ 5866, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preSumRad.Q_flow", "[W]", \
-"building.heatPortRad[1].Q_flow", 1, 5, 8478, 1024)
+"building.heatPortRad[1].Q_flow", 1, 5, 8441, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preSumRad.port.T", "Port temperature [K|degC]",\
- "building.heatPortRad[1].T", 1, 5, 8477, 1028)
+ "building.heatPortRad[1].T", 1, 5, 8440, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preSumRad.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"building.heatPortRad[1].Q_flow", -1, 5, 8478, 1156)
+"building.heatPortRad[1].Q_flow", -1, 5, 8441, 1156)
DeclareVariable("hydraulic.transfer.rad[1].res.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 5907, true, 0.0,0.0,0.0,0,2563)
+ 5867, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].res.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].res.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 1028)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].res.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1028)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].res.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+ "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].res.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 1028)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].res.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.pumFixMFlo[1].port_b.h_outflow", 1, 5, 9502, 1028)
+ "hydraulic.transfer.pumFixMFlo[1].port_b.h_outflow", 1, 5, 9471, 1028)
DeclareVariable("hydraulic.transfer.rad[1].res.m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 5908, 0.317599972517237, 0.0,0.0,0.0,0,2561)
+ 5868, 0.317599972517237, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 5909, 3.17599972517237E-05, 0.0,1E+100,0.0,0,2561)
+ 5869, 3.17599972517237E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 5910, false, 0.0,0.0,0.0,0,1539)
+ 5870, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.transfer.rad[1].res.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1024)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1024)
DeclareVariable("hydraulic.transfer.rad[1].res.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 5911, 0, 0.0,0.0,1.0,0,2561)
+ 5871, 0, 0.0,0.0,1.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 5912, 0, 0.0,0.0,0.0,0,2561)
+ 5872, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 5913, 0, 0.0,0.0,0.0,0,2561)
+ 5873, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 5914, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 5874, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].res.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 5915, false, 0.0,0.0,0.0,0,2563)
+ 5875, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].res.dp_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 5916, 0, 0.0,0.0,0.0,0,2561)
+ 5876, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.linearized", "= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 5917, false, 0.0,0.0,0.0,0,2563)
+ 5877, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].res.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5918, 0, 0.0,1E+100,0.0,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 5878, 0, 0.0,1E+100,0.0,\
0,2561)
DeclareParameter("hydraulic.transfer.rad[1].res.sta_default.p", "Absolute pressure of medium [Pa|bar]",\
- 1286, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1292, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.transfer.rad[1].res.sta_default.T", "Temperature of medium [K|degC]",\
- 1287, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1293, 293.15, 1.0,10000.0,300.0,0,2608)
+EndNonAlias(5)
+PreNonAliasNew(6)
+StartNonAlias(6)
DeclareVariable("hydraulic.transfer.rad[1].res.eta_default", "Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 5919, 0.001, 0.0,1E+100,0.0,0,2561)
+ 5879, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 5920, 0.317599972517237, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 5880, 0.317599972517237, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.dp_nominal_pos", "Absolute value of nominal pressure difference [Pa|Pa]",\
- 5921, 0, 0.0,0.0,0.0,0,2561)
+ 5881, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 5922, 0.3, 1E-06,1E+100,0.0,0,2561)
+ 5882, 0.3, 1E-06,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 5923, 0, 0.0,0.0,0.0,0,2561)
+ 5883, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].res.computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 5924,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 5884,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].res.coeff", "Precomputed coefficient to avoid division by parameter",\
- 5925, 0, 0.0,0.0,0.0,0,2561)
+ 5885, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5926, 2, 1.0,4.0,0.0,0,517)
+ 5886, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5927, 2, 1.0,4.0,0.0,0,517)
-EndNonAlias(5)
-PreNonAliasNew(6)
-StartNonAlias(6)
+ 5887, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5928, 2, 1.0,4.0,0.0,0,517)
+ 5888, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5929, 2, 1.0,4.0,0.0,0,517)
+ 5889, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].p_start", "Start value of pressure [Pa|bar]",\
- 5930, 300000, 0.0,100000000.0,100000.0,0,513)
+ 5890, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].T_start", "Start value of temperature [K|degC]",\
- 5931, 293.15, 1.0,10000.0,300.0,0,513)
+ 5891, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 5932, 1.0, 0.0,1.0,0.1,0,513)
+ 5892, 1.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 5933, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
+ 5893, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5934, false, 0.0,0.0,0.0,0,2563)
+ 5894, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5935, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5895, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5936, false, 0.0,0.0,0.0,0,515)
+ 5896, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5937, true, 0.0,0.0,0.0,0,515)
+ 5897, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 5938, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5898, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].nPorts", "Number of ports [:#(type=Integer)]",\
- 5939, 2, 0.0,0.0,0.0,0,517)
+ 5899, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 5940, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5900, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 5941, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.transfer.rad[1].vol[1].V", "Volume [m3]", 5942, \
+ 5901, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.transfer.rad[1].vol[1].V", "Volume [m3]", 5902, \
0.015414524106140588, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 4)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 4)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].T", "Temperature of the fluid [K|degC]",\
- 9462, 300.0, 1.0,10000.0,300.0,0,512)
+ 9431, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].U", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[1].dynBal.U", 1, 1, 59, 0)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].m", "Mass of the component [kg]",\
- 5943, 15.346484396736084, 0.0,0.0,0.0,0,513)
+ 5903, 15.346484396736084, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 5944, 995.586, 0.0,1E+100,0.0,0,2561)
+ 5904, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5945, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5905, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].state_default.T", \
-"Temperature of medium [K|degC]", 5946, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5906, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 5947, 995.586, 0.0,1E+100,0.0,0,2561)
+ 5907, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 5948, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5908, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].state_start.T", \
-"Temperature of medium [K|degC]", 5949, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5909, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 5950, false, 0.0,0.0,0.0,0,2563)
+ 5910, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1024)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1028)
+ "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1, 5, 9463, 1156)
+"hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1, 5, 9432, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].preTem.T", "[K]", \
-"hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1024)
+"hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].portT.y", "Value of Real output",\
- "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1024)
+ "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1,\
- 5, 9463, 1024)
+ 5, 9432, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1, 5, 9463, 1156)
+"hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1, 5, 9432, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", -1, 5, 9463, 1156)
+"hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", -1, 5, 9432, 1156)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 5951, false, 0.0,0.0,0.0,0,515)
+ 5911, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 4)
+ "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9463,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9432,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5952, 2, 1.0,4.0,0.0,0,2565)
+ 5912, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5953, 2, 1.0,4.0,0.0,0,2565)
+ 5913, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5954, 2, 1.0,4.0,0.0,0,2565)
+ 5914, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5955, 2, 1.0,4.0,0.0,0,2565)
+ 5915, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 5956, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5916, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.T_start", \
-"Start value of temperature [K|degC]", 5957, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5917, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 5958, 1.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5918, 1.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 5959, \
+"Factor for scaling the sensible thermal mass of the volume", 5919, \
1.5442861740360443, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5960, false, 0.0,0.0,0.0,0,2563)
+ 5920, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5961, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5921, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 5962, true, 0.0,0.0,0.0,0,2563)
+ 5922, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 5963, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5923, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 5964, false, 0.0,0.0,0.0,0,2563)
+ 5924, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5965,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5925,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1, 5, 9463, 1024)
+ "hydraulic.transfer.rad[1].vol[1].heatPort.Q_flow", 1, 5, 9432, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1024)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[1].dynBal.U", 1, 1, 59, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.mOut", "Mass of the component [kg]",\
- 5966, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 5926, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1028)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1028)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1028)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 5967, false, 0.0,0.0,0.0,0,2563)
+ 5927, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 5968, true, 0.0,0.0,0.0,0,2563)
+ 5928, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 5969, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5929, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9464, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9433, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.transfer.rad[1].port_a.h_outflow", 1,\
- 5, 9440, 1024)
+ 5, 9409, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.transfer.rad[1].port_a.h_outflow", 1,\
- 5, 9440, 1024)
+ 5, 9409, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5970, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5930, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 5971, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5931, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 5972, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5932, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[1].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.transfer.rad[1].vol[1].dynBal.medium.T", 1,\
- 5, 9464, 1024)
+ 5, 9433, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9465, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9434, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 5973, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 5933, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.transfer.rad[1].vol[1].dynBal.U", "Internal energy of fluid [J]",\
59, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.transfer.rad[1].vol[1].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 59, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.m", "Mass of fluid [kg]",\
- 5974, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 5934, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 5975, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5935, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 5976, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5936, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9466, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9435, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.fluidVolume", \
-"Volume [m3]", 5977, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5937, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 5978, 34948.44689581876, 0.0,0.0,0.0,0,2561)
+ 5938, 34948.44689581876, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.ports_H_flow[1]", "[W]",\
- 9467, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9436, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.ports_H_flow[2]", "[W]",\
- 9468, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9437, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5979, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 5939, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5980, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5940, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 5981, true, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 5941, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 5982, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5942, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 5983, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5943, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 5984, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 5944, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 5985, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 5945, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 5986, false, 0.0,0.0,0.0,0,2563)
+ 5946, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[1].dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 5987, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 5947, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5988, 2, 1.0,4.0,0.0,0,517)
+ 5948, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5989, 2, 1.0,4.0,0.0,0,517)
+ 5949, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5990, 2, 1.0,4.0,0.0,0,517)
+ 5950, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 5991, 2, 1.0,4.0,0.0,0,517)
+ 5951, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].p_start", "Start value of pressure [Pa|bar]",\
- 5992, 300000, 0.0,100000000.0,100000.0,0,513)
+ 5952, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].T_start", "Start value of temperature [K|degC]",\
- 5993, 293.15, 1.0,10000.0,300.0,0,513)
+ 5953, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 5994, 1.0, 0.0,1.0,0.1,0,513)
+ 5954, 1.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 5995, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
+ 5955, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 5996, false, 0.0,0.0,0.0,0,2563)
+ 5956, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 5997, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5957, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 5998, false, 0.0,0.0,0.0,0,515)
+ 5958, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 5999, true, 0.0,0.0,0.0,0,515)
+ 5959, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6000, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 5960, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].nPorts", "Number of ports [:#(type=Integer)]",\
- 6001, 2, 0.0,0.0,0.0,0,517)
+ 5961, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6002, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 5962, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 6003, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.transfer.rad[1].vol[2].V", "Volume [m3]", 6004, \
+ 5963, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.transfer.rad[1].vol[2].V", "Volume [m3]", 5964, \
0.015414524106140588, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9469, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9438, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9469, 4)
+ "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9438, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].T", "Temperature of the fluid [K|degC]",\
- 9470, 300.0, 1.0,10000.0,300.0,0,512)
+ 9439, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].U", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[2].dynBal.U", 1, 1, 60, 0)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].m", "Mass of the component [kg]",\
- 6005, 15.346484396736084, 0.0,0.0,0.0,0,513)
+ 5965, 15.346484396736084, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 6006, 995.586, 0.0,1E+100,0.0,0,2561)
+ 5966, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6007, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 5967, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].state_default.T", \
-"Temperature of medium [K|degC]", 6008, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5968, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 6009, 995.586, 0.0,1E+100,0.0,0,2561)
+ 5969, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 6010, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 5970, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].state_start.T", \
-"Temperature of medium [K|degC]", 6011, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 5971, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 6012, false, 0.0,0.0,0.0,0,2563)
+ 5972, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9469, 1024)
+ "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9438, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1028)
+ "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1, 5, 9471, 1156)
+"hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1, 5, 9440, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].preTem.T", "[K]", \
-"hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1024)
+"hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].portT.y", "Value of Real output",\
- "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1024)
+ "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1,\
- 5, 9471, 1024)
+ 5, 9440, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1, 5, 9471, 1156)
+"hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1, 5, 9440, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", -1, 5, 9471, 1156)
+"hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", -1, 5, 9440, 1156)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 6013, false, 0.0,0.0,0.0,0,515)
+ 5973, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 4)
+ "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9471,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9440,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6014, 2, 1.0,4.0,0.0,0,2565)
+ 5974, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6015, 2, 1.0,4.0,0.0,0,2565)
+ 5975, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6016, 2, 1.0,4.0,0.0,0,2565)
+ 5976, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6017, 2, 1.0,4.0,0.0,0,2565)
+ 5977, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 6018, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 5978, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.T_start", \
-"Start value of temperature [K|degC]", 6019, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 5979, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6020, 1.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 5980, 1.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 6021, \
+"Factor for scaling the sensible thermal mass of the volume", 5981, \
1.5442861740360443, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6022, false, 0.0,0.0,0.0,0,2563)
+ 5982, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6023, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 5983, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 6024, true, 0.0,0.0,0.0,0,2563)
+ 5984, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 6025, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 5985, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6026, false, 0.0,0.0,0.0,0,2563)
+ 5986, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6027,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 5987,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1, 5, 9471, 1024)
+ "hydraulic.transfer.rad[1].vol[2].heatPort.Q_flow", 1, 5, 9440, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9469, 1024)
+ "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9438, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[2].dynBal.U", 1, 1, 60, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.mOut", "Mass of the component [kg]",\
- 6028, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 5988, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9469, 1028)
+ "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9438, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9469, 1028)
+ "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1, 5, 9438, 1028)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 6029, false, 0.0,0.0,0.0,0,2563)
+ 5989, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 6030, true, 0.0,0.0,0.0,0,2563)
+ 5990, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 6031, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 5991, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9472, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9441, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1,\
- 5, 9469, 1024)
+ 5, 9438, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.transfer.rad[1].vol[2].ports[1].h_outflow", 1,\
- 5, 9469, 1024)
+ 5, 9438, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6032, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 5992, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 6033, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 5993, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 6034, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 5994, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[2].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.transfer.rad[1].vol[2].dynBal.medium.T", 1,\
- 5, 9472, 1024)
+ 5, 9441, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9473, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9442, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 6035, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 5995, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.transfer.rad[1].vol[2].dynBal.U", "Internal energy of fluid [J]",\
60, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.transfer.rad[1].vol[2].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 60, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.m", "Mass of fluid [kg]",\
- 6036, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 5996, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 6037, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 5997, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 6038, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 5998, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9474, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9443, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.fluidVolume", \
-"Volume [m3]", 6039, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 5999, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 6040, 34948.44689581876, 0.0,0.0,0.0,0,2561)
+ 6000, 34948.44689581876, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.ports_H_flow[1]", "[W]",\
- 9475, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9444, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.ports_H_flow[2]", "[W]",\
- 9476, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9445, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6041, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6001, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6042, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6002, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 6043, true, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 6003, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6044, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6004, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 6045, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6005, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6046, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6006, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 6047, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 6007, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 6048, false, 0.0,0.0,0.0,0,2563)
+ 6008, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[2].dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 6049, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6009, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6050, 2, 1.0,4.0,0.0,0,517)
+ 6010, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6051, 2, 1.0,4.0,0.0,0,517)
+ 6011, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6052, 2, 1.0,4.0,0.0,0,517)
+ 6012, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6053, 2, 1.0,4.0,0.0,0,517)
+ 6013, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].p_start", "Start value of pressure [Pa|bar]",\
- 6054, 300000, 0.0,100000000.0,100000.0,0,513)
+ 6014, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].T_start", "Start value of temperature [K|degC]",\
- 6055, 293.15, 1.0,10000.0,300.0,0,513)
+ 6015, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 6056, 1.0, 0.0,1.0,0.1,0,513)
+ 6016, 1.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6057, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
+ 6017, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6058, false, 0.0,0.0,0.0,0,2563)
+ 6018, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6059, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6019, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 6060, false, 0.0,0.0,0.0,0,515)
+ 6020, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6061, true, 0.0,0.0,0.0,0,515)
+ 6021, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6062, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 6022, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].nPorts", "Number of ports [:#(type=Integer)]",\
- 6063, 2, 0.0,0.0,0.0,0,517)
+ 6023, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6064, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6024, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 6065, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.transfer.rad[1].vol[3].V", "Volume [m3]", 6066, \
+ 6025, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.transfer.rad[1].vol[3].V", "Volume [m3]", 6026, \
0.015414524106140588, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9477, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9446, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9477, 4)
+ "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9446, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].T", "Temperature of the fluid [K|degC]",\
- 9478, 300.0, 1.0,10000.0,300.0,0,512)
+ 9447, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].U", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[3].dynBal.U", 1, 1, 61, 0)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].m", "Mass of the component [kg]",\
- 6067, 15.346484396736084, 0.0,0.0,0.0,0,513)
+ 6027, 15.346484396736084, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 6068, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6028, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6069, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6029, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].state_default.T", \
-"Temperature of medium [K|degC]", 6070, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6030, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 6071, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6031, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 6072, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 6032, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].state_start.T", \
-"Temperature of medium [K|degC]", 6073, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6033, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 6074, false, 0.0,0.0,0.0,0,2563)
+ 6034, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9477, 1024)
+ "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9446, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1028)
+ "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1, 5, 9479, 1156)
+"hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1, 5, 9448, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].preTem.T", "[K]", \
-"hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1024)
+"hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].portT.y", "Value of Real output",\
- "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1024)
+ "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1,\
- 5, 9479, 1024)
+ 5, 9448, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1, 5, 9479, 1156)
+"hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1, 5, 9448, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", -1, 5, 9479, 1156)
+"hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", -1, 5, 9448, 1156)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 6075, false, 0.0,0.0,0.0,0,515)
+ 6035, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 4)
+ "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9479,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9448,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6076, 2, 1.0,4.0,0.0,0,2565)
+ 6036, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6077, 2, 1.0,4.0,0.0,0,2565)
+ 6037, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6078, 2, 1.0,4.0,0.0,0,2565)
+ 6038, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6079, 2, 1.0,4.0,0.0,0,2565)
+ 6039, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 6080, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 6040, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.T_start", \
-"Start value of temperature [K|degC]", 6081, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 6041, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6082, 1.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6042, 1.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 6083, \
+"Factor for scaling the sensible thermal mass of the volume", 6043, \
1.5442861740360443, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6084, false, 0.0,0.0,0.0,0,2563)
+ 6044, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6085, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6045, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 6086, true, 0.0,0.0,0.0,0,2563)
+ 6046, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 6087, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 6047, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6088, false, 0.0,0.0,0.0,0,2563)
+ 6048, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6089,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6049,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1, 5, 9479, 1024)
+ "hydraulic.transfer.rad[1].vol[3].heatPort.Q_flow", 1, 5, 9448, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9477, 1024)
+ "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9446, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[3].dynBal.U", 1, 1, 61, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.mOut", "Mass of the component [kg]",\
- 6090, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 6050, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9477, 1028)
+ "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9446, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9477, 1028)
+ "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1, 5, 9446, 1028)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 6091, false, 0.0,0.0,0.0,0,2563)
+ 6051, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 6092, true, 0.0,0.0,0.0,0,2563)
+ 6052, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 6093, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 6053, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9480, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9449, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1,\
- 5, 9477, 1024)
+ 5, 9446, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.transfer.rad[1].vol[3].ports[1].h_outflow", 1,\
- 5, 9477, 1024)
+ 5, 9446, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6094, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6054, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 6095, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 6055, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 6096, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 6056, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[3].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.transfer.rad[1].vol[3].dynBal.medium.T", 1,\
- 5, 9480, 1024)
+ 5, 9449, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9481, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9450, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 6097, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 6057, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.transfer.rad[1].vol[3].dynBal.U", "Internal energy of fluid [J]",\
61, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.transfer.rad[1].vol[3].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 61, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.m", "Mass of fluid [kg]",\
- 6098, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 6058, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 6099, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 6059, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 6100, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 6060, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9482, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9451, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.fluidVolume", \
-"Volume [m3]", 6101, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 6061, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 6102, 34948.44689581876, 0.0,0.0,0.0,0,2561)
+ 6062, 34948.44689581876, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.ports_H_flow[1]", "[W]",\
- 9483, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9452, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.ports_H_flow[2]", "[W]",\
- 9484, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9453, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6103, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6063, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6104, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6064, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 6105, true, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 6065, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6106, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6066, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 6107, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6067, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6108, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6068, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 6109, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 6069, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 6110, false, 0.0,0.0,0.0,0,2563)
+ 6070, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[3].dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 6111, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6071, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6112, 2, 1.0,4.0,0.0,0,517)
+ 6072, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6113, 2, 1.0,4.0,0.0,0,517)
+ 6073, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6114, 2, 1.0,4.0,0.0,0,517)
+ 6074, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6115, 2, 1.0,4.0,0.0,0,517)
+ 6075, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].p_start", "Start value of pressure [Pa|bar]",\
- 6116, 300000, 0.0,100000000.0,100000.0,0,513)
+ 6076, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].T_start", "Start value of temperature [K|degC]",\
- 6117, 293.15, 1.0,10000.0,300.0,0,513)
+ 6077, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 6118, 1.0, 0.0,1.0,0.1,0,513)
+ 6078, 1.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6119, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
+ 6079, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6120, false, 0.0,0.0,0.0,0,2563)
+ 6080, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6121, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6081, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 6122, false, 0.0,0.0,0.0,0,515)
+ 6082, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6123, true, 0.0,0.0,0.0,0,515)
+ 6083, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6124, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 6084, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].nPorts", "Number of ports [:#(type=Integer)]",\
- 6125, 2, 0.0,0.0,0.0,0,517)
+ 6085, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6126, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6086, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 6127, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.transfer.rad[1].vol[4].V", "Volume [m3]", 6128, \
+ 6087, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.transfer.rad[1].vol[4].V", "Volume [m3]", 6088, \
0.015414524106140588, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9485, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9454, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9485, 4)
+ "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9454, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].T", "Temperature of the fluid [K|degC]",\
- 9486, 300.0, 1.0,10000.0,300.0,0,512)
+ 9455, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].U", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[4].dynBal.U", 1, 1, 62, 0)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].m", "Mass of the component [kg]",\
- 6129, 15.346484396736084, 0.0,0.0,0.0,0,513)
+ 6089, 15.346484396736084, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 6130, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6090, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6131, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6091, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].state_default.T", \
-"Temperature of medium [K|degC]", 6132, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6092, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 6133, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6093, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 6134, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 6094, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].state_start.T", \
-"Temperature of medium [K|degC]", 6135, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6095, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 6136, false, 0.0,0.0,0.0,0,2563)
+ 6096, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9485, 1024)
+ "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9454, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1028)
+ "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1, 5, 9487, 1156)
+"hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1, 5, 9456, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].preTem.T", "[K]", \
-"hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1024)
+"hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].portT.y", "Value of Real output",\
- "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1024)
+ "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1,\
- 5, 9487, 1024)
+ 5, 9456, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1, 5, 9487, 1156)
+"hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1, 5, 9456, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", -1, 5, 9487, 1156)
+"hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", -1, 5, 9456, 1156)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 6137, false, 0.0,0.0,0.0,0,515)
+ 6097, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 4)
+ "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9487,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9456,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6138, 2, 1.0,4.0,0.0,0,2565)
+ 6098, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6139, 2, 1.0,4.0,0.0,0,2565)
+ 6099, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6140, 2, 1.0,4.0,0.0,0,2565)
+ 6100, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6141, 2, 1.0,4.0,0.0,0,2565)
+ 6101, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 6142, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 6102, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.T_start", \
-"Start value of temperature [K|degC]", 6143, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 6103, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6144, 1.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6104, 1.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 6145, \
+"Factor for scaling the sensible thermal mass of the volume", 6105, \
1.5442861740360443, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6146, false, 0.0,0.0,0.0,0,2563)
+ 6106, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6147, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6107, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 6148, true, 0.0,0.0,0.0,0,2563)
+ 6108, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 6149, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 6109, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6150, false, 0.0,0.0,0.0,0,2563)
+ 6110, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6151,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6111,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1, 5, 9487, 1024)
+ "hydraulic.transfer.rad[1].vol[4].heatPort.Q_flow", 1, 5, 9456, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9485, 1024)
+ "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9454, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[4].dynBal.U", 1, 1, 62, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.mOut", "Mass of the component [kg]",\
- 6152, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 6112, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9485, 1028)
+ "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9454, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9485, 1028)
+ "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1, 5, 9454, 1028)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 6153, false, 0.0,0.0,0.0,0,2563)
+ 6113, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 6154, true, 0.0,0.0,0.0,0,2563)
+ 6114, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 6155, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 6115, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9488, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9457, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1,\
- 5, 9485, 1024)
+ 5, 9454, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.transfer.rad[1].vol[4].ports[1].h_outflow", 1,\
- 5, 9485, 1024)
+ 5, 9454, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6156, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6116, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 6157, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 6117, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 6158, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 6118, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[4].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.transfer.rad[1].vol[4].dynBal.medium.T", 1,\
- 5, 9488, 1024)
+ 5, 9457, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9489, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9458, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 6159, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 6119, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.transfer.rad[1].vol[4].dynBal.U", "Internal energy of fluid [J]",\
62, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.transfer.rad[1].vol[4].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 62, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.m", "Mass of fluid [kg]",\
- 6160, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 6120, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 6161, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 6121, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 6162, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 6122, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9490, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9459, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.fluidVolume", \
-"Volume [m3]", 6163, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 6123, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 6164, 34948.44689581876, 0.0,0.0,0.0,0,2561)
+ 6124, 34948.44689581876, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.ports_H_flow[1]", "[W]",\
- 9491, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9460, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.ports_H_flow[2]", "[W]",\
- 9492, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9461, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6165, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6125, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6166, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6126, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 6167, true, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 6127, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6168, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6128, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 6169, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6129, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6170, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6130, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 6171, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 6131, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 6172, false, 0.0,0.0,0.0,0,2563)
+ 6132, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[4].dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 6173, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6133, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6174, 2, 1.0,4.0,0.0,0,517)
+ 6134, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6175, 2, 1.0,4.0,0.0,0,517)
+ 6135, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6176, 2, 1.0,4.0,0.0,0,517)
+ 6136, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6177, 2, 1.0,4.0,0.0,0,517)
+ 6137, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].p_start", "Start value of pressure [Pa|bar]",\
- 6178, 300000, 0.0,100000000.0,100000.0,0,513)
+ 6138, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].T_start", "Start value of temperature [K|degC]",\
- 6179, 293.15, 1.0,10000.0,300.0,0,513)
+ 6139, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 6180, 1.0, 0.0,1.0,0.1,0,513)
+ 6140, 1.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6181, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
+ 6141, 1.5442861740360443, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6182, false, 0.0,0.0,0.0,0,2563)
+ 6142, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6183, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6143, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 6184, false, 0.0,0.0,0.0,0,515)
+ 6144, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6185, true, 0.0,0.0,0.0,0,515)
+ 6145, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6186, 0.317599972517237, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 6146, 0.317599972517237, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].nPorts", "Number of ports [:#(type=Integer)]",\
- 6187, 2, 0.0,0.0,0.0,0,517)
+ 6147, 2, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6188, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6148, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 6189, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("hydraulic.transfer.rad[1].vol[5].V", "Volume [m3]", 6190, \
+ 6149, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("hydraulic.transfer.rad[1].vol[5].V", "Volume [m3]", 6150, \
0.015414524106140588, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 4)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 4)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].T", "Temperature of the fluid [K|degC]",\
- 9493, 300.0, 1.0,10000.0,300.0,0,512)
+ 9462, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].U", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[5].dynBal.U", 1, 1, 63, 0)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 0)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 0)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].m", "Mass of the component [kg]",\
- 6191, 15.346484396736084, 0.0,0.0,0.0,0,513)
+ 6151, 15.346484396736084, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 6192, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6152, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6193, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6153, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].state_default.T", \
-"Temperature of medium [K|degC]", 6194, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6154, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].rho_default", "Density, used to compute fluid mass [kg/m3|g/cm3]",\
- 6195, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6155, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 6196, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 6156, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].state_start.T", \
-"Temperature of medium [K|degC]", 6197, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6157, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 6198, false, 0.0,0.0,0.0,0,2563)
+ 6158, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].hOut_internal", "Internal connector for leaving temperature of the component [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 1024)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].preTem.port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1028)
+ "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].preTem.port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1, 5, 9494, 1156)
+"hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1, 5, 9463, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].preTem.T", "[K]", \
-"hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1024)
+"hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].portT.y", "Value of Real output",\
- "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1024)
+ "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].heaFloSen.Q_flow", \
"Heat flow from port_a to port_b as output signal [W]", "hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1,\
- 5, 9494, 1024)
+ 5, 9463, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].heaFloSen.port_a.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1, 5, 9494, 1156)
+"hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1, 5, 9463, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1028)
+"Port temperature [K|degC]", "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].heaFloSen.port_b.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", -1, 5, 9494, 1156)
+"hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", -1, 5, 9463, 1156)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 6199, false, 0.0,0.0,0.0,0,515)
+ 6159, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].heatPort.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 4)
+ "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 4)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 9494,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 9463,\
0.0, 0.0,0.0,0.0,0,776)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6200, 2, 1.0,4.0,0.0,0,2565)
+ 6160, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6201, 2, 1.0,4.0,0.0,0,2565)
+ 6161, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6202, 2, 1.0,4.0,0.0,0,2565)
+ 6162, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6203, 2, 1.0,4.0,0.0,0,2565)
+ 6163, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 6204, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 6164, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.T_start", \
-"Start value of temperature [K|degC]", 6205, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 6165, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6206, 1.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6166, 1.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 6207, \
+"Factor for scaling the sensible thermal mass of the volume", 6167, \
1.5442861740360443, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6208, false, 0.0,0.0,0.0,0,2563)
+ 6168, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6209, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6169, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 6210, true, 0.0,0.0,0.0,0,2563)
+ 6170, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 6211, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 6171, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6212, false, 0.0,0.0,0.0,0,2563)
+ 6172, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6213,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6173,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1, 5, 9494, 1024)
+ "hydraulic.transfer.rad[1].vol[5].heatPort.Q_flow", 1, 5, 9463, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 1024)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.UOut", "Internal energy of the component [J]",\
"hydraulic.transfer.rad[1].vol[5].dynBal.U", 1, 1, 63, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.mOut", "Mass of the component [kg]",\
- 6214, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 6174, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 1028)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9434, 1028)
+ "hydraulic.transfer.portTra_out[1].h_outflow", 1, 5, 9403, 1028)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 6215, false, 0.0,0.0,0.0,0,2563)
+ 6175, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 6216, true, 0.0,0.0,0.0,0,2563)
+ 6176, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 6217, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 6177, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9495, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9464, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.transfer.portTra_out[1].h_outflow", 1,\
- 5, 9434, 1024)
+ 5, 9403, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.transfer.portTra_out[1].h_outflow", 1,\
- 5, 9434, 1024)
+ 5, 9403, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6218, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6178, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 6219, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 6179, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 6220, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 6180, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1024)
+ 5, 5741, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].vol[5].dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.transfer.rad[1].vol[5].dynBal.medium.T", 1,\
- 5, 9495, 1024)
+ 5, 9464, 1024)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9496, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9465, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 6221, 0.0, 0.0,0.0,0.0,0,2561)
+"Absolute pressure of medium in [bar] [bar]", 6181, 0.0, 0.0,0.0,0.0,0,2561)
DeclareState("hydraulic.transfer.rad[1].vol[5].dynBal.U", "Internal energy of fluid [J]",\
63, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.transfer.rad[1].vol[5].dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 63, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.m", "Mass of fluid [kg]",\
- 6222, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
+ 6182, 15.346484396736084, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 6223, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 6183, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 6224, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 6184, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.Hb_flow", \
-"Enthalpy flow across boundaries or energy source/sink [W]", 9497, 0.0, 0.0,0.0,\
+"Enthalpy flow across boundaries or energy source/sink [W]", 9466, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.fluidVolume", \
-"Volume [m3]", 6225, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 6185, 0.015414524106140588, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.CSen", "Aditional heat capacity for implementing mFactor [J/K]",\
- 6226, 34948.44689581876, 0.0,0.0,0.0,0,2561)
+ 6186, 34948.44689581876, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.ports_H_flow[1]", "[W]",\
- 9498, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9467, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.ports_H_flow[2]", "[W]",\
- 9499, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ 9468, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6227, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6187, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6228, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6188, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.computeCSen", \
-"[:#(type=Boolean)]", 6229, true, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 6189, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6230, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6190, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 6231, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6191, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6232, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6192, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 6233, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 6193, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 6234, false, 0.0,0.0,0.0,0,2563)
+ 6194, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.rad[1].vol[5].dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 6235, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6195, 0, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.transfer.rad[1].preCon[1].T_ref", "Reference temperature [K|degC]",\
- 1288, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1294, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preCon[1].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6236, 0, 0.0,0.0,0.0,0,2561)
+ 6196, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[1].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumCon.u[1]", 1, 5, 9452, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[1]", 1, 5, 9421, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[1].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1028)
+ "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[1].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumCon.u[1]", -1, 5, 9452, 1156)
+"hydraulic.transfer.rad[1].sumCon.u[1]", -1, 5, 9421, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preCon[2].T_ref", "Reference temperature [K|degC]",\
- 1289, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1295, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preCon[2].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6237, 0, 0.0,0.0,0.0,0,2561)
+ 6197, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[2].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumCon.u[2]", 1, 5, 9453, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[2]", 1, 5, 9422, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[2].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1028)
+ "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[2].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumCon.u[2]", -1, 5, 9453, 1156)
+"hydraulic.transfer.rad[1].sumCon.u[2]", -1, 5, 9422, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preCon[3].T_ref", "Reference temperature [K|degC]",\
- 1290, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1296, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preCon[3].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6238, 0, 0.0,0.0,0.0,0,2561)
+ 6198, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[3].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumCon.u[3]", 1, 5, 9454, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[3]", 1, 5, 9423, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[3].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1028)
+ "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[3].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumCon.u[3]", -1, 5, 9454, 1156)
+"hydraulic.transfer.rad[1].sumCon.u[3]", -1, 5, 9423, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preCon[4].T_ref", "Reference temperature [K|degC]",\
- 1291, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1297, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preCon[4].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6239, 0, 0.0,0.0,0.0,0,2561)
+ 6199, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[4].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumCon.u[4]", 1, 5, 9455, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[4]", 1, 5, 9424, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[4].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1028)
+ "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[4].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumCon.u[4]", -1, 5, 9455, 1156)
+"hydraulic.transfer.rad[1].sumCon.u[4]", -1, 5, 9424, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preCon[5].T_ref", "Reference temperature [K|degC]",\
- 1292, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1298, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preCon[5].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6240, 0, 0.0,0.0,0.0,0,2561)
+ 6200, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[5].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumCon.u[5]", 1, 5, 9456, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[5]", 1, 5, 9425, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[5].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1028)
+ "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preCon[5].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumCon.u[5]", -1, 5, 9456, 1156)
+"hydraulic.transfer.rad[1].sumCon.u[5]", -1, 5, 9425, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preRad[1].T_ref", "Reference temperature [K|degC]",\
- 1293, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1299, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preRad[1].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6241, 0, 0.0,0.0,0.0,0,2561)
+ 6201, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[1].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumRad.u[1]", 1, 5, 9457, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[1]", 1, 5, 9426, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[1].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9462, 1028)
+ "hydraulic.transfer.rad[1].vol[1].T", 1, 5, 9431, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[1].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumRad.u[1]", -1, 5, 9457, 1156)
+"hydraulic.transfer.rad[1].sumRad.u[1]", -1, 5, 9426, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preRad[2].T_ref", "Reference temperature [K|degC]",\
- 1294, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1300, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preRad[2].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6242, 0, 0.0,0.0,0.0,0,2561)
+ 6202, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[2].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumRad.u[2]", 1, 5, 9458, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[2]", 1, 5, 9427, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[2].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9470, 1028)
+ "hydraulic.transfer.rad[1].vol[2].T", 1, 5, 9439, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[2].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumRad.u[2]", -1, 5, 9458, 1156)
+"hydraulic.transfer.rad[1].sumRad.u[2]", -1, 5, 9427, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preRad[3].T_ref", "Reference temperature [K|degC]",\
- 1295, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1301, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preRad[3].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6243, 0, 0.0,0.0,0.0,0,2561)
+ 6203, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[3].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumRad.u[3]", 1, 5, 9459, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[3]", 1, 5, 9428, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[3].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9478, 1028)
+ "hydraulic.transfer.rad[1].vol[3].T", 1, 5, 9447, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[3].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumRad.u[3]", -1, 5, 9459, 1156)
+"hydraulic.transfer.rad[1].sumRad.u[3]", -1, 5, 9428, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preRad[4].T_ref", "Reference temperature [K|degC]",\
- 1296, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1302, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preRad[4].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6244, 0, 0.0,0.0,0.0,0,2561)
+ 6204, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[4].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumRad.u[4]", 1, 5, 9460, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[4]", 1, 5, 9429, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[4].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9486, 1028)
+ "hydraulic.transfer.rad[1].vol[4].T", 1, 5, 9455, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[4].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumRad.u[4]", -1, 5, 9460, 1156)
+"hydraulic.transfer.rad[1].sumRad.u[4]", -1, 5, 9429, 1156)
DeclareParameter("hydraulic.transfer.rad[1].preRad[5].T_ref", "Reference temperature [K|degC]",\
- 1297, 293.15, 0.0,1E+100,300.0,0,2608)
+ 1303, 293.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("hydraulic.transfer.rad[1].preRad[5].alpha", "Temperature coefficient of heat flow rate [1/K]",\
- 6245, 0, 0.0,0.0,0.0,0,2561)
+ 6205, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[5].Q_flow", "[W]", \
-"hydraulic.transfer.rad[1].sumRad.u[5]", 1, 5, 9461, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[5]", 1, 5, 9430, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[5].port.T", "Port temperature [K|degC]",\
- "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9493, 1028)
+ "hydraulic.transfer.rad[1].vol[5].T", 1, 5, 9462, 1028)
DeclareAlias2("hydraulic.transfer.rad[1].preRad[5].port.Q_flow", \
"Heat flow rate (positive if flowing from outside into the component) [W]", \
-"hydraulic.transfer.rad[1].sumRad.u[5]", -1, 5, 9461, 1156)
+"hydraulic.transfer.rad[1].sumRad.u[5]", -1, 5, 9430, 1156)
DeclareAlias2("hydraulic.transfer.rad[1].QCon[1].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumCon.u[1]", 1, 5, 9452, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[1]", 1, 5, 9421, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QCon[2].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumCon.u[2]", 1, 5, 9453, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[2]", 1, 5, 9422, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QCon[3].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumCon.u[3]", 1, 5, 9454, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[3]", 1, 5, 9423, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QCon[4].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumCon.u[4]", 1, 5, 9455, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[4]", 1, 5, 9424, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QCon[5].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumCon.u[5]", 1, 5, 9456, 1024)
+"hydraulic.transfer.rad[1].sumCon.u[5]", 1, 5, 9425, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QRad[1].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumRad.u[1]", 1, 5, 9457, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[1]", 1, 5, 9426, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QRad[2].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumRad.u[2]", 1, 5, 9458, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[2]", 1, 5, 9427, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QRad[3].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumRad.u[3]", 1, 5, 9459, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[3]", 1, 5, 9428, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QRad[4].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumRad.u[4]", 1, 5, 9460, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[4]", 1, 5, 9429, 1024)
DeclareAlias2("hydraulic.transfer.rad[1].QRad[5].y", "Value of Real output", \
-"hydraulic.transfer.rad[1].sumRad.u[5]", 1, 5, 9461, 1024)
+"hydraulic.transfer.rad[1].sumRad.u[5]", 1, 5, 9430, 1024)
DeclareVariable("hydraulic.transfer.res[1].allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6246, true, 0.0,0.0,0.0,0,515)
+ 6206, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.res[1].port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.res[1].port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareAlias2("hydraulic.transfer.res[1].port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 4)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 4)
DeclareAlias2("hydraulic.transfer.res[1].port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareVariable("hydraulic.transfer.res[1].port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9500, 0.0, 0.0,100000000.0,100000.0,0,520)
+ 9469, 0.0, 0.0,100000000.0,100000.0,0,520)
DeclareAlias2("hydraulic.transfer.res[1].port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9257, 4)
+ "hydraulic.distribution.portBui_out[1].h_outflow", 1, 5, 9226, 4)
DeclareVariable("hydraulic.transfer.res[1].m_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 6247, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 6207, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.res[1].m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 6248, 3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
+ 6208, 3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.res[1].show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6249, false, 0.0,0.0,0.0,0,1539)
+ 6209, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.transfer.res[1].m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 0)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 0)
DeclareVariable("hydraulic.transfer.res[1].dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9501, 0, 0.0,0.0,16087.958353380509,0,512)
+ 9470, 0, 0.0,0.0,16087.958353380509,0,512)
DeclareVariable("hydraulic.transfer.res[1]._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6250, 0, 0.0,0.0,0.0,0,2561)
+ 6210, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.res[1]._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6251, 0, 0.0,0.0,0.0,0,2561)
+ 6211, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.res[1].homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 6252, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 6212, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.res[1].from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 6253, false, 0.0,0.0,0.0,0,515)
+ 6213, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.res[1].dp_nominal", "Pressure drop at nominal mass flow rate [Pa|Pa]",\
- 6254, 16087.958353380509, 0.0,0.0,0.0,0,513)
+ 6214, 16087.958353380509, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.res[1].linearized", "= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6255, false, 0.0,0.0,0.0,0,515)
+ 6215, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.res[1].m_flow_turbulent", "Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]",\
- 6256, 0.09527999175517109, 0.0,1E+100,0.0,0,513)
+ 6216, 0.09527999175517109, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.transfer.res[1].sta_default.p", "Absolute pressure of medium [Pa|bar]",\
- 1298, 300000.0, 0.0,100000000.0,100000.0,0,2608)
+ 1304, 300000.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("hydraulic.transfer.res[1].sta_default.T", "Temperature of medium [K|degC]",\
- 1299, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1305, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareVariable("hydraulic.transfer.res[1].eta_default", "Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 6257, 0.001, 0.0,1E+100,0.0,0,2561)
+ 6217, 0.001, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.res[1].m_flow_nominal_pos", "Absolute value of nominal flow rate [kg/s]",\
- 6258, 0.317599972517237, 0.0,0.0,0.0,0,2561)
+ 6218, 0.317599972517237, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.res[1].dp_nominal_pos", "Absolute value of nominal pressure difference [Pa|Pa]",\
- 6259, 16087.958353380509, 0.0,0.0,0.0,0,2561)
+ 6219, 16087.958353380509, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.res[1].deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 6260, 0.3, 1E-06,1E+100,0.0,0,513)
+ 6220, 0.3, 1E-06,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.res[1].k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 6261, 0.002503975005737425, 0.0,0.0,0.0,0,513)
+ 6221, 0.002503975005737425, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.res[1].computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 6262,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 6222,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.res[1].coeff", "Precomputed coefficient to avoid division by parameter",\
- 6263, 0, 0.0,0.0,0.0,0,2561)
+ 6223, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.gain[1].k", "Gain value multiplied with input signal [1]",\
- 6264, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 6224, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.gain[1].u", "Input signal connector", \
-"hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+"hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareAlias2("hydraulic.transfer.gain[1].y", "Output signal connector", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 0)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 0)
DeclareVariable("hydraulic.transfer.parRad.nEle", "Number of elements used in the discretization [:#(type=Integer)]",\
- 6265, 5, 0.0,0.0,0.0,0,517)
+ 6225, 5, 0.0,0.0,0.0,0,517)
DeclareParameter("hydraulic.transfer.parRad.fraRad", "Fraction radiant heat transfer",\
- 1300, 0.35, 0.0,0.0,0.0,0,560)
-DeclareParameter("hydraulic.transfer.parRad.n", "Exponent for heat transfer", 1301,\
+ 1306, 0.35, 0.0,0.0,0.0,0,560)
+DeclareParameter("hydraulic.transfer.parRad.n", "Exponent for heat transfer", 1307,\
1.24, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.use_inpCon", \
-"= false to use an internal variable as input [:#(type=Boolean)]", 6266, false, \
+"= false to use an internal variable as input [:#(type=Boolean)]", 6226, false, \
0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.intKPICalHeaFlo.y", "Value of Real input [W]",\
"outputs.hydraulic.tra.QRad_flow.value", 1, 3, 26, 0)
DeclareParameter("hydraulic.transfer.intKPICalHeaFlo.integrator2.k", \
-"Integrator gain [1]", 1302, 1, 0.0,0.0,0.0,0,560)
+"Integrator gain [1]", 1308, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.integrator2.use_reset", \
-"= true, if reset port enabled [:#(type=Boolean)]", 6267, false, 0.0,0.0,0.0,0,1539)
+"= true, if reset port enabled [:#(type=Boolean)]", 6227, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.integrator2.use_set", \
"= true, if set port enabled and used as reinitialization value when reset [:#(type=Boolean)]",\
- 6268, false, 0.0,0.0,0.0,0,1539)
+ 6228, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.integrator2.initType", \
"Type of initialization (1: no init, 2: steady state, 3,4: initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 6269, 3, 1.0,4.0,0.0,0,517)
+ 6229, 3, 1.0,4.0,0.0,0,517)
DeclareParameter("hydraulic.transfer.intKPICalHeaFlo.integrator2.y_start", \
-"Initial or guess value of output (= state)", 1303, 1E-15, 0.0,0.0,0.0,0,560)
+"Initial or guess value of output (= state)", 1309, 1E-15, 0.0,0.0,0.0,0,560)
DeclareAlias2("hydraulic.transfer.intKPICalHeaFlo.integrator2.u", \
"Connector of Real input signal", "outputs.hydraulic.tra.QRad_flow.value", 1, 3,\
26, 0)
@@ -6592,8 +6619,8 @@ DeclareState("hydraulic.transfer.intKPICalHeaFlo.integrator2.y", \
DeclareDerivative("hydraulic.transfer.intKPICalHeaFlo.integrator2.der(y)", \
"der(Connector of Real output signal) [W]", 64, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.integrator2.local_reset", \
-"[:#(type=Boolean)]", 6270, false, 0.0,0.0,0.0,0,1539)
-DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.integrator2.local_set", "", 6271,\
+"[:#(type=Boolean)]", 6230, false, 0.0,0.0,0.0,0,1539)
+DeclareVariable("hydraulic.transfer.intKPICalHeaFlo.integrator2.local_set", "", 6231,\
0, 0.0,0.0,0.0,0,1537)
DeclareAlias2("hydraulic.transfer.intKPICalHeaFlo.internalU.u", "Connector of Real input signal",\
"outputs.hydraulic.tra.QRad_flow.value", 1, 3, 26, 0)
@@ -6606,1344 +6633,1344 @@ DeclareAlias2("hydraulic.transfer.intKPICalHeaFlo.KPI.integral", \
64, 4)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6272, 2, 1.0,4.0,0.0,0,517)
+ 6232, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6273, 2, 1.0,4.0,0.0,0,517)
+ 6233, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6274, 2, 1.0,4.0,0.0,0,517)
+ 6234, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6275, 2, 1.0,4.0,0.0,0,517)
+ 6235, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].p_start", "Start value of pressure [Pa|bar]",\
- 6276, 300000, 0.0,100000000.0,100000.0,0,513)
+ 6236, 300000, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].T_start", "Start value of temperature [K|degC]",\
- 6277, 293.15, 1.0,10000.0,300.0,0,513)
+ 6237, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 6278, 0.0, 0.0,1.0,0.1,0,513)
+ 6238, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6279, 1, 1.0,1E+100,0.0,0,513)
+ 6239, 1, 1.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6280, false, 0.0,0.0,0.0,0,2563)
+ 6240, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6281, true, 0.0,0.0,0.0,0,515)
+ 6241, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.transfer.res[1].port_b.p", 1, 5, 9500, 4)
+ "hydraulic.transfer.res[1].port_b.p", 1, 5, 9469, 4)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 4)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 4)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 132)
+ "hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 132)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "hydraulic.distribution.bouPumBuf.p", 1, 5, 5781, 4)
+ "hydraulic.distribution.bouPumBuf.p", 1, 5, 5741, 4)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9502, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
+ 9471, 0.0, -10000000000.0,10000000000.0,83680.0,0,520)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6282, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6242, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6283, \
+"Volume flow rate at user-selected operating points [m3/s]", 6243, \
0.00031900807415656405, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6284, \
+"Volume flow rate at user-selected operating points [m3/s]", 6244, \
0.0006380161483131281, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6285, 19213.618833465865,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6245, 19213.618833465865,\
0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6286, 16854.05160830339,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6246, 16854.05160830339,\
0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6287, 7078.701675487424,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6247, 7078.701675487424,\
0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.V_flow_max", \
-"Volume flow rate on the curve when pressure rise is zero [m3/s]", 6288, \
+"Volume flow rate on the curve when pressure rise is zero [m3/s]", 6248, \
0.0008690219951161572, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 6289, 19213.618833465865, 0.0,0.0,0.0,0,513)
+ 6249, 19213.618833465865, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.etaHydMet", \
"Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 6290, 4, 1.0,4.0,0.0,0,517)
+ 6250, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.etaMotMet", \
"Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 6291, 4, 1.0,4.0,0.0,0,517)
+ 6251, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 6292, true, 0.0,0.0,0.0,0,515)
+ 6252, true, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 1304, 0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 1310, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1305, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1311, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency.V_flow[1]",\
- "Volumetric flow rate at user-selected operating points [m3/s]", 1306, 0, 0.0,\
+ "Volumetric flow rate at user-selected operating points [m3/s]", 1312, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1307, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1313, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 1308, 0, 0.0,1E+100,0.0,0,560)
+ "Part load ratio, y = PEle/PEle_nominal", 1314, 0, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 1309, 0.7, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 1315, 0.7, 0.0,1.0,0.0,\
0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 1310, 0, 0.0,1E+100,\
+"Volume flow rate at user-selected operating points [m3/s]", 1316, 0, 0.0,1E+100,\
0.0,0,560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.power.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 6293, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6253, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 6294, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 6254, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.peak.dp", "Pressure rise at peak efficiency [Pa|Pa]",\
- 6295, 0.0, 0.0,1E+100,0.0,0,513)
+ 6255, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.peak.eta", \
-"Peak efficiency [1]", 6296, 0.0, 0.0,1E+100,0.0,0,513)
+"Peak efficiency [1]", 6256, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 6297, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 6257, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 6298, 0.0, 0.0,1E+100,0.0,0,513)
+"Pressure rise at peak efficiency [Pa|Pa]", 6258, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.peak_internal.eta", \
-"Peak efficiency [1]", 6299, 0.0, 0.0,1E+100,0.0,0,513)
+"Peak efficiency [1]", 6259, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1311, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1317, \
true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.WMot_nominal", \
-"Rated motor power [W]", 6300, 0.0, 0.0,0.0,0.0,0,513)
+"Rated motor power [W]", 6260, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.etaMot_max", \
-"Maximum motor efficiency [1]", 1312, 0.7, 0.0,1.0,0.0,0,560)
+"Maximum motor efficiency [1]", 1318, 0.7, 0.0,1.0,0.0,0,560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 6301, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6261, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 6302, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6262, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 6303, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6263, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 6304, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6264, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 6305, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6265, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 6306, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6266, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 6307, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6267, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 6308, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6268, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 6309, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6269, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 6310, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6270, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 6311, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6271, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 6312, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6272, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 6313, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6273, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 6314, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6274, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 6315, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6275, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 6316, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6276, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 6317, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6277, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 6318, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6278, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 6319, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 6279, false, \
0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 1313, 1, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 1319, 1, 0.0,1E+100,0.0,\
0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 1314, 1, 0.0,1E+100,0.0,0,560)
+ 1320, 1, 0.0,1E+100,0.0,0,560)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].per.speeds[1]", \
"Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 1315, 1, 0.0,1E+100,0.0,0,560)
+ 1321, 1, 0.0,1E+100,0.0,0,560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 6320, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 6280, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].inputType", "Control input type [:#(type=IBPSA.Fluid.Types.InputType)]",\
- 6321, 3, 1.0,3.0,0.0,0,517)
+ 6281, 3, 1.0,3.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].constInput", "Constant input set point [kg/s]",\
- 6322, 0.317599972517237, 0.0,0.0,0.0,0,513)
+ 6282, 0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].stageInputs[1]", \
-"Vector of input set points corresponding to stages [kg/s]", 6323, \
+"Vector of input set points corresponding to stages [kg/s]", 6283, \
0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 6324, true, 0.0,0.0,0.0,0,515)
+ 6284, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].addPowerToMedium", \
"Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]",\
- 6325, false, 0.0,0.0,0.0,0,515)
+ 6285, false, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].nominalValuesDefineDefaultPressureCurve",\
"Set to true to avoid warning if m_flow_nominal and dp_nominal are used to construct the default pressure curve [:#(type=Boolean)]",\
- 6326, true, 0.0,0.0,0.0,0,515)
+ 6286, true, 0.0,0.0,0.0,0,515)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].tau", "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]",\
- 6327, 0.0, 0.0,0.0,0.0,0,513)
+ 6287, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].use_riseTime", \
-"Set to true to continuously change motor speed [:#(type=Boolean)]", 6328, false,\
+"Set to true to continuously change motor speed [:#(type=Boolean)]", 6288, false,\
0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].riseTime", "Time needed to change motor speed between zero and full speed [s]",\
- 1316, 30, 0.0,0.0,0.0,0,560)
+ 1322, 30, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 6329, 4, 1.0,4.0,0.0,0,517)
+ 6289, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].y_actual", "Actual normalised fan or pump speed that is used for computations [1]",\
- 9503, 1.0, 0.0,0.0,0.0,0,576)
+ 9472, 1.0, 0.0,0.0,0.0,0,576)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].P", "Electrical power consumed [W]",\
- 9504, 0.0, 0.0,0.0,0.0,0,512)
+ 9473, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].heatPort.T", "Port temperature [K|degC]",\
- 9505, 300.0, 1.0,10000.0,300.0,0,520)
+ 9474, 300.0, 1.0,10000.0,300.0,0,520)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6330,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6290,\
0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].VMachine_flow", \
-"Volume flow rate [m3/s]", 9506, 0, 0.0,0.0,0.0,0,512)
+"Volume flow rate [m3/s]", 9475, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].dpMachine", "Pressure difference [Pa|Pa]",\
- 9507, 0.0, 0.0,0.0,0.0,0,512)
+ 9476, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eta", "Global efficiency [1]",\
- 9508, 0.49, 0.0,0.0,0.0,0,512)
+ 9477, 0.49, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].etaHyd", "Hydraulic efficiency [1]",\
- 9509, 0.7, 0.0,1E+100,0.0,0,512)
+ 9478, 0.7, 0.0,1E+100,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].etaMot", "Motor efficiency [1]",\
- 9510, 0.7, 0.0,0.0,0.0,0,512)
+ 9479, 0.7, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6331, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6291, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6332, false, 0.0,0.0,0.0,0,1539)
+ 6292, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 0)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 0)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9511, 0, 0.0,0.0,0.0,0,512)
+ 9480, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1]._m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6333, 0.317599972517237, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6293, 0.317599972517237, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1]._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6334, 0, 0.0,0.0,0.0,0,2561)
+ 6294, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1]._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6335, 0, 0.0,0.0,0.0,0,2561)
+ 6295, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1]._VMachine_flow", \
"Start value for VMachine_flow, used to avoid a warning if not specified [m3/s]",\
- 6336, 0, 0.0,0.0,0.0,0,2561)
+ 6296, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 6337, 2, 1.0,3.0,0.0,0,2565)
+ 6297, 2, 1.0,3.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].speedIsInput", \
"Parameter that is true if speed is the controlled variables [:#(type=Boolean)]",\
- 6338, false, 0.0,0.0,0.0,0,2563)
+ 6298, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 6339, 3, 0.0,0.0,0.0,0,2565)
+ 6299, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 6340, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("hydraulic.transfer.pumFixMFlo[1].V_flow_max", "[m3/s]", 6341, \
+ 6300, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("hydraulic.transfer.pumFixMFlo[1].V_flow_max", "[m3/s]", 6301, \
0.0008690219951161572, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].rho_default", "Default medium density [kg/m3|g/cm3]",\
- 6342, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6302, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].sta_start.p", "Absolute pressure of medium [Pa|bar]",\
- 6343, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 6303, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].sta_start.T", "Temperature of medium [K|degC]",\
- 6344, 293.15, 1.0,10000.0,300.0,0,2561)
+ 6304, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].h_outflow_start", \
-"Start value for outflowing enthalpy [J/kg]", 6345, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for outflowing enthalpy [J/kg]", 6305, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].inputSwitch.u", "Connector of Real input signal",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1024)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].inputSwitch.y", "Connector of Real output signal",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1024)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6346, 2, 1.0,4.0,0.0,0,2565)
+ 6306, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6347, 2, 1.0,4.0,0.0,0,2565)
+ 6307, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6348, 2, 1.0,4.0,0.0,0,2565)
+ 6308, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6349, 2, 1.0,4.0,0.0,0,2565)
+ 6309, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.p_start", "Start value of pressure [Pa|bar]",\
- 6350, 300000, 0.0,100000000.0,100000.0,0,2561)
+ 6310, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.T_start", "Start value of temperature [K|degC]",\
- 6351, 293.15, 1.0,10000.0,300.0,0,2561)
+ 6311, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6352, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6312, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6353, 1, 1.0,1E+100,0.0,0,2561)
+ 6313, 1, 1.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6354, false, 0.0,0.0,0.0,0,2563)
+ 6314, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6355, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6315, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 6356, true, 0.0,0.0,0.0,0,2563)
+ 6316, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6357, true, 0.0,0.0,0.0,0,2563)
+ 6317, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6358, 0.317599972517237, 0.0,1E+100,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6318, 0.317599972517237, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 6359, 2, 0.0,0.0,0.0,0,2565)
+ 6319, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6360, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6320, \
3.17599972517237E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 6361, true, 0.0,0.0,0.0,0,2563)
-DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.V", "Volume [m3]", 6362, \
+ 6321, true, 0.0,0.0,0.0,0,2563)
+DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.V", "Volume [m3]", 6322, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1028)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1028)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.T", "Temperature of the fluid [K|degC]",\
- "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5, 9505, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5, 9474, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.U", "Internal energy of the component [J]",\
"hydraulic.transfer.pumFixMFlo[1].vol.dynBal.U", 1, 1, 65, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.p", "Pressure of the fluid [Pa|bar]",\
- "hydraulic.transfer.res[1].port_b.p", 1, 5, 9500, 1024)
+ "hydraulic.transfer.res[1].port_b.p", 1, 5, 9469, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.m", "Mass of the component [kg]",\
- "hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m", 1, 5, 6399, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m", 1, 5, 6359, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 6363, 995.586, \
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 6323, 995.586, \
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6364, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6324, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.state_default.T", \
-"Temperature of medium [K|degC]", 6365, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6325, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6366, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6326, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 6367, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 6327, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.state_start.T", \
-"Temperature of medium [K|degC]", 6368, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6328, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 6369, false, 0.0,0.0,0.0,0,2563)
+ 6329, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1024)
+"hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.preTem.port.T", \
"Port temperature [K|degC]", "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5,\
- 9505, 1028)
+ 9474, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.preTem.port.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6370,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6330,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.preTem.T", "[K]", \
-"hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5, 9505, 1024)
+"hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5, 9474, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.portT.y", "Value of Real output",\
- "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5, 9505, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5, 9474, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.heaFloSen.Q_flow", \
-"Heat flow from port_a to port_b as output signal [W]", 6371, 0.0, 0.0,0.0,0.0,0,2561)
+"Heat flow from port_a to port_b as output signal [W]", 6331, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.heaFloSen.port_a.T", \
"Port temperature [K|degC]", "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5,\
- 9505, 1028)
+ 9474, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.heaFloSen.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6372,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6332,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.heaFloSen.port_b.T", \
"Port temperature [K|degC]", "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5,\
- 9505, 1028)
+ 9474, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.heaFloSen.port_b.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6373,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6333,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6374,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6334,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.heatPort.T", \
"Port temperature [K|degC]", "hydraulic.transfer.pumFixMFlo[1].heatPort.T", 1, 5,\
- 9505, 1028)
+ 9474, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6375,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6335,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.tau", "Time constant at nominal flow [s]",\
- 6376, 0.0, 0.0,0.0,0.0,0,2561)
+ 6336, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.V_nominal", \
-"Volume of delay element [m3]", 6377, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume of delay element [m3]", 6337, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6378, 2, 1.0,4.0,0.0,0,2565)
+ 6338, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6379, 2, 1.0,4.0,0.0,0,2565)
+ 6339, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6380, 2, 1.0,4.0,0.0,0,2565)
+ 6340, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6381, 2, 1.0,4.0,0.0,0,2565)
+ 6341, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 6382, 300000, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 6342, 300000, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 6383, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 6343, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6384, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6344, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 6385, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 6345, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6386, false, 0.0,0.0,0.0,0,2563)
+ 6346, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6387, \
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6347, \
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 6388, true, 0.0,0.0,0.0,0,2563)
+ 6348, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 6389, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 6349, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6390, false, 0.0,0.0,0.0,0,2563)
+ 6350, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6391,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6351,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.Q_flow", \
-"Sensible plus latent heat flow rate transferred into the medium [W]", 6392, 0.0,\
+"Sensible plus latent heat flow rate transferred into the medium [W]", 6352, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "hydraulic.transfer.portTra_in[1].h_outflow", 1,\
- 5, 9435, 1024)
+ 5, 9404, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.UOut", \
"Internal energy of the component [J]", "hydraulic.transfer.pumFixMFlo[1].vol.dynBal.U", 1,\
1, 65, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.mOut", \
"Mass of the component [kg]", "hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m", 1,\
- 5, 6399, 1024)
+ 5, 6359, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1028)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1028)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 6393, false, 0.0,0.0,0.0,0,2563)
+ 6353, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 6394, true, 0.0,0.0,0.0,0,2563)
+ 6354, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 6395, 995.586, 0.0,1E+100,0.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 6355, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9512, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9481, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1024)
+ 5, 9469, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "hydraulic.transfer.portTra_in[1].h_outflow", 1,\
- 5, 9435, 1024)
+ 5, 9404, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.u", \
"Specific internal energy of medium [J/kg]", "hydraulic.transfer.portTra_in[1].h_outflow", 1,\
- 5, 9435, 1024)
+ 5, 9404, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6396, 1, 0.0,1.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [1]", 6356, 1, 0.0,1.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 6397, 0, 0.0,0.0,0.0,0,2561)
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 6357, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 6398, 0.018015268, 0.0,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 6358, 0.018015268, 0.0,\
1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1024)
+ 5, 9469, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T", 1,\
- 5, 9512, 1024)
+ 5, 9481, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9513, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9482, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 9514, 0.0, 0.0,0.0,0.0,0,2560)
+"Absolute pressure of medium in [bar] [bar]", 9483, 0.0, 0.0,0.0,0.0,0,2560)
DeclareState("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.U", "Internal energy of fluid [J]",\
65, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 65, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.m", \
-"Mass of fluid [kg]", 6399, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 6359, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 6400, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 6360, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 6401, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 6361, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.Hb_flow", \
"Enthalpy flow across boundaries or energy source/sink [W]", "hydraulic.transfer.pumFixMFlo[1].vol.dynBal.der(U)", 1,\
6, 65, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.fluidVolume", \
-"Volume [m3]", 6402, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 6362, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 6403, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 6363, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports_H_flow[1]", \
-"[W]", 9515, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9484, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.ports_H_flow[2]", \
-"[W]", 9516, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9485, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6404, 4184, 0.0,0.0,\
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6364, 4184, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6405, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6365, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 6406, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 6366, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6407, 300000.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6367, 300000.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 6408, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6368, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6409, 995.586, 0.0,1E+100,\
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6369, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 6410, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 6370, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 6411, false, 0.0,0.0,0.0,0,2563)
+ 6371, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].vol.dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 6412, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 6372, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6413, true, 0.0,0.0,0.0,0,2563)
+ 6373, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1028)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1028)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1028)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].preSou.dp_start", \
-"Guess value of dp = port_a.p - port_b.p [Pa|Pa]", 1317, 0, 0.0,0.0,0.0,0,2608)
+"Guess value of dp = port_a.p - port_b.p [Pa|Pa]", 1323, 0, 0.0,0.0,0.0,0,2608)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.m_flow_start", \
-"Guess value of m_flow = port_a.m_flow [kg/s]", 6414, 0.317599972517237, \
+"Guess value of m_flow = port_a.m_flow [kg/s]", 6374, 0.317599972517237, \
-100000.0,100000.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6415, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6375, \
3.17599972517237E-05, -100000.0,100000.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.show_T", \
-"= true, if temperatures at port_a and port_b are computed [:#(type=Boolean)]", 6416,\
+"= true, if temperatures at port_a and port_b are computed [:#(type=Boolean)]", 6376,\
false, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.show_V_flow", \
-"= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]", 6417,\
+"= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]", 6377,\
true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.m_flow", "Mass flow rate in design flow direction [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1024)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.dp", "Pressure difference between port_a and port_b (= port_a.p - port_b.p) [Pa|Pa]",\
- "hydraulic.transfer.pumFixMFlo[1].dpMachine", -1, 5, 9507, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].dpMachine", -1, 5, 9476, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.V_flow", \
"Volume flow rate at inflowing port (positive when flow from port_a to port_b) [m3/s]",\
- 9517, 0.0, 0.0,0.0,0.0,0,2560)
+ 9486, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.control_m_flow", \
"if true, then the mass flow rate is equal to the value of m_flow_in [:#(type=Boolean)]",\
- 6418, true, 0.0,0.0,0.0,0,2563)
+ 6378, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.control_dp", \
-"if true, then the head is equal to the value of dp_in [:#(type=Boolean)]", 6419,\
+"if true, then the head is equal to the value of dp_in [:#(type=Boolean)]", 6379,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.m_flow_in", \
"Prescribed mass flow rate [kg/s]", "hydraulic.distribution.portBui_out[1].m_flow", -1,\
- 5, 9256, 1024)
+ 5, 9225, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].preSou.m_flow_internal", \
"Needed to connect to conditional connector [kg/s]", "hydraulic.distribution.portBui_out[1].m_flow", -1,\
- 5, 9256, 1024)
+ 5, 9225, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].preSou.dp_internal", \
-"Needed to connect to conditional connector [Pa]", 6420, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [Pa]", 6380, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].rho_inlet.y", "Value of Real output",\
- 6421, 995.586, 0.0,0.0,0.0,0,2561)
+ 6381, 995.586, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senMasFlo.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6422, true, 0.0,0.0,0.0,0,2563)
+ 6382, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9440, 1028)
+ "hydraulic.transfer.rad[1].port_a.h_outflow", 1, 5, 9409, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9256, 1156)
+"hydraulic.distribution.portBui_out[1].m_flow", 1, 5, 9225, 1156)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9435, 1028)
+ "hydraulic.transfer.portTra_in[1].h_outflow", 1, 5, 9404, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senMasFlo.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 6423, 0,\
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 6383, 0,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senMasFlo.m_flow_small", \
"For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 6424, 0, 0.0,1E+100,0.0,0,2561)
+ 6384, 0, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senMasFlo.m_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "hydraulic.distribution.portBui_out[1].m_flow", -1,\
- 5, 9256, 1024)
+ 5, 9225, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senRelPre.port_a.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 6425, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 6385, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senRelPre.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.distribution.bouPumBuf.p", 1,\
- 5, 5781, 1028)
+ 5, 5741, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senRelPre.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 6426, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 6386, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senRelPre.port_b.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 6427, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 6387, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].senRelPre.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "hydraulic.transfer.res[1].port_b.p", 1,\
- 5, 9500, 1028)
+ 5, 9469, 1028)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senRelPre.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 6428, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 6388, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].senRelPre.p_rel", \
-"Relative pressure of port_a minus port_b [Pa|Pa]", 9518, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative pressure of port_a minus port_b [Pa|Pa]", 9487, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 6429, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 6389, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6430, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6390, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6431, \
+"Volume flow rate at user-selected operating points [m3/s]", 6391, \
0.00031900807415656405, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6432, \
+"Volume flow rate at user-selected operating points [m3/s]", 6392, \
0.0006380161483131281, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6433, 19213.618833465865,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6393, 19213.618833465865,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6434, 16854.05160830339,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6394, 16854.05160830339,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6435, 7078.701675487424,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6395, 7078.701675487424,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.V_flow_max", \
-"Volume flow rate on the curve when pressure rise is zero [m3/s]", 6436, \
+"Volume flow rate on the curve when pressure rise is zero [m3/s]", 6396, \
0.0008690219951161572, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.dpMax", \
-"Pressure rise on the curve when flow rate is zero [Pa|Pa]", 6437, \
+"Pressure rise on the curve when flow rate is zero [Pa|Pa]", 6397, \
19213.618833465865, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.etaHydMet", \
"Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 6438, 4, 1.0,4.0,0.0,0,2565)
+ 6398, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.etaMotMet", \
"Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 6439, 4, 1.0,4.0,0.0,0,2565)
+ 6399, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 6440, true, 0.0,0.0,0.0,0,2563)
+ 6400, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.efficiency.V_flow[1]",\
- "Volumetric flow rate at user-selected operating points [m3/s]", 6441, 0.0, 0.0,\
+ "Volumetric flow rate at user-selected operating points [m3/s]", 6401, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 6442, 0.0, 0.0,1.0,0.0,0,2561)
+"Fan or pump efficiency at these flow rates [1]", 6402, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency.V_flow[1]",\
- "Volumetric flow rate at user-selected operating points [m3/s]", 6443, 0.0, 0.0,\
+ "Volumetric flow rate at user-selected operating points [m3/s]", 6403, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency.eta[1]",\
- "Fan or pump efficiency at these flow rates [1]", 6444, 0.0, 0.0,1.0,0.0,0,2561)
+ "Fan or pump efficiency at these flow rates [1]", 6404, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 6445, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6405, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 6446, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6406, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6447, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6407, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.power.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 6448, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6408, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 6449, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 6409, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.peak.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 6450, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 6410, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.peak.eta", \
-"Peak efficiency [1]", 6451, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 6411, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.peak_internal.V_flow",\
- "Volume flow rate at peak efficiency [m3/s]", 6452, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Volume flow rate at peak efficiency [m3/s]", 6412, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 6453, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 6413, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.peak_internal.eta", \
-"Peak efficiency [1]", 6454, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 6414, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 6455, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 6415, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.WMot_nominal", \
-"Rated motor power [W]", 6456, 0.0, 0.0,0.0,0.0,0,2561)
+"Rated motor power [W]", 6416, 0.0, 0.0,0.0,0.0,0,2561)
DeclareParameter("hydraulic.transfer.pumFixMFlo[1].eff.per.etaMot_max", \
-"Maximum motor efficiency [1]", 1318, 0.7, 0.0,1.0,0.0,0,2608)
+"Maximum motor efficiency [1]", 1324, 0.7, 0.0,1.0,0.0,0,2608)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 6457, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6417, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 6458, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6418, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 6459, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6419, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 6460, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6420, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 6461, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6421, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 6462, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6422, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 6463, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6423, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 6464, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6424, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 6465, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 6425, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 6466, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6426, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 6467, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6427, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 6468, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6428, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 6469, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6429, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 6470, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6430, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 6471, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6431, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 6472, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6432, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 6473, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6433, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 6474, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6434, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 6475, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 6435, false, \
0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 6476, 0, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 6436, 0, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 6477, 0, 0.0,1E+100,0.0,0,2561)
+ 6437, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.speeds[1]", \
"Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 6478, 0, 0.0,1E+100,0.0,0,2561)
+ 6438, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 6479, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 6439, true,\
0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 6480, 2, 1.0,3.0,0.0,0,2565)
+ 6440, 2, 1.0,3.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 6481, true, 0.0,0.0,0.0,0,2563)
+ 6441, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.V_flow_nominal", \
-"Nominal volume flow rate, used for homotopy [m3/s]", 6482, 0.0006380161483131281,\
+"Nominal volume flow rate, used for homotopy [m3/s]", 6442, 0.0006380161483131281,\
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.rho_default", \
-"Fluid density at medium default state [kg/m3|g/cm3]", 6483, 995.586, 0.0,1E+100,\
+"Fluid density at medium default state [kg/m3|g/cm3]", 6443, 995.586, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.haveVMax", \
-"Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]", 6484,\
+"Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]", 6444,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.V_flow_max", \
-"Maximum volume flow rate, used for smoothing [m3/s]", 6485, 0.0008690219951161572,\
+"Maximum volume flow rate, used for smoothing [m3/s]", 6445, 0.0008690219951161572,\
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 6486, 3, 1.0,1E+100,0.0,0,2565)
+ 6446, 3, 1.0,1E+100,0.0,0,2565)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.y_out", "Mover speed (prescribed or computed) [1]",\
- "hydraulic.transfer.pumFixMFlo[1].y_actual", 1, 5, 9503, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].y_actual", 1, 5, 9472, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.m_flow", "Mass flow rate [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 1024)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.rho", "Medium density [kg/m3]",\
- 6487, 995.586, 0.0,1E+100,0.0,0,2561)
+ 6447, 995.586, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.V_flow", "Volume flow rate [m3/s]",\
- "hydraulic.transfer.pumFixMFlo[1].VMachine_flow", 1, 5, 9506, 1024)
-DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.WFlo", "Flow work [W]", 9519,\
+ "hydraulic.transfer.pumFixMFlo[1].VMachine_flow", 1, 5, 9475, 1024)
+DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.WFlo", "Flow work [W]", 9488,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.WHyd", "Hydraulic work (shaft work, brake horsepower) [W]",\
- 9520, 0.0, 0.0,0.0,0.0,0,2560)
+ 9489, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.PEle", "Electrical power consumed [W]",\
- "hydraulic.transfer.pumFixMFlo[1].P", 1, 5, 9504, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].P", 1, 5, 9473, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.eta", "Overall efficiency [1]",\
- "hydraulic.transfer.pumFixMFlo[1].eta", 1, 5, 9508, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].eta", 1, 5, 9477, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.etaHyd", "Hydraulic efficiency [1]",\
- "hydraulic.transfer.pumFixMFlo[1].etaHyd", 1, 5, 9509, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].etaHyd", 1, 5, 9478, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.etaMot", "Motor efficiency [1]",\
- "hydraulic.transfer.pumFixMFlo[1].etaMot", 1, 5, 9510, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].etaMot", 1, 5, 9479, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.r_N", "Ratio N_actual/N_nominal [1]",\
- "hydraulic.transfer.pumFixMFlo[1].y_actual", 1, 5, 9503, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].y_actual", 1, 5, 9472, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.r_V", "Ratio V_flow/V_flow_max [1]",\
- 9521, 0.00031900807415656405, 0.0,0.0,0.0,0,2560)
+ 9490, 0.00031900807415656405, 0.0,0.0,0.0,0,2560)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preSpe", "True if speed is a prescribed variable of this block [:#(type=Boolean)]",\
- 6488, false, 0.0,0.0,0.0,0,2563)
+ 6448, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.prePre", "True if pressure head is a prescribed variable of this block [:#(type=Boolean)]",\
- 6489, true, 0.0,0.0,0.0,0,2563)
+ 6449, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.etaDer[1]", \
"Coefficients for cubic spline of total or hydraulic efficiency vs. volume flow rate",\
- 6490, 0, 0.0,0.0,0.0,0,2561)
+ 6450, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer[1]", \
-"Coefficients for cubic spline of motor efficiency vs. volume flow rate", 6491, 0,\
+"Coefficients for cubic spline of motor efficiency vs. volume flow rate", 6451, 0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot[1]", \
-"Coefficients for cubic spline of motor efficiency vs. motor PLR", 6492, 0, \
+"Coefficients for cubic spline of motor efficiency vs. motor PLR", 6452, 0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[1]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6493, 0.0, 0.0,0.0,0.0,0,2561)
+ 6453, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[2]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6494, 0.0, 0.0,0.0,0.0,0,2561)
+ 6454, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[3]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6495, 0.0, 0.0,0.0,0.0,0,2561)
+ 6455, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[4]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6496, 0.0, 0.0,0.0,0.0,0,2561)
+ 6456, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[5]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6497, 0.0, 0.0,0.0,0.0,0,2561)
+ 6457, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[6]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6498, 0.0, 0.0,0.0,0.0,0,2561)
+ 6458, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[7]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6499, 0.0, 0.0,0.0,0.0,0,2561)
+ 6459, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[8]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6500, 0.0, 0.0,0.0,0.0,0,2561)
+ 6460, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.motDer_yMot_generic[9]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 6501, 0.0, 0.0,0.0,0.0,0,2561)
+ 6461, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.dpMax", "Maximum head [Pa|Pa]",\
- 6502, 19213.618833465865, 0.0,0.0,0.0,0,2561)
+ 6462, 19213.618833465865, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.delta", "Small value used to for regularization and to approximate an internal flow resistance of the fan",\
- 6503, 0.05, 0.0,0.0,0.0,0,2561)
+ 6463, 0.05, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.kRes", "Coefficient for internal pressure drop of the fan or pump [kg/(s.m4)]",\
- 6504, 5527.368392700377, 0.0,1E+100,0.0,0,2561)
+ 6464, 5527.368392700377, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.curve", "Flag, used to pick the right representation of the fan or pump's pressure curve [:#(type=Integer)]",\
- 6505, 2, 0.0,0.0,0.0,0,2565)
+ 6465, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.n", "Number of elements in each array [:#(type=Integer)]",\
- 6506, 3, 0.0,0.0,0.0,0,2565)
+ 6466, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6507, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6467, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6508, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6468, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6509, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6469, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6510, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6470, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6511, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6471, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur1.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6512, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6472, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.n", "Number of elements in each array [:#(type=Integer)]",\
- 6513, 4, 0.0,0.0,0.0,0,2565)
+ 6473, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6514, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6474, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6515, \
+"Volume flow rate at user-selected operating points [m3/s]", 6475, \
0.00031900807415656405, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6516, \
+"Volume flow rate at user-selected operating points [m3/s]", 6476, \
0.0006380161483131281, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6517, \
+"Volume flow rate at user-selected operating points [m3/s]", 6477, \
0.0008690219951161572, 0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6518, 19213.618833465865,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6478, 19213.618833465865,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6519, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6479, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6520, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6480, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur2.dp[4]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6521, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6481, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.n", "Number of elements in each array [:#(type=Integer)]",\
- 6522, 5, 0.0,0.0,0.0,0,2565)
+ 6482, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6523, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6483, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6524, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6484, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6525, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6485, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6526, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6486, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6527, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6487, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6528, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6488, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6529, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6489, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6530, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6490, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.dp[4]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6531, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6491, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.pCur3.dp[5]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6532, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6492, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer1[1]", \
-"Derivatives of flow rate vs. pressure at the support points", 6533, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6493, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer1[2]", \
-"Derivatives of flow rate vs. pressure at the support points", 6534, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6494, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer1[3]", \
-"Derivatives of flow rate vs. pressure at the support points", 6535, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6495, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer2[1]", \
-"Derivatives of flow rate vs. pressure at the support points", 6536, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6496, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer2[2]", \
-"Derivatives of flow rate vs. pressure at the support points", 6537, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6497, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer2[3]", \
-"Derivatives of flow rate vs. pressure at the support points", 6538, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6498, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer2[4]", \
-"Derivatives of flow rate vs. pressure at the support points", 6539, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6499, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer3[1]", \
-"Derivatives of flow rate vs. pressure at the support points", 6540, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6500, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer3[2]", \
-"Derivatives of flow rate vs. pressure at the support points", 6541, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6501, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer3[3]", \
-"Derivatives of flow rate vs. pressure at the support points", 6542, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6502, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer3[4]", \
-"Derivatives of flow rate vs. pressure at the support points", 6543, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6503, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.preDer3[5]", \
-"Derivatives of flow rate vs. pressure at the support points", 6544, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 6504, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powDer[1]", \
-"Coefficients for polynomial of power vs. flow rate", 6545, 0.0, 0.0,0.0,0.0,0,2561)
+"Coefficients for polynomial of power vs. flow rate", 6505, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[1]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6546, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6506, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[2]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6547, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6507, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[3]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6548, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6508, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[4]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6549, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6509, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[5]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6550, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6510, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[6]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6551, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6511, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[7]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6552, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6512, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[8]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6553, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6513, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[9]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6554, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6514, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[10]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6555, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6515, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.V_flow[11]",\
- "Volume flow rate at user-selected operating points [m3/s]", 6556, 0.0, 0.0,\
+ "Volume flow rate at user-selected operating points [m3/s]", 6516, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 6557, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6517, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[2]", \
-"Fan or pump electrical power at these flow rates [W]", 6558, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6518, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[3]", \
-"Fan or pump electrical power at these flow rates [W]", 6559, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6519, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[4]", \
-"Fan or pump electrical power at these flow rates [W]", 6560, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6520, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[5]", \
-"Fan or pump electrical power at these flow rates [W]", 6561, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6521, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[6]", \
-"Fan or pump electrical power at these flow rates [W]", 6562, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6522, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[7]", \
-"Fan or pump electrical power at these flow rates [W]", 6563, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6523, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[8]", \
-"Fan or pump electrical power at these flow rates [W]", 6564, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6524, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[9]", \
-"Fan or pump electrical power at these flow rates [W]", 6565, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6525, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 6566, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6526, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 6567, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6527, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[1]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6568, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6528, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[2]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6569, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6529, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[3]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6570, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6530, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[4]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6571, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6531, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[5]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6572, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6532, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[6]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6573, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6533, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[7]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6574, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6534, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[8]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6575, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6535, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[9]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6576, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6536, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[10]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6577, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6537, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu_internal.d[11]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 6578, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 6538, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6579, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6539, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6580, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6540, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6581, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6541, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6582, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6542, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6583, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6543, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6584, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6544, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6585, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6545, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6586, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6546, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6587, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6547, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6588, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6548, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6589, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6549, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 6590, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6550, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[2]", \
-"Fan or pump electrical power at these flow rates [W]", 6591, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6551, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[3]", \
-"Fan or pump electrical power at these flow rates [W]", 6592, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6552, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[4]", \
-"Fan or pump electrical power at these flow rates [W]", 6593, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6553, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[5]", \
-"Fan or pump electrical power at these flow rates [W]", 6594, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6554, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[6]", \
-"Fan or pump electrical power at these flow rates [W]", 6595, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6555, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[7]", \
-"Fan or pump electrical power at these flow rates [W]", 6596, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6556, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[8]", \
-"Fan or pump electrical power at these flow rates [W]", 6597, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6557, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[9]", \
-"Fan or pump electrical power at these flow rates [W]", 6598, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6558, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 6599, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6559, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEu.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 6600, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 6560, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[1]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6601, 0.0, 0.0,0.0,0.0,0,2561)
+ 6561, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[2]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6602, 0.0, 0.0,0.0,0.0,0,2561)
+ 6562, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[3]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6603, 0.0, 0.0,0.0,0.0,0,2561)
+ 6563, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[4]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6604, 0.0, 0.0,0.0,0.0,0,2561)
+ 6564, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[5]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6605, 0.0, 0.0,0.0,0.0,0,2561)
+ 6565, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[6]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6606, 0.0, 0.0,0.0,0.0,0,2561)
+ 6566, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[7]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6607, 0.0, 0.0,0.0,0.0,0,2561)
+ 6567, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[8]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6608, 0.0, 0.0,0.0,0.0,0,2561)
+ 6568, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[9]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6609, 0.0, 0.0,0.0,0.0,0,2561)
+ 6569, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[10]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6610, 0.0, 0.0,0.0,0.0,0,2561)
+ 6570, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.powEuDer[11]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 6611, 0.0, 0.0,0.0,0.0,0,2561)
+ 6571, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.haveMinimumDecrease", \
-"Flag used for reporting [:#(type=Boolean)]", 6612, true, 0.0,0.0,0.0,0,2563)
+"Flag used for reporting [:#(type=Boolean)]", 6572, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.haveDPMax", \
-"Flag, true if user specified data that contain dpMax [:#(type=Boolean)]", 6613,\
+"Flag, true if user specified data that contain dpMax [:#(type=Boolean)]", 6573,\
true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.dp_internal", \
"If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N",\
- "hydraulic.transfer.pumFixMFlo[1].senRelPre.p_rel", 1, 5, 9518, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].senRelPre.p_rel", 1, 5, 9487, 1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.eta_internal", \
-"Either eta or etaHyd [1]", "hydraulic.transfer.pumFixMFlo[1].etaHyd", 1, 5, 9509,\
+"Either eta or etaHyd [1]", "hydraulic.transfer.pumFixMFlo[1].etaHyd", 1, 5, 9478,\
1024)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.P_internal", \
-"Either PEle or WHyd [W]", "hydraulic.transfer.pumFixMFlo[1].eff.WHyd", 1, 5, 9520,\
+"Either PEle or WHyd [W]", "hydraulic.transfer.pumFixMFlo[1].eff.WHyd", 1, 5, 9489,\
1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.deltaP", "Small value for regularisation of power",\
- 6614, 0.0016697057372059882, 0.0,0.0,0.0,0,2561)
+ 6574, 0.0016697057372059882, 0.0,0.0,0.0,0,2561)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].eff.yMot", "Motor part load ratio",\
- 9522, 0.833, 0.0,1E+100,0.0,0,2560)
+ 9491, 0.833, 0.0,1E+100,0.0,0,2560)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].eff.dp_in", "Prescribed pressure increase [Pa]",\
- "hydraulic.transfer.pumFixMFlo[1].senRelPre.p_rel", 1, 5, 9518, 1024)
+ "hydraulic.transfer.pumFixMFlo[1].senRelPre.p_rel", 1, 5, 9487, 1024)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6615, 0.317599972517237, 1E-60,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 6575, 0.317599972517237, 1E-60,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].dp_nominal", "Nominal pressure raise, used for default pressure curve if not specified in record per [Pa|Pa]",\
- 6616, 16854.05160830339, 1E-60,1E+100,0.0,0,513)
+ 6576, 16854.05160830339, 1E-60,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].m_flow_start", \
-"Initial value of mass flow rate [kg/s]", 6617, 0.317599972517237, 0.0,1E+100,\
+"Initial value of mass flow rate [kg/s]", 6577, 0.317599972517237, 0.0,1E+100,\
0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].constantMassFlowRate", \
-"Constant pump mass flow rate, used when inputType=Constant [kg/s]", 6618, \
+"Constant pump mass flow rate, used when inputType=Constant [kg/s]", 6578, \
0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].massFlowRates[1]", \
-"Vector of mass flow rate set points, used when inputType=Stage [kg/s]", 6619, \
+"Vector of mass flow rate set points, used when inputType=Stage [kg/s]", 6579, \
0.317599972517237, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.pumFixMFlo[1].dpMax", "Maximum pressure allowed to operate the model, if exceeded, the simulation stops with an error [Pa|Pa]",\
- 6620, 38427.23766693173, 0.0,1E+100,0.0,0,513)
+ 6580, 38427.23766693173, 0.0,1E+100,0.0,0,513)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].m_flow_in", "Prescribed mass flow rate [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 0)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 0)
DeclareAlias2("hydraulic.transfer.pumFixMFlo[1].m_flow_actual", "Actual mass flow rate [kg/s]",\
- "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9256, 0)
+ "hydraulic.distribution.portBui_out[1].m_flow", -1, 5, 9225, 0)
DeclareVariable("hydraulic.transfer.parPum.addPowerToMedium", "Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]",\
- 6621, false, 0.0,0.0,0.0,0,515)
+ 6581, false, 0.0,0.0,0.0,0,515)
DeclareParameter("hydraulic.transfer.parPum.use_riseTime", "= true, if speed is filtered with a 2nd order CriticalDamping filter [:#(type=Boolean)]",\
- 1319, false, 0.0,0.0,0.0,0,562)
+ 1325, false, 0.0,0.0,0.0,0,562)
DeclareParameter("hydraulic.transfer.parPum.riseTimeInpFilter", "Rise time of the filter (time to reach 99.6 % of the speed) [s]",\
- 1320, 30, 0.0,0.0,0.0,0,560)
+ 1326, 30, 0.0,0.0,0.0,0,560)
DeclareParameter("hydraulic.transfer.parPum.tau", "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]",\
- 1321, 1, 0.0,0.0,0.0,0,560)
+ 1327, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.transfer.zeroLoad.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 6622, 0.0, 0.0,0.0,0.0,0,521)
+ 6582, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.transfer.zeroLoad.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 6623, 0.0, 0.0,0.0,0.0,0,521)
+ 6583, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("hydraulic.transfer.reaPasThrOpe[1].u", "Connector of Real input signal",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareAlias2("hydraulic.transfer.reaPasThrOpe[1].y", "Connector of Real output signal",\
- "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9219, 0)
+ "hydraulic.control.sigBusTra.opening[1]", 1, 5, 9188, 0)
DeclareVariable("hydraulic.transfer.parTra.nZones", "Numer of zones heated [:#(type=Integer)]",\
- 6624, 1, 0.0,0.0,0.0,0,517)
+ 6584, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.parTra.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 6625, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 6585, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.AFloor", "Net floor area of one floor [m2]",\
- 6626, 133.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("hydraulic.transfer.parTra.heiBui", "Building height [m]", 6627,\
+ 6586, 133.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("hydraulic.transfer.parTra.heiBui", "Building height [m]", 6587,\
6.4, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.transfer.parTra.traType", "Heat transfer system type [:#(type=BESMod.Systems.Hydraulical.Transfer.Types.HeatTransferSystemType)]",\
- 1322, 2, 1.0,5.0,0.0,0,564)
+ 1328, 2, 1.0,5.0,0.0,0,564)
DeclareVariable("hydraulic.transfer.parTra.vol", "Volume of water in whole heat distribution and transfer system [m3]",\
- 6628, 0.0, 0.0,0.0,0.0,0,513)
+ 6588, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.pressureDropPerLen", "Pressure drop per m that is allowed maximal within whole heat distribution system (typical value: 100 Pa/m). TODO: Calculate based on Figure 2.6.3-12 in Taschenbuch f\303\274r HEIZUNG + KLIMATECHNIK 2019 [Pa/m]",\
- 6629, 100, 1E-15,1E+100,0.0,0,513)
+ 6589, 100, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.typeOfHydRes", "Type of the hydraulic restistances to be considered for parameter zf [:#(type=BESMod.Systems.Hydraulical.Transfer.Types.HydraulicResistanceType)]",\
- 6630, 5, 1.0,5.0,0.0,0,517)
+ 6590, 5, 1.0,5.0,0.0,0,517)
DeclareVariable("hydraulic.transfer.parTra.zf", "Factor for additional pressure resistances in piping network such as bows. Acc. to [Babusch, 2009] [1]",\
- 6631, 2.6, 1.0,10.0,0.0,0,513)
+ 6591, 2.6, 1.0,10.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.dpHeaDistr_nominal", "Pressure difference of heat distribuition system including piping plus pressure resistances but excluding UFH piping / heating circuit distributor. Actually L * W * H (factor 2 for flow and return). [Pa|bar]",\
- 6632, 15321.865098457627, 1E-15,1E+100,0.0,0,513)
+ 6592, 15321.865098457627, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.perPreLosRad", "Percentage of pressure loss in radiator relative to overall pressure loss",\
- 6633, 0.05, 1E-15,1E+100,0.0,0,513)
+ 6593, 0.05, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.dpRad_nominal[1]", "Pressure drop at nominal mass flow rate in radiator [Pa|bar]",\
- 6634, 766.0932549228814, 1E-15,1E+100,0.0,0,513)
+ 6594, 766.0932549228814, 1E-15,1E+100,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.valveAutho[1]", "Assumed valve authority (typical value: 0.5) [1]",\
- 6635, 0.5, 0.2,0.8,0.0,0,513)
+ 6595, 0.5, 0.2,0.8,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.dpHeaSysValve_nominal[1]", \
"Nominal pressure drop over valve when fully opened at m_flowValve_nominal [Pa|bar]",\
- 6636, 766.0932549228814, 1E-15,1E+100,0.0,0,513)
+ 6596, 766.0932549228814, 1E-15,1E+100,0.0,0,513)
DeclareParameter("hydraulic.transfer.parTra.use_hydrBalAutom", "Use automatic hydraluic balancing to set dpHeaSysPreValve_nominal [:#(type=Boolean)]",\
- 1323, true, 0.0,0.0,0.0,0,562)
+ 1329, true, 0.0,0.0,0.0,0,562)
DeclareVariable("hydraulic.transfer.parTra.dpHeaSysPreValve_nominal[1]", \
"Pressure difference of each branch in heat distribution system as pre set value for valves (hydraulic balance) [Pa|bar]",\
- 6637, 0.0, 0.0,0.0,0.0,0,513)
+ 6597, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("hydraulic.transfer.parTra.leakageOpening", "may be useful for simulation stability. Always check the influence it has on your results",\
- 1324, 0.0001, 0.0,0.0,0.0,0,560)
+ 1330, 0.0001, 0.0,0.0,0.0,0,560)
DeclareVariable("hydraulic.transfer.parTra.mRad_flow_nominal[1]", \
-"Nominal mass flow rate in each radiator [kg/s]", 6638, 0.317599972517237, \
+"Nominal mass flow rate in each radiator [kg/s]", 6598, 0.317599972517237, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.mHeaCir_flow_nominal", \
-"Total mass flow rate of heating ciruit [kg/s]", 6639, 0.317599972517237, \
+"Total mass flow rate of heating ciruit [kg/s]", 6599, 0.317599972517237, \
0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.dp_nominal[1]", "Pressure difference array of all parallel radiators [Pa|bar]",\
- 6640, 16854.05160830339, 0.0,0.0,0.0,0,513)
+ 6600, 16854.05160830339, 0.0,0.0,0.0,0,513)
DeclareVariable("hydraulic.transfer.parTra.dpPumpHeaCir_nominal", \
"Nominal pressure difference the pump has to achieve for the single heating circuit with multiple parallel radiators [Pa|bar]",\
- 6641, 16854.051608303387, 0.0,0.0,0.0,0,513)
+ 6601, 16854.051608303387, 0.0,0.0,0.0,0,513)
DeclareAlias2("hydraulic.transfer.senTSup[1].y", "Value of Real output [K|degC]",\
- "hydraulic.outBusHyd.tra.TSup[1]", 1, 5, 9524, 0)
+ "hydraulic.outBusHyd.tra.TSup[1]", 1, 5, 9493, 0)
DeclareAlias2("hydraulic.transfer.senTRet[1].y", "Value of Real output [K|degC]",\
- "hydraulic.outBusHyd.tra.TRet[1]", 1, 5, 9525, 0)
+ "hydraulic.outBusHyd.tra.TRet[1]", 1, 5, 9494, 0)
DeclareAlias2("hydraulic.weaBus.TDryBul", "Dry bulb temperature [K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 4)
+"building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("hydraulic.weaBus.TWetBul", "Wet bulb temperature [K|degC]", \
-"building.weaBus.TWetBul", 1, 5, 8488, 4)
+"building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("hydraulic.weaBus.TDewPoi", "Dew point temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("hydraulic.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("hydraulic.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("hydraulic.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("hydraulic.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("hydraulic.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("hydraulic.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("hydraulic.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("hydraulic.weaBus.winSpe", "Wind speed [m/s]", "building.weaBus.winSpe", 1,\
- 5, 8497, 4)
+ 5, 8460, 4)
DeclareAlias2("hydraulic.weaBus.ceiHei", "Cloud cover ceiling height [m]", \
-"building.weaBus.ceiHei", 1, 5, 8498, 4)
+"building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("hydraulic.weaBus.nOpa", "Opaque sky cover [1]", "building.weaBus.nOpa", 1,\
- 5, 8499, 4)
+ 5, 8462, 4)
DeclareAlias2("hydraulic.weaBus.nTot", "Total sky cover [1]", "building.weaBus.nTot", 1,\
- 5, 8500, 4)
-DeclareVariable("hydraulic.weaBus.lat", "Latitude of the location [rad|deg]", 6642,\
+ 5, 8463, 4)
+DeclareVariable("hydraulic.weaBus.lat", "Latitude of the location [rad|deg]", 6602,\
0.9116922633158369, 0.0,0.0,0.0,0,521)
-DeclareVariable("hydraulic.weaBus.lon", "Longitude of the location [rad|deg]", 6643,\
+DeclareVariable("hydraulic.weaBus.lon", "Longitude of the location [rad|deg]", 6603,\
0.22757907099030072, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.weaBus.alt", "Location altitude above sea level [m]",\
- 6644, 0.0, 0.0,1E+100,0.0,0,521)
+ 6604, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("hydraulic.weaBus.pAtm", "Atmospheric pressure [Pa|bar]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("hydraulic.weaBus.solAlt", "Solar altitude angle [rad|deg]", \
-"building.weaBus.solAlt", 1, 5, 8501, 4)
+"building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("hydraulic.weaBus.solDec", "Solar declination angle [rad|deg]", \
-"building.weaBus.solDec", 1, 5, 8502, 4)
+"building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("hydraulic.weaBus.solHouAng", "Solar hour angle [rad|deg]", \
-"building.weaBus.solHouAng", 1, 5, 8503, 4)
+"building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("hydraulic.weaBus.solZen", "Solar zenith angle [rad|deg]", \
-"building.weaBus.solZen", 1, 5, 8504, 4)
+"building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("hydraulic.weaBus.solTim", "Solar time [s]", "building.weaBus.solTim", 1,\
- 5, 8505, 4)
+ 5, 8468, 4)
DeclareAlias2("hydraulic.weaBus.cloTim", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 4)
+ 5, 8469, 4)
DeclareAlias2("hydraulic.outBusHyd.dis.QDHWLos_flow.value", "Current value [W]",\
"outputs.hydraulic.dis.QDHWLos_flow.value", 1, 3, 8, 4)
DeclareAlias2("hydraulic.outBusHyd.dis.QDHWLos_flow.integral", "Integral of value [J]",\
@@ -7961,7 +7988,7 @@ DeclareAlias2("hydraulic.outBusHyd.gen.PEleHeaPum.value", "Current value [W]", \
DeclareAlias2("hydraulic.outBusHyd.gen.PEleHeaPum.integral", "Integral of value [J]",\
"hydraulic.generation.KPIWel.integrator2.y", 1, 1, 24, 4)
DeclareAlias2("hydraulic.outBusHyd.gen.heaPum.numSwi", "Number of switches [:#(type=Integer)]",\
- "hydraulic.generation.KPIHeaPum.triggeredAdd.y", 1, 5, 8413, 70)
+ "hydraulic.generation.KPIHeaPum.triggeredAdd.y", 1, 5, 8376, 70)
DeclareAlias2("hydraulic.outBusHyd.gen.heaPum.sinOnTim", "Time the device is on in a single on-cycle [s|h]",\
"hydraulic.generation.KPIHeaPum.integrator3.y", 1, 1, 28, 4)
DeclareAlias2("hydraulic.outBusHyd.gen.heaPum.totOnTim", "Total time the device is on [s|h]",\
@@ -7975,7 +8002,7 @@ DeclareAlias2("hydraulic.outBusHyd.gen.PEleEleHea.value", "Current value [W]", \
DeclareAlias2("hydraulic.outBusHyd.gen.PEleEleHea.integral", "Integral of value [J]",\
"hydraulic.generation.KPIPEleEleHea.integrator2.y", 1, 1, 34, 4)
DeclareAlias2("hydraulic.outBusHyd.gen.eleHea.numSwi", "Number of switches [:#(type=Integer)]",\
- "hydraulic.generation.KPIEleHea.triggeredAdd.y", 1, 5, 8420, 70)
+ "hydraulic.generation.KPIEleHea.triggeredAdd.y", 1, 5, 8383, 70)
DeclareAlias2("hydraulic.outBusHyd.gen.eleHea.sinOnTim", "Time the device is on in a single on-cycle [s|h]",\
"hydraulic.generation.KPIEleHea.integrator3.y", 1, 1, 31, 4)
DeclareAlias2("hydraulic.outBusHyd.gen.eleHea.totOnTim", "Total time the device is on [s|h]",\
@@ -7985,234 +8012,234 @@ DeclareAlias2("hydraulic.outBusHyd.tra.QRad_flow.value", "Current value [W]", \
DeclareAlias2("hydraulic.outBusHyd.tra.QRad_flow.integral", "Integral of value [J]",\
"hydraulic.transfer.intKPICalHeaFlo.integrator2.y", 1, 1, 64, 4)
DeclareVariable("hydraulic.outBusHyd.tra.opening[1]", "Connector of Real output signal",\
- 9523, 0.0, 0.0,0.0,0.0,0,520)
+ 9492, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.outBusHyd.tra.TSup[1]", "Value of Real output [K|degC]",\
- 9524, 0.0, 0.0,0.0,0.0,0,520)
+ 9493, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("hydraulic.outBusHyd.tra.TRet[1]", "Value of Real output [K|degC]",\
- 9525, 0.0, 0.0,0.0,0.0,0,520)
+ 9494, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("hydraulic.heatPortCon[1].T", "Port temperature [K|degC]", \
-"building.buiMeaBus.TZoneMea[1]", 1, 5, 8507, 4)
+"building.buiMeaBus.TZoneMea[1]", 1, 5, 8470, 4)
DeclareAlias2("hydraulic.heatPortCon[1].Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortCon[1].Q_flow", -1, 5, 8476, 132)
+ "building.heatPortCon[1].Q_flow", -1, 5, 8439, 132)
DeclareAlias2("hydraulic.heatPortRad[1].T", "Port temperature [K|degC]", \
-"building.heatPortRad[1].T", 1, 5, 8477, 4)
+"building.heatPortRad[1].T", 1, 5, 8440, 4)
DeclareAlias2("hydraulic.heatPortRad[1].Q_flow", "Heat flow rate (positive if flowing from outside into the component) [W]",\
- "building.heatPortRad[1].Q_flow", -1, 5, 8478, 132)
+ "building.heatPortRad[1].Q_flow", -1, 5, 8441, 132)
DeclareAlias2("hydraulic.portDHW_out.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", -1, 5, 9021, 132)
+ "DHW.port_a.m_flow", -1, 5, 8984, 132)
DeclareAlias2("hydraulic.portDHW_out.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareVariable("hydraulic.portDHW_out.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9526, 209200.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9495, 209200.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.portDHW_in.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "DHW.port_a.m_flow", 1, 5, 9021, 132)
+ "DHW.port_a.m_flow", 1, 5, 8984, 132)
DeclareAlias2("hydraulic.portDHW_in.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
"DHW.bou_sink.p", 1, 5, 1470, 4)
DeclareVariable("hydraulic.portDHW_in.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9527, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9496, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("hydraulic.useProBus.TZoneSet[1]", "[K|degC]", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 4)
-DeclareVariable("hydraulic.useProBus.intGains[1]", "Output signal connector", 9528,\
+ 5, 8243, 4)
+DeclareVariable("hydraulic.useProBus.intGains[1]", "Output signal connector", 9497,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("hydraulic.useProBus.intGains[2]", "Output signal connector", 9529,\
+DeclareVariable("hydraulic.useProBus.intGains[2]", "Output signal connector", 9498,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("hydraulic.useProBus.intGains[3]", "Output signal connector", 9530,\
+DeclareVariable("hydraulic.useProBus.intGains[3]", "Output signal connector", 9499,\
0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("hydraulic.buiMeaBus.TZoneMea[1]", "[K|degC]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 4)
+ 5, 8470, 4)
DeclareVariable("hydraulic.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9531, 0.0, 0.0,0.0,0.0,0,520)
+ 9500, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("hydraulic.sigBusHyd.TBuiLoc", "[K|degC]", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1,\
- 5, 9250, 4)
-DeclareVariable("hydraulic.sigBusHyd.TSetDHW", "DHW set temperature [K|degC]", 6645,\
+ 5, 9219, 4)
+DeclareVariable("hydraulic.sigBusHyd.TSetDHW", "DHW set temperature [K|degC]", 6605,\
323.15, 0.0,0.0,0.0,0,521)
DeclareAlias2("hydraulic.sigBusHyd.TSetDHWOve", "Input from supervisory control",\
- "control.constTSetDHW.k", 1, 5, 8282, 4)
+ "control.constTSetDHW.k", 1, 5, 8242, 4)
DeclareAlias2("hydraulic.sigBusHyd.TStoDHWTop", "Connector of Real output signal",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 4)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 4)
DeclareAlias2("hydraulic.sigBusHyd.oveTSetDHW", "[:#(type=Boolean)]", \
-"control.hys.y", 1, 5, 8472, 69)
+"control.hys.y", 1, 5, 8435, 69)
DeclareVariable("hydraulic.multiSumElec.nPorts", "Number of ports to sum up [:#(type=Integer)]",\
- 6646, 3, 0.0,0.0,0.0,0,517)
+ 6606, 3, 0.0,0.0,0.0,0,517)
DeclareAlias2("hydraulic.multiSumElec.internalElectricalPinOut.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("hydraulic.multiSumElec.internalElectricalPinOut.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 6647, 0.0, 0.0,0.0,0.0,0,521)
+ 6607, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.multiSumElec.internalElectricalPinIn[1].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 6648, 0.0, 0.0,0.0,0.0,0,521)
+ 6608, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.multiSumElec.internalElectricalPinIn[1].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 6649, 0.0, 0.0,0.0,0.0,0,521)
+ 6609, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.multiSumElec.internalElectricalPinIn[2].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 6650, 0.0, 0.0,0.0,0.0,0,521)
+ 6610, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("hydraulic.multiSumElec.internalElectricalPinIn[2].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 6651, 0.0, 0.0,0.0,0.0,0,521)
+ 6611, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("hydraulic.multiSumElec.internalElectricalPinIn[3].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9131, 4)
+ "electrical.internalElectricalPin[1].PElecLoa", 1, 5, 9094, 4)
DeclareVariable("hydraulic.multiSumElec.internalElectricalPinIn[3].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 6652, 0.0, 0.0,0.0,0.0,0,521)
+ 6612, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6653, 2, 1.0,4.0,0.0,0,517)
+ 6613, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6654, 2, 1.0,4.0,0.0,0,517)
+ 6614, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6655, 2, 1.0,4.0,0.0,0,517)
+ 6615, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6656, 2, 1.0,4.0,0.0,0,517)
-DeclareVariable("ventilation.p_start", "Start value of pressure [Pa|bar]", 6657,\
+ 6616, 2, 1.0,4.0,0.0,0,517)
+DeclareVariable("ventilation.p_start", "Start value of pressure [Pa|bar]", 6617,\
101325, 0.0,100000000.0,100000.0,0,513)
-DeclareParameter("ventilation.T_start", "Start value of temperature [K|degC]", 1325,\
+DeclareParameter("ventilation.T_start", "Start value of temperature [K|degC]", 1331,\
293.15, 1.0,10000.0,300.0,0,560)
DeclareParameter("ventilation.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1326, 0.01, 0.0,1.0,0.1,0,560)
+ 1332, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1327, 0.99, 0.0,1.0,0.1,0,560)
+ 1333, 0.99, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 1328, 1, 1.0,1E+100,0.0,0,560)
+ 1334, 1, 1.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.wrongEnergyMassBalanceConfiguration", \
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6658, false, 0.0,0.0,0.0,0,2563)
+ 6618, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 6659, false, 0.0,0.0,0.0,0,515)
+ 6619, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6660, true, 0.0,0.0,0.0,0,515)
+ 6620, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6661, false, 0.0,0.0,0.0,0,515)
+ 6621, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.rho", "Density of medium / fluid in heat distribution system [kg/m3|g/cm3]",\
- 6662, 0.0, 0.0,1E+100,0.0,0,513)
+ 6622, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.cp", "Specific heat capacaity of medium / fluid in heat distribution system [J/(kg.K)]",\
- 6663, 0.0, 0.0,0.0,0.0,0,513)
+ 6623, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.sta_nominal.p", "Absolute pressure of medium [Pa|bar]",\
- 1329, 101325.0, 0.0,100000000.0,100000.0,0,2608)
-DeclareParameter("ventilation.sta_nominal.T", "Temperature of medium [K|degC]", 1330,\
+ 1335, 101325.0, 0.0,100000000.0,100000.0,0,2608)
+DeclareParameter("ventilation.sta_nominal.T", "Temperature of medium [K|degC]", 1336,\
293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.sta_nominal.X[1]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 1331, 0.01, 0.0,1.0,0.1,0,2608)
+ 1337, 0.01, 0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.sta_nominal.X[2]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 1332, 0.99, 0.0,1.0,0.1,0,2608)
+ 1338, 0.99, 0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.subsystemDisabled", "To enable the icon if the subsystem is disabled [:#(type=Boolean)]",\
- 6664, false, 0.0,0.0,0.0,0,515)
+ 6624, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.ventilationSystemParameters.nZones", \
-"Number of zones supplied by hydraulic system [:#(type=Integer)]", 6665, 1, 1.0,\
+"Number of zones supplied by hydraulic system [:#(type=Integer)]", 6625, 1, 1.0,\
1E+100,0.0,0,517)
DeclareVariable("ventilation.ventilationSystemParameters.Q_flow_nominal[1]", \
-"Nominal heat demand of each zone [W]", 6666, 13288.382850121196, 0.0,0.0,0.0,0,513)
+"Nominal heat demand of each zone [W]", 6626, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.QOld_flow_design[1]", \
"Nominal design heat demand of each zone of the building with no retrofit (old state) [W]",\
- 6667, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 6627, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.TOda_nominal", \
-"Nominal outdoor air temperature [K|degC]", 6668, 262.65, 0.0,1E+100,300.0,0,513)
+"Nominal outdoor air temperature [K|degC]", 6628, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.TSup_nominal[1]", \
-"Nominal supply temperature [K|degC]", 6669, 294.15, 0.0,1E+100,300.0,0,513)
+"Nominal supply temperature [K|degC]", 6629, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.TSupOld_design[1]", \
"Design supply temperature of the building with no retrofit (old state) [K|degC]",\
- 6670, 294.15, 0.0,1E+100,300.0,0,513)
+ 6630, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.TZone_nominal[1]", \
-"Nominal supply temperature [K|degC]", 6671, 294.15, 0.0,1E+100,300.0,0,513)
+"Nominal supply temperature [K|degC]", 6631, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.TAmb", "Ambient temperature of system. Used to calculate default heat loss. [K|degC]",\
- 6672, 294.15, 0.0,1E+100,300.0,0,513)
+ 6632, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.AZone[1]", \
-"Area of zones/rooms [m2]", 6673, 200.0, 0.0,0.0,0.0,0,513)
+"Area of zones/rooms [m2]", 6633, 200.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.hZone[1]", \
-"Height of zones [m]", 6674, 3.2, 0.0,1E+100,0.0,0,513)
+"Height of zones [m]", 6634, 3.2, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.ABui", "Ground area of building [m2]",\
- 6675, 133.0, 0.0,0.0,0.0,0,513)
+ 6635, 133.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.hBui", "Height of building [m]",\
- 6676, 6.4, 0.0,1E+100,0.0,0,513)
+ 6636, 6.4, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.ventilationSystemParameters.ARoo", "Roof area of building [m2]",\
- 6677, 0.0, 0.0,0.0,0.0,0,513)
+ 6637, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6678, 2, 1.0,4.0,0.0,0,517)
+ 6638, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6679, 2, 1.0,4.0,0.0,0,517)
+ 6639, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6680, 2, 1.0,4.0,0.0,0,517)
+ 6640, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6681, 2, 1.0,4.0,0.0,0,517)
+ 6641, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.p_start", "Start value of pressure [Pa|bar]",\
- 6682, 101325, 0.0,100000000.0,100000.0,0,513)
+ 6642, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.T_start", "Start value of temperature [K|degC]",\
- 6683, 293.15, 1.0,10000.0,300.0,0,513)
+ 6643, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("ventilation.generation.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 6684, 0.0, 0.0,1.0,0.1,0,513)
+ 6644, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.generation.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 6685, 0.0, 0.0,1.0,0.1,0,513)
+ 6645, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.generation.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6686, 1.0, 1.0,1E+100,0.0,0,513)
+ 6646, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.wrongEnergyMassBalanceConfiguration", \
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6687, false, 0.0,0.0,0.0,0,2563)
+ 6647, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 6688, false, 0.0,0.0,0.0,0,515)
+ 6648, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6689, true, 0.0,0.0,0.0,0,515)
+ 6649, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6690, false, 0.0,0.0,0.0,0,515)
+ 6650, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.rho", "Density of medium / fluid in heat distribution system [kg/m3|g/cm3]",\
- 6691, 0.0, 0.0,1E+100,0.0,0,513)
+ 6651, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.cp", "Specific heat capacaity of medium / fluid in heat distribution system [J/(kg.K)]",\
- 6692, 0.0, 0.0,0.0,0.0,0,513)
+ 6652, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.sta_nominal.p", "Absolute pressure of medium [Pa|bar]",\
- 1333, 101325.0, 0.0,100000000.0,100000.0,0,2608)
+ 1339, 101325.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("ventilation.generation.sta_nominal.T", "Temperature of medium [K|degC]",\
- 1334, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1340, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.sta_nominal.X[1]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 1335, 0.01, 0.0,1.0,0.1,0,2608)
+ 1341, 0.01, 0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.sta_nominal.X[2]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 1336, 0.99, 0.0,1.0,0.1,0,2608)
+ 1342, 0.99, 0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 6693, 1, 1.0,1E+100,0.0,0,517)
+ 6653, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.generation.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 6694, 1, 1.0,1E+100,0.0,0,517)
+ 6654, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.generation.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 6695, 294.15, 0.0,1E+100,300.0,0,513)
+ 6655, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TSupOld_design[1]", "Old design supply temperature [K|degC]",\
- 6696, 294.15, 0.0,1E+100,300.0,0,513)
+ 6656, 294.15, 0.0,1E+100,300.0,0,513)
DeclareParameter("ventilation.generation.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 1337, 0, 0.0,0.0,0.0,0,560)
+ 1343, 0, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.dTTraOld_design[1]", "Old design temperature difference for heat transfer [K,]",\
- 6697, 0.0, 0.0,0.0,0.0,0,513)
+ 6657, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 6698, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
+ 6658, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.mOld_flow_design[1]", "Old design mass flow rate of old design [kg/s]",\
- 6699, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
+ 6659, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 6700, 100, 0.0,0.0,0.0,0,513)
+ 6660, 100, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 1338, 0, 0.0,0.0,0.0,0,560)
+ 1344, 0, 0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.f_design[1]", "Factor for oversizing due to heat losses",\
- 1339, 1, 0.0,0.0,0.0,0,560)
+ 1345, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.QLoss_flow_nominal[1]", "Nominal heat flow rate due to heat losses [W]",\
- 6701, 0.0, 0.0,0.0,0.0,0,513)
+ 6661, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 6702, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 6662, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.QOld_flow_design[1]", "Old design heat flow rate [W]",\
- 6703, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 6663, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 6704, 262.65, 0.0,1E+100,300.0,0,513)
+ 6664, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 6705, 294.15, 0.0,1E+100,300.0,0,513)
+ 6665, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TDemOld_design[1]", "Old design demand temperature [K|degC]",\
- 6706, 294.15, 0.0,1E+100,300.0,0,513)
+ 6666, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TAmb", "Ambient temperature of system. Used to calculate default heat loss. [K|degC]",\
- 6707, 294.15, 0.0,1E+100,300.0,0,513)
+ 6667, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.Q_flow_design[1]", "Nominal design heat flow rate [W]",\
- 6708, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 6668, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.m_flow_design[1]", "Nominal design mass flow rate [kg/s]",\
- 6709, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
+ 6669, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.dTTra_design[1]", "Nominal design temperature difference for heat transfer [K,]",\
- 6710, 0.0, 0.0,0.0,0.0,0,513)
+ 6670, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.dp_design[1]", "Nominal design pressure difference at m_flow_design [Pa|bar]",\
- 6711, 100.0, 0.0,0.0,0.0,0,513)
+ 6671, 100.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.dpDem_nominal[1]", "Nominal pressure loss of resistances in the demand system of the generation [Pa|bar]",\
- 6712, 100.0, 0.0,0.0,0.0,0,513)
+ 6672, 100.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.outBusGen.TExhIn", "Temperature of the passing fluid [K|degC]",\
"ventilation.generation.TExhIn.T", 1, 1, 69, 4)
DeclareAlias2("ventilation.generation.outBusGen.PVentSup", "Electrical power consumed [W]",\
@@ -8220,1297 +8247,1297 @@ DeclareAlias2("ventilation.generation.outBusGen.PVentSup", "Electrical power con
DeclareAlias2("ventilation.generation.outBusGen.PelVentRet", "Electrical power consumed [W]",\
"outputs.ventilation.generation.PelVentRet", 1, 3, 35, 4)
DeclareAlias2("ventilation.generation.portVent_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 132)
DeclareVariable("ventilation.generation.portVent_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9532, 0.0, 0.0,100000000.0,100000.0,0,520)
+ 9501, 0.0, 0.0,100000000.0,100000.0,0,520)
DeclareAlias2("ventilation.generation.portVent_out[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 4)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 4)
DeclareAlias2("ventilation.generation.portVent_out[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 4)
DeclareAlias2("ventilation.generation.portVent_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 132)
+ "building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 132)
DeclareVariable("ventilation.generation.portVent_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9533, 0.0, 0.0,100000000.0,100000.0,0,520)
+ 9502, 0.0, 0.0,100000000.0,100000.0,0,520)
DeclareAlias2("ventilation.generation.portVent_in[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_in[1].h_outflow", 1, 5, 9696, 4)
+ "ventilation.portVent_in[1].h_outflow", 1, 5, 9665, 4)
DeclareAlias2("ventilation.generation.portVent_in[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9697, 4)
+ "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9666, 4)
DeclareAlias2("ventilation.generation.weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("ventilation.generation.weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("ventilation.generation.weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("ventilation.generation.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("ventilation.generation.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("ventilation.generation.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("ventilation.generation.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("ventilation.generation.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("ventilation.generation.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("ventilation.generation.weaBus.winDir", "Wind direction [rad|deg]",\
- "building.weaBus.winDir", 1, 5, 8496, 4)
+ "building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("ventilation.generation.weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("ventilation.generation.weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("ventilation.generation.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("ventilation.generation.weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("ventilation.generation.weaBus.lat", "Latitude of the location [rad|deg]",\
- 6713, 0.9116922633158369, 0.0,0.0,0.0,0,521)
+ 6673, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.generation.weaBus.lon", "Longitude of the location [rad|deg]",\
- 6714, 0.22757907099030072, 0.0,0.0,0.0,0,521)
+ 6674, 0.22757907099030072, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.generation.weaBus.alt", "Location altitude above sea level [m]",\
- 6715, 0.0, 0.0,1E+100,0.0,0,521)
+ 6675, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("ventilation.generation.weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("ventilation.generation.weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("ventilation.generation.weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("ventilation.generation.weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("ventilation.generation.weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("ventilation.generation.weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("ventilation.generation.weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
+"building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareAlias2("ventilation.generation.sigBusGen.THROut", "Temperature of the passing fluid [K|degC]",\
"ventilation.generation.TSup.T", 1, 1, 73, 4)
DeclareAlias2("ventilation.generation.sigBusGen.uByPass", "Actuator position (0: closed, 1: open)",\
- "ventilation.control.constZero.k", 1, 7, 1461, 4)
+ "ventilation.control.constZero.k", 1, 7, 1467, 4)
DeclareAlias2("ventilation.generation.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("ventilation.generation.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 6716, 0, 0.0,0.0,0.0,0,521)
+ 6676, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.generation.hex.allowFlowReversal1", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 1 [:#(type=Boolean)]",\
- 6717, true, 0.0,0.0,0.0,0,515)
+ 6677, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.allowFlowReversal2", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 2 [:#(type=Boolean)]",\
- 6718, true, 0.0,0.0,0.0,0,515)
+ 6678, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.port_a1.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 9534, 0, -100000.0,100000.0,0.1088888888888889,0,776)
+ 9503, 0, -100000.0,100000.0,0.1088888888888889,0,776)
DeclareAlias2("ventilation.generation.hex.port_a1.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareVariable("ventilation.generation.hex.port_a1.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9535, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9504, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.hex.port_a1.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 4)
DeclareAlias2("ventilation.generation.hex.port_b1.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9534, 132)
+ "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9503, 132)
DeclareVariable("ventilation.generation.hex.port_b1.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9536, 0.0, 0.0,100000000.0,100000.0,0,520)
+ 9505, 0.0, 0.0,100000000.0,100000.0,0,520)
DeclareVariable("ventilation.generation.hex.port_b1.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9537, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9506, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.hex.port_b1.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouSup.X[1]", 1, 7, 1349, 4)
+ "ventilation.generation.bouSup.X[1]", 1, 7, 1355, 4)
DeclareVariable("ventilation.generation.hex.port_a2.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 9538, 0, -100000.0,100000.0,0.1088888888888889,0,776)
+ 9507, 0, -100000.0,100000.0,0.1088888888888889,0,776)
DeclareVariable("ventilation.generation.hex.port_a2.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9539, 101325, 0.0,100000000.0,100000.0,0,520)
+ 9508, 101325, 0.0,100000000.0,100000.0,0,520)
DeclareVariable("ventilation.generation.hex.port_a2.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9540, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9509, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.hex.port_a2.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.hex.port_b2.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 132)
+ "ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 132)
DeclareVariable("ventilation.generation.hex.port_b2.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9541, 101325, 0.0,100000000.0,100000.0,0,520)
+ 9510, 101325, 0.0,100000000.0,100000.0,0,520)
DeclareVariable("ventilation.generation.hex.port_b2.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9542, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9511, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.hex.port_b2.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareVariable("ventilation.generation.hex.m1_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 6719, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
+ 6679, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.hex.m2_flow_nominal", "Nominal mass flow rate [kg/s]",\
- 6720, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
+ 6680, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.hex.m1_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 6721, 1.088888888888889E-05, 0.0,100000.0,0.0,0,513)
+ 6681, 1.088888888888889E-05, 0.0,100000.0,0.0,0,513)
DeclareVariable("ventilation.generation.hex.m2_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 6722, 1.088888888888889E-05, 0.0,100000.0,0.0,0,513)
+ 6682, 1.088888888888889E-05, 0.0,100000.0,0.0,0,513)
DeclareVariable("ventilation.generation.hex.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6723, false, 0.0,0.0,0.0,0,1539)
+ 6683, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.m1_flow", "Mass flow rate from port_a1 to port_b1 (m1_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 0)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 0)
DeclareVariable("ventilation.generation.hex.dp1", "Pressure difference between port_a1 and port_b1 [Pa|Pa]",\
- 9543, 0.0, 0.0,0.0,0.0,0,512)
+ 9512, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("ventilation.generation.hex.m2_flow", "Mass flow rate from port_a2 to port_b2 (m2_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 0)
+ "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 0)
DeclareVariable("ventilation.generation.hex.dp2", "Pressure difference between port_a2 and port_b2 [Pa|Pa]",\
- 9544, 0.0, 0.0,0.0,0.0,0,512)
+ 9513, 0.0, 0.0,0.0,0.0,0,512)
DeclareAlias2("ventilation.generation.hex.state_a1_inflow.p", "Absolute pressure of medium [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 1024)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 1024)
DeclareVariable("ventilation.generation.hex.state_a1_inflow.T", "Temperature of medium [K|degC]",\
- 9545, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9514, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.hex.state_a1_inflow.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"ventilation.generation.bouSup.X[1]", 1, 7, 1349, 1024)
+"ventilation.generation.bouSup.X[1]", 1, 7, 1355, 1024)
DeclareVariable("ventilation.generation.hex.state_a1_inflow.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6724, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6684, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareAlias2("ventilation.generation.hex.state_b1_inflow.p", "Absolute pressure of medium [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1024)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1024)
DeclareVariable("ventilation.generation.hex.state_b1_inflow.T", "Temperature of medium [K|degC]",\
- 9546, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9515, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.hex.state_b1_inflow.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1024)
DeclareVariable("ventilation.generation.hex.state_b1_inflow.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9547, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9516, 0.99, 0.0,\
1.0,0.1,0,2560)
DeclareAlias2("ventilation.generation.hex.state_a2_inflow.p", "Absolute pressure of medium [Pa|bar]",\
- "ventilation.generation.hex.port_a2.p", 1, 5, 9539, 1024)
+ "ventilation.generation.hex.port_a2.p", 1, 5, 9508, 1024)
DeclareVariable("ventilation.generation.hex.state_a2_inflow.T", "Temperature of medium [K|degC]",\
- 9548, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9517, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.hex.state_a2_inflow.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1024)
DeclareVariable("ventilation.generation.hex.state_a2_inflow.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9549, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9518, 0.99, 0.0,\
1.0,0.1,0,2560)
DeclareAlias2("ventilation.generation.hex.state_b2_inflow.p", "Absolute pressure of medium [Pa|bar]",\
- "ventilation.generation.hex.port_b2.p", 1, 5, 9541, 1024)
+ "ventilation.generation.hex.port_b2.p", 1, 5, 9510, 1024)
DeclareVariable("ventilation.generation.hex.state_b2_inflow.T", "Temperature of medium [K|degC]",\
- 9550, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9519, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.hex.state_b2_inflow.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1024)
DeclareVariable("ventilation.generation.hex.state_b2_inflow.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9551, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9520, 0.99, 0.0,\
1.0,0.1,0,2560)
DeclareVariable("ventilation.generation.hex.computeFlowResistance1", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 6725, true, 0.0,0.0,0.0,0,515)
+ 6685, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.from_dp1", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 6726, false, 0.0,0.0,0.0,0,515)
+ 6686, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.dp1_nominal", "Pressure difference [Pa|Pa]",\
- 6727, 100, 0.0,1E+100,0.0,0,513)
+ 6687, 100, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.hex.linearizeFlowResistance1", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6728, false, 0.0,0.0,0.0,0,515)
+ 6688, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.deltaM1", "Fraction of nominal flow rate where flow transitions to laminar",\
- 6729, 0.1, 0.0,0.0,0.0,0,513)
+ 6689, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.hex.computeFlowResistance2", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 6730, true, 0.0,0.0,0.0,0,515)
+ 6690, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.from_dp2", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 6731, false, 0.0,0.0,0.0,0,515)
+ 6691, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.dp2_nominal", "Pressure difference [Pa|Pa]",\
- 6732, 100, 0.0,1E+100,0.0,0,513)
+ 6692, 100, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.hex.linearizeFlowResistance2", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6733, false, 0.0,0.0,0.0,0,515)
+ 6693, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.deltaM2", "Fraction of nominal flow rate where flow transitions to laminar",\
- 6734, 0.1, 0.0,0.0,0.0,0,513)
+ 6694, 0.1, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.hex.prescribedHeatFlowRate1", \
"Set to true if the heat flow rate into fluid 1 is not a function of the component temperature [:#(type=Boolean)]",\
- 6735, true, 0.0,0.0,0.0,0,515)
+ 6695, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.prescribedHeatFlowRate2", \
"Set to true if the heat flow rate into fluid 2 is not a function of the component temperature [:#(type=Boolean)]",\
- 6736, true, 0.0,0.0,0.0,0,515)
+ 6696, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 6737, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 6697, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.hex.Q1_flow", "Heat transferred into the medium 1 [W]",\
- 9552, 0.0, 0.0,0.0,0.0,0,512)
+ 9521, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.hex.mWat1_flow", "Moisture mass flow rate added to the medium 1 [kg/s]",\
- 6738, 0, -100000.0,100000.0,0.0,0,513)
+ 6698, 0, -100000.0,100000.0,0.0,0,513)
DeclareAlias2("ventilation.generation.hex.Q2_flow", "Heat transferred into the medium 2 [W]",\
- "ventilation.generation.hex.Q1_flow", -1, 5, 9552, 0)
+ "ventilation.generation.hex.Q1_flow", -1, 5, 9521, 0)
DeclareVariable("ventilation.generation.hex.mWat2_flow", "Moisture mass flow rate added to the medium 2 [kg/s]",\
- 6739, 0, -100000.0,100000.0,0.0,0,513)
+ 6699, 0, -100000.0,100000.0,0.0,0,513)
DeclareVariable("ventilation.generation.hex.sensibleOnly1", "Set to true if sensible exchange only for medium 1 [:#(type=Boolean)]",\
- 6740, true, 0.0,0.0,0.0,0,515)
+ 6700, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.sensibleOnly2", "Set to true if sensible exchange only for medium 2 [:#(type=Boolean)]",\
- 6741, true, 0.0,0.0,0.0,0,515)
+ 6701, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.hex.bal1.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6742, true, 0.0,0.0,0.0,0,2563)
+ 6702, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal1.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1156)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.hex.bal1.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 1028)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a1.h_outflow", 1, 5, 9535, 1028)
+ "ventilation.generation.hex.port_a1.h_outflow", 1, 5, 9504, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9534, 1156)
+ "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.hex.bal1.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1028)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_b1.h_outflow", 1, 5, 9537, 1028)
+ "ventilation.generation.hex.port_b1.h_outflow", 1, 5, 9506, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouSup.X[1]", 1, 7, 1349, 1028)
+ "ventilation.generation.bouSup.X[1]", 1, 7, 1355, 1028)
DeclareVariable("ventilation.generation.hex.bal1.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6743, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6703, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 6744, 1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
+ 6704, 1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6745, false, 0.0,0.0,0.0,0,1539)
+ 6705, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal1.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1024)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1024)
DeclareVariable("ventilation.generation.hex.bal1.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9553, 0, 0.0,0.0,0.0,0,2560)
+ 9522, 0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal1._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6746, 0, 0.0,0.0,0.0,0,2561)
+ 6706, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6747, 0, 0.0,0.0,0.0,0,2561)
+ 6707, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.computeFlowResistance", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 6748, true, 0.0,0.0,0.0,0,2563)
+ 6708, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 6749, false, 0.0,0.0,0.0,0,2563)
+ 6709, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.dp_nominal", "Pressure difference [Pa|Pa]",\
- 6750, 100, 0.0,1E+100,0.0,0,2561)
+ 6710, 100, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.linearizeFlowResistance", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6751, false, 0.0,0.0,0.0,0,2563)
+ 6711, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.deltaM", "Fraction of nominal flow rate where flow transitions to laminar",\
- 6752, 0.1, 0.0,0.0,0.0,0,2561)
+ 6712, 0.1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.sensibleOnly", "Set to true if sensible exchange only [:#(type=Boolean)]",\
- 6753, true, 0.0,0.0,0.0,0,2563)
+ 6713, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.prescribedHeatFlowRate", \
"Set to true if the heat flow rate is not a function of the component temperature [:#(type=Boolean)]",\
- 6754, true, 0.0,0.0,0.0,0,2563)
+ 6714, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 6755, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 6715, true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal1.Q_flow", "Heat transferred into the medium [W]",\
- "ventilation.generation.hex.Q1_flow", 1, 5, 9552, 1024)
+ "ventilation.generation.hex.Q1_flow", 1, 5, 9521, 1024)
DeclareVariable("ventilation.generation.hex.bal1.mWat_flow", "Moisture mass flow rate added to the medium [kg/s]",\
- 6756, 0.0, 0.0,0.0,0.0,0,2561)
+ 6716, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6757, true, 0.0,0.0,0.0,0,2563)
+ 6717, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1156)
+"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1028)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a1.h_outflow", 1, 5, 9535, 1028)
+ "ventilation.generation.hex.port_a1.h_outflow", 1, 5, 9504, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a1.m_flow", -1, 5, 9534, 1156)
+"ventilation.generation.hex.port_a1.m_flow", -1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1028)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_b1.h_outflow", 1, 5, 9537, 1028)
+ "ventilation.generation.hex.port_b1.h_outflow", 1, 5, 9506, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.vol.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouSup.X[1]", 1, 7, 1349, 1028)
+ "ventilation.generation.bouSup.X[1]", 1, 7, 1355, 1028)
DeclareVariable("ventilation.generation.hex.bal1.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6758, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6718, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6759, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6719, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6760, false, 0.0,0.0,0.0,0,1539)
+ 6720, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal1.vol.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1024)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1024)
DeclareVariable("ventilation.generation.hex.bal1.vol.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 6761, 0.0, 0.0,0.0,0.0,0,2561)
+ 6721, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6762, 0, 0.0,0.0,0.0,0,2561)
+ 6722, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6763, 0, 0.0,0.0,0.0,0,2561)
+ 6723, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6764, true, 0.0,0.0,0.0,0,2563)
+ 6724, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.vol.prescribedHeatFlowRate", \
"Set to true if the heat flow rate is not a function of a temperature difference to the fluid temperature [:#(type=Boolean)]",\
- 6765, true, 0.0,0.0,0.0,0,2563)
+ 6725, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.vol.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6766, false, 0.0,0.0,0.0,0,2563)
+ 6726, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6767,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6727,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal1.vol.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "ventilation.generation.hex.Q1_flow", 1, 5, 9552, 1024)
+ "ventilation.generation.hex.Q1_flow", 1, 5, 9521, 1024)
DeclareAlias2("ventilation.generation.hex.bal1.vol.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "ventilation.generation.hex.bal1.hOut", 1, 5, 9556, 1024)
+ "ventilation.generation.hex.bal1.hOut", 1, 5, 9525, 1024)
DeclareAlias2("ventilation.generation.hex.bal1.vol.XiOut[1]", "Leaving species concentration of the component [1]",\
- "ventilation.generation.hex.bal1.XiOut[1]", 1, 5, 9557, 1024)
+ "ventilation.generation.hex.bal1.XiOut[1]", 1, 5, 9526, 1024)
DeclareVariable("ventilation.generation.hex.bal1.vol.use_m_flowInv", \
-"Flag, true if m_flowInv is used in the model [:#(type=Boolean)]", 6768, true, \
+"Flag, true if m_flowInv is used in the model [:#(type=Boolean)]", 6728, true, \
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.vol.s[1]", "Vector with zero everywhere except where species is",\
- 6769, 1, 0.0,0.0,0.0,0,2561)
+ 6729, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.m_flowInv", \
-"Regularization of 1/m_flow of port_a [s/kg]", 9554, 0.0, 0.0,0.0,0.0,0,2560)
+"Regularization of 1/m_flow of port_a [s/kg]", 9523, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal1.vol.mXi_flow[1]", \
-"Mass flow rates of independent substances added to the medium [kg/s]", 6770, \
+"Mass flow rates of independent substances added to the medium [kg/s]", 6730, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.deltaReg", "Smoothing region for inverseXRegularized",\
- 6771, 1.088888888888889E-08, 0.0,0.0,0.0,0,2561)
+ 6731, 1.088888888888889E-08, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.deltaInvReg", \
-"Inverse value of delta for inverseXRegularized", 6772, 91836734.69387755, \
+"Inverse value of delta for inverseXRegularized", 6732, 91836734.69387755, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.aReg", "Polynomial coefficient for inverseXRegularized",\
- 6773, -1377551020.4081633, 0.0,0.0,0.0,0,2561)
+ 6733, -1377551020.4081633, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.bReg", "Polynomial coefficient for inverseXRegularized",\
- 6774, 1.0036443148688046E+18, 0.0,0.0,0.0,0,2561)
+ 6734, 1.0036443148688046E+18, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.cReg", "Polynomial coefficient for inverseXRegularized",\
- 6775, -2.796124488945932E+26, 0.0,0.0,0.0,0,2561)
+ 6735, -2.796124488945932E+26, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.dReg", "Polynomial coefficient for inverseXRegularized",\
- 6776, 3.7984550550834275E+34, 0.0,0.0,0.0,0,2561)
+ 6736, 3.7984550550834275E+34, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.eReg", "Polynomial coefficient for inverseXRegularized",\
- 6777, -2.4823657204741497E+42, 0.0,0.0,0.0,0,2561)
+ 6737, -2.4823657204741497E+42, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.fReg", "Polynomial coefficient for inverseXRegularized",\
- 6778, 6.239243593887767E+49, 0.0,0.0,0.0,0,2561)
+ 6738, 6.239243593887767E+49, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6779, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6739, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.state_default.T", \
-"Temperature of medium [K|degC]", 6780, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6740, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6781, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6741, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6782, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6742, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.cp_default", \
-"Specific heat capacity, used to verify energy conservation [J/(kg.K)]", 6783, \
+"Specific heat capacity, used to verify energy conservation [J/(kg.K)]", 6743, \
1014.54, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.dTMax", "Maximum temperature difference across the StaticTwoPortConservationEquation [K,]",\
- 6784, 200, 1.0,1E+100,0.0,0,2561)
+ 6744, 200, 1.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.vol.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 6785, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6745, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6786, true, 0.0,0.0,0.0,0,2563)
+ 6746, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1156)
+"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "weaDat.pAtmSel.p", 1,\
- 5, 8192, 1028)
+ 5, 8152, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a1.h_outflow", 1, 5, 9535, 1028)
+ "ventilation.generation.hex.port_a1.h_outflow", 1, 5, 9504, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a1.m_flow", -1, 5, 9534, 1156)
+"ventilation.generation.hex.port_a1.m_flow", -1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1028)
+ 5, 9505, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.bouSup.ports[1].h_outflow", 1, 5, 9573, 1028)
+ "ventilation.generation.bouSup.ports[1].h_outflow", 1, 5, 9542, 1028)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouSup.X[1]", 1, 7, 1349, 1028)
+ "ventilation.generation.bouSup.X[1]", 1, 7, 1355, 1028)
DeclareVariable("ventilation.generation.hex.bal1.preDro.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6787, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6747, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6788, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6748, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 6789, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 6749, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal1.preDro.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1024)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1024)
DeclareVariable("ventilation.generation.hex.bal1.preDro.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9555, 0, 0.0,0.0,100.0,0,2560)
+ 9524, 0, 0.0,0.0,100.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal1.preDro._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6790, 0, 0.0,0.0,0.0,0,2561)
+ 6750, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6791, 0, 0.0,0.0,0.0,0,2561)
+ 6751, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 6792, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 6752, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.hex.bal1.preDro.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 6793, false,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 6753, false,\
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.preDro.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 6794, 100, 0.0,0.0,0.0,0,2561)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 6754, 100, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6795, false, 0.0,0.0,0.0,0,2563)
+ 6755, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.preDro.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 6796, 0.01088888888888889,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 6756, 0.01088888888888889,\
0.0,1E+100,0.0,0,2561)
DeclareParameter("ventilation.generation.hex.bal1.preDro.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1340, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1346, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.generation.hex.bal1.preDro.sta_default.T", \
-"Temperature of medium [K|degC]", 1341, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1347, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.hex.bal1.preDro.sta_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1342, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1348, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.hex.bal1.preDro.sta_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1343, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1349, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.hex.bal1.preDro.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 6797, 0.0, 0.0,1E+100,0.0,0,2561)
+ 6757, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 6798, 0.1088888888888889, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 6758, 0.1088888888888889, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 6799, 100, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 6759, 100, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.deltaM", \
-"Fraction of nominal mass flow rate where transition to turbulent occurs", 6800,\
+"Fraction of nominal mass flow rate where transition to turbulent occurs", 6760,\
0.1, 1E-06,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 6801, 0.010888888888888889, 0.0,0.0,0.0,0,2561)
+ 6761, 0.010888888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.preDro.computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 6802,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 6762,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal1.preDro.coeff", "Precomputed coefficient to avoid division by parameter",\
- 6803, 0, 0.0,0.0,0.0,0,2561)
+ 6763, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal1.hOut", "Leaving temperature of the component [J/kg]",\
- 9556, 0.0, 0.0,0.0,0.0,0,2560)
+ 9525, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal1.XiOut[1]", "Leaving species concentration of the component [1]",\
- 9557, 0.0, 0.0,1.0,0.01,0,2560)
+ 9526, 0.0, 0.0,1.0,0.01,0,2560)
DeclareAlias2("ventilation.generation.hex.bal1.heaInp.y", "Value of Real output",\
- "ventilation.generation.hex.Q1_flow", 1, 5, 9552, 1024)
+ "ventilation.generation.hex.Q1_flow", 1, 5, 9521, 1024)
DeclareVariable("ventilation.generation.hex.bal1.masExc.y", "Value of Real output",\
- 6804, 0.0, 0.0,0.0,0.0,0,2561)
+ 6764, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6805, true, 0.0,0.0,0.0,0,2563)
+ 6765, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal2.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1156)
+ "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.hex.bal2.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_a2.p", 1, 5, 9539, 1028)
+ "ventilation.generation.hex.port_a2.p", 1, 5, 9508, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9540, 1028)
+ "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9509, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 1156)
+ "ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.hex.bal2.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b2.p", 1, 5, 9541, 1028)
+ "ventilation.generation.hex.port_b2.p", 1, 5, 9510, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_b2.h_outflow", 1, 5, 9542, 1028)
+ "ventilation.generation.hex.port_b2.h_outflow", 1, 5, 9511, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareVariable("ventilation.generation.hex.bal2.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6806, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6766, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 6807, 1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
+ 6767, 1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6808, false, 0.0,0.0,0.0,0,1539)
+ 6768, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal2.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1024)
+ "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1024)
DeclareVariable("ventilation.generation.hex.bal2.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9558, 0, 0.0,0.0,0.0,0,2560)
+ 9527, 0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal2._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6809, 0, 0.0,0.0,0.0,0,2561)
+ 6769, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6810, 0, 0.0,0.0,0.0,0,2561)
+ 6770, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.computeFlowResistance", \
"=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]",\
- 6811, true, 0.0,0.0,0.0,0,2563)
+ 6771, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 6812, false, 0.0,0.0,0.0,0,2563)
+ 6772, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.dp_nominal", "Pressure difference [Pa|Pa]",\
- 6813, 100, 0.0,1E+100,0.0,0,2561)
+ 6773, 100, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.linearizeFlowResistance", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6814, false, 0.0,0.0,0.0,0,2563)
+ 6774, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.deltaM", "Fraction of nominal flow rate where flow transitions to laminar",\
- 6815, 0.1, 0.0,0.0,0.0,0,2561)
+ 6775, 0.1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.sensibleOnly", "Set to true if sensible exchange only [:#(type=Boolean)]",\
- 6816, true, 0.0,0.0,0.0,0,2563)
+ 6776, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.prescribedHeatFlowRate", \
"Set to true if the heat flow rate is not a function of the component temperature [:#(type=Boolean)]",\
- 6817, true, 0.0,0.0,0.0,0,2563)
+ 6777, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 6818, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 6778, true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal2.Q_flow", "Heat transferred into the medium [W]",\
- "ventilation.generation.hex.Q1_flow", -1, 5, 9552, 1024)
+ "ventilation.generation.hex.Q1_flow", -1, 5, 9521, 1024)
DeclareVariable("ventilation.generation.hex.bal2.mWat_flow", "Moisture mass flow rate added to the medium [kg/s]",\
- 6819, 0.0, 0.0,0.0,0.0,0,2561)
+ 6779, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6820, true, 0.0,0.0,0.0,0,2563)
+ 6780, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1156)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b2.p", 1, 5, 9541, 1028)
+ "ventilation.generation.hex.port_b2.p", 1, 5, 9510, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9540, 1028)
+ "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9509, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 1156)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b2.p", 1, 5, 9541, 1028)
+ "ventilation.generation.hex.port_b2.p", 1, 5, 9510, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_b2.h_outflow", 1, 5, 9542, 1028)
+ "ventilation.generation.hex.port_b2.h_outflow", 1, 5, 9511, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.vol.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareVariable("ventilation.generation.hex.bal2.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6821, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6781, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6822, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6782, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6823, false, 0.0,0.0,0.0,0,1539)
+ 6783, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal2.vol.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1024)
+ "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1024)
DeclareVariable("ventilation.generation.hex.bal2.vol.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 6824, 0.0, 0.0,0.0,0.0,0,2561)
+ 6784, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6825, 0, 0.0,0.0,0.0,0,2561)
+ 6785, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6826, 0, 0.0,0.0,0.0,0,2561)
+ 6786, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6827, true, 0.0,0.0,0.0,0,2563)
+ 6787, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.vol.prescribedHeatFlowRate", \
"Set to true if the heat flow rate is not a function of a temperature difference to the fluid temperature [:#(type=Boolean)]",\
- 6828, true, 0.0,0.0,0.0,0,2563)
+ 6788, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.vol.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 6829, false, 0.0,0.0,0.0,0,2563)
+ 6789, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6830,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6790,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal2.vol.Q_flow", "Sensible plus latent heat flow rate transferred into the medium [W]",\
- "ventilation.generation.hex.Q1_flow", -1, 5, 9552, 1024)
+ "ventilation.generation.hex.Q1_flow", -1, 5, 9521, 1024)
DeclareAlias2("ventilation.generation.hex.bal2.vol.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "ventilation.generation.hex.bal2.hOut", 1, 5, 9561, 1024)
+ "ventilation.generation.hex.bal2.hOut", 1, 5, 9530, 1024)
DeclareAlias2("ventilation.generation.hex.bal2.vol.XiOut[1]", "Leaving species concentration of the component [1]",\
- "ventilation.generation.hex.bal2.XiOut[1]", 1, 5, 9562, 1024)
+ "ventilation.generation.hex.bal2.XiOut[1]", 1, 5, 9531, 1024)
DeclareVariable("ventilation.generation.hex.bal2.vol.use_m_flowInv", \
-"Flag, true if m_flowInv is used in the model [:#(type=Boolean)]", 6831, true, \
+"Flag, true if m_flowInv is used in the model [:#(type=Boolean)]", 6791, true, \
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.vol.s[1]", "Vector with zero everywhere except where species is",\
- 6832, 1, 0.0,0.0,0.0,0,2561)
+ 6792, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.m_flowInv", \
-"Regularization of 1/m_flow of port_a [s/kg]", 9559, 0.0, 0.0,0.0,0.0,0,2560)
+"Regularization of 1/m_flow of port_a [s/kg]", 9528, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal2.vol.mXi_flow[1]", \
-"Mass flow rates of independent substances added to the medium [kg/s]", 6833, \
+"Mass flow rates of independent substances added to the medium [kg/s]", 6793, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.deltaReg", "Smoothing region for inverseXRegularized",\
- 6834, 1.088888888888889E-08, 0.0,0.0,0.0,0,2561)
+ 6794, 1.088888888888889E-08, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.deltaInvReg", \
-"Inverse value of delta for inverseXRegularized", 6835, 91836734.69387755, \
+"Inverse value of delta for inverseXRegularized", 6795, 91836734.69387755, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.aReg", "Polynomial coefficient for inverseXRegularized",\
- 6836, -1377551020.4081633, 0.0,0.0,0.0,0,2561)
+ 6796, -1377551020.4081633, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.bReg", "Polynomial coefficient for inverseXRegularized",\
- 6837, 1.0036443148688046E+18, 0.0,0.0,0.0,0,2561)
+ 6797, 1.0036443148688046E+18, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.cReg", "Polynomial coefficient for inverseXRegularized",\
- 6838, -2.796124488945932E+26, 0.0,0.0,0.0,0,2561)
+ 6798, -2.796124488945932E+26, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.dReg", "Polynomial coefficient for inverseXRegularized",\
- 6839, 3.7984550550834275E+34, 0.0,0.0,0.0,0,2561)
+ 6799, 3.7984550550834275E+34, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.eReg", "Polynomial coefficient for inverseXRegularized",\
- 6840, -2.4823657204741497E+42, 0.0,0.0,0.0,0,2561)
+ 6800, -2.4823657204741497E+42, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.fReg", "Polynomial coefficient for inverseXRegularized",\
- 6841, 6.239243593887767E+49, 0.0,0.0,0.0,0,2561)
+ 6801, 6.239243593887767E+49, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6842, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6802, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.state_default.T", \
-"Temperature of medium [K|degC]", 6843, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6803, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6844, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6804, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6845, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6805, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.cp_default", \
-"Specific heat capacity, used to verify energy conservation [J/(kg.K)]", 6846, \
+"Specific heat capacity, used to verify energy conservation [J/(kg.K)]", 6806, \
1014.54, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.dTMax", "Maximum temperature difference across the StaticTwoPortConservationEquation [K,]",\
- 6847, 200, 1.0,1E+100,0.0,0,2561)
+ 6807, 200, 1.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.vol.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 6848, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6808, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6849, true, 0.0,0.0,0.0,0,2563)
+ 6809, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1156)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_a2.p", 1,\
- 5, 9539, 1028)
+ 5, 9508, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9540, 1028)
+ "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9509, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 1156)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b2.p", 1,\
- 5, 9541, 1028)
+ 5, 9510, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1028)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1028)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareVariable("ventilation.generation.hex.bal2.preDro.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6850, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6810, 0.1088888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6851, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6811, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 6852, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 6812, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.hex.bal2.preDro.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1024)
+ "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1024)
DeclareVariable("ventilation.generation.hex.bal2.preDro.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9560, 0, 0.0,0.0,100.0,0,2560)
+ 9529, 0, 0.0,0.0,100.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal2.preDro._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6853, 0, 0.0,0.0,0.0,0,2561)
+ 6813, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6854, 0, 0.0,0.0,0.0,0,2561)
+ 6814, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 6855, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 6815, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.hex.bal2.preDro.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 6856, false,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 6816, false,\
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.preDro.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 6857, 100, 0.0,0.0,0.0,0,2561)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 6817, 100, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 6858, false, 0.0,0.0,0.0,0,2563)
+ 6818, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.preDro.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 6859, 0.01088888888888889,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 6819, 0.01088888888888889,\
0.0,1E+100,0.0,0,2561)
DeclareParameter("ventilation.generation.hex.bal2.preDro.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1344, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1350, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.generation.hex.bal2.preDro.sta_default.T", \
-"Temperature of medium [K|degC]", 1345, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1351, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.hex.bal2.preDro.sta_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1346, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1352, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.hex.bal2.preDro.sta_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1347, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1353, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.hex.bal2.preDro.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 6860, 0.0, 0.0,1E+100,0.0,0,2561)
+ 6820, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 6861, 0.1088888888888889, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 6821, 0.1088888888888889, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 6862, 100, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 6822, 100, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.deltaM", \
-"Fraction of nominal mass flow rate where transition to turbulent occurs", 6863,\
+"Fraction of nominal mass flow rate where transition to turbulent occurs", 6823,\
0.1, 1E-06,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 6864, 0.010888888888888889, 0.0,0.0,0.0,0,2561)
+ 6824, 0.010888888888888889, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.preDro.computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 6865,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 6825,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.hex.bal2.preDro.coeff", "Precomputed coefficient to avoid division by parameter",\
- 6866, 0, 0.0,0.0,0.0,0,2561)
+ 6826, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.bal2.hOut", "Leaving temperature of the component [J/kg]",\
- 9561, 0.0, 0.0,0.0,0.0,0,2560)
+ 9530, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.bal2.XiOut[1]", "Leaving species concentration of the component [1]",\
- 9562, 0.0, 0.0,1.0,0.01,0,2560)
+ 9531, 0.0, 0.0,1.0,0.01,0,2560)
DeclareAlias2("ventilation.generation.hex.bal2.heaInp.y", "Value of Real output",\
- "ventilation.generation.hex.Q1_flow", -1, 5, 9552, 1024)
+ "ventilation.generation.hex.Q1_flow", -1, 5, 9521, 1024)
DeclareVariable("ventilation.generation.hex.bal2.masExc.y", "Value of Real output",\
- 6867, 0.0, 0.0,0.0,0.0,0,2561)
+ 6827, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.T_in1", "Inlet temperature medium 1 [K|degC]",\
- 9563, 293.15, 1.0,10000.0,300.0,0,512)
+ 9532, 293.15, 1.0,10000.0,300.0,0,512)
DeclareVariable("ventilation.generation.hex.T_in2", "Inlet temperature medium 2 [K|degC]",\
- 9564, 293.15, 1.0,10000.0,300.0,0,512)
+ 9533, 293.15, 1.0,10000.0,300.0,0,512)
DeclareVariable("ventilation.generation.hex.C1_flow", "Heat capacity flow rate medium 1 [W/K]",\
- 9565, 0.0, 0.0,1E+100,110.47213333333333,0,512)
+ 9534, 0.0, 0.0,1E+100,110.47213333333333,0,512)
DeclareVariable("ventilation.generation.hex.C2_flow", "Heat capacity flow rate medium 2 [W/K]",\
- 9566, 0.0, 0.0,1E+100,110.47213333333333,0,512)
+ 9535, 0.0, 0.0,1E+100,110.47213333333333,0,512)
DeclareVariable("ventilation.generation.hex.CMin_flow", "Minimum heat capacity flow rate [W/K]",\
- 9567, 0.0, 0.0,1E+100,0.0,0,512)
+ 9536, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("ventilation.generation.hex.QMax_flow", "Maximum heat flow rate into medium 1 [W]",\
- 9568, 0.0, 0.0,0.0,0.0,0,512)
+ 9537, 0.0, 0.0,0.0,0.0,0,512)
DeclareParameter("ventilation.generation.hex.delta", "Parameter used for smoothing",\
- 1348, 0.001, 0.0,0.0,0.0,0,2608)
+ 1354, 0.001, 0.0,0.0,0.0,0,2608)
DeclareVariable("ventilation.generation.hex.cp1_default", "Specific heat capacity of medium 1 at default medium state [J/(kg.K)]",\
- 6868, 1014.54, 0.0,0.0,0.0,0,2561)
+ 6828, 1014.54, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.cp2_default", "Specific heat capacity of medium 2 at default medium state [J/(kg.K)]",\
- 6869, 1014.54, 0.0,0.0,0.0,0,2561)
+ 6829, 1014.54, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.CMin_flow_small", "Small value for smoothing of minimum heat capacity flow rate [W/K]",\
- 6870, 0.011047213333333333, 0.0,0.0,0.0,0,2561)
+ 6830, 0.011047213333333333, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.hex.fra_a1", "Fraction of incoming state taken from port a1 (used to avoid excessive calls to regStep)",\
- 9569, 0.0, 0.0,1.0,0.0,0,2560)
+ 9538, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.fra_b1", "Fraction of incoming state taken from port b1 (used to avoid excessive calls to regStep)",\
- 9570, 0.0, 0.0,1.0,0.0,0,2560)
+ 9539, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.fra_a2", "Fraction of incoming state taken from port a2 (used to avoid excessive calls to regStep)",\
- 9571, 0.0, 0.0,1.0,0.0,0,2560)
+ 9540, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.fra_b2", "Fraction of incoming state taken from port b2 (used to avoid excessive calls to regStep)",\
- 9572, 0.0, 0.0,1.0,0.0,0,2560)
+ 9541, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("ventilation.generation.hex.eps", "Heat exchanger effectiveness [1]",\
- 6871, 0.0, 0.0,1.0,0.0,0,513)
+ 6831, 0.0, 0.0,1.0,0.0,0,513)
DeclareVariable("ventilation.generation.bouSup.nPorts", "Number of ports [:#(type=Integer)]",\
- 6872, 1, 0.0,0.0,0.0,0,517)
+ 6832, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("ventilation.generation.bouSup.verifyInputs", "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
- 6873, false, 0.0,0.0,0.0,0,515)
+ 6833, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.bouSup.ports[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9534, 132)
+ "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9503, 132)
DeclareAlias2("ventilation.generation.bouSup.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareVariable("ventilation.generation.bouSup.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9573, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9542, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.bouSup.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouSup.X[1]", 1, 7, 1349, 4)
+ "ventilation.generation.bouSup.X[1]", 1, 7, 1355, 4)
DeclareVariable("ventilation.generation.bouSup.flowDirection", "Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]",\
- 6874, 3, 1.0,3.0,0.0,0,2565)
+ 6834, 3, 1.0,3.0,0.0,0,2565)
DeclareAlias2("ventilation.generation.bouSup.p_in_internal", "Needed to connect to conditional connector [Pa]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 1024)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 1024)
DeclareAlias2("ventilation.generation.bouSup.Xi_in_internal[1]", \
"Needed to connect to conditional connector [kg/kg]", "ventilation.generation.bouSup.X[1]", 1,\
- 7, 1349, 1024)
+ 7, 1355, 1024)
DeclareVariable("ventilation.generation.bouSup.X_in_internal[1]", \
-"Needed to connect to conditional connector [kg/kg]", 6875, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 6835, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.bouSup.X_in_internal[2]", \
-"Needed to connect to conditional connector [kg/kg]", 6876, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 6836, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.bouSup.use_X_in", "Get the composition (all fractions) from the input connector [:#(type=Boolean)]",\
- 6877, false, 0.0,0.0,0.0,0,515)
+ 6837, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.bouSup.use_Xi_in", "Get the composition (independent fractions) from the input connector [:#(type=Boolean)]",\
- 6878, false, 0.0,0.0,0.0,0,515)
+ 6838, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.bouSup.use_C_in", "Get the trace substances from the input connector [:#(type=Boolean)]",\
- 6879, false, 0.0,0.0,0.0,0,515)
+ 6839, false, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.bouSup.X[1]", "Fixed value of composition [kg/kg]",\
- 1349, 0.01, 0.0,1.0,0.1,0,560)
+ 1355, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.generation.bouSup.X[2]", "Fixed value of composition [kg/kg]",\
- 1350, 0.99, 0.0,1.0,0.1,0,560)
+ 1356, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("ventilation.generation.bouSup.use_p_in", "Get the pressure from the input connector [:#(type=Boolean)]",\
- 6880, true, 0.0,0.0,0.0,0,515)
+ 6840, true, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.bouSup.p", "Fixed value of pressure [Pa|bar]",\
- 1351, 101325, 0.0,100000000.0,100000.0,0,560)
+ 1357, 101325, 0.0,100000000.0,100000.0,0,560)
DeclareVariable("ventilation.generation.bouSup.use_T_in", "Get the temperature from the input connector [:#(type=Boolean)]",\
- 6881, true, 0.0,0.0,0.0,0,515)
+ 6841, true, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.bouSup.T", "Fixed value of temperature [K|degC]",\
- 1352, 293.15, 1.0,10000.0,300.0,0,560)
+ 1358, 293.15, 1.0,10000.0,300.0,0,560)
DeclareAlias2("ventilation.generation.bouSup.p_in", "Prescribed boundary pressure [Pa]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 0)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 0)
DeclareAlias2("ventilation.generation.bouSup.T_in", "Prescribed boundary temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 0)
+ "building.weaBus.TDryBul", 1, 5, 8450, 0)
DeclareVariable("ventilation.generation.bouSup.checkWaterPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 6882, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 6842, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.bouSup.checkAirPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 6883, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 6843, \
true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.bouSup.T_in_internal", "Needed to connect to conditional connector [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 1024)
+ "building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("ventilation.generation.bouSup.h_internal", "Internal connector for enthalpy",\
- "ventilation.generation.bouSup.ports[1].h_outflow", 1, 5, 9573, 1024)
+ "ventilation.generation.bouSup.ports[1].h_outflow", 1, 5, 9542, 1024)
DeclareVariable("ventilation.generation.fanFlow.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6884, 2, 1.0,4.0,0.0,0,517)
+ 6844, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6885, 2, 1.0,4.0,0.0,0,517)
+ 6845, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6886, 2, 1.0,4.0,0.0,0,517)
+ 6846, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6887, 2, 1.0,4.0,0.0,0,517)
+ 6847, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.p_start", "Start value of pressure [Pa|bar]",\
- 6888, 101325, 0.0,100000000.0,100000.0,0,513)
+ 6848, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.T_start", "Start value of temperature [K|degC]",\
- 6889, 293.15, 1.0,10000.0,300.0,0,513)
+ 6849, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("ventilation.generation.fanFlow.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1353, 0.01, 0.0,1.0,0.1,0,560)
+ 1359, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.generation.fanFlow.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1354, 0.99, 0.0,1.0,0.1,0,560)
+ 1360, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("ventilation.generation.fanFlow.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6890, 1, 1.0,1E+100,0.0,0,513)
+ 6850, 1, 1.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6891, false, 0.0,0.0,0.0,0,2563)
+ 6851, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 6892, true, 0.0,0.0,0.0,0,515)
+ 6852, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.fanFlow.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 132)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 132)
DeclareAlias2("ventilation.generation.fanFlow.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 4)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 4)
DeclareVariable("ventilation.generation.fanFlow.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9574, 0.0, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9543, 0.0, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.fanFlow.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 4)
DeclareAlias2("ventilation.generation.fanFlow.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 132)
+ "building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 132)
DeclareAlias2("ventilation.generation.fanFlow.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_in[1].p", 1, 5, 9533, 4)
+ "ventilation.generation.portVent_in[1].p", 1, 5, 9502, 4)
DeclareAlias2("ventilation.generation.fanFlow.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_in[1].h_outflow", 1, 5, 9696, 4)
+ "ventilation.portVent_in[1].h_outflow", 1, 5, 9665, 4)
DeclareAlias2("ventilation.generation.fanFlow.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9697, 4)
+ "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9666, 4)
DeclareVariable("ventilation.generation.fanFlow.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6893, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 6853, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6894, \
+"Volume flow rate at user-selected operating points [m3/s]", 6854, \
0.09074074074074075, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 6895, \
+"Volume flow rate at user-selected operating points [m3/s]", 6855, \
0.1814814814814815, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6896, 224.00000000000003,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6856, 224.00000000000003,\
0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6897, 200.0, 0.0,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6857, 200.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 6898, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 6858, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.V_flow_max", \
-"Volume flow rate on the curve when pressure rise is zero [m3/s]", 6899, \
+"Volume flow rate on the curve when pressure rise is zero [m3/s]", 6859, \
0.1814814814814815, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 6900, 224.00000000000003, 0.0,0.0,0.0,0,513)
+ 6860, 224.00000000000003, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.etaHydMet", "Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 6901, 4, 1.0,4.0,0.0,0,517)
+ 6861, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.per.etaMotMet", "Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 6902, 4, 1.0,4.0,0.0,0,517)
+ 6862, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 6903, true, 0.0,0.0,0.0,0,515)
+ 6863, true, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.fanFlow.per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 1355, 0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 1361, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1356, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1362, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.motorEfficiency.V_flow[1]",\
- "Volumetric flow rate at user-selected operating points [m3/s]", 1357, 0, 0.0,\
+ "Volumetric flow rate at user-selected operating points [m3/s]", 1363, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.motorEfficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1358, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1364, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.motorEfficiency_yMot.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 1359, 0, 0.0,1E+100,0.0,0,560)
+ "Part load ratio, y = PEle/PEle_nominal", 1365, 0, 0.0,1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 1360, 0.7, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 1366, 0.7, 0.0,1.0,0.0,\
0,560)
DeclareParameter("ventilation.generation.fanFlow.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 1361, 0, 0.0,1E+100,\
+"Volume flow rate at user-selected operating points [m3/s]", 1367, 0, 0.0,1E+100,\
0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.power.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 1362, 0, 0.0,1E+100,0.0,\
+"Fan or pump electrical power at these flow rates [W]", 1368, 0, 0.0,1E+100,0.0,\
0,560)
DeclareVariable("ventilation.generation.fanFlow.per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 6904, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 6864, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.peak.dp", "Pressure rise at peak efficiency [Pa|Pa]",\
- 6905, 0.0, 0.0,1E+100,0.0,0,513)
+ 6865, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.peak.eta", "Peak efficiency [1]",\
- 6906, 0.0, 0.0,1E+100,0.0,0,513)
+ 6866, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 6907, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 6867, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 6908, 0.0, 0.0,1E+100,0.0,0,513)
+"Pressure rise at peak efficiency [Pa|Pa]", 6868, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.peak_internal.eta", \
-"Peak efficiency [1]", 6909, 0.0, 0.0,1E+100,0.0,0,513)
+"Peak efficiency [1]", 6869, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.fanFlow.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1363, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1369, \
true, 0.0,0.0,0.0,0,562)
DeclareVariable("ventilation.generation.fanFlow.per.WMot_nominal", \
-"Rated motor power [W]", 6910, 0.0, 0.0,0.0,0.0,0,513)
+"Rated motor power [W]", 6870, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.fanFlow.per.etaMot_max", \
-"Maximum motor efficiency [1]", 1364, 0.7, 0.0,1.0,0.0,0,560)
+"Maximum motor efficiency [1]", 1370, 0.7, 0.0,1.0,0.0,0,560)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 6911, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6871, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 6912, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6872, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 6913, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6873, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 6914, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6874, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 6915, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6875, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 6916, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6876, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 6917, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6877, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 6918, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6878, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 6919, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 6879, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 6920, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6880, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 6921, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6881, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 6922, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6882, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 6923, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6883, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 6924, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6884, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 6925, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6885, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 6926, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6886, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 6927, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6887, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 6928, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 6888, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 6929, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 6889, false, \
0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.fanFlow.per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 1365, 1, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 1371, 1, 0.0,1E+100,0.0,\
0,560)
DeclareParameter("ventilation.generation.fanFlow.per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 1366, 1, 0.0,1E+100,0.0,0,560)
+ 1372, 1, 0.0,1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanFlow.per.speeds[1]", \
"Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 1367, 1, 0.0,1E+100,0.0,0,560)
+ 1373, 1, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.fanFlow.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 6930, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 6890, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanFlow.inputType", "Control input type [:#(type=IBPSA.Fluid.Types.InputType)]",\
- 6931, 3, 1.0,3.0,0.0,0,517)
+ 6891, 3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanFlow.constInput", "Constant input set point [1]",\
- 6932, 0.0, 0.0,0.0,0.0,0,513)
+ 6892, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.stageInputs[1]", \
-"Vector of input set points corresponding to stages [1]", 6933, 0.0, 0.0,0.0,0.0,\
+"Vector of input set points corresponding to stages [1]", 6893, 0.0, 0.0,0.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanFlow.computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 6934, true, 0.0,0.0,0.0,0,515)
+ 6894, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanFlow.addPowerToMedium", \
"Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]",\
- 6935, false, 0.0,0.0,0.0,0,515)
+ 6895, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanFlow.nominalValuesDefineDefaultPressureCurve",\
"Set to true to avoid warning if m_flow_nominal and dp_nominal are used to construct the default pressure curve [:#(type=Boolean)]",\
- 6936, false, 0.0,0.0,0.0,0,515)
+ 6896, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanFlow.tau", "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]",\
- 6937, 0.0, 0.0,0.0,0.0,0,513)
+ 6897, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.use_riseTime", "Set to true to continuously change motor speed [:#(type=Boolean)]",\
- 6938, false, 0.0,0.0,0.0,0,515)
+ 6898, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanFlow.riseTime", "Time needed to change motor speed between zero and full speed [s]",\
- 6939, 0.0, 0.0,0.0,0.0,0,513)
+ 6899, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 6940, 4, 1.0,4.0,0.0,0,517)
+ 6900, 4, 1.0,4.0,0.0,0,517)
DeclareAlias2("ventilation.generation.fanFlow.y_actual", "Actual normalised fan or pump speed that is used for computations [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 0)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 0)
DeclareAlias2("ventilation.generation.fanFlow.P", "Electrical power consumed [W]",\
"outputs.ventilation.generation.PVentSup", 1, 3, 34, 0)
DeclareVariable("ventilation.generation.fanFlow.heatPort.T", "Port temperature [K|degC]",\
- 9575, 300.0, 1.0,10000.0,300.0,0,520)
+ 9544, 300.0, 1.0,10000.0,300.0,0,520)
DeclareVariable("ventilation.generation.fanFlow.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6941,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6901,\
0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("ventilation.generation.fanFlow.VMachine_flow", "Volume flow rate [m3/s]",\
- 9576, 0, 0.0,0.0,0.0,0,512)
+ 9545, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanFlow.dpMachine", "Pressure difference [Pa|Pa]",\
- 9577, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("ventilation.generation.fanFlow.eta", "Global efficiency [1]", 9578,\
+ 9546, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("ventilation.generation.fanFlow.eta", "Global efficiency [1]", 9547,\
0.49, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanFlow.etaHyd", "Hydraulic efficiency [1]",\
- 9579, 0.7, 0.0,1E+100,0.0,0,512)
+ 9548, 0.7, 0.0,1E+100,0.0,0,512)
DeclareVariable("ventilation.generation.fanFlow.etaMot", "Motor efficiency [1]",\
- 9580, 0.7, 0.0,0.0,0.0,0,512)
+ 9549, 0.7, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanFlow.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 6942, 2.177777777777778E-05, 0.0,1E+100,0.0,0,513)
+ 6902, 2.177777777777778E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 6943, false, 0.0,0.0,0.0,0,1539)
+ 6903, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.fanFlow.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 0)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 0)
DeclareVariable("ventilation.generation.fanFlow.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9581, 0, 0.0,0.0,0.0,0,512)
+ 9550, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanFlow._m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6944, 0.2177777777777778, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6904, 0.2177777777777778, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 6945, 0, 0.0,0.0,0.0,0,2561)
+ 6905, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 6946, 0, 0.0,0.0,0.0,0,2561)
+ 6906, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow._VMachine_flow", \
"Start value for VMachine_flow, used to avoid a warning if not specified [m3/s]",\
- 6947, 0, 0.0,0.0,0.0,0,2561)
+ 6907, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 6948, 1, 1.0,3.0,0.0,0,2565)
+ 6908, 1, 1.0,3.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.speedIsInput", "Parameter that is true if speed is the controlled variables [:#(type=Boolean)]",\
- 6949, true, 0.0,0.0,0.0,0,2563)
+ 6909, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 6950, 3, 0.0,0.0,0.0,0,2565)
+ 6910, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 6951, true, 0.0,0.0,0.0,0,2563)
-DeclareVariable("ventilation.generation.fanFlow.V_flow_max", "[m3/s]", 6952, \
+ 6911, true, 0.0,0.0,0.0,0,2563)
+DeclareVariable("ventilation.generation.fanFlow.V_flow_max", "[m3/s]", 6912, \
0.1814814814814815, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.rho_default", "Default medium density [kg/m3|g/cm3]",\
- 6953, 1.2, 0.0,1E+100,0.0,0,2561)
+ 6913, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.sta_start.p", "Absolute pressure of medium [Pa|bar]",\
- 6954, 101325, 0.0,100000000.0,100000.0,0,2561)
+ 6914, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.sta_start.T", "Temperature of medium [K|degC]",\
- 6955, 293.15, 1.0,10000.0,300.0,0,2561)
+ 6915, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.sta_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6956, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6916, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.sta_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6957, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6917, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.h_outflow_start", \
-"Start value for outflowing enthalpy [J/kg]", 6958, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for outflowing enthalpy [J/kg]", 6918, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.inputSwitch.u", "Connector of Real input signal",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareAlias2("ventilation.generation.fanFlow.inputSwitch.y", "Connector of Real output signal",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6959, 2, 1.0,4.0,0.0,0,2565)
+ 6919, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6960, 2, 1.0,4.0,0.0,0,2565)
+ 6920, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6961, 2, 1.0,4.0,0.0,0,2565)
+ 6921, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6962, 2, 1.0,4.0,0.0,0,2565)
+ 6922, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.p_start", "Start value of pressure [Pa|bar]",\
- 6963, 101325, 0.0,100000000.0,100000.0,0,2561)
+ 6923, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.T_start", "Start value of temperature [K|degC]",\
- 6964, 293.15, 1.0,10000.0,300.0,0,2561)
+ 6924, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6965, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6925, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 6966, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6926, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 6967, 1, 1.0,1E+100,0.0,0,2561)
+ 6927, 1, 1.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 6968, false, 0.0,0.0,0.0,0,2563)
+ 6928, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 6969, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6929, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanFlow.vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 6970, true, 0.0,0.0,0.0,0,2563)
+ 6930, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 6971, true, 0.0,0.0,0.0,0,2563)
+ 6931, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 6972, 0.2177777777777778, 0.0,1E+100,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 6932, 0.2177777777777778, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 6973, 2, 0.0,0.0,0.0,0,2565)
+ 6933, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 6974, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6934, \
2.177777777777778E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 6975, true, 0.0,0.0,0.0,0,2563)
-DeclareVariable("ventilation.generation.fanFlow.vol.V", "Volume [m3]", 6976, 0.0,\
+ 6935, true, 0.0,0.0,0.0,0,2563)
+DeclareVariable("ventilation.generation.fanFlow.vol.V", "Volume [m3]", 6936, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1156)
+"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1028)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1028)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 1156)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1028)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1028)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.ports[2].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.T", "Temperature of the fluid [K|degC]",\
- "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575, 1024)
+ "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.U", "Internal energy of the component [J]",\
"ventilation.generation.fanFlow.vol.dynBal.U", 1, 1, 67, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.p", "Pressure of the fluid [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1024)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.m", "Mass of the component [kg]",\
"ventilation.generation.fanFlow.vol.dynBal.m", 1, 1, 68, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.Xi[1]", "Species concentration of the fluid [1]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.mXi[1]", "Species mass of the component [kg]",\
- 9582, 0.0, 0.0,1E+100,0.0,0,2560)
+ 9551, 0.0, 0.0,1E+100,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 6977, 0.0, 0.0,1E+100,0.0,0,2561)
+ 6937, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 6978, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6938, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_default.T", \
-"Temperature of medium [K|degC]", 6979, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6939, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6980, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6940, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6981, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6941, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 6982, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6942, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 6983, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 6943, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_start.T", \
-"Temperature of medium [K|degC]", 6984, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6944, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6985, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6945, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.state_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6986, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6946, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 6987, false, 0.0,0.0,0.0,0,2563)
+ 6947, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1024)
+"ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.XiOut_internal[1]", \
"Internal connector for leaving species concentration of the component [1]", \
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.preTem.port.T", \
-"Port temperature [K|degC]", "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575,\
+"Port temperature [K|degC]", "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544,\
1028)
DeclareVariable("ventilation.generation.fanFlow.vol.preTem.port.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6988,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6948,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanFlow.vol.preTem.T", "[K]", \
-"ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575, 1024)
+"ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.portT.y", "Value of Real output",\
- "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575, 1024)
+ "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.heaFloSen.Q_flow", \
-"Heat flow from port_a to port_b as output signal [W]", 6989, 0.0, 0.0,0.0,0.0,0,2561)
+"Heat flow from port_a to port_b as output signal [W]", 6949, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.vol.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575,\
+"Port temperature [K|degC]", "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544,\
1028)
DeclareVariable("ventilation.generation.fanFlow.vol.heaFloSen.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6990,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6950,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanFlow.vol.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575,\
+"Port temperature [K|degC]", "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544,\
1028)
DeclareVariable("ventilation.generation.fanFlow.vol.heaFloSen.port_b.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6991,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6951,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("ventilation.generation.fanFlow.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6992,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6952,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.vol.heatPort.T", "Port temperature [K|degC]",\
- "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9575, 1028)
+ "ventilation.generation.fanFlow.heatPort.T", 1, 5, 9544, 1028)
DeclareVariable("ventilation.generation.fanFlow.vol.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 6993,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 6953,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("ventilation.generation.fanFlow.vol.tau", "Time constant at nominal flow [s]",\
- 6994, 0.0, 0.0,0.0,0.0,0,2561)
+ 6954, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.V_nominal", "Volume of delay element [m3]",\
- 6995, 0.0, 0.0,0.0,0.0,0,2561)
+ 6955, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6996, 2, 1.0,4.0,0.0,0,2565)
+ 6956, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6997, 2, 1.0,4.0,0.0,0,2565)
+ 6957, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6998, 2, 1.0,4.0,0.0,0,2565)
+ 6958, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 6999, 2, 1.0,4.0,0.0,0,2565)
+ 6959, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 7000, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 6960, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 7001, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 6961, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7002, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6962, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7003, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 6963, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7004, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 6964, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7005, false, 0.0,0.0,0.0,0,2563)
+ 6965, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 7006, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 6966, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 7007, true, 0.0,0.0,0.0,0,2563)
+ 6967, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 7008, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 6968, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 7009, false, 0.0,0.0,0.0,0,2563)
+ 6969, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7010,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 6970,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.Q_flow", \
-"Sensible plus latent heat flow rate transferred into the medium [W]", 7011, 0.0,\
+"Sensible plus latent heat flow rate transferred into the medium [W]", 6971, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1024)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.XiOut[1]", \
"Leaving species concentration of the component [1]", "ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1,\
1, 66, 1024)
@@ -9518,86 +9545,86 @@ DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.UOut", "Internal energy
"ventilation.generation.fanFlow.vol.dynBal.U", 1, 1, 67, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.mXiOut[1]", \
"Species mass of the component [kg]", "ventilation.generation.fanFlow.vol.mXi[1]", 1,\
- 5, 9582, 1024)
+ 5, 9551, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.mOut", "Mass of the component [kg]",\
"ventilation.generation.fanFlow.vol.dynBal.m", 1, 1, 68, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 1156)
+"ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 1156)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1028)
+ 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1028)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 1156)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1028)
+ 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1028)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1028)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 7012, false, 0.0,0.0,0.0,0,2563)
+ 6972, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 7013, true, 0.0,0.0,0.0,0,2563)
+ 6973, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1024)
+ 5, 9505, 1024)
DeclareState("ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", \
"Structurally independent mass fractions [1]", 66, 0.0, 0.0,1.0,0.01,0,2592)
DeclareDerivative("ventilation.generation.fanFlow.vol.dynBal.medium.der(Xi[1])",\
"der(Structurally independent mass fractions) [s-1]", 66, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "ventilation.generation.fanFlow.port_a.h_outflow", 1,\
- 5, 9574, 1024)
+ 5, 9543, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 9583, 0.0, 0.0,100000.0,1.0,0,2560)
+"Density of medium [kg/m3|g/cm3]", 9552, 0.0, 0.0,100000.0,1.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9584, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9553, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9585, 0.0, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9554, 0.0, 0.0,\
1.0,1.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.u", \
-"Specific internal energy of medium [J/kg]", 9586, 0.0, -100000000.0,100000000.0,\
+"Specific internal energy of medium [J/kg]", 9555, 0.0, -100000000.0,100000000.0,\
1000000.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 9587, 1000.0, 0.0,\
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 9556, 1000.0, 0.0,\
10000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 9588, 0.032, 0.001,0.25,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 9557, 0.032, 0.001,0.25,\
0.032,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1024)
+ 5, 9505, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "ventilation.generation.fanFlow.vol.dynBal.medium.T", 1,\
- 5, 9584, 1024)
+ 5, 9553, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.state.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.medium.state.X[2]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"ventilation.generation.fanFlow.vol.dynBal.medium.X[2]", 1, 5, 9585, 1024)
+"ventilation.generation.fanFlow.vol.dynBal.medium.X[2]", 1, 5, 9554, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9589, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9558, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 9590, 0.0, 0.0,0.0,0.0,0,2560)
+"Absolute pressure of medium in [bar] [bar]", 9559, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.medium.dT", \
-"Temperature difference used to compute enthalpy [K,]", 9591, 20.0, 0.0,0.0,0.0,\
+"Temperature difference used to compute enthalpy [K,]", 9560, 20.0, 0.0,0.0,0.0,\
0,2560)
DeclareState("ventilation.generation.fanFlow.vol.dynBal.U", "Internal energy of fluid [J]",\
67, 0.0, 0.0,0.0,100000.0,0,2592)
@@ -9609,1319 +9636,1319 @@ DeclareDerivative("ventilation.generation.fanFlow.vol.dynBal.der(m)", \
"der(Mass of fluid) [kg/s]", 68, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.mXi[1]", \
"Masses of independent components in the fluid [kg]", "ventilation.generation.fanFlow.vol.mXi[1]", 1,\
- 5, 9582, 1024)
+ 5, 9551, 1024)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.mb_flow", \
"Mass flows across boundaries [kg/s]", "ventilation.generation.fanFlow.vol.dynBal.der(m)", 1,\
6, 68, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.mbXi_flow[1]", \
-"Substance mass flows across boundaries [kg/s]", 9592, 0.0, 0.0,0.0,0.0,0,2560)
+"Substance mass flows across boundaries [kg/s]", 9561, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.vol.dynBal.Hb_flow", \
"Enthalpy flow across boundaries or energy source/sink [W]", "ventilation.generation.fanFlow.vol.dynBal.der(U)", 1,\
6, 67, 1024)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.fluidVolume", \
-"Volume [m3]", 7014, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 6974, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 7015, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 6975, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.ports_H_flow[1]", \
-"[W]", 9593, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9562, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.ports_H_flow[2]", \
-"[W]", 9594, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9563, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.ports_mXi_flow[1, 1]",\
- "[kg/s]", 9595, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9564, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.ports_mXi_flow[2, 1]",\
- "[kg/s]", 9596, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9565, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7016, 1014.54, \
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 6976, 1014.54, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7017, 0.0, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6977, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 7018, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 6978, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 7019, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 6979, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 7020, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 6980, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7021, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6981, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7022, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 6982, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7023, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 6983, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.s[1]", \
-"Vector with zero everywhere except where species is", 7024, 1, 0.0,0.0,0.0,0,2561)
+"Vector with zero everywhere except where species is", 6984, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 7025, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 6985, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 7026, true, 0.0,0.0,0.0,0,2563)
+ 6986, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.vol.dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 7027, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6987, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.preSou.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7028, true, 0.0,0.0,0.0,0,2563)
+ 6988, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 1156)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 1028)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 1028)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 1028)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1028)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 1156)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_in[1].p", 1, 5, 9533, 1028)
+ "ventilation.generation.portVent_in[1].p", 1, 5, 9502, 1028)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1028)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1028)
DeclareAlias2("ventilation.generation.fanFlow.preSou.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareParameter("ventilation.generation.fanFlow.preSou.dp_start", \
-"Guess value of dp = port_a.p - port_b.p [Pa|Pa]", 1368, 0, 0.0,0.0,0.0,0,2608)
+"Guess value of dp = port_a.p - port_b.p [Pa|Pa]", 1374, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("ventilation.generation.fanFlow.preSou.m_flow_start", \
-"Guess value of m_flow = port_a.m_flow [kg/s]", 1369, 0, -100000.0,100000.0,0.0,\
+"Guess value of m_flow = port_a.m_flow [kg/s]", 1375, 0, -100000.0,100000.0,0.0,\
0,2608)
DeclareVariable("ventilation.generation.fanFlow.preSou.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7029, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 6989, \
2.177777777777778E-05, -100000.0,100000.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.preSou.show_T", "= true, if temperatures at port_a and port_b are computed [:#(type=Boolean)]",\
- 7030, false, 0.0,0.0,0.0,0,1539)
+ 6990, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanFlow.preSou.show_V_flow", \
-"= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]", 7031,\
+"= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]", 6991,\
true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.fanFlow.preSou.m_flow", "Mass flow rate in design flow direction [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 1024)
+ "building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 1024)
DeclareAlias2("ventilation.generation.fanFlow.preSou.dp", "Pressure difference between port_a and port_b (= port_a.p - port_b.p) [Pa|Pa]",\
- "ventilation.generation.fanFlow.dpMachine", -1, 5, 9577, 1024)
+ "ventilation.generation.fanFlow.dpMachine", -1, 5, 9546, 1024)
DeclareVariable("ventilation.generation.fanFlow.preSou.V_flow", "Volume flow rate at inflowing port (positive when flow from port_a to port_b) [m3/s]",\
- 9597, 0.0, 0.0,0.0,0.0,0,2560)
+ 9566, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.preSou.control_m_flow", \
"if true, then the mass flow rate is equal to the value of m_flow_in [:#(type=Boolean)]",\
- 7032, false, 0.0,0.0,0.0,0,2563)
+ 6992, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.preSou.control_dp", \
-"if true, then the head is equal to the value of dp_in [:#(type=Boolean)]", 7033,\
+"if true, then the head is equal to the value of dp_in [:#(type=Boolean)]", 6993,\
true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.preSou.dp_in", "Prescribed pressure difference port_a.p-port_b.p [Pa]",\
- "ventilation.generation.fanFlow.dpMachine", -1, 5, 9577, 1024)
+ "ventilation.generation.fanFlow.dpMachine", -1, 5, 9546, 1024)
DeclareVariable("ventilation.generation.fanFlow.preSou.m_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 7034, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 6994, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.preSou.dp_internal", \
"Needed to connect to conditional connector [Pa]", "ventilation.generation.fanFlow.dpMachine", -1,\
- 5, 9577, 1024)
+ 5, 9546, 1024)
DeclareVariable("ventilation.generation.fanFlow.rho_inlet.y", "Value of Real output",\
- 9598, 0.0, 0.0,1E+100,0.0,0,2560)
+ 9567, 0.0, 0.0,1E+100,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.senMasFlo.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7035, true, 0.0,0.0,0.0,0,2563)
+ 6995, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 1156)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1028)
+ 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 1028)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 1028)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 1028)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 1156)
+"building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 1156)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1028)
+ 5, 9505, 1028)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 1028)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 1028)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 1028)
DeclareVariable("ventilation.generation.fanFlow.senMasFlo.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 7036, 0,\
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 6996, 0,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.senMasFlo.m_flow_small", \
"For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 7037, 0, 0.0,1E+100,0.0,0,2561)
+ 6997, 0, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.senMasFlo.m_flow", \
"Mass flow rate from port_a to port_b [kg/s]", "building.thermalZone[1].ports[1].m_flow", 1,\
- 5, 8510, 1024)
+ 5, 8473, 1024)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.port_a.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 7038, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 6998, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanFlow.senRelPre.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.portVent_in[1].p", 1,\
- 5, 9533, 1028)
+ 5, 9502, 1028)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 7039, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 6999, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- 7040, 0.0, 0.0,1.0,0.1,0,2569)
+ 7000, 0.0, 0.0,1.0,0.1,0,2569)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.port_b.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 7041, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 7001, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanFlow.senRelPre.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b1.p", 1,\
- 5, 9536, 1028)
+ 5, 9505, 1028)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 7042, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 7002, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- 7043, 0.0, 0.0,1.0,0.1,0,2569)
+ 7003, 0.0, 0.0,1.0,0.1,0,2569)
DeclareVariable("ventilation.generation.fanFlow.senRelPre.p_rel", \
-"Relative pressure of port_a minus port_b [Pa|Pa]", 9599, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative pressure of port_a minus port_b [Pa|Pa]", 9568, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.eff.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 7044, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 7004, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanFlow.eff.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7045, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7005, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7046, \
+"Volume flow rate at user-selected operating points [m3/s]", 7006, \
0.09074074074074075, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7047, \
+"Volume flow rate at user-selected operating points [m3/s]", 7007, \
0.1814814814814815, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7048, 224.00000000000003,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7008, 224.00000000000003,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7049, 200.0, 0.0,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7009, 200.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7050, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7010, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.V_flow_max", \
-"Volume flow rate on the curve when pressure rise is zero [m3/s]", 7051, \
+"Volume flow rate on the curve when pressure rise is zero [m3/s]", 7011, \
0.1814814814814815, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 7052, 224.00000000000003, 0.0,0.0,0.0,0,2561)
+ 7012, 224.00000000000003, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.etaHydMet", \
"Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 7053, 4, 1.0,4.0,0.0,0,2565)
+ 7013, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.per.etaMotMet", \
"Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 7054, 4, 1.0,4.0,0.0,0,2565)
+ 7014, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 7055, true, 0.0,0.0,0.0,0,2563)
+ 7015, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 7056, 0.0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 7016, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 7057, 0.0, 0.0,1.0,0.0,0,2561)
+"Fan or pump efficiency at these flow rates [1]", 7017, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency.V_flow[1]",\
- "Volumetric flow rate at user-selected operating points [m3/s]", 7058, 0.0, 0.0,\
+ "Volumetric flow rate at user-selected operating points [m3/s]", 7018, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency.eta[1]",\
- "Fan or pump efficiency at these flow rates [1]", 7059, 0.0, 0.0,1.0,0.0,0,2561)
+ "Fan or pump efficiency at these flow rates [1]", 7019, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 7060, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7020, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 7061, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7021, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7062, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7022, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.power.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 7063, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7023, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 7064, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 7024, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.peak.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 7065, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 7025, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.peak.eta", \
-"Peak efficiency [1]", 7066, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 7026, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 7067, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 7027, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 7068, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 7028, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.peak_internal.eta", \
-"Peak efficiency [1]", 7069, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 7029, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 7070, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 7030, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.per.WMot_nominal", \
-"Rated motor power [W]", 7071, 0.0, 0.0,0.0,0.0,0,2561)
+"Rated motor power [W]", 7031, 0.0, 0.0,0.0,0.0,0,2561)
DeclareParameter("ventilation.generation.fanFlow.eff.per.etaMot_max", \
-"Maximum motor efficiency [1]", 1370, 0.7, 0.0,1.0,0.0,0,2608)
+"Maximum motor efficiency [1]", 1376, 0.7, 0.0,1.0,0.0,0,2608)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 7072, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7032, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 7073, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7033, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 7074, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7034, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 7075, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7035, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 7076, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7036, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 7077, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7037, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 7078, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7038, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 7079, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7039, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 7080, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7040, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 7081, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7041, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 7082, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7042, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 7083, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7043, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 7084, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7044, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 7085, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7045, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 7086, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7046, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 7087, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7047, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 7088, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7048, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 7089, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7049, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 7090, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 7050, false, \
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 7091, 0, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 7051, 0, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 7092, 0, 0.0,1E+100,0.0,0,2561)
+ 7052, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.speeds[1]", \
"Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 7093, 0, 0.0,1E+100,0.0,0,2561)
+ 7053, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 7094, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 7054, true,\
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 7095, 1, 1.0,3.0,0.0,0,2565)
+ 7055, 1, 1.0,3.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 7096, true, 0.0,0.0,0.0,0,2563)
+ 7056, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.V_flow_nominal", \
-"Nominal volume flow rate, used for homotopy [m3/s]", 7097, 0.1814814814814815, \
+"Nominal volume flow rate, used for homotopy [m3/s]", 7057, 0.1814814814814815, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.rho_default", \
-"Fluid density at medium default state [kg/m3|g/cm3]", 7098, 1.2, 0.0,1E+100,0.0,\
+"Fluid density at medium default state [kg/m3|g/cm3]", 7058, 1.2, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 7099, true, 0.0,0.0,0.0,0,2563)
+ 7059, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.V_flow_max", \
-"Maximum volume flow rate, used for smoothing [m3/s]", 7100, 0.1814814814814815,\
+"Maximum volume flow rate, used for smoothing [m3/s]", 7060, 0.1814814814814815,\
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 7101, 3, 1.0,1E+100,0.0,0,2565)
+ 7061, 3, 1.0,1E+100,0.0,0,2565)
DeclareAlias2("ventilation.generation.fanFlow.eff.y_out", "Mover speed (prescribed or computed) [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.m_flow", "Mass flow rate [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 1024)
+ "building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.rho", "Medium density [kg/m3]",\
- "ventilation.generation.fanFlow.rho_inlet.y", 1, 5, 9598, 1024)
+ "ventilation.generation.fanFlow.rho_inlet.y", 1, 5, 9567, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.V_flow", "Volume flow rate [m3/s]",\
- "ventilation.generation.fanFlow.VMachine_flow", 1, 5, 9576, 1024)
-DeclareVariable("ventilation.generation.fanFlow.eff.WFlo", "Flow work [W]", 9600,\
+ "ventilation.generation.fanFlow.VMachine_flow", 1, 5, 9545, 1024)
+DeclareVariable("ventilation.generation.fanFlow.eff.WFlo", "Flow work [W]", 9569,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.eff.WHyd", "Hydraulic work (shaft work, brake horsepower) [W]",\
- 9601, 0.0, 0.0,0.0,0.0,0,2560)
+ 9570, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.eff.PEle", "Electrical power consumed [W]",\
"outputs.ventilation.generation.PVentSup", 1, 3, 34, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.eta", "Overall efficiency [1]",\
- "ventilation.generation.fanFlow.eta", 1, 5, 9578, 1024)
+ "ventilation.generation.fanFlow.eta", 1, 5, 9547, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.etaHyd", "Hydraulic efficiency [1]",\
- "ventilation.generation.fanFlow.etaHyd", 1, 5, 9579, 1024)
+ "ventilation.generation.fanFlow.etaHyd", 1, 5, 9548, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.etaMot", "Motor efficiency [1]",\
- "ventilation.generation.fanFlow.etaMot", 1, 5, 9580, 1024)
+ "ventilation.generation.fanFlow.etaMot", 1, 5, 9549, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.r_N", "Ratio N_actual/N_nominal [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareVariable("ventilation.generation.fanFlow.eff.r_V", "Ratio V_flow/V_flow_max [1]",\
- 9602, 0.1814814814814815, 0.0,0.0,0.0,0,2560)
+ 9571, 0.1814814814814815, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanFlow.eff.preSpe", "True if speed is a prescribed variable of this block [:#(type=Boolean)]",\
- 7102, true, 0.0,0.0,0.0,0,2563)
+ 7062, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.prePre", "True if pressure head is a prescribed variable of this block [:#(type=Boolean)]",\
- 7103, false, 0.0,0.0,0.0,0,2563)
+ 7063, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.etaDer[1]", "Coefficients for cubic spline of total or hydraulic efficiency vs. volume flow rate",\
- 7104, 0, 0.0,0.0,0.0,0,2561)
+ 7064, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer[1]", "Coefficients for cubic spline of motor efficiency vs. volume flow rate",\
- 7105, 0, 0.0,0.0,0.0,0,2561)
+ 7065, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot[1]", \
-"Coefficients for cubic spline of motor efficiency vs. motor PLR", 7106, 0, \
+"Coefficients for cubic spline of motor efficiency vs. motor PLR", 7066, 0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[1]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7107, 0.0, 0.0,0.0,0.0,0,2561)
+ 7067, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[2]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7108, 0.0, 0.0,0.0,0.0,0,2561)
+ 7068, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[3]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7109, 0.0, 0.0,0.0,0.0,0,2561)
+ 7069, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[4]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7110, 0.0, 0.0,0.0,0.0,0,2561)
+ 7070, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[5]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7111, 0.0, 0.0,0.0,0.0,0,2561)
+ 7071, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[6]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7112, 0.0, 0.0,0.0,0.0,0,2561)
+ 7072, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[7]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7113, 0.0, 0.0,0.0,0.0,0,2561)
+ 7073, 0.0, 0.0,0.0,0.0,0,2561)
+EndNonAlias(6)
+PreNonAliasNew(7)
+StartNonAlias(7)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[8]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7114, 0.0, 0.0,0.0,0.0,0,2561)
+ 7074, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.motDer_yMot_generic[9]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7115, 0.0, 0.0,0.0,0.0,0,2561)
+ 7075, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.dpMax", "Maximum head [Pa|Pa]",\
- 7116, 224.00000000000003, 0.0,0.0,0.0,0,2561)
+ 7076, 224.00000000000003, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.delta", "Small value used to for regularization and to approximate an internal flow resistance of the fan",\
- 7117, 0.05, 0.0,0.0,0.0,0,2561)
+ 7077, 0.05, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.kRes", "Coefficient for internal pressure drop of the fan or pump [kg/(s.m4)]",\
- 7118, 0.30857142857142866, 0.0,1E+100,0.0,0,2561)
+ 7078, 0.30857142857142866, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.curve", "Flag, used to pick the right representation of the fan or pump's pressure curve [:#(type=Integer)]",\
- 7119, 1, 0.0,0.0,0.0,0,2565)
+ 7079, 1, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.n", "Number of elements in each array [:#(type=Integer)]",\
- 7120, 3, 0.0,0.0,0.0,0,2565)
+ 7080, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7121, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7081, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7122, \
+"Volume flow rate at user-selected operating points [m3/s]", 7082, \
0.09074074074074075, 0.0,1E+100,0.0,0,2561)
-EndNonAlias(6)
-PreNonAliasNew(7)
-StartNonAlias(7)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7123, \
+"Volume flow rate at user-selected operating points [m3/s]", 7083, \
0.1814814814814815, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7124, 224.00000000000003,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7084, 224.00000000000003,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7125, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7085, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur1.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7126, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7086, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.n", "Number of elements in each array [:#(type=Integer)]",\
- 7127, 4, 0.0,0.0,0.0,0,2565)
+ 7087, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7128, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7088, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7129, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7089, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7130, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7090, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7131, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7091, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7132, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7092, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7133, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7093, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7134, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7094, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur2.dp[4]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7135, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7095, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.n", "Number of elements in each array [:#(type=Integer)]",\
- 7136, 5, 0.0,0.0,0.0,0,2565)
+ 7096, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7137, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7097, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7138, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7098, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7139, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7099, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7140, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7100, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7141, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7101, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7142, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7102, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7143, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7103, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7144, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7104, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.dp[4]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7145, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7105, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.pCur3.dp[5]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7146, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7106, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer1[1]", \
-"Derivatives of flow rate vs. pressure at the support points", 7147, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7107, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer1[2]", \
-"Derivatives of flow rate vs. pressure at the support points", 7148, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7108, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer1[3]", \
-"Derivatives of flow rate vs. pressure at the support points", 7149, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7109, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer2[1]", \
-"Derivatives of flow rate vs. pressure at the support points", 7150, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7110, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer2[2]", \
-"Derivatives of flow rate vs. pressure at the support points", 7151, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7111, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer2[3]", \
-"Derivatives of flow rate vs. pressure at the support points", 7152, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7112, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer2[4]", \
-"Derivatives of flow rate vs. pressure at the support points", 7153, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7113, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer3[1]", \
-"Derivatives of flow rate vs. pressure at the support points", 7154, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7114, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer3[2]", \
-"Derivatives of flow rate vs. pressure at the support points", 7155, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7115, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer3[3]", \
-"Derivatives of flow rate vs. pressure at the support points", 7156, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7116, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer3[4]", \
-"Derivatives of flow rate vs. pressure at the support points", 7157, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7117, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.preDer3[5]", \
-"Derivatives of flow rate vs. pressure at the support points", 7158, 0.0, \
+"Derivatives of flow rate vs. pressure at the support points", 7118, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powDer[1]", "Coefficients for polynomial of power vs. flow rate",\
- 7159, 0.0, 0.0,0.0,0.0,0,2561)
+ 7119, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7160, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7120, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7161, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7121, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7162, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7122, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7163, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7123, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7164, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7124, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7165, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7125, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7166, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7126, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7167, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7127, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7168, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7128, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7169, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7129, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7170, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7130, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 7171, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7131, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[2]", \
-"Fan or pump electrical power at these flow rates [W]", 7172, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7132, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[3]", \
-"Fan or pump electrical power at these flow rates [W]", 7173, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7133, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[4]", \
-"Fan or pump electrical power at these flow rates [W]", 7174, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7134, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[5]", \
-"Fan or pump electrical power at these flow rates [W]", 7175, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7135, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[6]", \
-"Fan or pump electrical power at these flow rates [W]", 7176, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7136, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[7]", \
-"Fan or pump electrical power at these flow rates [W]", 7177, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7137, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[8]", \
-"Fan or pump electrical power at these flow rates [W]", 7178, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7138, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[9]", \
-"Fan or pump electrical power at these flow rates [W]", 7179, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7139, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 7180, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7140, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 7181, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7141, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[1]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7182, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7142, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[2]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7183, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7143, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[3]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7184, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7144, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[4]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7185, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7145, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[5]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7186, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7146, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[6]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7187, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7147, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[7]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7188, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7148, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[8]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7189, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7149, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[9]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7190, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7150, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[10]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7191, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7151, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu_internal.d[11]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7192, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7152, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7193, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7153, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7194, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7154, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7195, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7155, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7196, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7156, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7197, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7157, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7198, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7158, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7199, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7159, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7200, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7160, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7201, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7161, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7202, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7162, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7203, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7163, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 7204, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7164, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[2]", \
-"Fan or pump electrical power at these flow rates [W]", 7205, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7165, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[3]", \
-"Fan or pump electrical power at these flow rates [W]", 7206, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7166, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[4]", \
-"Fan or pump electrical power at these flow rates [W]", 7207, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7167, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[5]", \
-"Fan or pump electrical power at these flow rates [W]", 7208, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7168, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[6]", \
-"Fan or pump electrical power at these flow rates [W]", 7209, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7169, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[7]", \
-"Fan or pump electrical power at these flow rates [W]", 7210, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7170, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[8]", \
-"Fan or pump electrical power at these flow rates [W]", 7211, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7171, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[9]", \
-"Fan or pump electrical power at these flow rates [W]", 7212, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7172, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 7213, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7173, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEu.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 7214, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7174, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[1]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7215, 0.0, 0.0,0.0,0.0,0,2561)
+ 7175, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[2]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7216, 0.0, 0.0,0.0,0.0,0,2561)
+ 7176, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[3]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7217, 0.0, 0.0,0.0,0.0,0,2561)
+ 7177, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[4]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7218, 0.0, 0.0,0.0,0.0,0,2561)
+ 7178, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[5]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7219, 0.0, 0.0,0.0,0.0,0,2561)
+ 7179, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[6]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7220, 0.0, 0.0,0.0,0.0,0,2561)
+ 7180, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[7]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7221, 0.0, 0.0,0.0,0.0,0,2561)
+ 7181, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[8]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7222, 0.0, 0.0,0.0,0.0,0,2561)
+ 7182, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[9]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7223, 0.0, 0.0,0.0,0.0,0,2561)
+ 7183, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[10]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7224, 0.0, 0.0,0.0,0.0,0,2561)
+ 7184, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.powEuDer[11]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7225, 0.0, 0.0,0.0,0.0,0,2561)
+ 7185, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.haveMinimumDecrease", \
-"Flag used for reporting [:#(type=Boolean)]", 7226, true, 0.0,0.0,0.0,0,2563)
+"Flag used for reporting [:#(type=Boolean)]", 7186, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanFlow.eff.haveDPMax", "Flag, true if user specified data that contain dpMax [:#(type=Boolean)]",\
- 7227, true, 0.0,0.0,0.0,0,2563)
+ 7187, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanFlow.eff.dp_internal", "If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N",\
- "ventilation.generation.fanFlow.dpMachine", 1, 5, 9577, 1024)
+ "ventilation.generation.fanFlow.dpMachine", 1, 5, 9546, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.eta_internal", \
-"Either eta or etaHyd [1]", "ventilation.generation.fanFlow.etaHyd", 1, 5, 9579,\
+"Either eta or etaHyd [1]", "ventilation.generation.fanFlow.etaHyd", 1, 5, 9548,\
1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.P_internal", "Either PEle or WHyd [W]",\
- "ventilation.generation.fanFlow.eff.WHyd", 1, 5, 9601, 1024)
+ "ventilation.generation.fanFlow.eff.WHyd", 1, 5, 9570, 1024)
DeclareVariable("ventilation.generation.fanFlow.eff.deltaP", "Small value for regularisation of power",\
- 7228, 0.0040651851851851864, 0.0,0.0,0.0,0,2561)
+ 7188, 0.0040651851851851864, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanFlow.eff.yMot", "Motor part load ratio",\
- 9603, 0.833, 0.0,1E+100,0.0,0,2560)
+ 9572, 0.833, 0.0,1E+100,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanFlow.eff.y_in", "Prescribed mover speed [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareAlias2("ventilation.generation.fanFlow.eff.dp", "Pressure increase (computed or prescribed) [Pa]",\
- "ventilation.generation.fanFlow.dpMachine", 1, 5, 9577, 1024)
+ "ventilation.generation.fanFlow.dpMachine", 1, 5, 9546, 1024)
DeclareVariable("ventilation.generation.fanFlow.y_start", "Initial value of speed [1]",\
- 7229, 1, 0.0,1.0,0.0,0,513)
+ 7189, 1, 0.0,1.0,0.0,0,513)
DeclareAlias2("ventilation.generation.fanFlow.y", "Constant normalized rotational speed [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 0)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 0)
DeclareVariable("ventilation.generation.fanFlow.gain.k", "Gain value multiplied with input signal [1]",\
- 7230, -1, 0.0,0.0,0.0,0,2561)
+ 7190, -1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanFlow.gain.u", "Input signal connector",\
- "ventilation.generation.fanFlow.dpMachine", 1, 5, 9577, 1024)
+ "ventilation.generation.fanFlow.dpMachine", 1, 5, 9546, 1024)
DeclareAlias2("ventilation.generation.fanFlow.gain.y", "Output signal connector",\
- "ventilation.generation.fanFlow.dpMachine", -1, 5, 9577, 1024)
+ "ventilation.generation.fanFlow.dpMachine", -1, 5, 9546, 1024)
DeclareVariable("ventilation.generation.fanFlow.m_flow_nominal", \
-"Nominal mass flow rate for configuration of pressure curve [kg/s]", 7231, \
+"Nominal mass flow rate for configuration of pressure curve [kg/s]", 7191, \
0.1088888888888889, 1E-60,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanFlow.dp_nominal", "Nominal pressure head for configuration of pressure curve [Pa|bar]",\
- 7232, 200.0, 1E-60,1E+100,0.0,0,513)
-DeclareParameter("ventilation.generation.yFan.k", "Constant output value", 1371,\
+ 7192, 200.0, 1E-60,1E+100,0.0,0,513)
+DeclareParameter("ventilation.generation.yFan.k", "Constant output value", 1377,\
1, 0.0,0.0,0.0,0,560)
DeclareAlias2("ventilation.generation.yFan.y", "Connector of Real output signal",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 0)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 0)
DeclareVariable("ventilation.generation.TExhIn.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7233, true, 0.0,0.0,0.0,0,515)
+ 7193, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.TExhIn.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- 9604, 0.0, -100000.0,100000.0,0.0,0,776)
+ 9573, 0.0, -100000.0,100000.0,0.0,0,776)
DeclareVariable("ventilation.generation.TExhIn.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 9605, 0.0, 0.0,100000000.0,100000.0,0,520)
+ 9574, 0.0, 0.0,100000000.0,100000.0,0,520)
DeclareVariable("ventilation.generation.TExhIn.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9606, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9575, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.TExhIn.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.TExhIn.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 132)
+ "ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 132)
DeclareAlias2("ventilation.generation.TExhIn.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.TExhIn.port_a.p", 1, 5, 9605, 4)
+ "ventilation.generation.TExhIn.port_a.p", 1, 5, 9574, 4)
DeclareVariable("ventilation.generation.TExhIn.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9607, 0.0, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9576, 0.0, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareVariable("ventilation.generation.TExhIn.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- 9608, 0.0, 0.0,1.0,0.01,0,520)
+ 9577, 0.0, 0.0,1.0,0.01,0,520)
DeclareVariable("ventilation.generation.TExhIn.m_flow_nominal", "Nominal mass flow rate, used for regularization near zero flow [kg/s]",\
- 7234, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
+ 7194, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TExhIn.m_flow_small", "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 7235, 1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
+ 7195, 1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TExhIn.tau", "Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]",\
- 7236, 1.0, 0.0,1E+100,0.0,0,513)
+ 7196, 1.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TExhIn.initType", "Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]",\
- 7237, 3, 1.0,4.0,0.0,0,517)
+ 7197, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.TExhIn.k", "Gain to take flow rate into account for sensor time constant",\
- 9609, 1, 0.0,0.0,0.0,0,2560)
+ 9578, 1, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.TExhIn.dynamic", "Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]",\
- 7238, true, 0.0,0.0,0.0,0,2563)
+ 7198, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.TExhIn.mNor_flow", "Normalized mass flow rate",\
- 9610, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("ventilation.generation.TExhIn.tauInv", "Inverse of tau [s-1]", 7239,\
+ 9579, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("ventilation.generation.TExhIn.tauInv", "Inverse of tau [s-1]", 7199,\
1.0, 0.0,0.0,0.0,0,2561)
DeclareState("ventilation.generation.TExhIn.T", "Temperature of the passing fluid [K|degC]",\
69, 0.0, 0.0,1E+100,0.0,0,544)
DeclareDerivative("ventilation.generation.TExhIn.der(T)", "der(Temperature of the passing fluid) [K/s]",\
69, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.TExhIn.T_start", "Initial or guess value of output (= state) [K|degC]",\
- 7240, 288.15, 0.0,1E+100,300.0,0,513)
+ 7200, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TExhIn.transferHeat", "if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]",\
- 7241, false, 0.0,0.0,0.0,0,515)
+ 7201, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.TExhIn.TAmb", "Fixed ambient temperature for heat transfer [K|degC]",\
- 7242, 288.15, 0.0,1E+100,300.0,0,513)
+ 7202, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TExhIn.tauHeaTra", "Time constant for heat transfer, default 20 minutes [s]",\
- 7243, 1.0, 1.0,1E+100,0.0,0,513)
+ 7203, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TExhIn.tauHeaTraInv", "Dummy parameter to avoid division by tauHeaTra [1/s]",\
- 7244, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("ventilation.generation.TExhIn.ratTau", "Ratio of tau", 7245, \
+ 7204, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("ventilation.generation.TExhIn.ratTau", "Ratio of tau", 7205, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.TExhIn.TMed", "Medium temperature to which the sensor is exposed [K|degC]",\
- 9611, 300.0, 1.0,10000.0,300.0,0,2560)
+ 9580, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareVariable("ventilation.generation.TExhIn.T_a_inflow", "Temperature of inflowing fluid at port_a [K|degC]",\
- 9612, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9581, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("ventilation.generation.TExhIn.T_b_inflow", "Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]",\
- 9613, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9582, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("ventilation.generation.bouExh.nPorts", "Number of ports [:#(type=Integer)]",\
- 7246, 1, 0.0,0.0,0.0,0,517)
+ 7206, 1, 0.0,0.0,0.0,0,517)
DeclareVariable("ventilation.generation.bouExh.verifyInputs", "Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]",\
- 7247, false, 0.0,0.0,0.0,0,515)
+ 7207, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.bouExh.ports[1].m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 9614, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 9583, 0, \
-100000.0,100000.0,0.0,0,776)
DeclareVariable("ventilation.generation.bouExh.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- 7248, 101325.0, 0.0,100000000.0,100000.0,0,521)
+ 7208, 101325.0, 0.0,100000000.0,100000.0,0,521)
DeclareVariable("ventilation.generation.bouExh.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 7249, 45300.945, -10000000000.0,10000000000.0,45300.945,0,521)
+ 7209, 45300.945, -10000000000.0,10000000000.0,45300.945,0,521)
DeclareAlias2("ventilation.generation.bouExh.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouExh.X[1]", 1, 7, 1372, 4)
+ "ventilation.generation.bouExh.X[1]", 1, 7, 1378, 4)
DeclareVariable("ventilation.generation.bouExh.flowDirection", "Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]",\
- 7250, 3, 1.0,3.0,0.0,0,2565)
+ 7210, 3, 1.0,3.0,0.0,0,2565)
DeclareVariable("ventilation.generation.bouExh.p_in_internal", "Needed to connect to conditional connector [Pa]",\
- 7251, 101325.0, 0.0,0.0,0.0,0,2561)
+ 7211, 101325.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.bouExh.Xi_in_internal[1]", \
"Needed to connect to conditional connector [kg/kg]", "ventilation.generation.bouExh.X[1]", 1,\
- 7, 1372, 1024)
+ 7, 1378, 1024)
DeclareVariable("ventilation.generation.bouExh.X_in_internal[1]", \
-"Needed to connect to conditional connector [kg/kg]", 7252, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 7212, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.bouExh.X_in_internal[2]", \
-"Needed to connect to conditional connector [kg/kg]", 7253, 0.0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/kg]", 7213, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.bouExh.use_X_in", "Get the composition (all fractions) from the input connector [:#(type=Boolean)]",\
- 7254, false, 0.0,0.0,0.0,0,515)
+ 7214, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.bouExh.use_Xi_in", "Get the composition (independent fractions) from the input connector [:#(type=Boolean)]",\
- 7255, false, 0.0,0.0,0.0,0,515)
+ 7215, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.bouExh.use_C_in", "Get the trace substances from the input connector [:#(type=Boolean)]",\
- 7256, false, 0.0,0.0,0.0,0,515)
+ 7216, false, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.bouExh.X[1]", "Fixed value of composition [kg/kg]",\
- 1372, 0.01, 0.0,1.0,0.1,0,560)
+ 1378, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.generation.bouExh.X[2]", "Fixed value of composition [kg/kg]",\
- 1373, 0.99, 0.0,1.0,0.1,0,560)
+ 1379, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("ventilation.generation.bouExh.use_p_in", "Get the pressure from the input connector [:#(type=Boolean)]",\
- 7257, false, 0.0,0.0,0.0,0,515)
+ 7217, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.bouExh.p", "Fixed value of pressure [Pa|bar]",\
- 7258, 101325, 0.0,100000000.0,100000.0,0,513)
+ 7218, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.bouExh.use_T_in", "Get the temperature from the input connector [:#(type=Boolean)]",\
- 7259, false, 0.0,0.0,0.0,0,515)
+ 7219, false, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.bouExh.T", "Fixed value of temperature [K|degC]",\
- 1374, 293.15, 1.0,10000.0,300.0,0,560)
+ 1380, 293.15, 1.0,10000.0,300.0,0,560)
DeclareVariable("ventilation.generation.bouExh.checkWaterPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 7260, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 7220, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.bouExh.checkAirPressure", \
-"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 7261, \
+"Evaluates to true if the pressure should be checked [:#(type=Boolean)]", 7221, \
true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.bouExh.T_in_internal", "Needed to connect to conditional connector [K|degC]",\
- "ventilation.generation.bouExh.T", 1, 7, 1374, 1024)
+ "ventilation.generation.bouExh.T", 1, 7, 1380, 1024)
DeclareAlias2("ventilation.generation.bouExh.h_internal", "Internal connector for enthalpy",\
- "ventilation.generation.bouExh.ports[1].h_outflow", 1, 5, 7249, 1024)
+ "ventilation.generation.bouExh.ports[1].h_outflow", 1, 5, 7209, 1024)
DeclareVariable("ventilation.generation.fanRet.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7262, 2, 1.0,4.0,0.0,0,517)
+ 7222, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7263, 2, 1.0,4.0,0.0,0,517)
+ 7223, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7264, 2, 1.0,4.0,0.0,0,517)
+ 7224, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7265, 2, 1.0,4.0,0.0,0,517)
+ 7225, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.p_start", "Start value of pressure [Pa|bar]",\
- 7266, 101325, 0.0,100000000.0,100000.0,0,513)
+ 7226, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.fanRet.T_start", "Start value of temperature [K|degC]",\
- 7267, 293.15, 1.0,10000.0,300.0,0,513)
+ 7227, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("ventilation.generation.fanRet.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1375, 0.01, 0.0,1.0,0.1,0,560)
+ 1381, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.generation.fanRet.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 1376, 0.99, 0.0,1.0,0.1,0,560)
+ 1382, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("ventilation.generation.fanRet.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 7268, 1, 1.0,1E+100,0.0,0,513)
+ 7228, 1, 1.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7269, false, 0.0,0.0,0.0,0,2563)
+ 7229, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7270, true, 0.0,0.0,0.0,0,515)
+ 7230, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.fanRet.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 132)
DeclareAlias2("ventilation.generation.fanRet.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 4)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 4)
DeclareAlias2("ventilation.generation.fanRet.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 4)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 4)
DeclareAlias2("ventilation.generation.fanRet.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 4)
DeclareAlias2("ventilation.generation.fanRet.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 132)
+ "ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 132)
DeclareAlias2("ventilation.generation.fanRet.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.TExhIn.port_a.p", 1, 5, 9605, 4)
+ "ventilation.generation.TExhIn.port_a.p", 1, 5, 9574, 4)
DeclareAlias2("ventilation.generation.fanRet.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_b.h_outflow", 1, 5, 9607, 4)
+ "ventilation.generation.TExhIn.port_b.h_outflow", 1, 5, 9576, 4)
DeclareAlias2("ventilation.generation.fanRet.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.TExhIn.port_b.Xi_outflow[1]", 1, 5, 9608, 4)
+ "ventilation.generation.TExhIn.port_b.Xi_outflow[1]", 1, 5, 9577, 4)
DeclareVariable("ventilation.generation.fanRet.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7271, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7231, 0.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7272, \
+"Volume flow rate at user-selected operating points [m3/s]", 7232, \
0.09074074074074075, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7273, \
+"Volume flow rate at user-selected operating points [m3/s]", 7233, \
0.1814814814814815, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7274, 672.0000000000001,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7234, 672.0000000000001,\
0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7275, 600.0, 0.0,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7235, 600.0, 0.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7276, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7236, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.V_flow_max", "Volume flow rate on the curve when pressure rise is zero [m3/s]",\
- 7277, 0.1814814814814815, 0.0,0.0,0.0,0,513)
+ 7237, 0.1814814814814815, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 7278, 672.0000000000001, 0.0,0.0,0.0,0,513)
+ 7238, 672.0000000000001, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.etaHydMet", "Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 7279, 4, 1.0,4.0,0.0,0,517)
+ 7239, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.per.etaMotMet", "Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 7280, 4, 1.0,4.0,0.0,0,517)
+ 7240, 4, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 7281, true, 0.0,0.0,0.0,0,515)
+ 7241, true, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.fanRet.per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 1377, 0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 1383, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1378, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1384, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.motorEfficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 1379, 0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 1385, 0, 0.0,\
1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.motorEfficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 1380, 0.7, 0.0,1.0,0.0,0,560)
+"Fan or pump efficiency at these flow rates [1]", 1386, 0.7, 0.0,1.0,0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.motorEfficiency_yMot.y[1]", \
-"Part load ratio, y = PEle/PEle_nominal", 1381, 0, 0.0,1E+100,0.0,0,560)
+"Part load ratio, y = PEle/PEle_nominal", 1387, 0, 0.0,1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 1382, 0.7, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 1388, 0.7, 0.0,1.0,0.0,\
0,560)
DeclareParameter("ventilation.generation.fanRet.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 1383, 0, 0.0,1E+100,\
+"Volume flow rate at user-selected operating points [m3/s]", 1389, 0, 0.0,1E+100,\
0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.power.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 1384, 0, 0.0,1E+100,0.0,\
+"Fan or pump electrical power at these flow rates [W]", 1390, 0, 0.0,1E+100,0.0,\
0,560)
DeclareVariable("ventilation.generation.fanRet.per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 7282, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 7242, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.peak.dp", "Pressure rise at peak efficiency [Pa|Pa]",\
- 7283, 0.0, 0.0,1E+100,0.0,0,513)
+ 7243, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.peak.eta", "Peak efficiency [1]",\
- 7284, 0.0, 0.0,1E+100,0.0,0,513)
+ 7244, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 7285, 0.0, 0.0,1E+100,0.0,0,513)
+"Volume flow rate at peak efficiency [m3/s]", 7245, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 7286, 0.0, 0.0,1E+100,0.0,0,513)
+"Pressure rise at peak efficiency [Pa|Pa]", 7246, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.peak_internal.eta", \
-"Peak efficiency [1]", 7287, 0.0, 0.0,1E+100,0.0,0,513)
+"Peak efficiency [1]", 7247, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.fanRet.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1385, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 1391, \
true, 0.0,0.0,0.0,0,562)
DeclareVariable("ventilation.generation.fanRet.per.WMot_nominal", \
-"Rated motor power [W]", 7288, 0.0, 0.0,0.0,0.0,0,513)
+"Rated motor power [W]", 7248, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.fanRet.per.etaMot_max", \
-"Maximum motor efficiency [1]", 1386, 0.7, 0.0,1.0,0.0,0,560)
+"Maximum motor efficiency [1]", 1392, 0.7, 0.0,1.0,0.0,0,560)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 7289, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7249, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 7290, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7250, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 7291, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7251, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 7292, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7252, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 7293, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7253, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 7294, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7254, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 7295, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7255, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 7296, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7256, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 7297, 0.0, 0.0,1E+100,0.0,0,513)
+ "Part load ratio, y = PEle/PEle_nominal", 7257, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 7298, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7258, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 7299, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7259, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 7300, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7260, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 7301, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7261, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 7302, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7262, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 7303, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7263, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 7304, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7264, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 7305, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7265, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 7306, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7266, 0.0, 0.0,1.0,0.0,\
0,513)
DeclareVariable("ventilation.generation.fanRet.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 7307, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 7267, false, \
0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.fanRet.per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 1387, 1, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 1393, 1, 0.0,1E+100,0.0,\
0,560)
DeclareParameter("ventilation.generation.fanRet.per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 1388, 1, 0.0,1E+100,0.0,0,560)
+ 1394, 1, 0.0,1E+100,0.0,0,560)
DeclareParameter("ventilation.generation.fanRet.per.speeds[1]", "Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 1389, 1, 0.0,1E+100,0.0,0,560)
+ 1395, 1, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.fanRet.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 7308, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 7268, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanRet.inputType", "Control input type [:#(type=IBPSA.Fluid.Types.InputType)]",\
- 7309, 3, 1.0,3.0,0.0,0,517)
+ 7269, 3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.fanRet.constInput", "Constant input set point [1]",\
- 7310, 0.0, 0.0,0.0,0.0,0,513)
+ 7270, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.stageInputs[1]", "Vector of input set points corresponding to stages [1]",\
- 7311, 0.0, 0.0,0.0,0.0,0,513)
+ 7271, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 7312, true, 0.0,0.0,0.0,0,515)
+ 7272, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanRet.addPowerToMedium", \
"Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]",\
- 7313, false, 0.0,0.0,0.0,0,515)
+ 7273, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanRet.nominalValuesDefineDefaultPressureCurve",\
"Set to true to avoid warning if m_flow_nominal and dp_nominal are used to construct the default pressure curve [:#(type=Boolean)]",\
- 7314, false, 0.0,0.0,0.0,0,515)
+ 7274, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanRet.tau", "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]",\
- 7315, 0.0, 0.0,0.0,0.0,0,513)
+ 7275, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.use_riseTime", "Set to true to continuously change motor speed [:#(type=Boolean)]",\
- 7316, false, 0.0,0.0,0.0,0,515)
+ 7276, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanRet.riseTime", "Time needed to change motor speed between zero and full speed [s]",\
- 7317, 0.0, 0.0,0.0,0.0,0,513)
+ 7277, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 7318, 4, 1.0,4.0,0.0,0,517)
+ 7278, 4, 1.0,4.0,0.0,0,517)
DeclareAlias2("ventilation.generation.fanRet.y_actual", "Actual normalised fan or pump speed that is used for computations [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 0)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 0)
DeclareAlias2("ventilation.generation.fanRet.P", "Electrical power consumed [W]",\
"outputs.ventilation.generation.PelVentRet", 1, 3, 35, 0)
DeclareVariable("ventilation.generation.fanRet.heatPort.T", "Port temperature [K|degC]",\
- 9615, 300.0, 1.0,10000.0,300.0,0,520)
+ 9584, 300.0, 1.0,10000.0,300.0,0,520)
DeclareVariable("ventilation.generation.fanRet.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7319,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7279,\
0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("ventilation.generation.fanRet.VMachine_flow", "Volume flow rate [m3/s]",\
- 9616, 0, 0.0,0.0,0.0,0,576)
+ 9585, 0, 0.0,0.0,0.0,0,576)
DeclareVariable("ventilation.generation.fanRet.dpMachine", "Pressure difference [Pa|Pa]",\
- 9617, 0.0, 0.0,0.0,0.0,0,512)
-DeclareVariable("ventilation.generation.fanRet.eta", "Global efficiency [1]", 9618,\
+ 9586, 0.0, 0.0,0.0,0.0,0,512)
+DeclareVariable("ventilation.generation.fanRet.eta", "Global efficiency [1]", 9587,\
0.49, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanRet.etaHyd", "Hydraulic efficiency [1]",\
- 9619, 0.7, 0.0,1E+100,0.0,0,512)
-DeclareVariable("ventilation.generation.fanRet.etaMot", "Motor efficiency [1]", 9620,\
+ 9588, 0.7, 0.0,1E+100,0.0,0,512)
+DeclareVariable("ventilation.generation.fanRet.etaMot", "Motor efficiency [1]", 9589,\
0.7, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanRet.m_flow_small", "Small mass flow rate for regularization of zero flow [kg/s]",\
- 7320, 2.177777777777778E-05, 0.0,1E+100,0.0,0,513)
+ 7280, 2.177777777777778E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 7321, false, 0.0,0.0,0.0,0,1539)
+ 7281, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.fanRet.m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 0)
+ "building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 0)
DeclareVariable("ventilation.generation.fanRet.dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9621, 0, 0.0,0.0,0.0,0,512)
+ 9590, 0, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.fanRet._m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7322, 0.2177777777777778, 0.0,0.0,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 7282, 0.2177777777777778, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet._m_flow_start", "Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7323, 0, 0.0,0.0,0.0,0,2561)
+ 7283, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7324, 0, 0.0,0.0,0.0,0,2561)
+ 7284, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet._VMachine_flow", "Start value for VMachine_flow, used to avoid a warning if not specified [m3/s]",\
- 7325, 0, 0.0,0.0,0.0,0,2561)
+ 7285, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 7326, 1, 1.0,3.0,0.0,0,2565)
+ 7286, 1, 1.0,3.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.speedIsInput", "Parameter that is true if speed is the controlled variables [:#(type=Boolean)]",\
- 7327, true, 0.0,0.0,0.0,0,2563)
+ 7287, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 7328, 3, 0.0,0.0,0.0,0,2565)
+ 7288, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 7329, true, 0.0,0.0,0.0,0,2563)
-DeclareVariable("ventilation.generation.fanRet.V_flow_max", "[m3/s]", 7330, \
+ 7289, true, 0.0,0.0,0.0,0,2563)
+DeclareVariable("ventilation.generation.fanRet.V_flow_max", "[m3/s]", 7290, \
0.1814814814814815, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.rho_default", "Default medium density [kg/m3|g/cm3]",\
- 7331, 1.2, 0.0,1E+100,0.0,0,2561)
+ 7291, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.sta_start.p", "Absolute pressure of medium [Pa|bar]",\
- 7332, 101325, 0.0,100000000.0,100000.0,0,2561)
+ 7292, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.sta_start.T", "Temperature of medium [K|degC]",\
- 7333, 293.15, 1.0,10000.0,300.0,0,2561)
+ 7293, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.sta_start.X[1]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 7334, 0.01, 0.0,1.0,0.1,0,2561)
+ 7294, 0.01, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.sta_start.X[2]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 7335, 0.99, 0.0,1.0,0.1,0,2561)
+ 7295, 0.99, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.h_outflow_start", \
-"Start value for outflowing enthalpy [J/kg]", 7336, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for outflowing enthalpy [J/kg]", 7296, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.inputSwitch.u", "Connector of Real input signal",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareAlias2("ventilation.generation.fanRet.inputSwitch.y", "Connector of Real output signal",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7337, 2, 1.0,4.0,0.0,0,2565)
+ 7297, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7338, 2, 1.0,4.0,0.0,0,2565)
+ 7298, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7339, 2, 1.0,4.0,0.0,0,2565)
+ 7299, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7340, 2, 1.0,4.0,0.0,0,2565)
+ 7300, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.p_start", "Start value of pressure [Pa|bar]",\
- 7341, 101325, 0.0,100000000.0,100000.0,0,2561)
+ 7301, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.T_start", "Start value of temperature [K|degC]",\
- 7342, 293.15, 1.0,10000.0,300.0,0,2561)
+ 7302, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 7343, 0.0, 0.0,1.0,0.1,0,2561)
+ 7303, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 7344, 0.0, 0.0,1.0,0.1,0,2561)
+ 7304, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 7345, 1, 1.0,1E+100,0.0,0,2561)
+ 7305, 1, 1.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7346, false, 0.0,0.0,0.0,0,2563)
+ 7306, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 7347, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 7307, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanRet.vol.prescribedHeatFlowRate", \
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 7348, true, 0.0,0.0,0.0,0,2563)
+ 7308, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 7349, true, 0.0,0.0,0.0,0,2563)
+ 7309, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7350, 0.2177777777777778, 0.0,1E+100,0.0,0,2561)
+"Nominal mass flow rate [kg/s]", 7310, 0.2177777777777778, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.nPorts", "Number of ports [:#(type=Integer)]",\
- 7351, 2, 0.0,0.0,0.0,0,2565)
+ 7311, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7352, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7312, \
2.177777777777778E-05, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 7353, true, 0.0,0.0,0.0,0,2563)
-DeclareVariable("ventilation.generation.fanRet.vol.V", "Volume [m3]", 7354, 0.0,\
+ 7313, true, 0.0,0.0,0.0,0,2563)
+DeclareVariable("ventilation.generation.fanRet.vol.V", "Volume [m3]", 7314, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 1156)
+"building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 1156)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 1028)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1028)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[2].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 1028)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1028)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.ports[2].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.T", "Temperature of the fluid [K|degC]",\
- "ventilation.generation.fanRet.heatPort.T", 1, 5, 9615, 1024)
+ "ventilation.generation.fanRet.heatPort.T", 1, 5, 9584, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.U", "Internal energy of the component [J]",\
"ventilation.generation.fanRet.vol.dynBal.U", 1, 1, 71, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.p", "Pressure of the fluid [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 1024)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.m", "Mass of the component [kg]",\
"ventilation.generation.fanRet.vol.dynBal.m", 1, 1, 72, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.Xi[1]", "Species concentration of the fluid [1]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.mXi[1]", "Species mass of the component [kg]",\
- 9622, 0.0, 0.0,1E+100,0.0,0,2560)
+ 9591, 0.0, 0.0,1E+100,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.rho_start", "Density, used to compute start and guess values [kg/m3|g/cm3]",\
- 7355, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7315, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 7356, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 7316, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_default.T", \
-"Temperature of medium [K|degC]", 7357, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7317, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7358, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7318, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7359, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7319, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7360, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7320, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 7361, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 7321, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_start.T", \
-"Temperature of medium [K|degC]", 7362, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7322, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7363, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7323, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.state_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7364, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7324, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.useSteadyStateTwoPort", \
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 7365, false, 0.0,0.0,0.0,0,2563)
+ 7325, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1024)
+"ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.XiOut_internal[1]", \
"Internal connector for leaving species concentration of the component [1]", \
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.preTem.port.T", \
-"Port temperature [K|degC]", "ventilation.generation.fanRet.heatPort.T", 1, 5, 9615,\
+"Port temperature [K|degC]", "ventilation.generation.fanRet.heatPort.T", 1, 5, 9584,\
1028)
DeclareVariable("ventilation.generation.fanRet.vol.preTem.port.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7366,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7326,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanRet.vol.preTem.T", "[K]", \
-"ventilation.generation.fanRet.heatPort.T", 1, 5, 9615, 1024)
+"ventilation.generation.fanRet.heatPort.T", 1, 5, 9584, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.portT.y", "Value of Real output",\
- "ventilation.generation.fanRet.heatPort.T", 1, 5, 9615, 1024)
+ "ventilation.generation.fanRet.heatPort.T", 1, 5, 9584, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.heaFloSen.Q_flow", \
-"Heat flow from port_a to port_b as output signal [W]", 7367, 0.0, 0.0,0.0,0.0,0,2561)
+"Heat flow from port_a to port_b as output signal [W]", 7327, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.vol.heaFloSen.port_a.T", \
-"Port temperature [K|degC]", "ventilation.generation.fanRet.heatPort.T", 1, 5, 9615,\
+"Port temperature [K|degC]", "ventilation.generation.fanRet.heatPort.T", 1, 5, 9584,\
1028)
DeclareVariable("ventilation.generation.fanRet.vol.heaFloSen.port_a.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7368,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7328,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanRet.vol.heaFloSen.port_b.T", \
-"Port temperature [K|degC]", "ventilation.generation.fanRet.heatPort.T", 1, 5, 9615,\
+"Port temperature [K|degC]", "ventilation.generation.fanRet.heatPort.T", 1, 5, 9584,\
1028)
DeclareVariable("ventilation.generation.fanRet.vol.heaFloSen.port_b.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7369,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7329,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("ventilation.generation.fanRet.vol.use_C_flow", "Set to true to enable input connector for trace substance [:#(type=Boolean)]",\
- 7370, false, 0.0,0.0,0.0,0,2563)
+ 7330, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.vol.heatPort.T", "Port temperature [K|degC]",\
- "ventilation.generation.fanRet.heatPort.T", 1, 5, 9615, 1028)
+ "ventilation.generation.fanRet.heatPort.T", 1, 5, 9584, 1028)
DeclareVariable("ventilation.generation.fanRet.vol.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7371,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7331,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("ventilation.generation.fanRet.vol.tau", "Time constant at nominal flow [s]",\
- 7372, 0.0, 0.0,0.0,0.0,0,2561)
+ 7332, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.V_nominal", "Volume of delay element [m3]",\
- 7373, 0.0, 0.0,0.0,0.0,0,2561)
+ 7333, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7374, 2, 1.0,4.0,0.0,0,2565)
+ 7334, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7375, 2, 1.0,4.0,0.0,0,2565)
+ 7335, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7376, 2, 1.0,4.0,0.0,0,2565)
+ 7336, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7377, 2, 1.0,4.0,0.0,0,2565)
+ 7337, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 7378, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 7338, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 7379, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 7339, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7380, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 7340, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7381, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 7341, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7382, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7342, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7383, false, 0.0,0.0,0.0,0,2563)
+ 7343, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 7384, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 7344, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.simplify_mWat_flow", \
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 7385, true, 0.0,0.0,0.0,0,2563)
+ 7345, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 7386, 2, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 7346, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.use_mWat_flow", \
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 7387, false, 0.0,0.0,0.0,0,2563)
+ 7347, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7388,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7348,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.Q_flow", \
-"Sensible plus latent heat flow rate transferred into the medium [W]", 7389, 0.0,\
+"Sensible plus latent heat flow rate transferred into the medium [W]", 7349, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.hOut", "Leaving specific enthalpy of the component [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1024)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.XiOut[1]", \
"Leaving species concentration of the component [1]", "ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1,\
1, 70, 1024)
@@ -10929,86 +10956,86 @@ DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.UOut", "Internal energy
"ventilation.generation.fanRet.vol.dynBal.U", 1, 1, 71, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.mXiOut[1]", \
"Species mass of the component [kg]", "ventilation.generation.fanRet.vol.mXi[1]", 1,\
- 5, 9622, 1024)
+ 5, 9591, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.mOut", "Mass of the component [kg]",\
"ventilation.generation.fanRet.vol.dynBal.m", 1, 1, 72, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 1156)
+"building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 1156)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1028)
+ 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1028)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1028)
+ 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1028)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1028)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1028)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 7390, false, 0.0,0.0,0.0,0,2563)
+ 7350, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 7391, true, 0.0,0.0,0.0,0,2563)
+ 7351, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1024)
+ 5, 9501, 1024)
DeclareState("ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", \
"Structurally independent mass fractions [1]", 70, 0.0, 0.0,1.0,0.01,0,2592)
DeclareDerivative("ventilation.generation.fanRet.vol.dynBal.medium.der(Xi[1])", \
"der(Structurally independent mass fractions) [s-1]", 70, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "ventilation.portVent_out[1].h_outflow", 1,\
- 5, 9698, 1024)
+ 5, 9667, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 9623, 0.0, 0.0,100000.0,1.0,0,2560)
+"Density of medium [kg/m3|g/cm3]", 9592, 0.0, 0.0,100000.0,1.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9624, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9593, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9625, 0.0, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9594, 0.0, 0.0,\
1.0,1.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.u", \
-"Specific internal energy of medium [J/kg]", 9626, 0.0, -100000000.0,100000000.0,\
+"Specific internal energy of medium [J/kg]", 9595, 0.0, -100000000.0,100000000.0,\
1000000.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 9627, 1000.0, 0.0,\
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 9596, 1000.0, 0.0,\
10000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 9628, 0.032, 0.001,0.25,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 9597, 0.032, 0.001,0.25,\
0.032,0,2560)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.state.p", \
"Absolute pressure of medium [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1024)
+ 5, 9501, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.state.T", \
"Temperature of medium [K|degC]", "ventilation.generation.fanRet.vol.dynBal.medium.T", 1,\
- 5, 9624, 1024)
+ 5, 9593, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.state.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.medium.state.X[2]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"ventilation.generation.fanRet.vol.dynBal.medium.X[2]", 1, 5, 9625, 1024)
+"ventilation.generation.fanRet.vol.dynBal.medium.X[2]", 1, 5, 9594, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.T_degC", \
-"Temperature of medium in [degC] [degC;]", 9629, 0.0, 0.0,0.0,0.0,0,2560)
+"Temperature of medium in [degC] [degC;]", 9598, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.p_bar", \
-"Absolute pressure of medium in [bar] [bar]", 9630, 0.0, 0.0,0.0,0.0,0,2560)
+"Absolute pressure of medium in [bar] [bar]", 9599, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.medium.dT", \
-"Temperature difference used to compute enthalpy [K,]", 9631, 20.0, 0.0,0.0,0.0,\
+"Temperature difference used to compute enthalpy [K,]", 9600, 20.0, 0.0,0.0,0.0,\
0,2560)
DeclareState("ventilation.generation.fanRet.vol.dynBal.U", "Internal energy of fluid [J]",\
71, 0.0, 0.0,0.0,100000.0,0,2592)
@@ -11020,1485 +11047,1485 @@ DeclareDerivative("ventilation.generation.fanRet.vol.dynBal.der(m)", \
"der(Mass of fluid) [kg/s]", 72, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.mXi[1]", \
"Masses of independent components in the fluid [kg]", "ventilation.generation.fanRet.vol.mXi[1]", 1,\
- 5, 9622, 1024)
+ 5, 9591, 1024)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.mb_flow", \
"Mass flows across boundaries [kg/s]", "ventilation.generation.fanRet.vol.dynBal.der(m)", 1,\
6, 72, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.mbXi_flow[1]", \
-"Substance mass flows across boundaries [kg/s]", 9632, 0.0, 0.0,0.0,0.0,0,2560)
+"Substance mass flows across boundaries [kg/s]", 9601, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanRet.vol.dynBal.Hb_flow", \
"Enthalpy flow across boundaries or energy source/sink [W]", "ventilation.generation.fanRet.vol.dynBal.der(U)", 1,\
6, 71, 1024)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.fluidVolume", \
-"Volume [m3]", 7392, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume [m3]", 7352, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 7393, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 7353, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.ports_H_flow[1]", \
-"[W]", 9633, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9602, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.ports_H_flow[2]", \
-"[W]", 9634, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+"[W]", 9603, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.ports_mXi_flow[1, 1]",\
- "[kg/s]", 9635, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9604, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.ports_mXi_flow[2, 1]",\
- "[kg/s]", 9636, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9605, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7394, 1014.54, \
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7354, 1014.54, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7395, 0.0, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7355, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.computeCSen", \
-"[:#(type=Boolean)]", 7396, false, 0.0,0.0,0.0,0,2563)
+"[:#(type=Boolean)]", 7356, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 7397, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 7357, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.state_default.T", \
-"Temperature of medium [K|degC]", 7398, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7358, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.state_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7399, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7359, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.state_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7400, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7360, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7401, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7361, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.s[1]", \
-"Vector with zero everywhere except where species is", 7402, 1, 0.0,0.0,0.0,0,2561)
+"Vector with zero everywhere except where species is", 7362, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 7403, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 7363, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal._simplify_mWat_flow", \
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 7404, true, 0.0,0.0,0.0,0,2563)
+ 7364, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.vol.dynBal.mWat_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 7405, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 7365, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.preSou.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7406, true, 0.0,0.0,0.0,0,2563)
+ 7366, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 1028)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1028)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1028)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.TExhIn.port_a.p", 1, 5, 9605, 1028)
+ "ventilation.generation.TExhIn.port_a.p", 1, 5, 9574, 1028)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1028)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1028)
DeclareAlias2("ventilation.generation.fanRet.preSou.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1028)
DeclareParameter("ventilation.generation.fanRet.preSou.dp_start", \
-"Guess value of dp = port_a.p - port_b.p [Pa|Pa]", 1390, 0, 0.0,0.0,0.0,0,2608)
+"Guess value of dp = port_a.p - port_b.p [Pa|Pa]", 1396, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("ventilation.generation.fanRet.preSou.m_flow_start", \
-"Guess value of m_flow = port_a.m_flow [kg/s]", 1391, 0, -100000.0,100000.0,0.0,\
+"Guess value of m_flow = port_a.m_flow [kg/s]", 1397, 0, -100000.0,100000.0,0.0,\
0,2608)
DeclareVariable("ventilation.generation.fanRet.preSou.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7407, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7367, \
2.177777777777778E-05, -100000.0,100000.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.preSou.show_T", "= true, if temperatures at port_a and port_b are computed [:#(type=Boolean)]",\
- 7408, false, 0.0,0.0,0.0,0,1539)
+ 7368, false, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanRet.preSou.show_V_flow", \
-"= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]", 7409,\
+"= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]", 7369,\
true, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.fanRet.preSou.m_flow", "Mass flow rate in design flow direction [kg/s]",\
- "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 1024)
+ "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 1024)
DeclareAlias2("ventilation.generation.fanRet.preSou.dp", "Pressure difference between port_a and port_b (= port_a.p - port_b.p) [Pa|Pa]",\
- "ventilation.generation.fanRet.dpMachine", -1, 5, 9617, 1024)
+ "ventilation.generation.fanRet.dpMachine", -1, 5, 9586, 1024)
DeclareVariable("ventilation.generation.fanRet.preSou.V_flow", "Volume flow rate at inflowing port (positive when flow from port_a to port_b) [m3/s]",\
- 9637, 0.0, 0.0,0.0,0.0,0,2560)
+ 9606, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.preSou.control_m_flow", \
"if true, then the mass flow rate is equal to the value of m_flow_in [:#(type=Boolean)]",\
- 7410, false, 0.0,0.0,0.0,0,2563)
+ 7370, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.preSou.control_dp", \
-"if true, then the head is equal to the value of dp_in [:#(type=Boolean)]", 7411,\
+"if true, then the head is equal to the value of dp_in [:#(type=Boolean)]", 7371,\
true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.preSou.dp_in", "Prescribed pressure difference port_a.p-port_b.p [Pa]",\
- "ventilation.generation.fanRet.dpMachine", -1, 5, 9617, 1024)
+ "ventilation.generation.fanRet.dpMachine", -1, 5, 9586, 1024)
DeclareVariable("ventilation.generation.fanRet.preSou.m_flow_internal", \
-"Needed to connect to conditional connector [kg/s]", 7412, 0, 0.0,0.0,0.0,0,2561)
+"Needed to connect to conditional connector [kg/s]", 7372, 0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.preSou.dp_internal", \
"Needed to connect to conditional connector [Pa]", "ventilation.generation.fanRet.dpMachine", -1,\
- 5, 9617, 1024)
+ 5, 9586, 1024)
DeclareVariable("ventilation.generation.fanRet.rho_inlet.y", "Value of Real output",\
- 9638, 0.0, 0.0,1E+100,0.0,0,2560)
+ 9607, 0.0, 0.0,1E+100,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.senMasFlo.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7413, true, 0.0,0.0,0.0,0,2563)
+ 7373, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1028)
+ 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1028)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1028)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1028)
+ 5, 9501, 1028)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 1028)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 1028)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 1028)
DeclareVariable("ventilation.generation.fanRet.senMasFlo.m_flow_nominal", \
-"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 7414, 0,\
+"Nominal mass flow rate, used for regularization near zero flow [kg/s]", 7374, 0,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.senMasFlo.m_flow_small", \
"For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 7415, 0, 0.0,1E+100,0.0,0,2561)
+ 7375, 0, 0.0,1E+100,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.senMasFlo.m_flow", "Mass flow rate from port_a to port_b [kg/s]",\
- "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 1024)
+ "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 1024)
DeclareVariable("ventilation.generation.fanRet.senRelPre.port_a.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 7416, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 7376, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanRet.senRelPre.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 1028)
+ 5, 9574, 1028)
DeclareVariable("ventilation.generation.fanRet.senRelPre.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 7417, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 7377, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("ventilation.generation.fanRet.senRelPre.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- 7418, 0.0, 0.0,1.0,0.1,0,2569)
+ 7378, 0.0, 0.0,1.0,0.1,0,2569)
DeclareVariable("ventilation.generation.fanRet.senRelPre.port_b.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 7419, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 7379, 0, \
0.0,100000.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.fanRet.senRelPre.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.portVent_out[1].p", 1,\
- 5, 9532, 1028)
+ 5, 9501, 1028)
DeclareVariable("ventilation.generation.fanRet.senRelPre.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 7420, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
+ 7380, 0, -10000000000.0,10000000000.0,1000000.0,0,2569)
DeclareVariable("ventilation.generation.fanRet.senRelPre.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- 7421, 0.0, 0.0,1.0,0.1,0,2569)
+ 7381, 0.0, 0.0,1.0,0.1,0,2569)
DeclareVariable("ventilation.generation.fanRet.senRelPre.p_rel", \
-"Relative pressure of port_a minus port_b [Pa|Pa]", 9639, 0.0, 0.0,0.0,0.0,0,2560)
+"Relative pressure of port_a minus port_b [Pa|Pa]", 9608, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.eff.homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 7422, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 7382, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.fanRet.eff.per.pressure.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7423, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7383, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.pressure.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7424, \
+"Volume flow rate at user-selected operating points [m3/s]", 7384, \
0.09074074074074075, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.pressure.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7425, \
+"Volume flow rate at user-selected operating points [m3/s]", 7385, \
0.1814814814814815, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.pressure.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7426, 672.0000000000001,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7386, 672.0000000000001,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.pressure.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7427, 600.0, 0.0,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7387, 600.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.pressure.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7428, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7388, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.V_flow_max", \
-"Volume flow rate on the curve when pressure rise is zero [m3/s]", 7429, \
+"Volume flow rate on the curve when pressure rise is zero [m3/s]", 7389, \
0.1814814814814815, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.dpMax", "Pressure rise on the curve when flow rate is zero [Pa|Pa]",\
- 7430, 672.0000000000001, 0.0,0.0,0.0,0,2561)
+ 7390, 672.0000000000001, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.etaHydMet", \
"Efficiency computation method for the hydraulic efficiency etaHyd [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.HydraulicEfficiencyMethod)]",\
- 7431, 4, 1.0,4.0,0.0,0,2565)
+ 7391, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.per.etaMotMet", \
"Efficiency computation method for the motor efficiency etaMot [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.MotorEfficiencyMethod)]",\
- 7432, 4, 1.0,4.0,0.0,0,2565)
+ 7392, 4, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.per.powerOrEfficiencyIsHydraulic",\
"=true if hydraulic power or efficiency is provided, instead of total [:#(type=Boolean)]",\
- 7433, true, 0.0,0.0,0.0,0,2563)
+ 7393, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.per.efficiency.V_flow[1]", \
-"Volumetric flow rate at user-selected operating points [m3/s]", 7434, 0.0, 0.0,\
+"Volumetric flow rate at user-selected operating points [m3/s]", 7394, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.efficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 7435, 0.0, 0.0,1.0,0.0,0,2561)
+"Fan or pump efficiency at these flow rates [1]", 7395, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency.V_flow[1]",\
- "Volumetric flow rate at user-selected operating points [m3/s]", 7436, 0.0, 0.0,\
+ "Volumetric flow rate at user-selected operating points [m3/s]", 7396, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency.eta[1]", \
-"Fan or pump efficiency at these flow rates [1]", 7437, 0.0, 0.0,1.0,0.0,0,2561)
+"Fan or pump efficiency at these flow rates [1]", 7397, 0.0, 0.0,1.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 7438, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7398, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 7439, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7399, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.power.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7440, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7400, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.power.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 7441, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7401, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.peak.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 7442, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 7402, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.peak.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 7443, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 7403, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.peak.eta", \
-"Peak efficiency [1]", 7444, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 7404, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.peak_internal.V_flow", \
-"Volume flow rate at peak efficiency [m3/s]", 7445, 0.0, 0.0,1E+100,0.0,0,2561)
+"Volume flow rate at peak efficiency [m3/s]", 7405, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.peak_internal.dp", \
-"Pressure rise at peak efficiency [Pa|Pa]", 7446, 0.0, 0.0,1E+100,0.0,0,2561)
+"Pressure rise at peak efficiency [Pa|Pa]", 7406, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.peak_internal.eta", \
-"Peak efficiency [1]", 7447, 0.0, 0.0,1E+100,0.0,0,2561)
+"Peak efficiency [1]", 7407, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorCooledByFluid", \
-"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 7448, \
+"If true, then motor heat is added to fluid stream [:#(type=Boolean)]", 7408, \
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.per.WMot_nominal", \
-"Rated motor power [W]", 7449, 0.0, 0.0,0.0,0.0,0,2561)
+"Rated motor power [W]", 7409, 0.0, 0.0,0.0,0.0,0,2561)
DeclareParameter("ventilation.generation.fanRet.eff.per.etaMot_max", \
-"Maximum motor efficiency [1]", 1392, 0.7, 0.0,1.0,0.0,0,2608)
+"Maximum motor efficiency [1]", 1398, 0.7, 0.0,1.0,0.0,0,2608)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[1]",\
- "Part load ratio, y = PEle/PEle_nominal", 7450, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7410, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[2]",\
- "Part load ratio, y = PEle/PEle_nominal", 7451, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7411, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[3]",\
- "Part load ratio, y = PEle/PEle_nominal", 7452, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7412, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[4]",\
- "Part load ratio, y = PEle/PEle_nominal", 7453, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7413, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[5]",\
- "Part load ratio, y = PEle/PEle_nominal", 7454, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7414, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[6]",\
- "Part load ratio, y = PEle/PEle_nominal", 7455, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7415, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[7]",\
- "Part load ratio, y = PEle/PEle_nominal", 7456, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7416, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[8]",\
- "Part load ratio, y = PEle/PEle_nominal", 7457, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7417, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.y[9]",\
- "Part load ratio, y = PEle/PEle_nominal", 7458, 0.0, 0.0,1E+100,0.0,0,2561)
+ "Part load ratio, y = PEle/PEle_nominal", 7418, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[1]",\
- "Fan or pump efficiency at these part load ratios [1]", 7459, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7419, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[2]",\
- "Fan or pump efficiency at these part load ratios [1]", 7460, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7420, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[3]",\
- "Fan or pump efficiency at these part load ratios [1]", 7461, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7421, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[4]",\
- "Fan or pump efficiency at these part load ratios [1]", 7462, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7422, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[5]",\
- "Fan or pump efficiency at these part load ratios [1]", 7463, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7423, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[6]",\
- "Fan or pump efficiency at these part load ratios [1]", 7464, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7424, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[7]",\
- "Fan or pump efficiency at these part load ratios [1]", 7465, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7425, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[8]",\
- "Fan or pump efficiency at these part load ratios [1]", 7466, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7426, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.motorEfficiency_yMot_generic.eta[9]",\
- "Fan or pump efficiency at these part load ratios [1]", 7467, 0.0, 0.0,1.0,0.0,\
+ "Fan or pump efficiency at these part load ratios [1]", 7427, 0.0, 0.0,1.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.haveWMot_nominal", \
-"= true, if the rated motor power is provided [:#(type=Boolean)]", 7468, false, \
+"= true, if the rated motor power is provided [:#(type=Boolean)]", 7428, false, \
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.per.speed_nominal", \
-"Nominal rotational speed for flow characteristic [1]", 7469, 0, 0.0,1E+100,0.0,\
+"Nominal rotational speed for flow characteristic [1]", 7429, 0, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.constantSpeed", \
"Normalized speed set point, used if inputType = IBPSA.Fluid.Types.InputType.Constant [1]",\
- 7470, 0, 0.0,1E+100,0.0,0,2561)
+ 7430, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.speeds[1]", \
"Vector of normalized speed set points, used if inputType = IBPSA.Fluid.Types.InputType.Stages [1]",\
- 7471, 0, 0.0,1E+100,0.0,0,2561)
+ 7431, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.per.havePressureCurve", \
-"= true, if default record values are being used [:#(type=Boolean)]", 7472, true,\
+"= true, if default record values are being used [:#(type=Boolean)]", 7432, true,\
0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.preVar", "Type of prescribed variable [:#(type=IBPSA.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]",\
- 7473, 1, 1.0,3.0,0.0,0,2565)
+ 7433, 1, 1.0,3.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.computePowerUsingSimilarityLaws",\
"= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]",\
- 7474, true, 0.0,0.0,0.0,0,2563)
+ 7434, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.V_flow_nominal", \
-"Nominal volume flow rate, used for homotopy [m3/s]", 7475, 0.1814814814814815, \
+"Nominal volume flow rate, used for homotopy [m3/s]", 7435, 0.1814814814814815, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.rho_default", \
-"Fluid density at medium default state [kg/m3|g/cm3]", 7476, 1.2, 0.0,1E+100,0.0,\
+"Fluid density at medium default state [kg/m3|g/cm3]", 7436, 1.2, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.haveVMax", "Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]",\
- 7477, true, 0.0,0.0,0.0,0,2563)
+ 7437, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.V_flow_max", "Maximum volume flow rate, used for smoothing [m3/s]",\
- 7478, 0.1814814814814815, 0.0,0.0,0.0,0,2561)
+ 7438, 0.1814814814814815, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.nOri", "Number of data points for pressure curve [:#(type=Integer)]",\
- 7479, 3, 1.0,1E+100,0.0,0,2565)
+ 7439, 3, 1.0,1E+100,0.0,0,2565)
DeclareAlias2("ventilation.generation.fanRet.eff.y_out", "Mover speed (prescribed or computed) [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.m_flow", "Mass flow rate [kg/s]",\
- "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 1024)
+ "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.rho", "Medium density [kg/m3]",\
- "ventilation.generation.fanRet.rho_inlet.y", 1, 5, 9638, 1024)
+ "ventilation.generation.fanRet.rho_inlet.y", 1, 5, 9607, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.V_flow", "Volume flow rate [m3/s]",\
- "ventilation.generation.fanRet.VMachine_flow", 1, 5, 9616, 1024)
-DeclareVariable("ventilation.generation.fanRet.eff.WFlo", "Flow work [W]", 9640,\
+ "ventilation.generation.fanRet.VMachine_flow", 1, 5, 9585, 1024)
+DeclareVariable("ventilation.generation.fanRet.eff.WFlo", "Flow work [W]", 9609,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.eff.WHyd", "Hydraulic work (shaft work, brake horsepower) [W]",\
- 9641, 0.0, 0.0,0.0,0.0,0,2560)
+ 9610, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanRet.eff.PEle", "Electrical power consumed [W]",\
"outputs.ventilation.generation.PelVentRet", 1, 3, 35, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.eta", "Overall efficiency [1]",\
- "ventilation.generation.fanRet.eta", 1, 5, 9618, 1024)
+ "ventilation.generation.fanRet.eta", 1, 5, 9587, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.etaHyd", "Hydraulic efficiency [1]",\
- "ventilation.generation.fanRet.etaHyd", 1, 5, 9619, 1024)
+ "ventilation.generation.fanRet.etaHyd", 1, 5, 9588, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.etaMot", "Motor efficiency [1]",\
- "ventilation.generation.fanRet.etaMot", 1, 5, 9620, 1024)
+ "ventilation.generation.fanRet.etaMot", 1, 5, 9589, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.r_N", "Ratio N_actual/N_nominal [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareVariable("ventilation.generation.fanRet.eff.r_V", "Ratio V_flow/V_flow_max [1]",\
- 9642, 0.1814814814814815, 0.0,0.0,0.0,0,2560)
+ 9611, 0.1814814814814815, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.fanRet.eff.preSpe", "True if speed is a prescribed variable of this block [:#(type=Boolean)]",\
- 7480, true, 0.0,0.0,0.0,0,2563)
+ 7440, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.prePre", "True if pressure head is a prescribed variable of this block [:#(type=Boolean)]",\
- 7481, false, 0.0,0.0,0.0,0,2563)
+ 7441, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.etaDer[1]", "Coefficients for cubic spline of total or hydraulic efficiency vs. volume flow rate",\
- 7482, 0, 0.0,0.0,0.0,0,2561)
+ 7442, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer[1]", "Coefficients for cubic spline of motor efficiency vs. volume flow rate",\
- 7483, 0, 0.0,0.0,0.0,0,2561)
+ 7443, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot[1]", \
-"Coefficients for cubic spline of motor efficiency vs. motor PLR", 7484, 0, \
+"Coefficients for cubic spline of motor efficiency vs. motor PLR", 7444, 0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[1]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7485, 0.0, 0.0,0.0,0.0,0,2561)
+ 7445, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[2]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7486, 0.0, 0.0,0.0,0.0,0,2561)
+ 7446, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[3]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7487, 0.0, 0.0,0.0,0.0,0,2561)
+ 7447, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[4]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7488, 0.0, 0.0,0.0,0.0,0,2561)
+ 7448, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[5]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7489, 0.0, 0.0,0.0,0.0,0,2561)
+ 7449, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[6]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7490, 0.0, 0.0,0.0,0.0,0,2561)
+ 7450, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[7]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7491, 0.0, 0.0,0.0,0.0,0,2561)
+ 7451, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[8]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7492, 0.0, 0.0,0.0,0.0,0,2561)
+ 7452, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.motDer_yMot_generic[9]", \
"Coefficients for cubic spline of motor efficiency vs. motor PLR with generic curves",\
- 7493, 0.0, 0.0,0.0,0.0,0,2561)
+ 7453, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.dpMax", "Maximum head [Pa|Pa]",\
- 7494, 672.0000000000001, 0.0,0.0,0.0,0,2561)
+ 7454, 672.0000000000001, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.delta", "Small value used to for regularization and to approximate an internal flow resistance of the fan",\
- 7495, 0.05, 0.0,0.0,0.0,0,2561)
+ 7455, 0.05, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.kRes", "Coefficient for internal pressure drop of the fan or pump [kg/(s.m4)]",\
- 7496, 0.925714285714286, 0.0,1E+100,0.0,0,2561)
+ 7456, 0.925714285714286, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.curve", "Flag, used to pick the right representation of the fan or pump's pressure curve [:#(type=Integer)]",\
- 7497, 1, 0.0,0.0,0.0,0,2565)
+ 7457, 1, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.n", "Number of elements in each array [:#(type=Integer)]",\
- 7498, 3, 0.0,0.0,0.0,0,2565)
+ 7458, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7499, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7459, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7500, \
+"Volume flow rate at user-selected operating points [m3/s]", 7460, \
0.09074074074074075, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7501, \
+"Volume flow rate at user-selected operating points [m3/s]", 7461, \
0.1814814814814815, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7502, 672.0000000000001,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7462, 672.0000000000001,\
0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7503, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7463, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur1.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7504, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7464, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.n", "Number of elements in each array [:#(type=Integer)]",\
- 7505, 4, 0.0,0.0,0.0,0,2565)
+ 7465, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7506, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7466, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7507, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7467, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7508, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7468, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7509, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7469, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7510, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7470, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7511, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7471, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7512, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7472, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur2.dp[4]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7513, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7473, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.n", "Number of elements in each array [:#(type=Integer)]",\
- 7514, 5, 0.0,0.0,0.0,0,2565)
+ 7474, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7515, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7475, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7516, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7476, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7517, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7477, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7518, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7478, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7519, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7479, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.dp[1]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7520, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7480, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.dp[2]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7521, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7481, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.dp[3]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7522, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7482, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.dp[4]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7523, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7483, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.pCur3.dp[5]", \
-"Fan or pump total pressure at these flow rates [Pa|Pa]", 7524, 0.0, 0.0,1E+100,\
+"Fan or pump total pressure at these flow rates [Pa|Pa]", 7484, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer1[1]", "Derivatives of flow rate vs. pressure at the support points",\
- 7525, 0.0, 0.0,0.0,0.0,0,2561)
+ 7485, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer1[2]", "Derivatives of flow rate vs. pressure at the support points",\
- 7526, 0.0, 0.0,0.0,0.0,0,2561)
+ 7486, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer1[3]", "Derivatives of flow rate vs. pressure at the support points",\
- 7527, 0.0, 0.0,0.0,0.0,0,2561)
+ 7487, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer2[1]", "Derivatives of flow rate vs. pressure at the support points",\
- 7528, 0.0, 0.0,0.0,0.0,0,2561)
+ 7488, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer2[2]", "Derivatives of flow rate vs. pressure at the support points",\
- 7529, 0.0, 0.0,0.0,0.0,0,2561)
+ 7489, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer2[3]", "Derivatives of flow rate vs. pressure at the support points",\
- 7530, 0.0, 0.0,0.0,0.0,0,2561)
+ 7490, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer2[4]", "Derivatives of flow rate vs. pressure at the support points",\
- 7531, 0.0, 0.0,0.0,0.0,0,2561)
+ 7491, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer3[1]", "Derivatives of flow rate vs. pressure at the support points",\
- 7532, 0.0, 0.0,0.0,0.0,0,2561)
+ 7492, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer3[2]", "Derivatives of flow rate vs. pressure at the support points",\
- 7533, 0.0, 0.0,0.0,0.0,0,2561)
+ 7493, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer3[3]", "Derivatives of flow rate vs. pressure at the support points",\
- 7534, 0.0, 0.0,0.0,0.0,0,2561)
+ 7494, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer3[4]", "Derivatives of flow rate vs. pressure at the support points",\
- 7535, 0.0, 0.0,0.0,0.0,0,2561)
+ 7495, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.preDer3[5]", "Derivatives of flow rate vs. pressure at the support points",\
- 7536, 0.0, 0.0,0.0,0.0,0,2561)
+ 7496, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powDer[1]", "Coefficients for polynomial of power vs. flow rate",\
- 7537, 0.0, 0.0,0.0,0.0,0,2561)
+ 7497, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7538, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7498, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7539, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7499, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7540, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7500, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7541, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7501, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7542, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7502, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7543, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7503, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7544, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7504, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7545, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7505, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7546, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7506, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7547, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7507, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7548, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7508, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[1]", \
-"Fan or pump electrical power at these flow rates [W]", 7549, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7509, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[2]", \
-"Fan or pump electrical power at these flow rates [W]", 7550, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7510, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[3]", \
-"Fan or pump electrical power at these flow rates [W]", 7551, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7511, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[4]", \
-"Fan or pump electrical power at these flow rates [W]", 7552, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7512, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[5]", \
-"Fan or pump electrical power at these flow rates [W]", 7553, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7513, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[6]", \
-"Fan or pump electrical power at these flow rates [W]", 7554, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7514, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[7]", \
-"Fan or pump electrical power at these flow rates [W]", 7555, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7515, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[8]", \
-"Fan or pump electrical power at these flow rates [W]", 7556, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7516, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[9]", \
-"Fan or pump electrical power at these flow rates [W]", 7557, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7517, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 7558, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7518, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 7559, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7519, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[1]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7560, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7520, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[2]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7561, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7521, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[3]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7562, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7522, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[4]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7563, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7523, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[5]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7564, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7524, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[6]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7565, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7525, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[7]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7566, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7526, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[8]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7567, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7527, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[9]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7568, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7528, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[10]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7569, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7529, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu_internal.d[11]", \
-"Derivative of power with respect to volume flow rate [J/m3]", 7570, 0.0, \
+"Derivative of power with respect to volume flow rate [J/m3]", 7530, 0.0, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[1]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7571, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7531, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[2]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7572, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7532, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[3]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7573, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7533, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[4]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7574, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7534, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[5]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7575, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7535, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[6]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7576, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7536, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[7]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7577, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7537, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[8]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7578, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7538, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[9]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7579, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7539, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[10]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7580, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7540, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.V_flow[11]", \
-"Volume flow rate at user-selected operating points [m3/s]", 7581, 0.0, 0.0,\
+"Volume flow rate at user-selected operating points [m3/s]", 7541, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[1]", "Fan or pump electrical power at these flow rates [W]",\
- 7582, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7542, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[2]", "Fan or pump electrical power at these flow rates [W]",\
- 7583, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7543, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[3]", "Fan or pump electrical power at these flow rates [W]",\
- 7584, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7544, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[4]", "Fan or pump electrical power at these flow rates [W]",\
- 7585, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7545, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[5]", "Fan or pump electrical power at these flow rates [W]",\
- 7586, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7546, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[6]", "Fan or pump electrical power at these flow rates [W]",\
- 7587, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7547, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[7]", "Fan or pump electrical power at these flow rates [W]",\
- 7588, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7548, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[8]", "Fan or pump electrical power at these flow rates [W]",\
- 7589, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7549, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[9]", "Fan or pump electrical power at these flow rates [W]",\
- 7590, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7550, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[10]", \
-"Fan or pump electrical power at these flow rates [W]", 7591, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7551, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEu.P[11]", \
-"Fan or pump electrical power at these flow rates [W]", 7592, 0.0, 0.0,1E+100,\
+"Fan or pump electrical power at these flow rates [W]", 7552, 0.0, 0.0,1E+100,\
0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[1]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7593, 0.0, 0.0,0.0,0.0,0,2561)
+ 7553, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[2]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7594, 0.0, 0.0,0.0,0.0,0,2561)
+ 7554, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[3]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7595, 0.0, 0.0,0.0,0.0,0,2561)
+ 7555, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[4]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7596, 0.0, 0.0,0.0,0.0,0,2561)
+ 7556, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[5]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7597, 0.0, 0.0,0.0,0.0,0,2561)
+ 7557, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[6]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7598, 0.0, 0.0,0.0,0.0,0,2561)
+ 7558, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[7]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7599, 0.0, 0.0,0.0,0.0,0,2561)
+ 7559, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[8]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7600, 0.0, 0.0,0.0,0.0,0,2561)
+ 7560, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[9]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7601, 0.0, 0.0,0.0,0.0,0,2561)
+ 7561, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[10]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7602, 0.0, 0.0,0.0,0.0,0,2561)
+ 7562, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.powEuDer[11]", \
"Power derivative with respect to volumetric flow rate computed from Euler number",\
- 7603, 0.0, 0.0,0.0,0.0,0,2561)
+ 7563, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.haveMinimumDecrease", \
-"Flag used for reporting [:#(type=Boolean)]", 7604, true, 0.0,0.0,0.0,0,2563)
+"Flag used for reporting [:#(type=Boolean)]", 7564, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.fanRet.eff.haveDPMax", "Flag, true if user specified data that contain dpMax [:#(type=Boolean)]",\
- 7605, true, 0.0,0.0,0.0,0,2563)
+ 7565, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.fanRet.eff.dp_internal", "If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N",\
- "ventilation.generation.fanRet.dpMachine", 1, 5, 9617, 1024)
+ "ventilation.generation.fanRet.dpMachine", 1, 5, 9586, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.eta_internal", "Either eta or etaHyd [1]",\
- "ventilation.generation.fanRet.etaHyd", 1, 5, 9619, 1024)
+ "ventilation.generation.fanRet.etaHyd", 1, 5, 9588, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.P_internal", "Either PEle or WHyd [W]",\
- "ventilation.generation.fanRet.eff.WHyd", 1, 5, 9641, 1024)
+ "ventilation.generation.fanRet.eff.WHyd", 1, 5, 9610, 1024)
DeclareVariable("ventilation.generation.fanRet.eff.deltaP", "Small value for regularisation of power",\
- 7606, 0.01219555555555556, 0.0,0.0,0.0,0,2561)
+ 7566, 0.01219555555555556, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.fanRet.eff.yMot", "Motor part load ratio",\
- 9643, 0.833, 0.0,1E+100,0.0,0,2560)
+ 9612, 0.833, 0.0,1E+100,0.0,0,2560)
DeclareAlias2("ventilation.generation.fanRet.eff.y_in", "Prescribed mover speed [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 1024)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 1024)
DeclareAlias2("ventilation.generation.fanRet.eff.dp", "Pressure increase (computed or prescribed) [Pa]",\
- "ventilation.generation.fanRet.dpMachine", 1, 5, 9617, 1024)
+ "ventilation.generation.fanRet.dpMachine", 1, 5, 9586, 1024)
DeclareVariable("ventilation.generation.fanRet.y_start", "Initial value of speed [1]",\
- 7607, 1, 0.0,1.0,0.0,0,513)
+ 7567, 1, 0.0,1.0,0.0,0,513)
DeclareAlias2("ventilation.generation.fanRet.y", "Constant normalized rotational speed [1]",\
- "ventilation.generation.yFan.k", 1, 7, 1371, 0)
+ "ventilation.generation.yFan.k", 1, 7, 1377, 0)
DeclareVariable("ventilation.generation.fanRet.gain.k", "Gain value multiplied with input signal [1]",\
- 7608, -1, 0.0,0.0,0.0,0,2561)
+ 7568, -1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.fanRet.gain.u", "Input signal connector", \
-"ventilation.generation.fanRet.dpMachine", 1, 5, 9617, 1024)
+"ventilation.generation.fanRet.dpMachine", 1, 5, 9586, 1024)
DeclareAlias2("ventilation.generation.fanRet.gain.y", "Output signal connector",\
- "ventilation.generation.fanRet.dpMachine", -1, 5, 9617, 1024)
+ "ventilation.generation.fanRet.dpMachine", -1, 5, 9586, 1024)
DeclareVariable("ventilation.generation.fanRet.m_flow_nominal", "Nominal mass flow rate for configuration of pressure curve [kg/s]",\
- 7609, 0.1088888888888889, 1E-60,1E+100,0.0,0,513)
+ 7569, 0.1088888888888889, 1E-60,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.fanRet.dp_nominal", "Nominal pressure head for configuration of pressure curve [Pa|bar]",\
- 7610, 600.0, 1E-60,1E+100,0.0,0,513)
+ 7570, 600.0, 1E-60,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.parameters.epsHex", "Heat exchanger effectiveness [1]",\
- 1393, 0.8, 0.0,1E+100,0.0,0,560)
+ 1399, 0.8, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.parameters.dpHex_nominal", \
-"Nominal pressure drop on one HEX pipe [Pa|Pa]", 7611, 100, 0.0,0.0,0.0,0,513)
+"Nominal pressure drop on one HEX pipe [Pa|Pa]", 7571, 100, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.TSup.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7612, true, 0.0,0.0,0.0,0,515)
+ 7572, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.TSup.port_a.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9534, 132)
+ "ventilation.generation.hex.port_a1.m_flow", 1, 5, 9503, 132)
DeclareAlias2("ventilation.generation.TSup.port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 4)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 4)
DeclareAlias2("ventilation.generation.TSup.port_a.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9574, 4)
+ "ventilation.generation.fanFlow.port_a.h_outflow", 1, 5, 9543, 4)
DeclareAlias2("ventilation.generation.TSup.port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanFlow.vol.dynBal.medium.Xi[1]", 1, 1, 66, 4)
DeclareAlias2("ventilation.generation.TSup.port_b.m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9534, 132)
+ "ventilation.generation.hex.port_a1.m_flow", -1, 5, 9503, 132)
DeclareAlias2("ventilation.generation.TSup.port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.hex.port_b1.p", 1, 5, 9536, 4)
+ "ventilation.generation.hex.port_b1.p", 1, 5, 9505, 4)
DeclareAlias2("ventilation.generation.TSup.port_b.h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_b1.h_outflow", 1, 5, 9537, 4)
+ "ventilation.generation.hex.port_b1.h_outflow", 1, 5, 9506, 4)
DeclareAlias2("ventilation.generation.TSup.port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouSup.X[1]", 1, 7, 1349, 4)
+ "ventilation.generation.bouSup.X[1]", 1, 7, 1355, 4)
DeclareVariable("ventilation.generation.TSup.m_flow_nominal", "Nominal mass flow rate, used for regularization near zero flow [kg/s]",\
- 7613, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
+ 7573, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TSup.m_flow_small", "For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]",\
- 7614, 1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
+ 7574, 1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TSup.tau", "Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]",\
- 7615, 1.0, 0.0,1E+100,0.0,0,513)
+ 7575, 1.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TSup.initType", "Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]",\
- 7616, 3, 1.0,4.0,0.0,0,517)
+ 7576, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.TSup.k", "Gain to take flow rate into account for sensor time constant",\
- 9644, 1, 0.0,0.0,0.0,0,2560)
+ 9613, 1, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.TSup.dynamic", "Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]",\
- 7617, true, 0.0,0.0,0.0,0,2563)
+ 7577, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.TSup.mNor_flow", "Normalized mass flow rate",\
- 9645, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("ventilation.generation.TSup.tauInv", "Inverse of tau [s-1]", 7618,\
+ 9614, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("ventilation.generation.TSup.tauInv", "Inverse of tau [s-1]", 7578,\
1.0, 0.0,0.0,0.0,0,2561)
DeclareState("ventilation.generation.TSup.T", "Temperature of the passing fluid [K|degC]",\
73, 0.0, 0.0,1E+100,0.0,0,544)
DeclareDerivative("ventilation.generation.TSup.der(T)", "der(Temperature of the passing fluid) [K/s]",\
73, 0.0, 0.0,0.0,0.0,0,512)
DeclareVariable("ventilation.generation.TSup.T_start", "Initial or guess value of output (= state) [K|degC]",\
- 7619, 288.15, 0.0,1E+100,300.0,0,513)
+ 7579, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TSup.transferHeat", "if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]",\
- 7620, false, 0.0,0.0,0.0,0,515)
+ 7580, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.TSup.TAmb", "Fixed ambient temperature for heat transfer [K|degC]",\
- 7621, 288.15, 0.0,1E+100,300.0,0,513)
+ 7581, 288.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.generation.TSup.tauHeaTra", "Time constant for heat transfer, default 20 minutes [s]",\
- 7622, 1.0, 1.0,1E+100,0.0,0,513)
+ 7582, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.TSup.tauHeaTraInv", "Dummy parameter to avoid division by tauHeaTra [1/s]",\
- 7623, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("ventilation.generation.TSup.ratTau", "Ratio of tau", 7624, 0.0,\
+ 7583, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("ventilation.generation.TSup.ratTau", "Ratio of tau", 7584, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.TSup.TMed", "Medium temperature to which the sensor is exposed [K|degC]",\
- 9646, 300.0, 1.0,10000.0,300.0,0,2560)
+ 9615, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareVariable("ventilation.generation.TSup.T_a_inflow", "Temperature of inflowing fluid at port_a [K|degC]",\
- 9647, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9616, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("ventilation.generation.TSup.T_b_inflow", "Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]",\
- 9648, 293.15, 1.0,10000.0,300.0,0,2560)
+ 9617, 293.15, 1.0,10000.0,300.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7625, 2, 1.0,4.0,0.0,0,517)
+ 7585, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7626, 2, 1.0,4.0,0.0,0,517)
+ 7586, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7627, 2, 1.0,4.0,0.0,0,517)
+ 7587, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7628, 2, 1.0,4.0,0.0,0,517)
+ 7588, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.p_start", \
-"Start value of pressure [Pa|bar]", 7629, 101325, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 7589, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.T_start", \
-"Start value of temperature [K|degC]", 7630, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 7590, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1394, 0.01, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1400, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.generation.threeWayValve_b.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1395, 0.99, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1401, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("ventilation.generation.threeWayValve_b.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7631, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7591, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7632, false, 0.0,0.0,0.0,0,2563)
+ 7592, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.port_1.m_flow", \
-"Mass flow rate from the connection point into the component [kg/s]", 9649, 0, \
+"Mass flow rate from the connection point into the component [kg/s]", 9618, 0, \
-100000.0,100000.0,0.1088888888888889,0,776)
DeclareVariable("ventilation.generation.threeWayValve_b.port_1.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 9650, 101325, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 9619, 101325, 0.0,\
100000000.0,100000.0,0,520)
DeclareVariable("ventilation.generation.threeWayValve_b.port_1.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9651, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
+ 9620, 45300.945, -10000000000.0,10000000000.0,45300.945,0,520)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_1.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_2.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9614, 132)
+"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9583, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.port_2.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7633, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7593, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_2.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_2.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_3.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 132)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_3.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b2.p", 1,\
- 5, 9541, 4)
+ 5, 9510, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_3.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.port_3.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareVariable("ventilation.generation.threeWayValve_b.tau", "Time constant at nominal flow for dynamic energy and momentum balance [s]",\
- 7634, 0.0, 0.0,0.0,0.0,0,513)
+ 7594, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.mDyn_flow_nominal", \
-"Nominal mass flow rate for dynamic momentum and energy balance [kg/s]", 7635, \
+"Nominal mass flow rate for dynamic momentum and energy balance [kg/s]", 7595, \
0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7636, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7596, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.portFlowDirection_1", \
-"Flow direction for port_1 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7637,\
+"Flow direction for port_1 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7597,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.portFlowDirection_2", \
-"Flow direction for port_2 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7638,\
+"Flow direction for port_2 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7598,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.portFlowDirection_3", \
-"Flow direction for port_3 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7639,\
+"Flow direction for port_3 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7599,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.verifyFlowReversal", \
"=true, to assert that the flow does not reverse when portFlowDirection_* does not equal Bidirectional [:#(type=Boolean)]",\
- 7640, false, 0.0,0.0,0.0,0,515)
+ 7600, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.m_flow_small", \
-"Small mass flow rate for checking flow reversal [kg/s]", 7641, 1.088888888888889E-05,\
+"Small mass flow rate for checking flow reversal [kg/s]", 7601, 1.088888888888889E-05,\
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7642, true, 0.0,0.0,0.0,0,515)
+ 7602, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9618, 132)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.threeWayValve_b.port_1.p", 1,\
- 5, 9650, 4)
+ 5, 9619, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9618, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.port_b.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7643, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7603, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7644, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7604, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7645, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7605, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7646, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7606, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9649, 0)
+ "ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9618, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.dp", \
-"Pressure difference between port_a and port_b [Pa|Pa]", 9652, 0, 0.0,0.0,6000.0,\
+"Pressure difference between port_a and port_b [Pa|Pa]", 9621, 0, 0.0,0.0,6000.0,\
0,512)
DeclareVariable("ventilation.generation.threeWayValve_b.res1._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7647, 0, 0.0,0.0,0.0,0,2561)
+ 7607, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res1._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7648, 0, 0.0,0.0,0.0,0,2561)
+ 7608, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 7649, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 7609, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7650, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7610, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 7651, 300.0, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 7611, 300.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7652, false, 0.0,0.0,0.0,0,515)
+ 7612, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7653, 0.0, 0.0,1E+100,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7613, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1396, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1402, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.sta_default.T", \
-"Temperature of medium [K|degC]", 1397, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1403, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.sta_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1398, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1404, 0.01, \
0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.sta_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1399, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1405, 0.99, \
0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 7654, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7614, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.m_flow_nominal_pos",\
- "Absolute value of nominal flow rate [kg/s]", 7655, 0.1088888888888889, \
+ "Absolute value of nominal flow rate [kg/s]", 7615, 0.1088888888888889, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 7656, 300.0, 0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 7616, 300.0, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.CvData", \
-"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7657, 1, \
+"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7617, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.Kv", \
-"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7658, 0.0, 0.0,0.0,0.0,0,513)
+"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7618, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.Cv", \
-"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7659, 0.0, 0.0,0.0,0.0,0,513)
+"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7619, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.Av", \
-"Av (metric) flow coefficient [m2]", 7660, 0.0, 0.0,0.0,0.0,0,513)
+"Av (metric) flow coefficient [m2]", 7620, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 7661, 0.0, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 7621, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 7662, 200.0, 0.0,1E+100,0.0,0,513)
+ 7622, 200.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.rhoStd", \
-"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1400, \
+"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1406, \
1.2, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.Kv_SI", \
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 7663, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7623, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.use_strokeTime", \
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 7664, false, 0.0,0.0,0.0,0,515)
+ 7624, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.strokeTime", \
-"Time needed to fully open or close actuator [s]", 7665, 0.0, 0.0,0.0,0.0,0,513)
+"Time needed to fully open or close actuator [s]", 7625, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.init", \
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1401, 4, 1.0,4.0,0.0,0,564)
+ 1407, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("ventilation.generation.threeWayValve_b.res1.y_start", \
-"Initial position of actuator", 1402, 1, 0.0,0.0,0.0,0,560)
+"Initial position of actuator", 1408, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.y", "Actuator position (0: closed, 1: open)",\
- "ventilation.control.constZero.k", 1, 7, 1461, 0)
+ "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.y_actual", \
-"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1461, 0)
+"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.casePreInd", \
-"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7666,\
+"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7626,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_b.res1.y_internal", \
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"ventilation.control.constZero.k", 1, 7, 1461, 1024)
+"ventilation.control.constZero.k", 1, 7, 1467, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.dpFixed_nominal", \
-"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7667, \
+"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7627, \
100.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.l", \
-"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7668, 1E-10, 1E-10,1.0,0.0,0,513)
+"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7628, 1E-10, 1E-10,1.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.phi", \
-"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7669, 0.0,\
+"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7629, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.kFixed", \
"Flow coefficient of fixed resistance that may be in series with valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 7670, 0.010888888888888889, 0.0,1E+100,0.0,0,513)
+ 7630, 0.010888888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.kVal", \
-"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7671, \
+"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7631, \
1E-60, 1E-60,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res1.k", \
"Flow coefficient of valve and pipe in series, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 7672, 1E-60, 1E-60,1E+100,0.0,0,513)
+ 7632, 1E-60, 1E-60,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7673, true, 0.0,0.0,0.0,0,515)
+ 7633, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9614, 132)
+"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9583, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.port_a.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7674, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7634, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.bouExh.ports[1].m_flow", 1, 5, 9614, 132)
+"ventilation.generation.bouExh.ports[1].m_flow", 1, 5, 9583, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.port_b.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7675, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7635, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.bouExh.ports[1].h_outflow", 1, 5, 7249, 4)
+ "ventilation.generation.bouExh.ports[1].h_outflow", 1, 5, 7209, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.bouExh.X[1]", 1, 7, 1372, 4)
+ "ventilation.generation.bouExh.X[1]", 1, 7, 1378, 4)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7676, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7636, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7677, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7637, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7678, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7638, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.threeWayValve_b.res2.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9614, 0)
+ "ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9583, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.dp", \
-"Pressure difference between port_a and port_b [Pa|Pa]", 7679, 0, 0.0,0.0,0.0,0,513)
+"Pressure difference between port_a and port_b [Pa|Pa]", 7639, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res2._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7680, 0, 0.0,0.0,0.0,0,2561)
+ 7640, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res2._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7681, 0, 0.0,0.0,0.0,0,2561)
+ 7641, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res2.from_dp", \
-"Used to satisfy replaceable models [:#(type=Boolean)]", 7682, true, 0.0,0.0,0.0,\
+"Used to satisfy replaceable models [:#(type=Boolean)]", 7642, true, 0.0,0.0,0.0,\
0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7683, true, 0.0,0.0,0.0,0,515)
+ 7643, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 132)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_b2.p", 1,\
- 5, 9541, 4)
+ 5, 9510, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.port_b.p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7684, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7644, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_b2.h_outflow", 1, 5, 9542, 4)
+ "ventilation.generation.hex.port_b2.h_outflow", 1, 5, 9511, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7685, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7645, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7686, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7646, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7687, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7647, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 0)
+ "ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.dp", \
-"Pressure difference between port_a and port_b [Pa|Pa]", 9653, 0, 0.0,0.0,6000.0,\
+"Pressure difference between port_a and port_b [Pa|Pa]", 9622, 0, 0.0,0.0,6000.0,\
0,576)
DeclareVariable("ventilation.generation.threeWayValve_b.res3._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7688, 0, 0.0,0.0,0.0,0,2561)
+ 7648, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res3._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7689, 0, 0.0,0.0,0.0,0,2561)
+ 7649, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 7690, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 7650, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7691, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7651, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 7692, 0.0, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 7652, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7693, false, 0.0,0.0,0.0,0,515)
+ 7653, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7694, 0.0, 0.0,1E+100,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7654, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1403, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1409, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.sta_default.T", \
-"Temperature of medium [K|degC]", 1404, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1410, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.sta_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1405, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1411, 0.01, \
0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.sta_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1406, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1412, 0.99, \
0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 7695, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7655, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.m_flow_nominal_pos",\
- "Absolute value of nominal flow rate [kg/s]", 7696, 0.1088888888888889, \
+ "Absolute value of nominal flow rate [kg/s]", 7656, 0.1088888888888889, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 7697, 0.0, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 7657, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.CvData", \
-"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7698, 1, \
+"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7658, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.Kv", \
-"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7699, 0.0, 0.0,0.0,0.0,0,513)
+"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7659, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.Cv", \
-"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7700, 0.0, 0.0,0.0,0.0,0,513)
+"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7660, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.Av", \
-"Av (metric) flow coefficient [m2]", 7701, 0.0, 0.0,0.0,0.0,0,513)
+"Av (metric) flow coefficient [m2]", 7661, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 7702, 0.0, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 7662, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 7703, 0.0, 0.0,1E+100,0.0,0,513)
+ 7663, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.rhoStd", \
-"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1407, \
+"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1413, \
1.2, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.Kv_SI", \
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 7704, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7664, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.use_strokeTime", \
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 7705, false, 0.0,0.0,0.0,0,515)
+ 7665, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.strokeTime", \
-"Time needed to fully open or close actuator [s]", 7706, 0.0, 0.0,0.0,0.0,0,513)
+"Time needed to fully open or close actuator [s]", 7666, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.init", \
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1408, 4, 1.0,4.0,0.0,0,564)
+ 1414, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("ventilation.generation.threeWayValve_b.res3.y_start", \
-"Initial position of actuator", 1409, 1, 0.0,0.0,0.0,0,560)
+"Initial position of actuator", 1415, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.y", \
-"Actuator position (0: closed, 1: open)", 7707, 0.0, 0.0,1.0,0.0,0,513)
+"Actuator position (0: closed, 1: open)", 7667, 0.0, 0.0,1.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.y_actual", \
"Actual actuator position", "ventilation.generation.threeWayValve_b.res3.y", 1, 5,\
- 7707, 0)
+ 7667, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.casePreInd", \
-"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7708,\
+"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7668,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.y_internal", \
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"ventilation.generation.threeWayValve_b.res3.y", 1, 5, 7707, 1024)
+"ventilation.generation.threeWayValve_b.res3.y", 1, 5, 7667, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.dpFixed_nominal", \
-"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7709, \
+"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7669, \
0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.l", \
-"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7710, 1E-10, 1E-10,1.0,0.0,0,513)
+"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7670, 1E-10, 1E-10,1.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.phi", \
-"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7711, 0.0,\
+"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7671, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.kFixed", \
"Flow coefficient of fixed resistance that may be in series with valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 7712, 0, 0.0,1E+100,0.0,0,513)
+ 7672, 0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.res3.kVal", \
-"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7713, \
+"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7673, \
1E-60, 1E-60,1E+100,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_b.res3.k", "Flow coefficient of valve and pipe in series, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- "ventilation.generation.threeWayValve_b.res3.kVal", 1, 5, 7713, 0)
+ "ventilation.generation.threeWayValve_b.res3.kVal", 1, 5, 7673, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.have_controlVolume", \
-"Boolean flag used to remove conditional components [:#(type=Boolean)]", 7714, \
+"Boolean flag used to remove conditional components [:#(type=Boolean)]", 7674, \
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.use_strokeTime", \
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 7715, false, 0.0,0.0,0.0,0,515)
+ 7675, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.strokeTime", \
-"Time needed to fully open or close actuator [s]", 7716, 0.0, 0.0,0.0,0.0,0,513)
+"Time needed to fully open or close actuator [s]", 7676, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 7717, 1, 1.0,4.0,0.0,0,517)
+ 7677, 1, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.y_start", \
-"Initial position of actuator", 7718, 0.0, 0.0,0.0,0.0,0,513)
+"Initial position of actuator", 7678, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_b.y", "Actuator position (0: closed, 1: open)",\
- "ventilation.control.constZero.k", 1, 7, 1461, 0)
+ "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareAlias2("ventilation.generation.threeWayValve_b.y_actual", \
-"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1461, 0)
+"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.casePreInd", \
-"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7719,\
+"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7679,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_b.y_internal", \
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"ventilation.control.constZero.k", 1, 7, 1461, 1024)
+"ventilation.control.constZero.k", 1, 7, 1467, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.CvData", \
-"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7720, 1, \
+"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7680, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.Kv", "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []",\
- 7721, 0.0, 0.0,0.0,0.0,0,513)
+ 7681, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.Cv", "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []",\
- 7722, 0.0, 0.0,0.0,0.0,0,513)
+ 7682, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.Av", "Av (metric) flow coefficient [m2]",\
- 7723, 0.0, 0.0,0.0,0.0,0,513)
+ 7683, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 7724, 0.0, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 7684, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7725, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7685, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 7726, 200.0, 0.0,1E+100,0.0,0,513)
+ 7686, 200.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.rhoStd", \
-"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1410, \
+"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1416, \
1.2, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_b.Kv_SI", "Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 7727, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7687, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 7728, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 7688, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_b.dpFixed_nominal[1]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|Pa]",\
- 7729, 100.0, 0.0,1E+100,0.0,0,513)
+ 7689, 100.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.dpFixed_nominal[2]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|Pa]",\
- 7730, 0.0, 0.0,1E+100,0.0,0,513)
+ 7690, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.fraK", "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)",\
- 7731, 0.0, 0.0,1.0,0.0,0,513)
+ 7691, 0.0, 0.0,1.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_b.l[1]", "Valve leakage, l=Kv(y=0)/Kv(y=1)",\
- 1411, 0.0001, 0.0,1.0,0.0,0,560)
+ 1417, 0.0001, 0.0,1.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValve_b.l[2]", "Valve leakage, l=Kv(y=0)/Kv(y=1)",\
- 1412, 0.0001, 0.0,1.0,0.0,0,560)
+ 1418, 0.0001, 0.0,1.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_b.linearized[1]", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7732, false, 0.0,0.0,0.0,0,515)
+ 7692, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.linearized[2]", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7733, false, 0.0,0.0,0.0,0,515)
+ 7693, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.inv.u1", \
-"Commanded input", 7734, 1, 0.0,0.0,0.0,0,2561)
+"Commanded input", 7694, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_b.inv.u2", "Feedback input",\
- "ventilation.control.constZero.k", 1, 7, 1461, 1024)
+ "ventilation.control.constZero.k", 1, 7, 1467, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.inv.y", "", \
-"ventilation.generation.threeWayValve_b.res3.y", 1, 5, 7707, 1024)
+"ventilation.generation.threeWayValve_b.res3.y", 1, 5, 7667, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.uni.k", "Constant output value",\
- 7735, 1, 0.0,0.0,0.0,0,2561)
+ 7695, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.uni.y", "Connector of Real output signal",\
- 7736, 1.0, 0.0,0.0,0.0,0,2561)
+ 7696, 1.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7737, 2, 1.0,4.0,0.0,0,517)
+ 7697, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7738, 2, 1.0,4.0,0.0,0,517)
+ 7698, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7739, 2, 1.0,4.0,0.0,0,517)
+ 7699, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7740, 2, 1.0,4.0,0.0,0,517)
+ 7700, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.p_start", \
-"Start value of pressure [Pa|bar]", 7741, 101325, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 7701, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.T_start", \
-"Start value of temperature [K|degC]", 7742, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 7702, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7743, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 7703, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7744, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 7704, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7745, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7705, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7746, false, 0.0,0.0,0.0,0,2563)
+ 7706, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 7747, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 7707, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 7748, false, 0.0,0.0,0.0,0,515)
+ 7708, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 7749, true, 0.0,0.0,0.0,0,515)
+ 7709, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7750, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7710, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.nPorts", \
-"Number of ports [:#(type=Integer)]", 7751, 3, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 7711, 3, 0.0,0.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7752, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7712, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 7753, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("ventilation.generation.threeWayValve_b.vol.V", "Volume [m3]", 7754,\
+ 7713, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("ventilation.generation.threeWayValve_b.vol.V", "Volume [m3]", 7714,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9618, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.ports[1].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7755, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7715, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9614, 132)
+"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9583, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.ports[2].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7756, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7716, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[3].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 132)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.ports[3].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7757, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7717, 101325.0, 0.0,\
100000000.0,100000.0,0,521)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[3].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.ports[3].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.T", "Temperature of the fluid [K|degC]",\
- 9654, 300.0, 1.0,10000.0,300.0,0,512)
+ 9623, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.U", "Internal energy of the component [J]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.U", 1, 1, 75, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.p", "Pressure of the fluid [Pa|bar]",\
- 7758, 101325.0, 0.0,0.0,0.0,0,513)
+ 7718, 101325.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.m", "Mass of the component [kg]",\
- "ventilation.generation.threeWayValve_b.vol.dynBal.m", 1, 5, 7803, 0)
+ "ventilation.generation.threeWayValve_b.vol.dynBal.m", 1, 5, 7763, 0)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.Xi[1]", \
"Species concentration of the fluid [1]", "ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1,\
1, 74, 0)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.mXi[1]", \
-"Species mass of the component [kg]", 9655, 0.0, 0.0,1E+100,0.0,0,512)
+"Species mass of the component [kg]", 9624, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 7759, 0.0, 0.0,\
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 7719, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 7760, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 7720, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_default.T", \
-"Temperature of medium [K|degC]", 7761, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7721, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7762, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7722, 0.01, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7763, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7723, 0.99, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7764, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7724, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 7765, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 7725, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_start.T", \
-"Temperature of medium [K|degC]", 7766, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7726, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7767, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7727, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.state_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7768, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7728, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 7769, false, 0.0,0.0,0.0,0,2563)
+ 7729, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 1024)
+"ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.XiOut_internal[1]", \
"Internal connector for leaving species concentration of the component [1]", \
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.preTem.port.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_b.vol.T", 1, 5,\
- 9654, 1028)
+ 9623, 1028)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.preTem.port.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 7770,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 7730,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.preTem.T", "[K]", \
-"ventilation.generation.threeWayValve_b.vol.T", 1, 5, 9654, 1024)
+"ventilation.generation.threeWayValve_b.vol.T", 1, 5, 9623, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.portT.y", \
-"Value of Real output", "ventilation.generation.threeWayValve_b.vol.T", 1, 5, 9654,\
+"Value of Real output", "ventilation.generation.threeWayValve_b.vol.T", 1, 5, 9623,\
1024)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.heaFloSen.Q_flow", \
-"Heat flow from port_a to port_b as output signal [W]", 7771, 0.0, 0.0,0.0,0.0,0,2561)
+"Heat flow from port_a to port_b as output signal [W]", 7731, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.heaFloSen.port_a.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_b.vol.T", 1, 5,\
- 9654, 1028)
+ 9623, 1028)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.heaFloSen.port_a.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 7772,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 7732,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.heaFloSen.port_b.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_b.vol.T", 1, 5,\
- 9654, 1028)
+ 9623, 1028)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.heaFloSen.port_b.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 7773,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 7733,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7774,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7734,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.heatPort.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_b.vol.T", 1, 5,\
- 9654, 4)
+ 9623, 4)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7775,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7735,\
0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.tau", \
-"Time constant at nominal flow [s]", 7776, 0.0, 0.0,0.0,0.0,0,513)
+"Time constant at nominal flow [s]", 7736, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.V_nominal", \
-"Volume of delay element [m3]", 7777, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume of delay element [m3]", 7737, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7778, 2, 1.0,4.0,0.0,0,2565)
+ 7738, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7779, 2, 1.0,4.0,0.0,0,2565)
+ 7739, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7780, 2, 1.0,4.0,0.0,0,2565)
+ 7740, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7781, 2, 1.0,4.0,0.0,0,2565)
+ 7741, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 7782, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 7742, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 7783, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 7743, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7784, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 7744, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7785, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 7745, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7786, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7746, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7787, false, 0.0,0.0,0.0,0,2563)
+ 7747, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 7788, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 7748, \
true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 7789, true, 0.0,0.0,0.0,0,2563)
+ 7749, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 7790, 3, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 7750, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 7791, false, 0.0,0.0,0.0,0,2563)
+ 7751, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7792,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7752,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.Q_flow", \
-"Sensible plus latent heat flow rate transferred into the medium [W]", 7793, 0.0,\
+"Sensible plus latent heat flow rate transferred into the medium [W]", 7753, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1,\
- 5, 9651, 1024)
+ 5, 9620, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.XiOut[1]", \
"Leaving species concentration of the component [1]", "ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1,\
1, 74, 1024)
@@ -12507,863 +12534,863 @@ DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.UOut", \
1, 75, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.mXiOut[1]", \
"Species mass of the component [kg]", "ventilation.generation.threeWayValve_b.vol.mXi[1]", 1,\
- 5, 9655, 1024)
+ 5, 9624, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.mOut", \
"Mass of the component [kg]", "ventilation.generation.threeWayValve_b.vol.dynBal.m", 1,\
- 5, 7803, 1024)
+ 5, 7763, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9649, 1156)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9618, 1156)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports[1].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7794, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7754, 101325.0, 0.0,\
100000000.0,100000.0,0,2569)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 1028)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9614, 1156)
+"ventilation.generation.bouExh.ports[1].m_flow", -1, 5, 9583, 1156)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports[2].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7795, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7755, 101325.0, 0.0,\
100000000.0,100000.0,0,2569)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 1028)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[3].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 1156)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 1156)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports[3].p", \
-"Thermodynamic pressure in the connection point [Pa|bar]", 7796, 101325.0, 0.0,\
+"Thermodynamic pressure in the connection point [Pa|bar]", 7756, 101325.0, 0.0,\
100000000.0,100000.0,0,2569)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[3].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 1028)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.ports[3].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1028)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 7797, false, 0.0,0.0,0.0,0,2563)
+ 7757, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 7798, true, 0.0,0.0,0.0,0,2563)
+ 7758, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.p", \
-"Absolute pressure of medium [Pa|bar]", 7799, 101325.0, 0.0,1E+100,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 7759, 101325.0, 0.0,1E+100,100000.0,0,2561)
DeclareState("ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", \
"Structurally independent mass fractions [1]", 74, 0.0, 0.0,1.0,0.01,0,2592)
DeclareDerivative("ventilation.generation.threeWayValve_b.vol.dynBal.medium.der(Xi[1])",\
"der(Structurally independent mass fractions) [s-1]", 74, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1,\
- 5, 9651, 1024)
+ 5, 9620, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 7800, 0.0, 0.0,100000.0,1.0,0,2561)
+"Density of medium [kg/m3|g/cm3]", 7760, 0.0, 0.0,100000.0,1.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9656, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9625, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9657, 0.0, 0.0,\
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9626, 0.0, 0.0,\
1.0,1.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.u", \
-"Specific internal energy of medium [J/kg]", 9658, 0.0, -100000000.0,100000000.0,\
+"Specific internal energy of medium [J/kg]", 9627, 0.0, -100000000.0,100000000.0,\
1000000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 9659, 1000.0, 0.0,\
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 9628, 1000.0, 0.0,\
10000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 9660, 0.032, 0.001,0.25,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 9629, 0.032, 0.001,0.25,\
0.032,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.state.p",\
- "Absolute pressure of medium [Pa|bar]", 7801, 101325.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 7761, 101325.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "ventilation.generation.threeWayValve_b.vol.dynBal.medium.T", 1,\
- 5, 9656, 1024)
+ 5, 9625, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.medium.state.X[1]",\
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.medium.state.X[2]",\
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]", 1, 5, 9657, 1024)
+"ventilation.generation.threeWayValve_b.vol.dynBal.medium.X[2]", 1, 5, 9626, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9661, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9630, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 7802, 0.0, 0.0,0.0,0.0,0,2561)
+ "Absolute pressure of medium in [bar] [bar]", 7762, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.medium.dT", \
-"Temperature difference used to compute enthalpy [K,]", 9662, 20.0, 0.0,0.0,0.0,\
+"Temperature difference used to compute enthalpy [K,]", 9631, 20.0, 0.0,0.0,0.0,\
0,2560)
DeclareState("ventilation.generation.threeWayValve_b.vol.dynBal.U", \
"Internal energy of fluid [J]", 75, 0.0, 0.0,0.0,100000.0,0,2592)
DeclareDerivative("ventilation.generation.threeWayValve_b.vol.dynBal.der(U)", \
"der(Internal energy of fluid) [W]", 75, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.m", \
-"Mass of fluid [kg]", 7803, 0.0, 0.0,1E+100,0.0,0,2561)
+"Mass of fluid [kg]", 7763, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.der(m)", \
-"der(Mass of fluid) [kg/s]", 7804, 0.0, 0.0,0.0,0.0,0,2561)
+"der(Mass of fluid) [kg/s]", 7764, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.mXi[1]", \
"Masses of independent components in the fluid [kg]", "ventilation.generation.threeWayValve_b.vol.mXi[1]", 1,\
- 5, 9655, 1024)
+ 5, 9624, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.mb_flow", \
-"Mass flows across boundaries [kg/s]", 7805, 0.0, 0.0,0.0,0.0,0,2561)
+"Mass flows across boundaries [kg/s]", 7765, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.mbXi_flow[1]",\
- "Substance mass flows across boundaries [kg/s]", 9663, 0.0, 0.0,0.0,0.0,0,2560)
+ "Substance mass flows across boundaries [kg/s]", 9632, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_b.vol.dynBal.Hb_flow", \
"Enthalpy flow across boundaries or energy source/sink [W]", "ventilation.generation.threeWayValve_b.vol.dynBal.der(U)", 1,\
6, 75, 1024)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.fluidVolume",\
- "Volume [m3]", 7806, 0.0, 0.0,0.0,0.0,0,2561)
+ "Volume [m3]", 7766, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 7807, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 7767, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports_H_flow[1]",\
- "[W]", 9664, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9633, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports_H_flow[2]",\
- "[W]", 9665, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9634, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports_H_flow[3]",\
- "[W]", 9666, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9635, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports_mXi_flow[1, 1]",\
- "[kg/s]", 9667, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9636, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports_mXi_flow[2, 1]",\
- "[kg/s]", 9668, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9637, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.ports_mXi_flow[3, 1]",\
- "[kg/s]", 9669, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9638, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7808, 1014.54, \
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7768, 1014.54, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7809, 0.0, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7769, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.computeCSen",\
- "[:#(type=Boolean)]", 7810, false, 0.0,0.0,0.0,0,2563)
+ "[:#(type=Boolean)]", 7770, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 7811, 101325.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 7771, 101325.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 7812, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 7772, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.state_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7813, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7773, 0.01, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.state_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7814, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7774, 0.99, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.rho_default",\
- "Density, used to compute fluid mass [kg/m3|g/cm3]", 7815, 1.2, 0.0,1E+100,0.0,\
+ "Density, used to compute fluid mass [kg/m3|g/cm3]", 7775, 1.2, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.s[1]", \
-"Vector with zero everywhere except where species is", 7816, 1, 0.0,0.0,0.0,0,2561)
+"Vector with zero everywhere except where species is", 7776, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 7817, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 7777, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 7818, true, 0.0,0.0,0.0,0,2563)
+ 7778, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_b.vol.dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 7819, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 7779, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7820, 2, 1.0,4.0,0.0,0,517)
+ 7780, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7821, 2, 1.0,4.0,0.0,0,517)
+ 7781, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7822, 2, 1.0,4.0,0.0,0,517)
+ 7782, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7823, 2, 1.0,4.0,0.0,0,517)
+ 7783, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.p_start", \
-"Start value of pressure [Pa|bar]", 7824, 101325, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 7784, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.T_start", \
-"Start value of temperature [K|degC]", 7825, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 7785, 293.15, 1.0,10000.0,300.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1413, 0.01, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1419, 0.01, 0.0,1.0,0.1,0,560)
DeclareParameter("ventilation.generation.threeWayValve_a.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 1414, 0.99, 0.0,1.0,0.1,0,560)
+"Start value of mass fractions m_i/m [kg/kg]", 1420, 0.99, 0.0,1.0,0.1,0,560)
DeclareVariable("ventilation.generation.threeWayValve_a.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7826, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7786, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7827, false, 0.0,0.0,0.0,0,2563)
+ 7787, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_1.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9618, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_1.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.threeWayValve_b.port_1.p", 1,\
- 5, 9650, 4)
+ 5, 9619, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_1.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_1.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_2.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 132)
+"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_2.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_2.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_2.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_3.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_3.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_a2.p", 1,\
- 5, 9539, 4)
+ 5, 9508, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_3.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.port_3.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareVariable("ventilation.generation.threeWayValve_a.tau", "Time constant at nominal flow for dynamic energy and momentum balance [s]",\
- 7828, 0.0, 0.0,0.0,0.0,0,513)
+ 7788, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.mDyn_flow_nominal", \
-"Nominal mass flow rate for dynamic momentum and energy balance [kg/s]", 7829, \
+"Nominal mass flow rate for dynamic momentum and energy balance [kg/s]", 7789, \
0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7830, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7790, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.portFlowDirection_1", \
-"Flow direction for port_1 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7831,\
+"Flow direction for port_1 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7791,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.portFlowDirection_2", \
-"Flow direction for port_2 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7832,\
+"Flow direction for port_2 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7792,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.portFlowDirection_3", \
-"Flow direction for port_3 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7833,\
+"Flow direction for port_3 [:#(type=Modelica.Fluid.Types.PortFlowDirection)]", 7793,\
3, 1.0,3.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.verifyFlowReversal", \
"=true, to assert that the flow does not reverse when portFlowDirection_* does not equal Bidirectional [:#(type=Boolean)]",\
- 7834, false, 0.0,0.0,0.0,0,515)
+ 7794, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.m_flow_small", \
-"Small mass flow rate for checking flow reversal [kg/s]", 7835, 1.088888888888889E-05,\
+"Small mass flow rate for checking flow reversal [kg/s]", 7795, 1.088888888888889E-05,\
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7836, true, 0.0,0.0,0.0,0,515)
+ 7796, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9618, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.threeWayValve_b.port_1.p", 1,\
- 5, 9650, 4)
+ 5, 9619, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", 1, 5, 9618, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9651, 4)
+ "ventilation.generation.threeWayValve_b.port_1.h_outflow", 1, 5, 9620, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7837, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7797, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7838, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7798, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7839, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7799, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9649, 0)
+ "ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9618, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.dp", \
-"Pressure difference between port_a and port_b [Pa|Pa]", 9670, 0, 0.0,0.0,6000.0,\
+"Pressure difference between port_a and port_b [Pa|Pa]", 9639, 0, 0.0,0.0,6000.0,\
0,576)
DeclareVariable("ventilation.generation.threeWayValve_a.res1._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7840, 0, 0.0,0.0,0.0,0,2561)
+ 7800, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res1._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7841, 0, 0.0,0.0,0.0,0,2561)
+ 7801, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 7842, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 7802, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7843, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7803, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 7844, 300.0, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 7804, 300.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7845, false, 0.0,0.0,0.0,0,515)
+ 7805, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7846, 0.0, 0.0,1E+100,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7806, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1415, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1421, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.sta_default.T", \
-"Temperature of medium [K|degC]", 1416, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1422, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.sta_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1417, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1423, 0.01, \
0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.sta_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1418, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1424, 0.99, \
0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 7847, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7807, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.m_flow_nominal_pos",\
- "Absolute value of nominal flow rate [kg/s]", 7848, 0.1088888888888889, \
+ "Absolute value of nominal flow rate [kg/s]", 7808, 0.1088888888888889, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 7849, 300.0, 0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 7809, 300.0, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.CvData", \
-"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7850, 1, \
+"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7810, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.Kv", \
-"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7851, 0.0, 0.0,0.0,0.0,0,513)
+"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7811, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.Cv", \
-"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7852, 0.0, 0.0,0.0,0.0,0,513)
+"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7812, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.Av", \
-"Av (metric) flow coefficient [m2]", 7853, 0.0, 0.0,0.0,0.0,0,513)
+"Av (metric) flow coefficient [m2]", 7813, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 7854, 0.0, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 7814, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 7855, 200.0, 0.0,1E+100,0.0,0,513)
+ 7815, 200.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.rhoStd", \
-"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1419, \
+"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1425, \
1.2, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.Kv_SI", \
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 7856, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7816, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.use_strokeTime", \
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 7857, false, 0.0,0.0,0.0,0,515)
+ 7817, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.strokeTime", \
-"Time needed to fully open or close actuator [s]", 7858, 0.0, 0.0,0.0,0.0,0,513)
+"Time needed to fully open or close actuator [s]", 7818, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.init", \
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1420, 4, 1.0,4.0,0.0,0,564)
+ 1426, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("ventilation.generation.threeWayValve_a.res1.y_start", \
-"Initial position of actuator", 1421, 1, 0.0,0.0,0.0,0,560)
+"Initial position of actuator", 1427, 1, 0.0,0.0,0.0,0,560)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.y", "Actuator position (0: closed, 1: open)",\
- "ventilation.control.constZero.k", 1, 7, 1461, 0)
+ "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.y_actual", \
-"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1461, 0)
+"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.casePreInd", \
-"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7859,\
+"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7819,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_a.res1.y_internal", \
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"ventilation.control.constZero.k", 1, 7, 1461, 1024)
+"ventilation.control.constZero.k", 1, 7, 1467, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.dpFixed_nominal", \
-"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7860, \
+"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7820, \
100.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.l", \
-"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7861, 1E-10, 1E-10,1.0,0.0,0,513)
+"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7821, 1E-10, 1E-10,1.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.phi", \
-"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7862, 0.0,\
+"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7822, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.kFixed", \
"Flow coefficient of fixed resistance that may be in series with valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 7863, 0.010888888888888889, 0.0,1E+100,0.0,0,513)
+ 7823, 0.010888888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.kVal", \
-"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7864, \
+"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7824, \
1E-60, 1E-60,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res1.k", \
"Flow coefficient of valve and pipe in series, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 7865, 1E-60, 1E-60,1E+100,0.0,0,513)
+ 7825, 1E-60, 1E-60,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res2.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7866, true, 0.0,0.0,0.0,0,515)
+ 7826, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 132)
+"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9604, 132)
+"ventilation.generation.TExhIn.port_a.m_flow", -1, 5, 9573, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_b.h_outflow", 1, 5, 9607, 4)
+ "ventilation.generation.TExhIn.port_b.h_outflow", 1, 5, 9576, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.generation.TExhIn.port_b.Xi_outflow[1]", 1, 5, 9608, 4)
+ "ventilation.generation.TExhIn.port_b.Xi_outflow[1]", 1, 5, 9577, 4)
DeclareVariable("ventilation.generation.threeWayValve_a.res2.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7867, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7827, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res2.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7868, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7828, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res2.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7869, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7829, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.threeWayValve_a.res2.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 0)
+ "ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.res2.dp", \
-"Pressure difference between port_a and port_b [Pa|Pa]", 7870, 0, 0.0,0.0,0.0,0,513)
+"Pressure difference between port_a and port_b [Pa|Pa]", 7830, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res2._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7871, 0, 0.0,0.0,0.0,0,2561)
+ 7831, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res2._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7872, 0, 0.0,0.0,0.0,0,2561)
+ 7832, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res2.from_dp", \
-"Used to satisfy replaceable models [:#(type=Boolean)]", 7873, true, 0.0,0.0,0.0,\
+"Used to satisfy replaceable models [:#(type=Boolean)]", 7833, true, 0.0,0.0,0.0,\
0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.allowFlowReversal",\
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 7874, true, 0.0,0.0,0.0,0,515)
+ 7834, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_a.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.hex.port_a2.p", 1,\
- 5, 9539, 4)
+ 5, 9508, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_a.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", 1, 5, 9507, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_b.p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9540, 4)
+ "ventilation.generation.hex.port_a2.h_outflow", 1, 5, 9509, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.port_b.Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_b.vol.dynBal.medium.Xi[1]", 1, 1, 74, 4)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7875, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7835, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7876, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7836, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.show_T", \
-"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7877, \
+"= true, if actual temperature at port is computed [:#(type=Boolean)]", 7837, \
false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.m_flow", \
"Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 0)
+ "ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.dp", \
-"Pressure difference between port_a and port_b [Pa|Pa]", 9671, 0, 0.0,0.0,6000.0,\
+"Pressure difference between port_a and port_b [Pa|Pa]", 9640, 0, 0.0,0.0,6000.0,\
0,512)
DeclareVariable("ventilation.generation.threeWayValve_a.res3._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 7878, 0, 0.0,0.0,0.0,0,2561)
+ 7838, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res3._dp_start", \
"Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 7879, 0, 0.0,0.0,0.0,0,2561)
+ 7839, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 7880, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 7840, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7881, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7841, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 7882, 0.0, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 7842, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7883, false, 0.0,0.0,0.0,0,515)
+ 7843, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7884, 0.0, 0.0,1E+100,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 7844, 0.0, 0.0,1E+100,\
0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1422, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1428, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.sta_default.T", \
-"Temperature of medium [K|degC]", 1423, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1429, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.sta_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1424, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1430, 0.01, \
0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.sta_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1425, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1431, 0.99, \
0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 7885, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7845, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.m_flow_nominal_pos",\
- "Absolute value of nominal flow rate [kg/s]", 7886, 0.1088888888888889, \
+ "Absolute value of nominal flow rate [kg/s]", 7846, 0.1088888888888889, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 7887, 0.0, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 7847, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.CvData", \
-"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7888, 1, \
+"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7848, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.Kv", \
-"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7889, 0.0, 0.0,0.0,0.0,0,513)
+"Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []", 7849, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.Cv", \
-"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7890, 0.0, 0.0,0.0,0.0,0,513)
+"Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []", 7850, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.Av", \
-"Av (metric) flow coefficient [m2]", 7891, 0.0, 0.0,0.0,0.0,0,513)
+"Av (metric) flow coefficient [m2]", 7851, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 7892, 0.0, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 7852, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 7893, 0.0, 0.0,1E+100,0.0,0,513)
+ 7853, 0.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.rhoStd", \
-"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1426, \
+"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1432, \
1.2, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.Kv_SI", \
"Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 7894, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7854, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.use_strokeTime", \
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 7895, false, 0.0,0.0,0.0,0,515)
+ 7855, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.strokeTime", \
-"Time needed to fully open or close actuator [s]", 7896, 0.0, 0.0,0.0,0.0,0,513)
+"Time needed to fully open or close actuator [s]", 7856, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.init", \
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1427, 4, 1.0,4.0,0.0,0,564)
+ 1433, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("ventilation.generation.threeWayValve_a.res3.y_start", \
-"Initial position of actuator", 1428, 1, 0.0,0.0,0.0,0,560)
+"Initial position of actuator", 1434, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.y", \
-"Actuator position (0: closed, 1: open)", 7897, 0.0, 0.0,1.0,0.0,0,513)
+"Actuator position (0: closed, 1: open)", 7857, 0.0, 0.0,1.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.y_actual", \
"Actual actuator position", "ventilation.generation.threeWayValve_a.res3.y", 1, 5,\
- 7897, 0)
+ 7857, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.casePreInd", \
-"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7898,\
+"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7858,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.y_internal", \
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"ventilation.generation.threeWayValve_a.res3.y", 1, 5, 7897, 1024)
+"ventilation.generation.threeWayValve_a.res3.y", 1, 5, 7857, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.dpFixed_nominal", \
-"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7899, \
+"Pressure drop of pipe and other resistances that are in series [Pa|Pa]", 7859, \
0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.l", \
-"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7900, 1E-10, 1E-10,1.0,0.0,0,513)
+"Valve leakage, l=Kv(y=0)/Kv(y=1)", 7860, 1E-10, 1E-10,1.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.phi", \
-"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7901, 0.0,\
+"Ratio actual to nominal mass flow rate of valve, phi=Kv(y)/Kv(y=1)", 7861, 0.0,\
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.kFixed", \
"Flow coefficient of fixed resistance that may be in series with valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- 7902, 0, 0.0,1E+100,0.0,0,513)
+ 7862, 0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.res3.kVal", \
-"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7903, \
+"Flow coefficient of valve, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).", 7863, \
1E-60, 1E-60,1E+100,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_a.res3.k", "Flow coefficient of valve and pipe in series, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2).",\
- "ventilation.generation.threeWayValve_a.res3.kVal", 1, 5, 7903, 0)
+ "ventilation.generation.threeWayValve_a.res3.kVal", 1, 5, 7863, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.have_controlVolume", \
-"Boolean flag used to remove conditional components [:#(type=Boolean)]", 7904, \
+"Boolean flag used to remove conditional components [:#(type=Boolean)]", 7864, \
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.use_strokeTime", \
"Set to true to continuously open and close valve using strokeTime [:#(type=Boolean)]",\
- 7905, false, 0.0,0.0,0.0,0,515)
+ 7865, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.strokeTime", \
-"Time needed to fully open or close actuator [s]", 7906, 0.0, 0.0,0.0,0.0,0,513)
+"Time needed to fully open or close actuator [s]", 7866, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.init", "Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 7907, 1, 1.0,4.0,0.0,0,517)
+ 7867, 1, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.y_start", \
-"Initial position of actuator", 7908, 0.0, 0.0,0.0,0.0,0,513)
+"Initial position of actuator", 7868, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_a.y", "Actuator position (0: closed, 1: open)",\
- "ventilation.control.constZero.k", 1, 7, 1461, 0)
+ "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareAlias2("ventilation.generation.threeWayValve_a.y_actual", \
-"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1461, 0)
+"Actual actuator position", "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.casePreInd", \
-"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7909,\
+"In case of PressureIndependent the model I/O is modified [:#(type=Boolean)]", 7869,\
false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_a.y_internal", \
"Output connector for internal use (= y_actual if not casePreInd) [1]", \
-"ventilation.control.constZero.k", 1, 7, 1461, 1024)
+"ventilation.control.constZero.k", 1, 7, 1467, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.CvData", \
-"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7910, 1, \
+"Selection of flow coefficient [:#(type=IBPSA.Fluid.Types.CvTypes)]", 7870, 1, \
1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.Kv", "Kv (metric) flow coefficient [m3/h/(bar)^(1/2)] []",\
- 7911, 0.0, 0.0,0.0,0.0,0,513)
+ 7871, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.Cv", "Cv (US) flow coefficient [USG/min/(psi)^(1/2)] []",\
- 7912, 0.0, 0.0,0.0,0.0,0,513)
+ 7872, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.Av", "Av (metric) flow coefficient [m2]",\
- 7913, 0.0, 0.0,0.0,0.0,0,513)
+ 7873, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 7914, 0.0, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 7874, 0.0, \
0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7915, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7875, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|Pa]",\
- 7916, 200.0, 0.0,1E+100,0.0,0,513)
+ 7876, 200.0, 0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.rhoStd", \
-"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1429, \
+"Inlet density for which valve coefficients are defined [kg/m3|g/cm3]", 1435, \
1.2, 0.0,1E+100,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_a.Kv_SI", "Flow coefficient for fully open valve in SI units, Kv=m_flow/sqrt(dp) [kg/s/(Pa)^(1/2)] []",\
- 7917, 0.0, 0.0,1E+100,0.0,0,2561)
+ 7877, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.homotopyInitialization",\
- "= true, use homotopy method [:#(type=Boolean)]", 7918, true, 0.0,0.0,0.0,0,1539)
+ "= true, use homotopy method [:#(type=Boolean)]", 7878, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_a.dpFixed_nominal[1]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|Pa]",\
- 7919, 100.0, 0.0,1E+100,0.0,0,513)
+ 7879, 100.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.dpFixed_nominal[2]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|Pa]",\
- 7920, 0.0, 0.0,1E+100,0.0,0,513)
+ 7880, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.fraK", "Fraction Kv(port_3→port_2)/Kv(port_1→port_2)",\
- 7921, 0.0, 0.0,1.0,0.0,0,513)
+ 7881, 0.0, 0.0,1.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValve_a.l[1]", "Valve leakage, l=Kv(y=0)/Kv(y=1)",\
- 1430, 0.0001, 0.0,1.0,0.0,0,560)
+ 1436, 0.0001, 0.0,1.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValve_a.l[2]", "Valve leakage, l=Kv(y=0)/Kv(y=1)",\
- 1431, 0.0001, 0.0,1.0,0.0,0,560)
+ 1437, 0.0001, 0.0,1.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValve_a.linearized[1]", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7922, false, 0.0,0.0,0.0,0,515)
+ 7882, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.linearized[2]", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 7923, false, 0.0,0.0,0.0,0,515)
+ 7883, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.inv.u1", \
-"Commanded input", 7924, 1, 0.0,0.0,0.0,0,2561)
+"Commanded input", 7884, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_a.inv.u2", "Feedback input",\
- "ventilation.control.constZero.k", 1, 7, 1461, 1024)
+ "ventilation.control.constZero.k", 1, 7, 1467, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.inv.y", "", \
-"ventilation.generation.threeWayValve_a.res3.y", 1, 5, 7897, 1024)
+"ventilation.generation.threeWayValve_a.res3.y", 1, 5, 7857, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.uni.k", "Constant output value",\
- 7925, 1, 0.0,0.0,0.0,0,2561)
+ 7885, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.uni.y", "Connector of Real output signal",\
- 7926, 1.0, 0.0,0.0,0.0,0,2561)
+ 7886, 1.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.energyDynamics", \
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7927, 2, 1.0,4.0,0.0,0,517)
+ 7887, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.massDynamics", \
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7928, 2, 1.0,4.0,0.0,0,517)
+ 7888, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.substanceDynamics", \
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7929, 2, 1.0,4.0,0.0,0,517)
+ 7889, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.traceDynamics", \
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7930, 2, 1.0,4.0,0.0,0,517)
+ 7890, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.p_start", \
-"Start value of pressure [Pa|bar]", 7931, 101325, 0.0,100000000.0,100000.0,0,513)
+"Start value of pressure [Pa|bar]", 7891, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.T_start", \
-"Start value of temperature [K|degC]", 7932, 293.15, 1.0,10000.0,300.0,0,513)
+"Start value of temperature [K|degC]", 7892, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7933, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 7893, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7934, 0.0, 0.0,1.0,0.1,0,513)
+"Start value of mass fractions m_i/m [kg/kg]", 7894, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7935, 1, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7895, 1, 1.0,\
1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7936, false, 0.0,0.0,0.0,0,2563)
+ 7896, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.initialize_p", \
-"= true to set up initial equations for pressure [:#(type=Boolean)]", 7937, true,\
+"= true to set up initial equations for pressure [:#(type=Boolean)]", 7897, true,\
0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.prescribedHeatFlowRate",\
"Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]",\
- 7938, false, 0.0,0.0,0.0,0,515)
+ 7898, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]",\
- 7939, true, 0.0,0.0,0.0,0,515)
+ 7899, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7940, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7900, 0.1088888888888889, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.nPorts", \
-"Number of ports [:#(type=Integer)]", 7941, 3, 0.0,0.0,0.0,0,517)
+"Number of ports [:#(type=Integer)]", 7901, 3, 0.0,0.0,0.0,0,517)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 7942, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 7902, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]",\
- 7943, true, 0.0,0.0,0.0,0,515)
-DeclareVariable("ventilation.generation.threeWayValve_a.vol.V", "Volume [m3]", 7944,\
+ 7903, true, 0.0,0.0,0.0,0,515)
+DeclareVariable("ventilation.generation.threeWayValve_a.vol.V", "Volume [m3]", 7904,\
0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9649, 132)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9618, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[2].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 132)
+"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[2].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[3].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 132)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 132)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[3].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 4)
+ 5, 9574, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[3].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 4)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 4)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.ports[3].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 4)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.T", "Temperature of the fluid [K|degC]",\
- 9672, 300.0, 1.0,10000.0,300.0,0,512)
+ 9641, 300.0, 1.0,10000.0,300.0,0,512)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.U", "Internal energy of the component [J]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.U", 1, 1, 77, 0)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.p", "Pressure of the fluid [Pa|bar]",\
- "ventilation.generation.TExhIn.port_a.p", 1, 5, 9605, 0)
+ "ventilation.generation.TExhIn.port_a.p", 1, 5, 9574, 0)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.m", "Mass of the component [kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.m", 1, 1, 78, 0)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.Xi[1]", \
"Species concentration of the fluid [1]", "ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1,\
1, 76, 0)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.mXi[1]", \
-"Species mass of the component [kg]", 9673, 0.0, 0.0,1E+100,0.0,0,512)
+"Species mass of the component [kg]", 9642, 0.0, 0.0,1E+100,0.0,0,512)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.rho_start", \
-"Density, used to compute start and guess values [kg/m3|g/cm3]", 7945, 0.0, 0.0,\
+"Density, used to compute start and guess values [kg/m3|g/cm3]", 7905, 0.0, 0.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_default.p", \
-"Absolute pressure of medium [Pa|bar]", 7946, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 7906, 101325.0, 0.0,100000000.0,100000.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_default.T", \
-"Temperature of medium [K|degC]", 7947, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7907, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7948, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7908, 0.01, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7949, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7909, 0.99, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.rho_default", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7950, 1.2, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7910, 1.2, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_start.p", \
-"Absolute pressure of medium [Pa|bar]", 7951, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Absolute pressure of medium [Pa|bar]", 7911, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_start.T", \
-"Temperature of medium [K|degC]", 7952, 293.15, 1.0,10000.0,300.0,0,2561)
+"Temperature of medium [K|degC]", 7912, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_start.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7953, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7913, 0.01, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.state_start.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7954, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7914, 0.99, 0.0,\
1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.useSteadyStateTwoPort",\
"Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]",\
- 7955, false, 0.0,0.0,0.0,0,2563)
+ 7915, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.hOut_internal", \
"Internal connector for leaving temperature of the component [J/kg]", \
-"ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1024)
+"ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.XiOut_internal[1]", \
"Internal connector for leaving species concentration of the component [1]", \
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.preTem.port.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_a.vol.T", 1, 5,\
- 9672, 1028)
+ 9641, 1028)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.preTem.port.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 7956,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 7916,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.preTem.T", "[K]", \
-"ventilation.generation.threeWayValve_a.vol.T", 1, 5, 9672, 1024)
+"ventilation.generation.threeWayValve_a.vol.T", 1, 5, 9641, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.portT.y", \
-"Value of Real output", "ventilation.generation.threeWayValve_a.vol.T", 1, 5, 9672,\
+"Value of Real output", "ventilation.generation.threeWayValve_a.vol.T", 1, 5, 9641,\
1024)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.heaFloSen.Q_flow", \
-"Heat flow from port_a to port_b as output signal [W]", 7957, 0.0, 0.0,0.0,0.0,0,2561)
+"Heat flow from port_a to port_b as output signal [W]", 7917, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.heaFloSen.port_a.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_a.vol.T", 1, 5,\
- 9672, 1028)
+ 9641, 1028)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.heaFloSen.port_a.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 7958,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 7918,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.heaFloSen.port_b.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_a.vol.T", 1, 5,\
- 9672, 1028)
+ 9641, 1028)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.heaFloSen.port_b.Q_flow",\
- "Heat flow rate (positive if flowing from outside into the component) [W]", 7959,\
+ "Heat flow rate (positive if flowing from outside into the component) [W]", 7919,\
0.0, 0.0,0.0,0.0,0,2825)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7960,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7920,\
false, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.heatPort.T", \
"Port temperature [K|degC]", "ventilation.generation.threeWayValve_a.vol.T", 1, 5,\
- 9672, 4)
+ 9641, 4)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.heatPort.Q_flow", \
-"Heat flow rate (positive if flowing from outside into the component) [W]", 7961,\
+"Heat flow rate (positive if flowing from outside into the component) [W]", 7921,\
0.0, 0.0,0.0,0.0,0,777)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.tau", \
-"Time constant at nominal flow [s]", 7962, 0.0, 0.0,0.0,0.0,0,513)
+"Time constant at nominal flow [s]", 7922, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.V_nominal", \
-"Volume of delay element [m3]", 7963, 0.0, 0.0,0.0,0.0,0,2561)
+"Volume of delay element [m3]", 7923, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.energyDynamics",\
"Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7964, 2, 1.0,4.0,0.0,0,2565)
+ 7924, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.massDynamics",\
"Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7965, 2, 1.0,4.0,0.0,0,2565)
+ 7925, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.substanceDynamics",\
"Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7966, 2, 1.0,4.0,0.0,0,2565)
+ 7926, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.traceDynamics",\
"Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 7967, 2, 1.0,4.0,0.0,0,2565)
+ 7927, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.p_start", \
-"Start value of pressure [Pa|bar]", 7968, 101325, 0.0,100000000.0,100000.0,0,2561)
+"Start value of pressure [Pa|bar]", 7928, 101325, 0.0,100000000.0,100000.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.T_start", \
-"Start value of temperature [K|degC]", 7969, 293.15, 1.0,10000.0,300.0,0,2561)
+"Start value of temperature [K|degC]", 7929, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.X_start[1]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7970, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 7930, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.X_start[2]", \
-"Start value of mass fractions m_i/m [kg/kg]", 7971, 0.0, 0.0,1.0,0.1,0,2561)
+"Start value of mass fractions m_i/m [kg/kg]", 7931, 0.0, 0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.mSenFac", \
-"Factor for scaling the sensible thermal mass of the volume", 7972, 1.0, 1.0,\
+"Factor for scaling the sensible thermal mass of the volume", 7932, 1.0, 1.0,\
1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.wrongEnergyMassBalanceConfiguration",\
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 7973, false, 0.0,0.0,0.0,0,2563)
+ 7933, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.initialize_p",\
- "= true to set up initial equations for pressure [:#(type=Boolean)]", 7974, \
+ "= true to set up initial equations for pressure [:#(type=Boolean)]", 7934, \
true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.simplify_mWat_flow",\
"Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]",\
- 7975, true, 0.0,0.0,0.0,0,2563)
+ 7935, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.nPorts", \
-"Number of ports [:#(type=Integer)]", 7976, 3, 0.0,0.0,0.0,0,2565)
+"Number of ports [:#(type=Integer)]", 7936, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.use_mWat_flow",\
"Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]",\
- 7977, false, 0.0,0.0,0.0,0,2563)
+ 7937, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.use_C_flow", \
-"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7978,\
+"Set to true to enable input connector for trace substance [:#(type=Boolean)]", 7938,\
false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.Q_flow", \
-"Sensible plus latent heat flow rate transferred into the medium [W]", 7979, 0.0,\
+"Sensible plus latent heat flow rate transferred into the medium [W]", 7939, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.hOut", \
"Leaving specific enthalpy of the component [J/kg]", "ventilation.generation.TExhIn.port_a.h_outflow", 1,\
- 5, 9606, 1024)
+ 5, 9575, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.XiOut[1]", \
"Leaving species concentration of the component [1]", "ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1,\
1, 76, 1024)
@@ -13372,99 +13399,99 @@ DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.UOut", \
1, 77, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.mXiOut[1]", \
"Species mass of the component [kg]", "ventilation.generation.threeWayValve_a.vol.mXi[1]", 1,\
- 5, 9673, 1024)
+ 5, 9642, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.mOut", \
"Mass of the component [kg]", "ventilation.generation.threeWayValve_a.vol.dynBal.m", 1,\
1, 78, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[1].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9649, 1156)
+"ventilation.generation.threeWayValve_b.port_1.m_flow", -1, 5, 9618, 1156)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[1].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 1028)
+ 5, 9574, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[1].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1028)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[1].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[2].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9604, 1156)
+"ventilation.generation.TExhIn.port_a.m_flow", 1, 5, 9573, 1156)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[2].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 1028)
+ 5, 9574, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[2].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1028)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[2].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[3].m_flow",\
"Mass flow rate from the connection point into the component [kg/s]", \
-"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9538, 1156)
+"ventilation.generation.hex.port_a2.m_flow", -1, 5, 9507, 1156)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[3].p", \
"Thermodynamic pressure in the connection point [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 1028)
+ 5, 9574, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[3].h_outflow",\
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9606, 1028)
+ "ventilation.generation.TExhIn.port_a.h_outflow", 1, 5, 9575, 1028)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.ports[3].Xi_outflow[1]",\
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1028)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.preferredMediumStates",\
"= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]",\
- 7980, false, 0.0,0.0,0.0,0,2563)
+ 7940, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.standardOrderComponents",\
"If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]",\
- 7981, true, 0.0,0.0,0.0,0,2563)
+ 7941, true, 0.0,0.0,0.0,0,2563)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.p", \
"Absolute pressure of medium [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 1024)
+ 5, 9574, 1024)
DeclareState("ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", \
"Structurally independent mass fractions [1]", 76, 0.0, 0.0,1.0,0.01,0,2592)
DeclareDerivative("ventilation.generation.threeWayValve_a.vol.dynBal.medium.der(Xi[1])",\
"der(Structurally independent mass fractions) [s-1]", 76, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.h", \
"Specific enthalpy of medium [J/kg]", "ventilation.generation.TExhIn.port_a.h_outflow", 1,\
- 5, 9606, 1024)
+ 5, 9575, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.d", \
-"Density of medium [kg/m3|g/cm3]", 9674, 0.0, 0.0,100000.0,1.0,0,2560)
+"Density of medium [kg/m3|g/cm3]", 9643, 0.0, 0.0,100000.0,1.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.T", \
-"Temperature of medium [K|degC]", 9675, 300.0, 1.0,10000.0,300.0,0,2560)
+"Temperature of medium [K|degC]", 9644, 300.0, 1.0,10000.0,300.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[1]", \
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9676, 0.0, 0.0,\
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 9645, 0.0, 0.0,\
1.0,1.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.u", \
-"Specific internal energy of medium [J/kg]", 9677, 0.0, -100000000.0,100000000.0,\
+"Specific internal energy of medium [J/kg]", 9646, 0.0, -100000000.0,100000000.0,\
1000000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.R_s", \
-"Gas constant (of mixture if applicable) [J/(kg.K)]", 9678, 1000.0, 0.0,\
+"Gas constant (of mixture if applicable) [J/(kg.K)]", 9647, 1000.0, 0.0,\
10000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.MM", \
-"Molar mass (of mixture or single fluid) [kg/mol]", 9679, 0.032, 0.001,0.25,\
+"Molar mass (of mixture or single fluid) [kg/mol]", 9648, 0.032, 0.001,0.25,\
0.032,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.state.p",\
"Absolute pressure of medium [Pa|bar]", "ventilation.generation.TExhIn.port_a.p", 1,\
- 5, 9605, 1024)
+ 5, 9574, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.state.T",\
"Temperature of medium [K|degC]", "ventilation.generation.threeWayValve_a.vol.dynBal.medium.T", 1,\
- 5, 9675, 1024)
+ 5, 9644, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.state.X[1]",\
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
"ventilation.generation.threeWayValve_a.vol.dynBal.medium.Xi[1]", 1, 1, 76, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.medium.state.X[2]",\
"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", \
-"ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]", 1, 5, 9676, 1024)
+"ventilation.generation.threeWayValve_a.vol.dynBal.medium.X[2]", 1, 5, 9645, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.T_degC",\
- "Temperature of medium in [degC] [degC;]", 9680, 0.0, 0.0,0.0,0.0,0,2560)
+ "Temperature of medium in [degC] [degC;]", 9649, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.p_bar",\
- "Absolute pressure of medium in [bar] [bar]", 9681, 0.0, 0.0,0.0,0.0,0,2560)
+ "Absolute pressure of medium in [bar] [bar]", 9650, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.medium.dT", \
-"Temperature difference used to compute enthalpy [K,]", 9682, 20.0, 0.0,0.0,0.0,\
+"Temperature difference used to compute enthalpy [K,]", 9651, 20.0, 0.0,0.0,0.0,\
0,2560)
DeclareState("ventilation.generation.threeWayValve_a.vol.dynBal.U", \
"Internal energy of fluid [J]", 77, 0.0, 0.0,0.0,100000.0,0,2592)
@@ -13476,612 +13503,612 @@ DeclareDerivative("ventilation.generation.threeWayValve_a.vol.dynBal.der(m)", \
"der(Mass of fluid) [kg/s]", 78, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.mXi[1]", \
"Masses of independent components in the fluid [kg]", "ventilation.generation.threeWayValve_a.vol.mXi[1]", 1,\
- 5, 9673, 1024)
+ 5, 9642, 1024)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.mb_flow", \
"Mass flows across boundaries [kg/s]", "ventilation.generation.threeWayValve_a.vol.dynBal.der(m)", 1,\
6, 78, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.mbXi_flow[1]",\
- "Substance mass flows across boundaries [kg/s]", 9683, 0.0, 0.0,0.0,0.0,0,2560)
+ "Substance mass flows across boundaries [kg/s]", 9652, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("ventilation.generation.threeWayValve_a.vol.dynBal.Hb_flow", \
"Enthalpy flow across boundaries or energy source/sink [W]", "ventilation.generation.threeWayValve_a.vol.dynBal.der(U)", 1,\
6, 77, 1024)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.fluidVolume",\
- "Volume [m3]", 7982, 0.0, 0.0,0.0,0.0,0,2561)
+ "Volume [m3]", 7942, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.CSen", \
-"Aditional heat capacity for implementing mFactor [J/K]", 7983, 0.0, 0.0,0.0,0.0,\
+"Aditional heat capacity for implementing mFactor [J/K]", 7943, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.ports_H_flow[1]",\
- "[W]", 9684, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9653, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.ports_H_flow[2]",\
- "[W]", 9685, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9654, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.ports_H_flow[3]",\
- "[W]", 9686, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
+ "[W]", 9655, 0.0, -100000000.0,100000000.0,1000.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.ports_mXi_flow[1, 1]",\
- "[kg/s]", 9687, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9656, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.ports_mXi_flow[2, 1]",\
- "[kg/s]", 9688, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9657, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.ports_mXi_flow[3, 1]",\
- "[kg/s]", 9689, 0.0, 0.0,0.0,0.0,0,2560)
+ "[kg/s]", 9658, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.cp_default", \
-"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7984, 1014.54, \
+"Heat capacity, to compute additional dry mass [J/(kg.K)]", 7944, 1014.54, \
0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.rho_start", \
-"Density, used to compute fluid mass [kg/m3|g/cm3]", 7985, 0.0, 0.0,1E+100,0.0,0,2561)
+"Density, used to compute fluid mass [kg/m3|g/cm3]", 7945, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.computeCSen",\
- "[:#(type=Boolean)]", 7986, false, 0.0,0.0,0.0,0,2563)
+ "[:#(type=Boolean)]", 7946, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.state_default.p",\
- "Absolute pressure of medium [Pa|bar]", 7987, 101325.0, 0.0,100000000.0,\
+ "Absolute pressure of medium [Pa|bar]", 7947, 101325.0, 0.0,100000000.0,\
100000.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.state_default.T",\
- "Temperature of medium [K|degC]", 7988, 293.15, 1.0,10000.0,300.0,0,2561)
+ "Temperature of medium [K|degC]", 7948, 293.15, 1.0,10000.0,300.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.state_default.X[1]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7989, 0.01, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7949, 0.01, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.state_default.X[2]",\
- "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7990, 0.99, \
+ "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 7950, 0.99, \
0.0,1.0,0.1,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.rho_default",\
- "Density, used to compute fluid mass [kg/m3|g/cm3]", 7991, 1.2, 0.0,1E+100,0.0,\
+ "Density, used to compute fluid mass [kg/m3|g/cm3]", 7951, 1.2, 0.0,1E+100,0.0,\
0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.s[1]", \
-"Vector with zero everywhere except where species is", 7992, 1, 0.0,0.0,0.0,0,2561)
+"Vector with zero everywhere except where species is", 7952, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.hStart", \
-"Start value for specific enthalpy [J/kg]", 7993, 0.0, 0.0,0.0,0.0,0,2561)
+"Start value for specific enthalpy [J/kg]", 7953, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal._simplify_mWat_flow",\
"If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]",\
- 7994, true, 0.0,0.0,0.0,0,2563)
+ 7954, true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.generation.threeWayValve_a.vol.dynBal.mWat_flow_internal",\
- "Needed to connect to conditional connector [kg/s]", 7995, 0, 0.0,0.0,0.0,0,2561)
+ "Needed to connect to conditional connector [kg/s]", 7955, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.generation.threeWayValveParas.m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 7996, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 7956, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValveParas.dp_nominal[1]", \
-"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 7997,\
+"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 7957,\
100.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValveParas.dp_nominal[2]", \
-"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 7998,\
+"Nominal pressure drop of connected resistances without the valve [Pa|Pa]", 7958,\
200.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValveParas.dpValve_nominal", \
"Nominal pressure drop of fully open valve, used if CvData=IBPSA.Fluid.Types.CvTypes.OpPoint [Pa|bar]",\
- 7999, 200.0, 0.0,0.0,0.0,0,513)
+ 7959, 200.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValveParas.dpFixed_nominal[1]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|bar]",\
- 8000, 100.0, 0.0,0.0,0.0,0,513)
+ 7960, 100.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.threeWayValveParas.dpFixed_nominal[2]", \
"Nominal pressure drop of pipes and other equipment in flow legs at port_1 and port_3 [Pa|bar]",\
- 8001, 0.0, 0.0,0.0,0.0,0,513)
+ 7961, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValveParas.deltaM", \
-"Fraction of nominal flow rate where linearization starts, if y=1", 1432, 0.02, \
+"Fraction of nominal flow rate where linearization starts, if y=1", 1438, 0.02, \
0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValveParas.delta0", \
-"Range of significant deviation from equal percentage law", 1433, 0.01, 0.0,0.0,\
+"Range of significant deviation from equal percentage law", 1439, 0.01, 0.0,0.0,\
0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValveParas.R", "Rangeability, R=50...100 typically",\
- 1434, 50, 0.0,0.0,0.0,0,560)
+ 1440, 50, 0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValveParas.l[1]", \
-"Valve leakage, l=Kv(y=0)/Kv(y=1)", 1435, 0.0001, 0.0,0.0,0.0,0,560)
+"Valve leakage, l=Kv(y=0)/Kv(y=1)", 1441, 0.0001, 0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValveParas.l[2]", \
-"Valve leakage, l=Kv(y=0)/Kv(y=1)", 1436, 0.0001, 0.0,0.0,0.0,0,560)
+"Valve leakage, l=Kv(y=0)/Kv(y=1)", 1442, 0.0001, 0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValveParas.fraK", \
-"Fraction Kv(port_3→port_2)/Kv(port_1→port_2)", 1437, 1, 0.0,0.0,0.0,0,560)
+"Fraction Kv(port_3→port_2)/Kv(port_1→port_2)", 1443, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValveParas.valveAutho", \
-"Assumed valve authority (typical value: 0.5) [1]", 8002, 0.5, 0.0,0.0,0.0,0,513)
+"Assumed valve authority (typical value: 0.5) [1]", 7962, 0.5, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.generation.threeWayValveParas.tau", \
-"Time constant at nominal flow for dynamic energy and momentum balance [s]", 1438,\
+"Time constant at nominal flow for dynamic energy and momentum balance [s]", 1444,\
10, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValveParas.use_strokeTime", \
"= true, if opening is filtered with a 2nd order CriticalDamping filter [:#(type=Boolean)]",\
- 8003, false, 0.0,0.0,0.0,0,515)
+ 7963, false, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.threeWayValveParas.strokeTime", \
-"Rise time of the filter (time to reach 99.6 % of an opening step) [s]", 1439, 120,\
+"Rise time of the filter (time to reach 99.6 % of an opening step) [s]", 1445, 120,\
0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.threeWayValveParas.order", \
-"Order of filter [:#(type=Integer)]", 1440, 2, 0.0,0.0,0.0,0,564)
+"Order of filter [:#(type=Integer)]", 1446, 2, 0.0,0.0,0.0,0,564)
DeclareParameter("ventilation.generation.threeWayValveParas.init", \
"Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]",\
- 1441, 4, 1.0,4.0,0.0,0,564)
+ 1447, 4, 1.0,4.0,0.0,0,564)
DeclareParameter("ventilation.generation.threeWayValveParas.y_start", \
-"Initial value of output", 1442, 1, 0.0,0.0,0.0,0,560)
+"Initial value of output", 1448, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.threeWayValveParas.from_dp", \
-"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 8004, true,\
+"= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]", 7964, true,\
0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanData.addPowerToMedium", \
"Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]",\
- 8005, false, 0.0,0.0,0.0,0,515)
+ 7965, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.fanData.use_riseTime", "= true, if speed is filtered with a 2nd order CriticalDamping filter [:#(type=Boolean)]",\
- 8006, false, 0.0,0.0,0.0,0,515)
+ 7966, false, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.fanData.riseTimeInpFilter", \
-"Rise time of the filter (time to reach 99.6 % of the speed) [s]", 1443, 30, \
+"Rise time of the filter (time to reach 99.6 % of the speed) [s]", 1449, 30, \
0.0,0.0,0.0,0,560)
DeclareParameter("ventilation.generation.fanData.tau", "Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]",\
- 1444, 1, 0.0,0.0,0.0,0,560)
+ 1450, 1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.generation.tempSensorData.tau", "Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]",\
- 8007, 1, 0.0,0.0,0.0,0,513)
+ 7967, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.tempSensorData.initType", \
"Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]",\
- 8008, 3, 1.0,4.0,0.0,0,517)
+ 7968, 3, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.generation.tempSensorData.transferHeat", \
"if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]",\
- 8009, false, 0.0,0.0,0.0,0,515)
+ 7969, false, 0.0,0.0,0.0,0,515)
DeclareParameter("ventilation.generation.tempSensorData.tauHeaTra", \
-"Time constant for heat transfer, default 20 minutes [s]", 1445, 1200, 0.0,0.0,\
+"Time constant for heat transfer, default 20 minutes [s]", 1451, 1200, 0.0,0.0,\
0.0,0,560)
DeclareParameter("ventilation.generation.tempSensorData.TAmb", "Fixed ambient temperature for heat transfer [K|degC]",\
- 1446, 293.15, 0.0,1E+100,300.0,0,560)
+ 1452, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("ventilation.generation.realToElecCon.use_souLoa", \
-"= true if real interface for electrical load is activated [:#(type=Boolean)]", 8010,\
+"= true if real interface for electrical load is activated [:#(type=Boolean)]", 7970,\
true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.generation.realToElecCon.use_souGen", \
"= true if real interface for electrical generation is activated [:#(type=Boolean)]",\
- 8011, false, 0.0,0.0,0.0,0,515)
+ 7971, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.generation.realToElecCon.PEleLoa", "Electrical power of load",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 0)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 0)
DeclareAlias2("ventilation.generation.realToElecCon.internalElectricalPin.PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("ventilation.generation.realToElecCon.internalElectricalPin.PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8012, 0.0, 0.0,0.0,0.0,0,521)
+ 7972, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.generation.realToElecCon.NoFlowGen.k", \
-"Constant output value", 8013, 0, 0.0,0.0,0.0,0,513)
+"Constant output value", 7973, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.realToElecCon.NoFlowGen.y", \
-"Connector of Real output signal", 8014, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 7974, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.realToElecCon.realPassThroughLoa.u", \
"Connector of Real input signal", "electrical.internalElectricalPin[2].PElecLoa", 1,\
- 5, 9132, 0)
+ 5, 9095, 0)
DeclareAlias2("ventilation.generation.realToElecCon.realPassThroughLoa.y", \
"Connector of Real output signal", "electrical.internalElectricalPin[2].PElecLoa", 1,\
- 5, 9132, 0)
+ 5, 9095, 0)
DeclareVariable("ventilation.generation.realToElecCon.realPassThroughGen.u", \
-"Connector of Real input signal", 8015, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real input signal", 7975, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.generation.realToElecCon.realPassThroughGen.y", \
-"Connector of Real output signal", 8016, 0.0, 0.0,0.0,0.0,0,513)
+"Connector of Real output signal", 7976, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.generation.add.u1", "Connector of Real input signal 1",\
"outputs.ventilation.generation.PVentSup", 1, 3, 34, 0)
DeclareAlias2("ventilation.generation.add.u2", "Connector of Real input signal 2",\
"outputs.ventilation.generation.PelVentRet", 1, 3, 35, 0)
DeclareAlias2("ventilation.generation.add.y", "Connector of Real output signal",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 0)
-DeclareParameter("ventilation.generation.add.k1", "Gain of input signal 1", 1447,\
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 0)
+DeclareParameter("ventilation.generation.add.k1", "Gain of input signal 1", 1453,\
1, 0.0,0.0,0.0,0,560)
-DeclareParameter("ventilation.generation.add.k2", "Gain of input signal 2", 1448,\
+DeclareParameter("ventilation.generation.add.k2", "Gain of input signal 2", 1454,\
1, 0.0,0.0,0.0,0,560)
DeclareVariable("ventilation.distribution.energyDynamics", "Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 8017, 2, 1.0,4.0,0.0,0,517)
+ 7977, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.distribution.massDynamics", "Type of mass balance: dynamic (3 initialization options) or steady state, must be steady state if energyDynamics is steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 8018, 2, 1.0,4.0,0.0,0,517)
+ 7978, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.distribution.substanceDynamics", "Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 8019, 2, 1.0,4.0,0.0,0,517)
+ 7979, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.distribution.traceDynamics", "Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]",\
- 8020, 2, 1.0,4.0,0.0,0,517)
+ 7980, 2, 1.0,4.0,0.0,0,517)
DeclareVariable("ventilation.distribution.p_start", "Start value of pressure [Pa|bar]",\
- 8021, 101325, 0.0,100000000.0,100000.0,0,513)
+ 7981, 101325, 0.0,100000000.0,100000.0,0,513)
DeclareVariable("ventilation.distribution.T_start", "Start value of temperature [K|degC]",\
- 8022, 293.15, 1.0,10000.0,300.0,0,513)
+ 7982, 293.15, 1.0,10000.0,300.0,0,513)
DeclareVariable("ventilation.distribution.X_start[1]", "Start value of mass fractions m_i/m [kg/kg]",\
- 8023, 0.0, 0.0,1.0,0.1,0,513)
+ 7983, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.distribution.X_start[2]", "Start value of mass fractions m_i/m [kg/kg]",\
- 8024, 0.0, 0.0,1.0,0.1,0,513)
+ 7984, 0.0, 0.0,1.0,0.1,0,513)
DeclareVariable("ventilation.distribution.mSenFac", "Factor for scaling the sensible thermal mass of the volume",\
- 8025, 1.0, 1.0,1E+100,0.0,0,513)
+ 7985, 1.0, 1.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.wrongEnergyMassBalanceConfiguration", \
"True if configuration of energy and mass balance is wrong. [:#(type=Boolean)]",\
- 8026, false, 0.0,0.0,0.0,0,2563)
+ 7986, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.distribution.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 8027, false, 0.0,0.0,0.0,0,515)
+ 7987, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.allowFlowReversal", "= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 8028, true, 0.0,0.0,0.0,0,515)
+ 7988, true, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 8029, false, 0.0,0.0,0.0,0,515)
+ 7989, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.rho", "Density of medium / fluid in heat distribution system [kg/m3|g/cm3]",\
- 8030, 0.0, 0.0,1E+100,0.0,0,513)
+ 7990, 0.0, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.cp", "Specific heat capacaity of medium / fluid in heat distribution system [J/(kg.K)]",\
- 8031, 0.0, 0.0,0.0,0.0,0,513)
+ 7991, 0.0, 0.0,0.0,0.0,0,513)
DeclareParameter("ventilation.distribution.sta_nominal.p", "Absolute pressure of medium [Pa|bar]",\
- 1449, 101325.0, 0.0,100000000.0,100000.0,0,2608)
+ 1455, 101325.0, 0.0,100000000.0,100000.0,0,2608)
DeclareParameter("ventilation.distribution.sta_nominal.T", "Temperature of medium [K|degC]",\
- 1450, 293.15, 1.0,10000.0,300.0,0,2608)
+ 1456, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.distribution.sta_nominal.X[1]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 1451, 0.01, 0.0,1.0,0.1,0,2608)
+ 1457, 0.01, 0.0,1.0,0.1,0,2608)
DeclareParameter("ventilation.distribution.sta_nominal.X[2]", "Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]",\
- 1452, 0.99, 0.0,1.0,0.1,0,2608)
+ 1458, 0.99, 0.0,1.0,0.1,0,2608)
DeclareVariable("ventilation.distribution.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 8032, 1, 1.0,1E+100,0.0,0,517)
+ 7992, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.distribution.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 8033, 1, 1.0,1E+100,0.0,0,517)
+ 7993, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.distribution.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 8034, 294.15, 0.0,1E+100,300.0,0,513)
+ 7994, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.distribution.TSupOld_design[1]", "Old design supply temperature [K|degC]",\
- 8035, 294.15, 0.0,1E+100,300.0,0,513)
+ 7995, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.distribution.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 8036, 0, 0.0,0.0,0.0,0,513)
+ 7996, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.dTTraOld_design[1]", "Old design temperature difference for heat transfer [K,]",\
- 8037, 0.0, 0.0,0.0,0.0,0,513)
+ 7997, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 8038, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
+ 7998, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.mOld_flow_design[1]", "Old design mass flow rate of old design [kg/s]",\
- 8039, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
+ 7999, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 8040, 100.0, 0.0,0.0,0.0,0,513)
+ 8000, 100.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 8041, 0, 0.0,0.0,0.0,0,513)
+ 8001, 0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.f_design[1]", "Factor for oversizing due to heat losses",\
- 8042, 1, 0.0,0.0,0.0,0,513)
+ 8002, 1, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.QLoss_flow_nominal[1]", \
-"Nominal heat flow rate due to heat losses [W]", 8043, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate due to heat losses [W]", 8003, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 8044, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 8004, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.QOld_flow_design[1]", "Old design heat flow rate [W]",\
- 8045, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 8005, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 8046, 262.65, 0.0,1E+100,300.0,0,513)
+ 8006, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.distribution.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 8047, 294.15, 0.0,1E+100,300.0,0,513)
+ 8007, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.distribution.TDemOld_design[1]", "Old design demand temperature [K|degC]",\
- 8048, 294.15, 0.0,1E+100,300.0,0,513)
+ 8008, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.distribution.TAmb", "Ambient temperature of system. Used to calculate default heat loss. [K|degC]",\
- 8049, 294.15, 0.0,1E+100,300.0,0,513)
+ 8009, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.distribution.Q_flow_design[1]", "Nominal design heat flow rate [W]",\
- 8050, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
+ 8010, 13288.382850121196, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.m_flow_design[1]", "Nominal design mass flow rate [kg/s]",\
- 8051, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
+ 8011, 0.1088888888888889, 1E-15,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.dTTra_design[1]", "Nominal design temperature difference for heat transfer [K,]",\
- 8052, 0.0, 0.0,0.0,0.0,0,513)
+ 8012, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.dp_design[1]", "Nominal design pressure difference at m_flow_design [Pa|bar]",\
- 8053, 100.0, 0.0,0.0,0.0,0,513)
+ 8013, 100.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.distribution.portExh_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 132)
DeclareAlias2("ventilation.distribution.portExh_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("ventilation.distribution.portExh_in[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 4)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 4)
DeclareAlias2("ventilation.distribution.portExh_in[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 4)
DeclareAlias2("ventilation.distribution.portSupply_out[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 132)
+"building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 132)
DeclareAlias2("ventilation.distribution.portSupply_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("ventilation.distribution.portSupply_out[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_in[1].h_outflow", 1, 5, 9696, 4)
+ "ventilation.portVent_in[1].h_outflow", 1, 5, 9665, 4)
DeclareAlias2("ventilation.distribution.portSupply_out[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9697, 4)
+ "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9666, 4)
DeclareAlias2("ventilation.distribution.portSupply_in[1].m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 132)
+"building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 132)
DeclareAlias2("ventilation.distribution.portSupply_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_in[1].p", 1, 5, 9533, 4)
+ "ventilation.generation.portVent_in[1].p", 1, 5, 9502, 4)
DeclareAlias2("ventilation.distribution.portSupply_in[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("ventilation.distribution.portSupply_in[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareAlias2("ventilation.distribution.portExh_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", 1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", 1, 5, 8476, 132)
DeclareAlias2("ventilation.distribution.portExh_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 4)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 4)
DeclareAlias2("ventilation.distribution.portExh_out[1].h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("ventilation.distribution.portExh_out[1].Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareVariable("ventilation.distribution.internalElectricalPin.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 8054, 0, 0.0,0.0,0.0,0,521)
+ 8014, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.distribution.internalElectricalPin.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8055, 0, 0.0,0.0,0.0,0,521)
+ 8015, 0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.distribution.resSup[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 8056, true, 0.0,0.0,0.0,0,515)
+ 8016, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.distribution.resSup[1].port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 132)
+"building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 132)
DeclareAlias2("ventilation.distribution.resSup[1].port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_in[1].p", 1, 5, 9533, 4)
+ "ventilation.generation.portVent_in[1].p", 1, 5, 9502, 4)
DeclareAlias2("ventilation.distribution.resSup[1].port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("ventilation.distribution.resSup[1].port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareAlias2("ventilation.distribution.resSup[1].port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 132)
+"building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 132)
DeclareAlias2("ventilation.distribution.resSup[1].port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("ventilation.distribution.resSup[1].port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_in[1].h_outflow", 1, 5, 9696, 4)
+ "ventilation.portVent_in[1].h_outflow", 1, 5, 9665, 4)
DeclareAlias2("ventilation.distribution.resSup[1].port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9697, 4)
+ "ventilation.portVent_in[1].Xi_outflow[1]", 1, 5, 9666, 4)
DeclareVariable("ventilation.distribution.resSup[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 8057, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 8017, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.resSup[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 8058, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 8018, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.resSup[1].show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 8059, false, 0.0,0.0,0.0,0,1539)
+ 8019, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.distribution.resSup[1].m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", 1, 5, 8510, 0)
+ "building.thermalZone[1].ports[1].m_flow", 1, 5, 8473, 0)
DeclareVariable("ventilation.distribution.resSup[1].dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9690, 0, 0.0,0.0,100.0,0,512)
+ 9659, 0, 0.0,0.0,100.0,0,512)
DeclareVariable("ventilation.distribution.resSup[1]._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 8060, 0, 0.0,0.0,0.0,0,2561)
+ 8020, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.distribution.resSup[1]._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 8061, 0, 0.0,0.0,0.0,0,2561)
+ 8021, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.distribution.resSup[1].homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 8062, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 8022, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.distribution.resSup[1].from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 8063, false, 0.0,0.0,0.0,0,515)
+ 8023, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.resSup[1].dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 8064, 100, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 8024, 100, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.resSup[1].linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 8065, false, 0.0,0.0,0.0,0,515)
+ 8025, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.resSup[1].m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 8066, 0.03266666666666667,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 8026, 0.03266666666666667,\
0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.distribution.resSup[1].sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1453, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1459, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.distribution.resSup[1].sta_default.T", \
-"Temperature of medium [K|degC]", 1454, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1460, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.distribution.resSup[1].sta_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1455, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1461, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("ventilation.distribution.resSup[1].sta_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1456, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1462, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("ventilation.distribution.resSup[1].eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 8067, 0.0, 0.0,1E+100,0.0,0,2561)
+ 8027, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.distribution.resSup[1].m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 8068, 0.1088888888888889, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 8028, 0.1088888888888889, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("ventilation.distribution.resSup[1].dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 8069, 100, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 8029, 100, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.distribution.resSup[1].deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 8070, 0.3, 1E-06,1E+100,0.0,0,513)
+ 8030, 0.3, 1E-06,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.resSup[1].k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 8071, 0.010888888888888889, 0.0,0.0,0.0,0,513)
+ 8031, 0.010888888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.resSup[1].computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 8072,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 8032,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.distribution.resSup[1].coeff", "Precomputed coefficient to avoid division by parameter",\
- 8073, 0, 0.0,0.0,0.0,0,2561)
+ 8033, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.distribution.resExh[1].allowFlowReversal", \
"= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]",\
- 8074, true, 0.0,0.0,0.0,0,515)
+ 8034, true, 0.0,0.0,0.0,0,515)
DeclareAlias2("ventilation.distribution.resExh[1].port_a.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 132)
+"building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 132)
DeclareAlias2("ventilation.distribution.resExh[1].port_a.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareAlias2("ventilation.distribution.resExh[1].port_a.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "ventilation.portVent_out[1].h_outflow", 1, 5, 9698, 4)
+ "ventilation.portVent_out[1].h_outflow", 1, 5, 9667, 4)
DeclareAlias2("ventilation.distribution.resExh[1].port_a.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 4)
DeclareAlias2("ventilation.distribution.resExh[1].port_b.m_flow", \
"Mass flow rate from the connection point into the component [kg/s]", \
-"building.thermalZone[1].ports[2].m_flow", 1, 5, 8513, 132)
+"building.thermalZone[1].ports[2].m_flow", 1, 5, 8476, 132)
DeclareAlias2("ventilation.distribution.resExh[1].port_b.p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "ventilation.generation.portVent_out[1].p", 1, 5, 9532, 4)
+ "ventilation.generation.portVent_out[1].p", 1, 5, 9501, 4)
DeclareAlias2("ventilation.distribution.resExh[1].port_b.h_outflow", \
"Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8512, 4)
+ "building.thermalZone[1].ports[1].h_outflow", 1, 5, 8475, 4)
DeclareAlias2("ventilation.distribution.resExh[1].port_b.Xi_outflow[1]", \
"Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"building.thermalZone[1].ROM.volAir.dynBal.medium.Xi[1]", 1, 1, 0, 4)
DeclareVariable("ventilation.distribution.resExh[1].m_flow_nominal", \
-"Nominal mass flow rate [kg/s]", 8075, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+"Nominal mass flow rate [kg/s]", 8035, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.resExh[1].m_flow_small", \
-"Small mass flow rate for regularization of zero flow [kg/s]", 8076, \
+"Small mass flow rate for regularization of zero flow [kg/s]", 8036, \
1.088888888888889E-05, 0.0,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.resExh[1].show_T", "= true, if actual temperature at port is computed [:#(type=Boolean)]",\
- 8077, false, 0.0,0.0,0.0,0,1539)
+ 8037, false, 0.0,0.0,0.0,0,1539)
DeclareAlias2("ventilation.distribution.resExh[1].m_flow", "Mass flow rate from port_a to port_b (m_flow > 0 is design flow direction) [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 0)
+ "building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 0)
DeclareVariable("ventilation.distribution.resExh[1].dp", "Pressure difference between port_a and port_b [Pa|Pa]",\
- 9691, 0, 0.0,0.0,100.0,0,512)
+ 9660, 0, 0.0,0.0,100.0,0,512)
DeclareVariable("ventilation.distribution.resExh[1]._m_flow_start", \
"Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]",\
- 8078, 0, 0.0,0.0,0.0,0,2561)
+ 8038, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.distribution.resExh[1]._dp_start", "Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]",\
- 8079, 0, 0.0,0.0,0.0,0,2561)
+ 8039, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.distribution.resExh[1].homotopyInitialization", \
-"= true, use homotopy method [:#(type=Boolean)]", 8080, true, 0.0,0.0,0.0,0,1539)
+"= true, use homotopy method [:#(type=Boolean)]", 8040, true, 0.0,0.0,0.0,0,1539)
DeclareVariable("ventilation.distribution.resExh[1].from_dp", "= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]",\
- 8081, false, 0.0,0.0,0.0,0,515)
+ 8041, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.resExh[1].dp_nominal", \
-"Pressure drop at nominal mass flow rate [Pa|Pa]", 8082, 100, 0.0,0.0,0.0,0,513)
+"Pressure drop at nominal mass flow rate [Pa|Pa]", 8042, 100, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.resExh[1].linearized", \
"= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]",\
- 8083, false, 0.0,0.0,0.0,0,515)
+ 8043, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.distribution.resExh[1].m_flow_turbulent", \
-"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 8084, 0.03266666666666667,\
+"Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]", 8044, 0.03266666666666667,\
0.0,1E+100,0.0,0,513)
DeclareParameter("ventilation.distribution.resExh[1].sta_default.p", \
-"Absolute pressure of medium [Pa|bar]", 1457, 101325.0, 0.0,100000000.0,100000.0,\
+"Absolute pressure of medium [Pa|bar]", 1463, 101325.0, 0.0,100000000.0,100000.0,\
0,2608)
DeclareParameter("ventilation.distribution.resExh[1].sta_default.T", \
-"Temperature of medium [K|degC]", 1458, 293.15, 1.0,10000.0,300.0,0,2608)
+"Temperature of medium [K|degC]", 1464, 293.15, 1.0,10000.0,300.0,0,2608)
DeclareParameter("ventilation.distribution.resExh[1].sta_default.X[1]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1459, 0.01, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1465, 0.01, 0.0,\
1.0,0.1,0,2608)
DeclareParameter("ventilation.distribution.resExh[1].sta_default.X[2]", \
-"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1460, 0.99, 0.0,\
+"Mass fractions (= (component mass)/total mass m_i/m) [kg/kg]", 1466, 0.99, 0.0,\
1.0,0.1,0,2608)
DeclareVariable("ventilation.distribution.resExh[1].eta_default", \
"Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]",\
- 8085, 0.0, 0.0,1E+100,0.0,0,2561)
+ 8045, 0.0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("ventilation.distribution.resExh[1].m_flow_nominal_pos", \
-"Absolute value of nominal flow rate [kg/s]", 8086, 0.1088888888888889, 0.0,0.0,\
+"Absolute value of nominal flow rate [kg/s]", 8046, 0.1088888888888889, 0.0,0.0,\
0.0,0,2561)
DeclareVariable("ventilation.distribution.resExh[1].dp_nominal_pos", \
-"Absolute value of nominal pressure difference [Pa|Pa]", 8087, 100, 0.0,0.0,0.0,\
+"Absolute value of nominal pressure difference [Pa|Pa]", 8047, 100, 0.0,0.0,0.0,\
0,2561)
DeclareVariable("ventilation.distribution.resExh[1].deltaM", "Fraction of nominal mass flow rate where transition to turbulent occurs",\
- 8088, 0.3, 1E-06,1E+100,0.0,0,513)
+ 8048, 0.3, 1E-06,1E+100,0.0,0,513)
DeclareVariable("ventilation.distribution.resExh[1].k", "Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)",\
- 8089, 0.010888888888888889, 0.0,0.0,0.0,0,513)
+ 8049, 0.010888888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.distribution.resExh[1].computeFlowResistance", \
-"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 8090,\
+"Flag to enable/disable computation of flow resistance [:#(type=Boolean)]", 8050,\
true, 0.0,0.0,0.0,0,2563)
DeclareVariable("ventilation.distribution.resExh[1].coeff", "Precomputed coefficient to avoid division by parameter",\
- 8091, 0, 0.0,0.0,0.0,0,2561)
+ 8051, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("ventilation.distribution.zeroLoad.internalElectricalPin.PElecLoa",\
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 8092, 0.0, 0.0,0.0,0.0,0,521)
+ 8052, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.distribution.zeroLoad.internalElectricalPin.PElecGen",\
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8093, 0.0, 0.0,0.0,0.0,0,521)
+ 8053, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.control.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 8094, false, 0.0,0.0,0.0,0,515)
+ 8054, false, 0.0,0.0,0.0,0,515)
DeclareVariable("ventilation.control.parDis.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 8095, 1, 1.0,1E+100,0.0,0,517)
+ 8055, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.control.parDis.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 8096, 1, 1.0,1E+100,0.0,0,517)
+ 8056, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.control.parDis.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 8097, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 8057, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parDis.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 8098, 262.65, 0.0,1E+100,300.0,0,513)
+ 8058, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.control.parDis.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 8099, 294.15, 0.0,1E+100,300.0,0,513)
+ 8059, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.control.parDis.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 8100, 294.15, 0.0,1E+100,300.0,0,513)
+ 8060, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.control.parDis.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 8101, 0.0, 0.0,0.0,0.0,0,513)
+ 8061, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parDis.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 8102, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+ 8062, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parDis.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 8103, 100.0, 0.0,0.0,0.0,0,513)
+ 8063, 100.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parDis.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 8104, 0.0, 0.0,0.0,0.0,0,513)
+ 8064, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parDis.f_design[1]", "Factor for oversizing due to heat losses",\
- 8105, 1.0, 0.0,0.0,0.0,0,513)
+ 8065, 1.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parDis.QLoss_flow_nominal[1]", \
-"Nominal heat flow rate due to heat losses [W]", 8106, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate due to heat losses [W]", 8066, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.nParallelDem", "Number of parallel demand systems of this system [:#(type=Integer)]",\
- 8107, 1, 1.0,1E+100,0.0,0,517)
+ 8067, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.control.parGen.nParallelSup", "Number of parallel supply systems of this system [:#(type=Integer)]",\
- 8108, 1, 1.0,1E+100,0.0,0,517)
+ 8068, 1, 1.0,1E+100,0.0,0,517)
DeclareVariable("ventilation.control.parGen.Q_flow_nominal[1]", "Nominal heat flow rate [W]",\
- 8109, 13288.382850121196, 0.0,0.0,0.0,0,513)
+ 8069, 13288.382850121196, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.TOda_nominal", "Nominal outdoor air temperature [K|degC]",\
- 8110, 262.65, 0.0,1E+100,300.0,0,513)
+ 8070, 262.65, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.control.parGen.TDem_nominal[1]", "Nominal demand temperature [K|degC]",\
- 8111, 294.15, 0.0,1E+100,300.0,0,513)
+ 8071, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.control.parGen.TSup_nominal[1]", "Nominal supply temperature [K|degC]",\
- 8112, 294.15, 0.0,1E+100,300.0,0,513)
+ 8072, 294.15, 0.0,1E+100,300.0,0,513)
DeclareVariable("ventilation.control.parGen.dTTra_nominal[1]", "Nominal temperature difference for heat transfer [K,]",\
- 8113, 0.0, 0.0,0.0,0.0,0,513)
+ 8073, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.m_flow_nominal[1]", "Nominal mass flow rate [kg/s]",\
- 8114, 0.1088888888888889, 0.0,0.0,0.0,0,513)
+ 8074, 0.1088888888888889, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.dp_nominal[1]", "Nominal pressure difference at m_flow_nominal [Pa|bar]",\
- 8115, 100.0, 0.0,0.0,0.0,0,513)
+ 8075, 100.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.dTLoss_nominal[1]", "Nominal temperature difference due to heat losses [K,]",\
- 8116, 0.0, 0.0,0.0,0.0,0,513)
+ 8076, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.f_design[1]", "Factor for oversizing due to heat losses",\
- 8117, 0.0, 0.0,0.0,0.0,0,513)
+ 8077, 0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("ventilation.control.parGen.QLoss_flow_nominal[1]", \
-"Nominal heat flow rate due to heat losses [W]", 8118, 0.0, 0.0,0.0,0.0,0,513)
+"Nominal heat flow rate due to heat losses [W]", 8078, 0.0, 0.0,0.0,0.0,0,513)
DeclareAlias2("ventilation.control.sigBusGen.uByPass", "Connector of Real output signal",\
- "ventilation.control.constZero.k", 1, 7, 1461, 4)
+ "ventilation.control.constZero.k", 1, 7, 1467, 4)
DeclareAlias2("ventilation.control.sigBusGen.THROut", "Temperature of the passing fluid [K|degC]",\
"ventilation.generation.TSup.T", 1, 1, 73, 4)
DeclareAlias2("ventilation.control.weaBus.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 4)
+ "building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("ventilation.control.weaBus.TWetBul", "Wet bulb temperature [K|degC]",\
- "building.weaBus.TWetBul", 1, 5, 8488, 4)
+ "building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("ventilation.control.weaBus.TDewPoi", "Dew point temperature [K|degC]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 4)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("ventilation.control.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("ventilation.control.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("ventilation.control.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("ventilation.control.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("ventilation.control.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("ventilation.control.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("ventilation.control.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("ventilation.control.weaBus.winSpe", "Wind speed [m/s]", \
-"building.weaBus.winSpe", 1, 5, 8497, 4)
+"building.weaBus.winSpe", 1, 5, 8460, 4)
DeclareAlias2("ventilation.control.weaBus.ceiHei", "Cloud cover ceiling height [m]",\
- "building.weaBus.ceiHei", 1, 5, 8498, 4)
+ "building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("ventilation.control.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("ventilation.control.weaBus.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 4)
+"building.weaBus.nTot", 1, 5, 8463, 4)
DeclareVariable("ventilation.control.weaBus.lat", "Latitude of the location [rad|deg]",\
- 8119, 0.9116922633158369, 0.0,0.0,0.0,0,521)
+ 8079, 0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.control.weaBus.lon", "Longitude of the location [rad|deg]",\
- 8120, 0.22757907099030072, 0.0,0.0,0.0,0,521)
+ 8080, 0.22757907099030072, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.control.weaBus.alt", "Location altitude above sea level [m]",\
- 8121, 0.0, 0.0,1E+100,0.0,0,521)
+ 8081, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("ventilation.control.weaBus.pAtm", "Atmospheric pressure [Pa|bar]",\
- "weaDat.pAtmSel.p", 1, 5, 8192, 4)
+ "weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("ventilation.control.weaBus.solAlt", "Solar altitude angle [rad|deg]",\
- "building.weaBus.solAlt", 1, 5, 8501, 4)
+ "building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("ventilation.control.weaBus.solDec", "Solar declination angle [rad|deg]",\
- "building.weaBus.solDec", 1, 5, 8502, 4)
+ "building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("ventilation.control.weaBus.solHouAng", "Solar hour angle [rad|deg]",\
- "building.weaBus.solHouAng", 1, 5, 8503, 4)
+ "building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("ventilation.control.weaBus.solZen", "Solar zenith angle [rad|deg]",\
- "building.weaBus.solZen", 1, 5, 8504, 4)
+ "building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("ventilation.control.weaBus.solTim", "Solar time [s]", \
-"building.weaBus.solTim", 1, 5, 8505, 4)
+"building.weaBus.solTim", 1, 5, 8468, 4)
DeclareAlias2("ventilation.control.weaBus.cloTim", "Model time [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 4)
+"building.weaBus.cloTim", 1, 5, 8469, 4)
DeclareAlias2("ventilation.control.buiMeaBus.TZoneMea[1]", "", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 4)
+ 5, 8470, 4)
DeclareVariable("ventilation.control.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9692, 0.0, 0.0,0.0,0.0,0,520)
+ 9661, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("ventilation.control.useProBus.TZoneSet[1]", "", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 4)
+ 5, 8243, 4)
DeclareVariable("ventilation.control.useProBus.intGains[1]", "Output signal connector",\
- 9693, 0.0, 0.0,0.0,0.0,0,520)
+ 9662, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("ventilation.control.useProBus.intGains[2]", "Output signal connector",\
- 9694, 0.0, 0.0,0.0,0.0,0,520)
+ 9663, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("ventilation.control.useProBus.intGains[3]", "Output signal connector",\
- 9695, 0.0, 0.0,0.0,0.0,0,520)
+ 9664, 0.0, 0.0,0.0,0.0,0,520)
DeclareVariable("ventilation.control.use_bypass", "=false to disable the bypass [:#(type=Boolean)]",\
- 8122, false, 0.0,0.0,0.0,0,515)
-DeclareParameter("ventilation.control.constZero.k", "Constant output value", 1461,\
+ 8082, false, 0.0,0.0,0.0,0,515)
+DeclareParameter("ventilation.control.constZero.k", "Constant output value", 1467,\
0, 0.0,1.0,0.0,0,560)
DeclareAlias2("ventilation.control.constZero.y", "Connector of Real output signal",\
- "ventilation.control.constZero.k", 1, 7, 1461, 0)
+ "ventilation.control.constZero.k", 1, 7, 1467, 0)
DeclareVariable("ventilation.control.minMaxMea.nu", "Number of input connections [:#(type=Integer)]",\
- 8123, 1, 0.0,1E+100,0.0,0,1541)
+ 8083, 1, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("ventilation.control.minMaxMea.u[1]", "", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 0)
+ 5, 8470, 0)
DeclareAlias2("ventilation.control.minMaxMea.yMax", "", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 0)
+ 5, 8470, 0)
DeclareAlias2("ventilation.control.minMaxMea.yMin", "", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 0)
+ 5, 8470, 0)
DeclareVariable("ventilation.control.minMaxSet.nu", "Number of input connections [:#(type=Integer)]",\
- 8124, 1, 0.0,1E+100,0.0,0,1541)
+ 8084, 1, 0.0,1E+100,0.0,0,1541)
DeclareAlias2("ventilation.control.minMaxSet.u[1]", "", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 0)
+ 5, 8243, 0)
DeclareAlias2("ventilation.control.minMaxSet.yMax", "", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 0)
+ 5, 8243, 0)
DeclareAlias2("ventilation.control.minMaxSet.yMin", "", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 0)
+ 5, 8243, 0)
DeclareAlias2("ventilation.outBusVen.generation.TExhIn", "Temperature of the passing fluid [K|degC]",\
"ventilation.generation.TExhIn.T", 1, 1, 69, 4)
DeclareAlias2("ventilation.outBusVen.generation.PVentSup", "Electrical power consumed [W]",\
@@ -14089,105 +14116,105 @@ DeclareAlias2("ventilation.outBusVen.generation.PVentSup", "Electrical power con
DeclareAlias2("ventilation.outBusVen.generation.PelVentRet", "Electrical power consumed [W]",\
"outputs.ventilation.generation.PelVentRet", 1, 3, 35, 4)
DeclareAlias2("ventilation.weaBus.TDryBul", "Dry bulb temperature [K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 4)
+"building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("ventilation.weaBus.TWetBul", "Wet bulb temperature [K|degC]", \
-"building.weaBus.TWetBul", 1, 5, 8488, 4)
+"building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("ventilation.weaBus.TDewPoi", "Dew point temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("ventilation.weaBus.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 4)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("ventilation.weaBus.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 4)
+"building.weaBus.relHum", 1, 5, 8454, 4)
DeclareAlias2("ventilation.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("ventilation.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("ventilation.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("ventilation.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 4)
+ "building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("ventilation.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("ventilation.weaBus.winSpe", "Wind speed [m/s]", "building.weaBus.winSpe", 1,\
- 5, 8497, 4)
+ 5, 8460, 4)
DeclareAlias2("ventilation.weaBus.ceiHei", "Cloud cover ceiling height [m]", \
-"building.weaBus.ceiHei", 1, 5, 8498, 4)
+"building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("ventilation.weaBus.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 4)
+"building.weaBus.nOpa", 1, 5, 8462, 4)
DeclareAlias2("ventilation.weaBus.nTot", "Total sky cover [1]", "building.weaBus.nTot", 1,\
- 5, 8500, 4)
-DeclareVariable("ventilation.weaBus.lat", "Latitude of the location [rad|deg]", 8125,\
+ 5, 8463, 4)
+DeclareVariable("ventilation.weaBus.lat", "Latitude of the location [rad|deg]", 8085,\
0.9116922633158369, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.weaBus.lon", "Longitude of the location [rad|deg]",\
- 8126, 0.22757907099030072, 0.0,0.0,0.0,0,521)
+ 8086, 0.22757907099030072, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.weaBus.alt", "Location altitude above sea level [m]",\
- 8127, 0.0, 0.0,1E+100,0.0,0,521)
+ 8087, 0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("ventilation.weaBus.pAtm", "Atmospheric pressure [Pa|bar]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("ventilation.weaBus.solAlt", "Solar altitude angle [rad|deg]", \
-"building.weaBus.solAlt", 1, 5, 8501, 4)
+"building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("ventilation.weaBus.solDec", "Solar declination angle [rad|deg]", \
-"building.weaBus.solDec", 1, 5, 8502, 4)
+"building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("ventilation.weaBus.solHouAng", "Solar hour angle [rad|deg]", \
-"building.weaBus.solHouAng", 1, 5, 8503, 4)
+"building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("ventilation.weaBus.solZen", "Solar zenith angle [rad|deg]", \
-"building.weaBus.solZen", 1, 5, 8504, 4)
+"building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("ventilation.weaBus.solTim", "Solar time [s]", "building.weaBus.solTim", 1,\
- 5, 8505, 4)
+ 5, 8468, 4)
DeclareAlias2("ventilation.weaBus.cloTim", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 4)
+ 5, 8469, 4)
DeclareAlias2("ventilation.portVent_in[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[1].m_flow", -1, 5, 8510, 132)
+ "building.thermalZone[1].ports[1].m_flow", -1, 5, 8473, 132)
DeclareAlias2("ventilation.portVent_in[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareVariable("ventilation.portVent_in[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9696, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9665, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareVariable("ventilation.portVent_in[1].Xi_outflow[1]", "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
- 9697, 0.0, 0.0,1.0,0.1,0,520)
+ 9666, 0.0, 0.0,1.0,0.1,0,520)
DeclareAlias2("ventilation.portVent_out[1].m_flow", "Mass flow rate from the connection point into the component [kg/s]",\
- "building.thermalZone[1].ports[2].m_flow", -1, 5, 8513, 132)
+ "building.thermalZone[1].ports[2].m_flow", -1, 5, 8476, 132)
DeclareAlias2("ventilation.portVent_out[1].p", "Thermodynamic pressure in the connection point [Pa|bar]",\
- "building.thermalZone[1].ports[1].p", 1, 5, 8511, 4)
+ "building.thermalZone[1].ports[1].p", 1, 5, 8474, 4)
DeclareVariable("ventilation.portVent_out[1].h_outflow", "Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]",\
- 9698, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
+ 9667, 0.0, -10000000000.0,10000000000.0,1000000.0,0,520)
DeclareAlias2("ventilation.portVent_out[1].Xi_outflow[1]", "Independent mixture mass fractions m_i/m close to the connection point if m_flow < 0 [kg/kg]",\
"ventilation.generation.fanRet.vol.dynBal.medium.Xi[1]", 1, 1, 70, 4)
DeclareAlias2("ventilation.buiMeaBus.TZoneMea[1]", "[K|degC]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 4)
+ 5, 8470, 4)
DeclareVariable("ventilation.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9699, 0.0, 0.0,0.0,0.0,0,520)
+ 9668, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("ventilation.useProBus.TZoneSet[1]", "[K|degC]", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 4)
-DeclareVariable("ventilation.useProBus.intGains[1]", "Output signal connector", 9700,\
+ 5, 8243, 4)
+DeclareVariable("ventilation.useProBus.intGains[1]", "Output signal connector", 9669,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("ventilation.useProBus.intGains[2]", "Output signal connector", 9701,\
+DeclareVariable("ventilation.useProBus.intGains[2]", "Output signal connector", 9670,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("ventilation.useProBus.intGains[3]", "Output signal connector", 9702,\
+DeclareVariable("ventilation.useProBus.intGains[3]", "Output signal connector", 9671,\
0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("ventilation.internalElectricalPin.PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("ventilation.internalElectricalPin.PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8128, 0.0, 0.0,0.0,0.0,0,521)
+ 8088, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.multiSumElec.nPorts", "Number of ports to sum up [:#(type=Integer)]",\
- 8129, 2, 0.0,0.0,0.0,0,517)
+ 8089, 2, 0.0,0.0,0.0,0,517)
DeclareAlias2("ventilation.multiSumElec.internalElectricalPinOut.PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("ventilation.multiSumElec.internalElectricalPinOut.PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8130, 0.0, 0.0,0.0,0.0,0,521)
+ 8090, 0.0, 0.0,0.0,0.0,0,521)
DeclareAlias2("ventilation.multiSumElec.internalElectricalPinIn[1].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9132, 4)
+ "electrical.internalElectricalPin[2].PElecLoa", 1, 5, 9095, 4)
DeclareVariable("ventilation.multiSumElec.internalElectricalPinIn[1].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8131, 0.0, 0.0,0.0,0.0,0,521)
+ 8091, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.multiSumElec.internalElectricalPinIn[2].PElecLoa", \
"Electrical power flow; positive = power consumption; negative = power generation [W]",\
- 8132, 0.0, 0.0,0.0,0.0,0,521)
+ 8092, 0.0, 0.0,0.0,0.0,0,521)
DeclareVariable("ventilation.multiSumElec.internalElectricalPinIn[2].PElecGen", \
"Electrical power flow; positive = power generation; negative = power consumption [W]",\
- 8133, 0.0, 0.0,0.0,0.0,0,521)
+ 8093, 0.0, 0.0,0.0,0.0,0,521)
DeclareOutput("outputs.building.TZone[1]", "Indoor air temperature [K|degC]", 0,\
0.0, 0.0,0.0,0.0,0,520)
DeclareOutput("outputs.building.TZoneOpe[1]", "Connector of Real output signal [K|degC]",\
@@ -14273,738 +14300,738 @@ DeclareOutput("outputs.electrical.gen.PElePV.value", "Current value [W]", 40, \
DeclareOutput("outputs.electrical.gen.PElePV.integral", "Integral of value [J]",\
41, 0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("weaDat.weaBus.TDryBul", "Dry bulb temperature [K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 4)
+"building.weaBus.TDryBul", 1, 5, 8450, 4)
DeclareAlias2("weaDat.weaBus.TWetBul", "Wet bulb temperature [K|degC]", \
-"building.weaBus.TWetBul", 1, 5, 8488, 4)
+"building.weaBus.TWetBul", 1, 5, 8451, 4)
DeclareAlias2("weaDat.weaBus.TDewPoi", "Dew point temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 4)
+"building.weaBus.TDewPoi", 1, 5, 8452, 4)
DeclareAlias2("weaDat.weaBus.TBlaSky", "Black-body sky temperature [K|degC]", \
-"building.weaBus.TBlaSky", 1, 5, 8490, 4)
+"building.weaBus.TBlaSky", 1, 5, 8453, 4)
DeclareAlias2("weaDat.weaBus.relHum", "Relative humidity [1]", "building.weaBus.relHum", 1,\
- 5, 8491, 4)
+ 5, 8454, 4)
DeclareAlias2("weaDat.weaBus.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 4)
+ "building.weaBus.HDirNor", 1, 5, 8455, 4)
DeclareAlias2("weaDat.weaBus.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 4)
+ "building.weaBus.HGloHor", 1, 5, 8456, 4)
DeclareAlias2("weaDat.weaBus.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 4)
+ "building.weaBus.HDifHor", 1, 5, 8457, 4)
DeclareAlias2("weaDat.weaBus.HHorIR", "Horizontal infrared irradiation [W/m2]", \
-"building.weaBus.HHorIR", 1, 5, 8495, 4)
+"building.weaBus.HHorIR", 1, 5, 8458, 4)
DeclareAlias2("weaDat.weaBus.winDir", "Wind direction [rad|deg]", \
-"building.weaBus.winDir", 1, 5, 8496, 4)
+"building.weaBus.winDir", 1, 5, 8459, 4)
DeclareAlias2("weaDat.weaBus.winSpe", "Wind speed [m/s]", "building.weaBus.winSpe", 1,\
- 5, 8497, 4)
+ 5, 8460, 4)
DeclareAlias2("weaDat.weaBus.ceiHei", "Cloud cover ceiling height [m]", \
-"building.weaBus.ceiHei", 1, 5, 8498, 4)
+"building.weaBus.ceiHei", 1, 5, 8461, 4)
DeclareAlias2("weaDat.weaBus.nOpa", "Opaque sky cover [1]", "building.weaBus.nOpa", 1,\
- 5, 8499, 4)
+ 5, 8462, 4)
DeclareAlias2("weaDat.weaBus.nTot", "Total sky cover [1]", "building.weaBus.nTot", 1,\
- 5, 8500, 4)
-DeclareVariable("weaDat.weaBus.lat", "Latitude of the location [rad|deg]", 8134,\
+ 5, 8463, 4)
+DeclareVariable("weaDat.weaBus.lat", "Latitude of the location [rad|deg]", 8094,\
0.9116922633158369, 0.0,0.0,0.0,0,521)
-DeclareVariable("weaDat.weaBus.lon", "Longitude of the location [rad|deg]", 8135,\
+DeclareVariable("weaDat.weaBus.lon", "Longitude of the location [rad|deg]", 8095,\
0.22757907099030072, 0.0,0.0,0.0,0,521)
-DeclareVariable("weaDat.weaBus.alt", "Location altitude above sea level [m]", 8136,\
+DeclareVariable("weaDat.weaBus.alt", "Location altitude above sea level [m]", 8096,\
0.0, 0.0,1E+100,0.0,0,521)
DeclareAlias2("weaDat.weaBus.pAtm", "Atmospheric pressure [Pa|bar]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 4)
+"weaDat.pAtmSel.p", 1, 5, 8152, 4)
DeclareAlias2("weaDat.weaBus.solAlt", "Solar altitude angle [rad|deg]", \
-"building.weaBus.solAlt", 1, 5, 8501, 4)
+"building.weaBus.solAlt", 1, 5, 8464, 4)
DeclareAlias2("weaDat.weaBus.solDec", "Solar declination angle [rad|deg]", \
-"building.weaBus.solDec", 1, 5, 8502, 4)
+"building.weaBus.solDec", 1, 5, 8465, 4)
DeclareAlias2("weaDat.weaBus.solHouAng", "Solar hour angle [rad|deg]", \
-"building.weaBus.solHouAng", 1, 5, 8503, 4)
+"building.weaBus.solHouAng", 1, 5, 8466, 4)
DeclareAlias2("weaDat.weaBus.solZen", "Solar zenith angle [rad|deg]", \
-"building.weaBus.solZen", 1, 5, 8504, 4)
+"building.weaBus.solZen", 1, 5, 8467, 4)
DeclareAlias2("weaDat.weaBus.solTim", "Solar time [s]", "building.weaBus.solTim", 1,\
- 5, 8505, 4)
+ 5, 8468, 4)
DeclareAlias2("weaDat.weaBus.cloTim", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 4)
+ 5, 8469, 4)
DeclareVariable("weaDat.computeWetBulbTemperature", "If true, then this model computes the wet bulb temperature [:#(type=Boolean)]",\
- 8137, true, 0.0,0.0,0.0,0,515)
+ 8097, true, 0.0,0.0,0.0,0,515)
DeclareVariable("weaDat.pAtmSou", "Atmospheric pressure [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8138, 2, 1.0,3.0,0.0,0,1541)
+ 8098, 2, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.pAtm", "Atmospheric pressure (used if pAtmSou=Parameter) [Pa|bar]",\
- 1462, 101325, 0.0,0.0,0.0,0,560)
+ 1468, 101325, 0.0,0.0,0.0,0,560)
DeclareVariable("weaDat.TDryBulSou", "Dry bulb temperature [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8139, 1, 1.0,3.0,0.0,0,1541)
+ 8099, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.TDryBul", "Dry bulb temperature (used if TDryBul=Parameter) [K|degC]",\
- 1463, 293.15, 0.0,1E+100,300.0,0,560)
+ 1469, 293.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("weaDat.TDewPoiSou", "Dew point temperature [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8140, 1, 1.0,3.0,0.0,0,1541)
+ 8100, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.TDewPoi", "Dew point temperature (used if TDewPoi=Parameter) [K|degC]",\
- 1464, 283.15, 0.0,1E+100,300.0,0,560)
+ 1470, 283.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("weaDat.TBlaSkySou", "Black-body sky temperature [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8141, 1, 1.0,3.0,0.0,0,1541)
+ 8101, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.TBlaSky", "Black-body sky temperature (used if TBlaSkySou=Parameter) [K|degC]",\
- 1465, 273.15, 0.0,1E+100,300.0,0,560)
+ 1471, 273.15, 0.0,1E+100,300.0,0,560)
DeclareVariable("weaDat.relHumSou", "Relative humidity [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8142, 1, 1.0,3.0,0.0,0,1541)
+ 8102, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.relHum", "Relative humidity (used if relHum=Parameter) [1]",\
- 1466, 0.5, 0.0,1.0,0.0,0,560)
+ 1472, 0.5, 0.0,1.0,0.0,0,560)
DeclareVariable("weaDat.winSpeSou", "Wind speed [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8143, 1, 1.0,3.0,0.0,0,1541)
+ 8103, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.winSpe", "Wind speed (used if winSpe=Parameter) [m/s]",\
- 1467, 1, 0.0,1E+100,0.0,0,560)
+ 1473, 1, 0.0,1E+100,0.0,0,560)
DeclareVariable("weaDat.winDirSou", "Wind direction [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8144, 1, 1.0,3.0,0.0,0,1541)
+ 8104, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.winDir", "Wind direction (used if winDir=Parameter) [rad|deg]",\
- 1468, 1.0, 0.0,0.0,0.0,0,560)
+ 1474, 1.0, 0.0,0.0,0.0,0,560)
DeclareVariable("weaDat.HInfHorSou", "Infrared horizontal radiation [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8145, 1, 1.0,3.0,0.0,0,1541)
+ 8105, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.HInfHor", "Infrared horizontal radiation (used if HInfHorSou=Parameter) [W/m2]",\
- 1469, 0.0, 0.0,0.0,0.0,0,560)
+ 1475, 0.0, 0.0,0.0,0.0,0,560)
DeclareVariable("weaDat.HSou", "Global, diffuse, and direct normal radiation [:#(type=IBPSA.BoundaryConditions.Types.RadiationDataSource)]",\
- 8146, 1, 1.0,4.0,0.0,0,1541)
+ 8106, 1, 1.0,4.0,0.0,0,1541)
DeclareVariable("weaDat.ceiHeiSou", "Ceiling height [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8147, 1, 1.0,3.0,0.0,0,1541)
+ 8107, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.ceiHei", "Ceiling height (used if ceiHei=Parameter) [m|m]",\
- 1470, 20000, 0.0,0.0,0.0,0,560)
+ 1476, 20000, 0.0,0.0,0.0,0,560)
DeclareVariable("weaDat.totSkyCovSou", "Total sky cover [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8148, 1, 1.0,3.0,0.0,0,1541)
+ 8108, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.totSkyCov", "Total sky cover (used if totSkyCov=Parameter). Use 0 <= totSkyCov <= 1 [1]",\
- 1471, 0.5, 0.0,1.0,0.0,0,560)
+ 1477, 0.5, 0.0,1.0,0.0,0,560)
DeclareVariable("weaDat.opaSkyCovSou", "Opaque sky cover [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8149, 1, 1.0,3.0,0.0,0,1541)
+ 8109, 1, 1.0,3.0,0.0,0,1541)
DeclareParameter("weaDat.opaSkyCov", "Opaque sky cover (used if opaSkyCov=Parameter). Use 0 <= opaSkyCov <= 1 [1]",\
- 1472, 0.5, 0.0,1.0,0.0,0,560)
+ 1478, 0.5, 0.0,1.0,0.0,0,560)
DeclareVariable("weaDat.calTSky", "Model choice for black-body sky temperature calculation [:#(type=IBPSA.BoundaryConditions.Types.SkyTemperatureCalculation)]",\
- 8150, 2, 1.0,2.0,0.0,0,517)
-DeclareVariable("weaDat.lon", "Longitude [rad|deg]", 8151, 0.22757907099030072, \
+ 8110, 2, 1.0,2.0,0.0,0,517)
+DeclareVariable("weaDat.lon", "Longitude [rad|deg]", 8111, 0.22757907099030072, \
0.0,0.0,0.0,0,513)
-DeclareVariable("weaDat.lat", "Latitude [rad|deg]", 8152, 0.9116922633158369, \
+DeclareVariable("weaDat.lat", "Latitude [rad|deg]", 8112, 0.9116922633158369, \
0.0,0.0,0.0,0,513)
-DeclareVariable("weaDat.timZon", "Time zone [s|h]", 8153, 3600.0, 0.0,0.0,0.0,0,513)
-DeclareVariable("weaDat.alt", "Location altitude above sea level [m|m]", 8154, \
+DeclareVariable("weaDat.timZon", "Time zone [s|h]", 8113, 3600.0, 0.0,0.0,0.0,0,513)
+DeclareVariable("weaDat.alt", "Location altitude above sea level [m|m]", 8114, \
0.0, 0.0,0.0,0.0,0,513)
DeclareVariable("weaDat.timeSpan[1]", "Start time, end time of weather data [s]",\
- 8155, 0.0, 0.0,0.0,0.0,0,2561)
+ 8115, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.timeSpan[2]", "Start time, end time of weather data [s]",\
- 8156, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.datRea.nout", "Number of outputs [:#(type=Integer)]", 8157,\
+ 8116, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.datRea.nout", "Number of outputs [:#(type=Integer)]", 8117,\
26, 0.0,0.0,0.0,0,2565)
-DeclareVariable("weaDat.datRea.u", "Connector of Real input signal", 9703, 0.0, \
+DeclareVariable("weaDat.datRea.u", "Connector of Real input signal", 9672, 0.0, \
0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[1]", "Connector of Real output signals", 9704, \
+DeclareVariable("weaDat.datRea.y[1]", "Connector of Real output signals", 9673, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[2]", "Connector of Real output signals", 9705, \
+DeclareVariable("weaDat.datRea.y[2]", "Connector of Real output signals", 9674, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[3]", "Connector of Real output signals", 9706, \
+DeclareVariable("weaDat.datRea.y[3]", "Connector of Real output signals", 9675, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[4]", "Connector of Real output signals", 9707, \
+DeclareVariable("weaDat.datRea.y[4]", "Connector of Real output signals", 9676, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[5]", "Connector of Real output signals", 9708, \
+DeclareVariable("weaDat.datRea.y[5]", "Connector of Real output signals", 9677, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[6]", "Connector of Real output signals", 9709, \
+DeclareVariable("weaDat.datRea.y[6]", "Connector of Real output signals", 9678, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[7]", "Connector of Real output signals", 9710, \
+DeclareVariable("weaDat.datRea.y[7]", "Connector of Real output signals", 9679, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[8]", "Connector of Real output signals", 9711, \
+DeclareVariable("weaDat.datRea.y[8]", "Connector of Real output signals", 9680, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[9]", "Connector of Real output signals", 9712, \
+DeclareVariable("weaDat.datRea.y[9]", "Connector of Real output signals", 9681, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[10]", "Connector of Real output signals", 9713,\
+DeclareVariable("weaDat.datRea.y[10]", "Connector of Real output signals", 9682,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[11]", "Connector of Real output signals", 9714,\
+DeclareVariable("weaDat.datRea.y[11]", "Connector of Real output signals", 9683,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[12]", "Connector of Real output signals", 9715,\
+DeclareVariable("weaDat.datRea.y[12]", "Connector of Real output signals", 9684,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[13]", "Connector of Real output signals", 9716,\
+DeclareVariable("weaDat.datRea.y[13]", "Connector of Real output signals", 9685,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[14]", "Connector of Real output signals", 9717,\
+DeclareVariable("weaDat.datRea.y[14]", "Connector of Real output signals", 9686,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[15]", "Connector of Real output signals", 9718,\
+DeclareVariable("weaDat.datRea.y[15]", "Connector of Real output signals", 9687,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[16]", "Connector of Real output signals", 9719,\
+DeclareVariable("weaDat.datRea.y[16]", "Connector of Real output signals", 9688,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[17]", "Connector of Real output signals", 9720,\
+DeclareVariable("weaDat.datRea.y[17]", "Connector of Real output signals", 9689,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[18]", "Connector of Real output signals", 9721,\
+DeclareVariable("weaDat.datRea.y[18]", "Connector of Real output signals", 9690,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[19]", "Connector of Real output signals", 9722,\
+DeclareVariable("weaDat.datRea.y[19]", "Connector of Real output signals", 9691,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[20]", "Connector of Real output signals", 9723,\
+DeclareVariable("weaDat.datRea.y[20]", "Connector of Real output signals", 9692,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[21]", "Connector of Real output signals", 9724,\
+DeclareVariable("weaDat.datRea.y[21]", "Connector of Real output signals", 9693,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[22]", "Connector of Real output signals", 9725,\
+DeclareVariable("weaDat.datRea.y[22]", "Connector of Real output signals", 9694,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[23]", "Connector of Real output signals", 9726,\
+DeclareVariable("weaDat.datRea.y[23]", "Connector of Real output signals", 9695,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[24]", "Connector of Real output signals", 9727,\
+DeclareVariable("weaDat.datRea.y[24]", "Connector of Real output signals", 9696,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[25]", "Connector of Real output signals", 9728,\
+DeclareVariable("weaDat.datRea.y[25]", "Connector of Real output signals", 9697,\
0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.datRea.y[26]", "Connector of Real output signals", 9729,\
+DeclareVariable("weaDat.datRea.y[26]", "Connector of Real output signals", 9698,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.datRea.tableOnFile", "= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
- 8158, true, 0.0,0.0,0.0,0,2563)
+ 8118, true, 0.0,0.0,0.0,0,2563)
DeclareParameter("weaDat.datRea.verboseRead", "= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
- 1473, false, 0.0,0.0,0.0,0,2610)
+ 1479, false, 0.0,0.0,0.0,0,2610)
DeclareVariable("weaDat.datRea.columns[1]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8159, 2, 0.0,0.0,0.0,0,2565)
+ 8119, 2, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[2]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8160, 3, 0.0,0.0,0.0,0,2565)
+ 8120, 3, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[3]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8161, 4, 0.0,0.0,0.0,0,2565)
+ 8121, 4, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[4]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8162, 5, 0.0,0.0,0.0,0,2565)
+ 8122, 5, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[5]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8163, 6, 0.0,0.0,0.0,0,2565)
+ 8123, 6, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[6]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8164, 11, 0.0,0.0,0.0,0,2565)
+ 8124, 11, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[7]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8165, 12, 0.0,0.0,0.0,0,2565)
+ 8125, 12, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[8]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8166, 13, 0.0,0.0,0.0,0,2565)
+ 8126, 13, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[9]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8167, 14, 0.0,0.0,0.0,0,2565)
+ 8127, 14, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[10]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8168, 15, 0.0,0.0,0.0,0,2565)
+ 8128, 15, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[11]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8169, 16, 0.0,0.0,0.0,0,2565)
+ 8129, 16, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[12]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8170, 17, 0.0,0.0,0.0,0,2565)
+ 8130, 17, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[13]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8171, 18, 0.0,0.0,0.0,0,2565)
+ 8131, 18, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[14]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8172, 19, 0.0,0.0,0.0,0,2565)
+ 8132, 19, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[15]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8173, 20, 0.0,0.0,0.0,0,2565)
+ 8133, 20, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[16]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8174, 21, 0.0,0.0,0.0,0,2565)
+ 8134, 21, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[17]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8175, 22, 0.0,0.0,0.0,0,2565)
+ 8135, 22, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[18]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8176, 23, 0.0,0.0,0.0,0,2565)
+ 8136, 23, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[19]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8177, 24, 0.0,0.0,0.0,0,2565)
+ 8137, 24, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[20]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8178, 25, 0.0,0.0,0.0,0,2565)
+ 8138, 25, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[21]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8179, 26, 0.0,0.0,0.0,0,2565)
+ 8139, 26, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[22]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8180, 27, 0.0,0.0,0.0,0,2565)
+ 8140, 27, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[23]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8181, 28, 0.0,0.0,0.0,0,2565)
+ 8141, 28, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[24]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8182, 29, 0.0,0.0,0.0,0,2565)
+ 8142, 29, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[25]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8183, 30, 0.0,0.0,0.0,0,2565)
+ 8143, 30, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.columns[26]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8184, 8, 0.0,0.0,0.0,0,2565)
+ 8144, 8, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.smoothness", "Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 8185, 2, 1.0,6.0,0.0,0,2565)
+ 8145, 2, 1.0,6.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.extrapolation", "Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 8186, 2, 1.0,4.0,0.0,0,2565)
+ 8146, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("weaDat.datRea.verboseExtrapolation", "= true, if warning messages are to be printed if table input is outside the definition range [:#(type=Boolean)]",\
- 8187, false, 0.0,0.0,0.0,0,2563)
+ 8147, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("weaDat.datRea.u_min", "Minimum abscissa value defined in table",\
- 8188, 0.0, 0.0,0.0,0.0,0,2561)
+ 8148, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.datRea.u_max", "Maximum abscissa value defined in table",\
- 8189, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.datRea.tableID.id", "[:#(type=Integer)]", 8190, 0, \
+ 8149, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.datRea.tableID.id", "[:#(type=Integer)]", 8150, 0, \
0.0,0.0,0.0,0,2565)
DeclareAlias2("weaDat.pAtmSel.y", "Connector of Real output signal", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 1024)
+"weaDat.pAtmSel.p", 1, 5, 8152, 1024)
DeclareVariable("weaDat.pAtmSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8191, 2, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.pAtmSel.p", "Parameter value", 8192, 0.0, 0.0,\
+ 8151, 2, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.pAtmSel.p", "Parameter value", 8152, 0.0, 0.0,\
100000000.0,100000.0,0,2561)
DeclareAlias2("weaDat.TDewPoiSel.y", "Connector of Real output signal", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 1024)
+"building.weaBus.TDewPoi", 1, 5, 8452, 1024)
DeclareVariable("weaDat.TDewPoiSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8193, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.TDewPoiSel.p", "Parameter value", 8194, 0.0, 0.0,0.0,0.0,\
+ 8153, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.TDewPoiSel.p", "Parameter value", 8154, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.TDewPoiSel.uFil", "Input signal from file reader", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 1024)
+"building.weaBus.TDewPoi", 1, 5, 8452, 1024)
DeclareAlias2("weaDat.TDryBulSel.y", "Connector of Real output signal", \
-"building.weaBus.TDryBul", 1, 5, 8487, 1024)
+"building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareVariable("weaDat.TDryBulSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8195, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.TDryBulSel.p", "Parameter value", 8196, 0.0, 0.0,0.0,0.0,\
+ 8155, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.TDryBulSel.p", "Parameter value", 8156, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.TDryBulSel.uFil", "Input signal from file reader", \
-"building.weaBus.TDryBul", 1, 5, 8487, 1024)
+"building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("weaDat.TBlaSkySel.y", "Connector of Real output signal", \
-"building.weaBus.TBlaSky", 1, 5, 8490, 1024)
+"building.weaBus.TBlaSky", 1, 5, 8453, 1024)
DeclareVariable("weaDat.TBlaSkySel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8197, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.TBlaSkySel.p", "Parameter value", 8198, 0.0, 0.0,0.0,0.0,\
+ 8157, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.TBlaSkySel.p", "Parameter value", 8158, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.TBlaSkySel.uFil", "Input signal from file reader", \
-"building.weaBus.TBlaSky", 1, 5, 8490, 1024)
-DeclareVariable("weaDat.relHumSel.y", "Connector of Real output signal", 9730, \
+"building.weaBus.TBlaSky", 1, 5, 8453, 1024)
+DeclareVariable("weaDat.relHumSel.y", "Connector of Real output signal", 9699, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.relHumSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8199, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.relHumSel.p", "Parameter value", 8200, 0.0, 0.0,0.0,0.0,\
+ 8159, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.relHumSel.p", "Parameter value", 8160, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.relHumSel.uFil", "Input signal from file reader", \
-"weaDat.relHumSel.y", 1, 5, 9730, 1024)
-DeclareVariable("weaDat.opaSkyCovSel.y", "Connector of Real output signal", 9731,\
+"weaDat.relHumSel.y", 1, 5, 9699, 1024)
+DeclareVariable("weaDat.opaSkyCovSel.y", "Connector of Real output signal", 9700,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.opaSkyCovSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8201, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.opaSkyCovSel.p", "Parameter value", 8202, 0.0, 0.0,0.0,\
+ 8161, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.opaSkyCovSel.p", "Parameter value", 8162, 0.0, 0.0,0.0,\
0.0,0,2561)
DeclareAlias2("weaDat.opaSkyCovSel.uFil", "Input signal from file reader", \
-"weaDat.opaSkyCovSel.y", 1, 5, 9731, 1024)
+"weaDat.opaSkyCovSel.y", 1, 5, 9700, 1024)
DeclareAlias2("weaDat.ceiHeiSel.y", "Connector of Real output signal", \
-"weaDat.datRea.y[16]", 1, 5, 9719, 1024)
+"weaDat.datRea.y[16]", 1, 5, 9688, 1024)
DeclareVariable("weaDat.ceiHeiSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8203, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.ceiHeiSel.p", "Parameter value", 8204, 0.0, 0.0,0.0,0.0,\
+ 8163, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.ceiHeiSel.p", "Parameter value", 8164, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.ceiHeiSel.uFil", "Input signal from file reader", \
-"weaDat.datRea.y[16]", 1, 5, 9719, 1024)
-DeclareVariable("weaDat.totSkyCovSel.y", "Connector of Real output signal", 9732,\
+"weaDat.datRea.y[16]", 1, 5, 9688, 1024)
+DeclareVariable("weaDat.totSkyCovSel.y", "Connector of Real output signal", 9701,\
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.totSkyCovSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8205, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.totSkyCovSel.p", "Parameter value", 8206, 0.0, 0.0,0.0,\
+ 8165, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.totSkyCovSel.p", "Parameter value", 8166, 0.0, 0.0,0.0,\
0.0,0,2561)
DeclareAlias2("weaDat.totSkyCovSel.uFil", "Input signal from file reader", \
-"weaDat.totSkyCovSel.y", 1, 5, 9732, 1024)
+"weaDat.totSkyCovSel.y", 1, 5, 9701, 1024)
DeclareAlias2("weaDat.winSpeSel.y", "Connector of Real output signal", \
-"weaDat.datRea.y[12]", 1, 5, 9715, 1024)
+"weaDat.datRea.y[12]", 1, 5, 9684, 1024)
DeclareVariable("weaDat.winSpeSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8207, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.winSpeSel.p", "Parameter value", 8208, 0.0, 0.0,0.0,0.0,\
+ 8167, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.winSpeSel.p", "Parameter value", 8168, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.winSpeSel.uFil", "Input signal from file reader", \
-"weaDat.datRea.y[12]", 1, 5, 9715, 1024)
-DeclareVariable("weaDat.winDirSel.y", "Connector of Real output signal", 9733, \
+"weaDat.datRea.y[12]", 1, 5, 9684, 1024)
+DeclareVariable("weaDat.winDirSel.y", "Connector of Real output signal", 9702, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.winDirSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8209, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.winDirSel.p", "Parameter value", 8210, 0.0, 0.0,0.0,0.0,\
+ 8169, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.winDirSel.p", "Parameter value", 8170, 0.0, 0.0,0.0,0.0,\
0,2561)
DeclareAlias2("weaDat.winDirSel.uFil", "Input signal from file reader", \
-"weaDat.winDirSel.y", 1, 5, 9733, 1024)
+"weaDat.winDirSel.y", 1, 5, 9702, 1024)
DeclareAlias2("weaDat.horInfRadSel.y", "Connector of Real output signal", \
-"weaDat.datRea.y[26]", 1, 5, 9729, 1024)
+"weaDat.datRea.y[26]", 1, 5, 9698, 1024)
DeclareVariable("weaDat.horInfRadSel.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.DataSource)]",\
- 8211, 1, 1.0,3.0,0.0,0,2565)
-DeclareVariable("weaDat.horInfRadSel.p", "Parameter value", 8212, 0.0, 0.0,0.0,\
+ 8171, 1, 1.0,3.0,0.0,0,2565)
+DeclareVariable("weaDat.horInfRadSel.p", "Parameter value", 8172, 0.0, 0.0,0.0,\
0.0,0,2561)
DeclareAlias2("weaDat.horInfRadSel.uFil", "Input signal from file reader", \
-"weaDat.datRea.y[26]", 1, 5, 9729, 1024)
+"weaDat.datRea.y[26]", 1, 5, 9698, 1024)
DeclareVariable("weaDat.souSelRad.datSou", "Data source [:#(type=IBPSA.BoundaryConditions.Types.RadiationDataSource)]",\
- 8213, 1, 1.0,4.0,0.0,0,2565)
+ 8173, 1, 1.0,4.0,0.0,0,2565)
DeclareAlias2("weaDat.souSelRad.HDirNorFil", "Direct normal solar irradiation from weather data file [W/m2]",\
- "weaDat.souSelRad.HDirNor_in_internal", 1, 5, 9736, 1024)
+ "weaDat.souSelRad.HDirNor_in_internal", 1, 5, 9705, 1024)
DeclareAlias2("weaDat.souSelRad.HDifHorFil", "Diffuse horizontal solar irradiation from weather data file [W/m2]",\
- "weaDat.souSelRad.HDifHor_in_internal", 1, 5, 9735, 1024)
+ "weaDat.souSelRad.HDifHor_in_internal", 1, 5, 9704, 1024)
DeclareAlias2("weaDat.souSelRad.HGloHorFil", "Global horizontal solar irradiation from weather data file [W/m2]",\
- "weaDat.souSelRad.HGloHor_in_internal", 1, 5, 9734, 1024)
+ "weaDat.souSelRad.HGloHor_in_internal", 1, 5, 9703, 1024)
DeclareAlias2("weaDat.souSelRad.zen", "Zenith angle [rad]", "building.weaBus.solZen", 1,\
- 5, 8504, 1024)
+ 5, 8467, 1024)
DeclareAlias2("weaDat.souSelRad.HDirNor", "Direct normal solar irradiation [W/m2]",\
- "building.weaBus.HDirNor", 1, 5, 8492, 1024)
+ "building.weaBus.HDirNor", 1, 5, 8455, 1024)
DeclareAlias2("weaDat.souSelRad.HDifHor", "Diffuse horizontal solar irradiation [W/m2]",\
- "building.weaBus.HDifHor", 1, 5, 8494, 1024)
+ "building.weaBus.HDifHor", 1, 5, 8457, 1024)
DeclareAlias2("weaDat.souSelRad.HGloHor", "Global horizontal solar irradiation [W/m2]",\
- "building.weaBus.HGloHor", 1, 5, 8493, 1024)
+ "building.weaBus.HGloHor", 1, 5, 8456, 1024)
DeclareVariable("weaDat.souSelRad.epsCos", "Small value to avoid division by 0",\
- 8214, 1E-06, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.souSelRad.solCon", "Solar constant [W/m2]", 8215, 1367.7,\
+ 8174, 1E-06, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.souSelRad.solCon", "Solar constant [W/m2]", 8175, 1367.7,\
0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.souSelRad.HGloHor_in_internal", "Needed to connect to conditional connector [W/m2]",\
- 9734, 0.0, 0.0,0.0,0.0,0,2560)
+ 9703, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.souSelRad.HDifHor_in_internal", "Needed to connect to conditional connector [W/m2]",\
- 9735, 0.0, 0.0,0.0,0.0,0,2560)
+ 9704, 0.0, 0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.souSelRad.HDirNor_in_internal", "Needed to connect to conditional connector [W/m2]",\
- 9736, 0.0, 0.0,0.0,0.0,0,2560)
+ 9705, 0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("weaDat.cheTemDryBul.TIn", "Input Temperature [K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 1024)
+"building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("weaDat.cheTemDryBul.TDryBul", "Dry bulb temperature [K|degC]", \
-"building.weaBus.TDryBul", 1, 5, 8487, 1024)
+"building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareParameter("weaDat.cheTemDryBul.TMin", "Minimum allowed temperature [K|degC]",\
- 1474, 203.15, 0.0,1E+100,300.0,0,2608)
+ 1480, 203.15, 0.0,1E+100,300.0,0,2608)
DeclareParameter("weaDat.cheTemDryBul.TMax", "Maximum allowed temperature [K|degC]",\
- 1475, 343.15, 0.0,1E+100,300.0,0,2608)
+ 1481, 343.15, 0.0,1E+100,300.0,0,2608)
DeclareAlias2("weaDat.cheTemDewPoi.TIn", "Input Temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 1024)
+"building.weaBus.TDewPoi", 1, 5, 8452, 1024)
DeclareAlias2("weaDat.cheTemDewPoi.TDewPoi", "Dew point temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 1024)
+"building.weaBus.TDewPoi", 1, 5, 8452, 1024)
DeclareParameter("weaDat.cheTemDewPoi.TMin", "Minimum allowed temperature [K|degC]",\
- 1476, 203.15, 0.0,1E+100,300.0,0,2608)
+ 1482, 203.15, 0.0,1E+100,300.0,0,2608)
DeclareParameter("weaDat.cheTemDewPoi.TMax", "Maximum allowed temperature [K|degC]",\
- 1477, 343.15, 0.0,1E+100,300.0,0,2608)
+ 1483, 343.15, 0.0,1E+100,300.0,0,2608)
DeclareVariable("weaDat.conRelHum.k", "Gain value multiplied with input signal [1]",\
- 8216, 0.01, 0.0,0.0,0.0,0,2561)
+ 8176, 0.01, 0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.conRelHum.u", "Input signal connector", "weaDat.datRea.y[3]", 1,\
- 5, 9706, 1024)
+ 5, 9675, 1024)
DeclareAlias2("weaDat.conRelHum.y", "Output signal connector", "weaDat.relHumSel.y", 1,\
- 5, 9730, 1024)
+ 5, 9699, 1024)
DeclareAlias2("weaDat.chePre.PIn", "Atmospheric pressure [Pa]", "weaDat.pAtmSel.p", 1,\
- 5, 8192, 1024)
+ 5, 8152, 1024)
DeclareAlias2("weaDat.chePre.pAtm", "Atmospheric pressure [Pa]", \
-"weaDat.pAtmSel.p", 1, 5, 8192, 1024)
-DeclareVariable("weaDat.chePre.PMin", "Minimum allowed pressure [Pa|bar]", 8217,\
+"weaDat.pAtmSel.p", 1, 5, 8152, 1024)
+DeclareVariable("weaDat.chePre.PMin", "Minimum allowed pressure [Pa|bar]", 8177,\
3100, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.chePre.PMax", "Maximum allowed pressure [Pa|bar]", 8218,\
+DeclareVariable("weaDat.chePre.PMax", "Maximum allowed pressure [Pa|bar]", 8178,\
120000, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.limRelHum.uMin", "Minimum value", 8219, 0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.limRelHum.uMax", "Maximum value", 8220, 1, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.limRelHum.uMin", "Minimum value", 8179, 0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.limRelHum.uMax", "Maximum value", 8180, 1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.limRelHum.u", "Connector of Real input signal", \
-"weaDat.relHumSel.y", 1, 5, 9730, 1024)
+"weaDat.relHumSel.y", 1, 5, 9699, 1024)
DeclareAlias2("weaDat.limRelHum.relHum", "Relative humidity [1]", \
-"building.weaBus.relHum", 1, 5, 8491, 1024)
-DeclareVariable("weaDat.limTotSkyCov.uMin", "Minimum value", 8221, 0, 0.0,0.0,\
+"building.weaBus.relHum", 1, 5, 8454, 1024)
+DeclareVariable("weaDat.limTotSkyCov.uMin", "Minimum value", 8181, 0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("weaDat.limTotSkyCov.uMax", "Maximum value", 8222, 1, 0.0,0.0,\
+DeclareVariable("weaDat.limTotSkyCov.uMax", "Maximum value", 8182, 1, 0.0,0.0,\
0.0,0,2561)
DeclareAlias2("weaDat.limTotSkyCov.u", "Connector of Real input signal", \
-"weaDat.totSkyCovSel.y", 1, 5, 9732, 1024)
+"weaDat.totSkyCovSel.y", 1, 5, 9701, 1024)
DeclareAlias2("weaDat.limTotSkyCov.nTot", "Total sky cover [1]", \
-"building.weaBus.nTot", 1, 5, 8500, 1024)
-DeclareVariable("weaDat.limOpaSkyCov.uMin", "Minimum value", 8223, 0, 0.0,0.0,\
+"building.weaBus.nTot", 1, 5, 8463, 1024)
+DeclareVariable("weaDat.limOpaSkyCov.uMin", "Minimum value", 8183, 0, 0.0,0.0,\
0.0,0,2561)
-DeclareVariable("weaDat.limOpaSkyCov.uMax", "Maximum value", 8224, 1, 0.0,0.0,\
+DeclareVariable("weaDat.limOpaSkyCov.uMax", "Maximum value", 8184, 1, 0.0,0.0,\
0.0,0,2561)
DeclareAlias2("weaDat.limOpaSkyCov.u", "Connector of Real input signal", \
-"weaDat.opaSkyCovSel.y", 1, 5, 9731, 1024)
+"weaDat.opaSkyCovSel.y", 1, 5, 9700, 1024)
DeclareAlias2("weaDat.limOpaSkyCov.nOpa", "Opaque sky cover [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 1024)
+"building.weaBus.nOpa", 1, 5, 8462, 1024)
DeclareAlias2("weaDat.limCeiHei.u", "Connector of Real input signal", \
-"weaDat.datRea.y[16]", 1, 5, 9719, 1024)
+"weaDat.datRea.y[16]", 1, 5, 9688, 1024)
DeclareAlias2("weaDat.limCeiHei.ceiHei", "Cloud cover ceiling height [m]", \
-"building.weaBus.ceiHei", 1, 5, 8498, 1024)
+"building.weaBus.ceiHei", 1, 5, 8461, 1024)
DeclareAlias2("weaDat.limWinSpe.u", "Connector of Real input signal", \
-"weaDat.datRea.y[12]", 1, 5, 9715, 1024)
+"weaDat.datRea.y[12]", 1, 5, 9684, 1024)
DeclareAlias2("weaDat.limWinSpe.winSpe", "Wind speed [m/s]", "building.weaBus.winSpe", 1,\
- 5, 8497, 1024)
+ 5, 8460, 1024)
DeclareAlias2("weaDat.limHorInfRad.u", "Connector of Real input signal", \
-"weaDat.datRea.y[26]", 1, 5, 9729, 1024)
+"weaDat.datRea.y[26]", 1, 5, 9698, 1024)
DeclareAlias2("weaDat.limHorInfRad.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 1024)
-DeclareVariable("weaDat.limWinDir.uMin", "Minimum value", 8225, 0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.limWinDir.uMax", "Maximum value", 8226, 6.283185307179586,\
+ "building.weaBus.HHorIR", 1, 5, 8458, 1024)
+DeclareVariable("weaDat.limWinDir.uMin", "Minimum value", 8185, 0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.limWinDir.uMax", "Maximum value", 8186, 6.283185307179586,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.limWinDir.u", "Connector of Real input signal", \
-"weaDat.winDirSel.y", 1, 5, 9733, 1024)
+"weaDat.winDirSel.y", 1, 5, 9702, 1024)
DeclareAlias2("weaDat.limWinDir.winDir", "Wind direction [rad]", \
-"building.weaBus.winDir", 1, 5, 8496, 1024)
+"building.weaBus.winDir", 1, 5, 8459, 1024)
DeclareVariable("weaDat.TBlaSkyCom.calTSky", "Computation of black-body sky temperature [:#(type=IBPSA.BoundaryConditions.Types.SkyTemperatureCalculation)]",\
- 8227, 2, 1.0,2.0,0.0,0,2565)
+ 8187, 2, 1.0,2.0,0.0,0,2565)
DeclareAlias2("weaDat.TBlaSkyCom.TDryBul", "Dry bulb temperature at ground level [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 1024)
+ "building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("weaDat.TBlaSkyCom.TDewPoi", "Dew point temperature [K|degC]", \
-"building.weaBus.TDewPoi", 1, 5, 8489, 1024)
+"building.weaBus.TDewPoi", 1, 5, 8452, 1024)
DeclareAlias2("weaDat.TBlaSkyCom.nOpa", "Opaque sky cover [0, 1] [1]", \
-"building.weaBus.nOpa", 1, 5, 8499, 1024)
+"building.weaBus.nOpa", 1, 5, 8462, 1024)
DeclareAlias2("weaDat.TBlaSkyCom.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 1024)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 1024)
DeclareAlias2("weaDat.TBlaSkyCom.HHorIR", "Horizontal infrared irradiation [W/m2]",\
- "building.weaBus.HHorIR", 1, 5, 8495, 1024)
-DeclareVariable("weaDat.TBlaSkyCom.TDewPoiK", "Dewpoint temperature [K|degC]", 9737,\
+ "building.weaBus.HHorIR", 1, 5, 8458, 1024)
+DeclareVariable("weaDat.TBlaSkyCom.TDewPoiK", "Dewpoint temperature [K|degC]", 9706,\
288.15, 0.0,1E+100,300.0,0,2560)
DeclareVariable("weaDat.TBlaSkyCom.epsSky", "Black-body absorptivity of sky [1]",\
- 9738, 0.0, 0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.TBlaSkyCom.nOpa10", "Opaque sky cover in [0, 10] []", 9739,\
+ 9707, 0.0, 0.0,0.0,0.0,0,2560)
+DeclareVariable("weaDat.TBlaSkyCom.nOpa10", "Opaque sky cover in [0, 10] []", 9708,\
0.0, 0.0,10.0,0.0,0,2560)
-DeclareAlias2("weaDat.modTim.y", "Model time", "building.weaBus.cloTim", 1, 5, 8506,\
+DeclareAlias2("weaDat.modTim.y", "Model time", "building.weaBus.cloTim", 1, 5, 8469,\
1024)
-DeclareVariable("weaDat.add30Min.u1", "Connector of Real input signal 1", 8228, 1800,\
+DeclareVariable("weaDat.add30Min.u1", "Connector of Real input signal 1", 8188, 1800,\
0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.add30Min.u2", "Connector of Real input signal 2", \
-"building.weaBus.cloTim", 1, 5, 8506, 1024)
-DeclareVariable("weaDat.add30Min.y", "Connector of Real output signal", 9740, \
+"building.weaBus.cloTim", 1, 5, 8469, 1024)
+DeclareVariable("weaDat.add30Min.y", "Connector of Real output signal", 9709, \
0.0, 0.0,0.0,0.0,0,2560)
-DeclareParameter("weaDat.add30Min.k1", "Gain of input signal 1", 1478, 1, \
+DeclareParameter("weaDat.add30Min.k1", "Gain of input signal 1", 1484, 1, \
0.0,0.0,0.0,0,2608)
-DeclareParameter("weaDat.add30Min.k2", "Gain of input signal 2", 1479, 1, \
+DeclareParameter("weaDat.add30Min.k2", "Gain of input signal 2", 1485, 1, \
0.0,0.0,0.0,0,2608)
-DeclareVariable("weaDat.con30Min.k", "Constant output value", 8229, 1800, \
+DeclareVariable("weaDat.con30Min.k", "Constant output value", 8189, 1800, \
0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.con30Min.y", "Connector of Real output signal", 8230, \
+DeclareVariable("weaDat.con30Min.y", "Connector of Real output signal", 8190, \
1800.0, 0.0,0.0,0.0,0,2561)
DeclareParameter("weaDat.locTim.weaDatStaTim", "Start time of weather data [s|d]",\
- 1480, 0, 0.0,0.0,0.0,0,2608)
+ 1486, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("weaDat.locTim.weaDatEndTim", "End time of weather data [s|d]",\
- 1481, 31536000, 0.0,0.0,0.0,0,2608)
+ 1487, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("weaDat.locTim.modTimAux", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 1024)
-DeclareVariable("weaDat.locTim.calTimAux", "Calendar time [s]", 9741, 0.0, \
+ 5, 8469, 1024)
+DeclareVariable("weaDat.locTim.calTimAux", "Calendar time [s]", 9710, 0.0, \
0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.locTim.lenWea", "Length of weather data [s]", 8231, 0.0,\
+DeclareVariable("weaDat.locTim.lenWea", "Length of weather data [s]", 8191, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.locTim.canRepeatWeatherFile", "=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
- 8232, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("weaDat.locTim.tNext", "Start time of next period [s]", 8467, 0,\
+ 8192, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("weaDat.locTim.tNext", "Start time of next period [s]", 8430, 0,\
0.0,0.0,0.0,0,2704)
DeclareAlias2("weaDat.locTim.cloTim", "Clock time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 1024)
-DeclareVariable("weaDat.locTim.timZon", "Time zone [s|h]", 8233, 3600.0, \
+ 5, 8469, 1024)
+DeclareVariable("weaDat.locTim.timZon", "Time zone [s|h]", 8193, 3600.0, \
0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.locTim.lon", "Longitude [rad|deg]", 8234, \
+DeclareVariable("weaDat.locTim.lon", "Longitude [rad|deg]", 8194, \
0.22757907099030072, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.locTim.locTim", "Local civil time [s]", 9742, 0.0, \
+DeclareVariable("weaDat.locTim.locTim", "Local civil time [s]", 9711, 0.0, \
0.0,0.0,0.0,0,2560)
DeclareVariable("weaDat.locTim.diff", "Difference between local and clock time [s]",\
- 8235, -470.5631344194285, 0.0,0.0,0.0,0,2561)
+ 8195, -470.5631344194285, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.datRea30Min.nout", "Number of outputs [:#(type=Integer)]",\
- 8236, 3, 0.0,0.0,0.0,0,2565)
-DeclareVariable("weaDat.datRea30Min.u", "Connector of Real input signal", 9743, \
+ 8196, 3, 0.0,0.0,0.0,0,2565)
+DeclareVariable("weaDat.datRea30Min.u", "Connector of Real input signal", 9712, \
0.0, 0.0,0.0,0.0,0,2560)
DeclareAlias2("weaDat.datRea30Min.y[1]", "Connector of Real output signals", \
-"weaDat.souSelRad.HGloHor_in_internal", 1, 5, 9734, 1024)
+"weaDat.souSelRad.HGloHor_in_internal", 1, 5, 9703, 1024)
DeclareAlias2("weaDat.datRea30Min.y[2]", "Connector of Real output signals", \
-"weaDat.souSelRad.HDirNor_in_internal", 1, 5, 9736, 1024)
+"weaDat.souSelRad.HDirNor_in_internal", 1, 5, 9705, 1024)
DeclareAlias2("weaDat.datRea30Min.y[3]", "Connector of Real output signals", \
-"weaDat.souSelRad.HDifHor_in_internal", 1, 5, 9735, 1024)
+"weaDat.souSelRad.HDifHor_in_internal", 1, 5, 9704, 1024)
DeclareVariable("weaDat.datRea30Min.tableOnFile", "= true, if table is defined on file or in function usertab [:#(type=Boolean)]",\
- 8237, true, 0.0,0.0,0.0,0,2563)
+ 8197, true, 0.0,0.0,0.0,0,2563)
DeclareParameter("weaDat.datRea30Min.verboseRead", "= true, if info message that file is loading is to be printed [:#(type=Boolean)]",\
- 1482, false, 0.0,0.0,0.0,0,2610)
+ 1488, false, 0.0,0.0,0.0,0,2610)
DeclareVariable("weaDat.datRea30Min.columns[1]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8238, 9, 0.0,0.0,0.0,0,2565)
+ 8198, 9, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea30Min.columns[2]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8239, 10, 0.0,0.0,0.0,0,2565)
+ 8199, 10, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea30Min.columns[3]", "Columns of table to be interpolated [:#(type=Integer)]",\
- 8240, 11, 0.0,0.0,0.0,0,2565)
+ 8200, 11, 0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.datRea30Min.smoothness", "Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]",\
- 8241, 2, 1.0,6.0,0.0,0,2565)
+ 8201, 2, 1.0,6.0,0.0,0,2565)
DeclareVariable("weaDat.datRea30Min.extrapolation", "Extrapolation of data outside the definition range [:#(type=Modelica.Blocks.Types.Extrapolation)]",\
- 8242, 2, 1.0,4.0,0.0,0,2565)
+ 8202, 2, 1.0,4.0,0.0,0,2565)
DeclareVariable("weaDat.datRea30Min.verboseExtrapolation", "= true, if warning messages are to be printed if table input is outside the definition range [:#(type=Boolean)]",\
- 8243, false, 0.0,0.0,0.0,0,2563)
+ 8203, false, 0.0,0.0,0.0,0,2563)
DeclareVariable("weaDat.datRea30Min.u_min", "Minimum abscissa value defined in table",\
- 8244, 0.0, 0.0,0.0,0.0,0,2561)
+ 8204, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.datRea30Min.u_max", "Maximum abscissa value defined in table",\
- 8245, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.datRea30Min.tableID.id", "[:#(type=Integer)]", 8246, 0, \
+ 8205, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.datRea30Min.tableID.id", "[:#(type=Integer)]", 8206, 0, \
0.0,0.0,0.0,0,2565)
DeclareVariable("weaDat.conTimMin.weaDatStaTim", "Start time of weather data [s|d]",\
- 8247, 0.0, 0.0,0.0,0.0,0,2561)
+ 8207, 0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.conTimMin.weaDatEndTim", "End time of weather data [s|d]",\
- 8248, 0.0, 0.0,0.0,0.0,0,2561)
+ 8208, 0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.conTimMin.modTimAux", "Model time [s]", "weaDat.add30Min.y", 1,\
- 5, 9740, 1024)
+ 5, 9709, 1024)
DeclareAlias2("weaDat.conTimMin.calTimAux", "Calendar time [s]", \
-"weaDat.datRea30Min.u", 1, 5, 9743, 1024)
-DeclareVariable("weaDat.conTimMin.lenWea", "Length of weather data [s]", 8249, \
+"weaDat.datRea30Min.u", 1, 5, 9712, 1024)
+DeclareVariable("weaDat.conTimMin.lenWea", "Length of weather data [s]", 8209, \
0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.conTimMin.canRepeatWeatherFile", "=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
- 8250, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("weaDat.conTimMin.tNext", "Start time of next period [s]", 8468,\
+ 8210, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("weaDat.conTimMin.tNext", "Start time of next period [s]", 8431,\
0, 0.0,0.0,0.0,0,2704)
DeclareAlias2("weaDat.conTimMin.modTim", "Simulation time [s]", "weaDat.add30Min.y", 1,\
- 5, 9740, 1024)
+ 5, 9709, 1024)
DeclareAlias2("weaDat.conTimMin.calTim", "Calendar time [s]", "weaDat.datRea30Min.u", 1,\
- 5, 9743, 1024)
+ 5, 9712, 1024)
DeclareVariable("weaDat.conTimMin.shiftSolarRad", "Number of seconds for the shift for solar radiation calculation [s]",\
- 8251, 1800, 0.0,0.0,0.0,0,2561)
+ 8211, 1800, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.conTim.weaDatStaTim", "Start time of weather data [s|d]",\
- 8252, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.conTim.weaDatEndTim", "End time of weather data [s|d]", 8253,\
+ 8212, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.conTim.weaDatEndTim", "End time of weather data [s|d]", 8213,\
0.0, 0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.conTim.modTimAux", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 1024)
+ 5, 8469, 1024)
DeclareAlias2("weaDat.conTim.calTimAux", "Calendar time [s]", "weaDat.datRea.u", 1,\
- 5, 9703, 1024)
-DeclareVariable("weaDat.conTim.lenWea", "Length of weather data [s]", 8254, 0.0,\
+ 5, 9672, 1024)
+DeclareVariable("weaDat.conTim.lenWea", "Length of weather data [s]", 8214, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.conTim.canRepeatWeatherFile", "=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
- 8255, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("weaDat.conTim.tNext", "Start time of next period [s]", 8469, 0,\
+ 8215, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("weaDat.conTim.tNext", "Start time of next period [s]", 8432, 0,\
0.0,0.0,0.0,0,2704)
DeclareAlias2("weaDat.conTim.modTim", "Simulation time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 1024)
+ 5, 8469, 1024)
DeclareAlias2("weaDat.conTim.calTim", "Calendar time [s]", "weaDat.datRea.u", 1,\
- 5, 9703, 1024)
+ 5, 9672, 1024)
DeclareVariable("weaDat.conTim.shiftSolarRad", "Number of seconds for the shift for solar radiation calculation [s]",\
- 8256, 1800, 0.0,0.0,0.0,0,2561)
+ 8216, 1800, 0.0,0.0,0.0,0,2561)
DeclareParameter("weaDat.eqnTim.weaDatStaTim", "Start time of weather data [s|d]",\
- 1483, 0, 0.0,0.0,0.0,0,2608)
+ 1489, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("weaDat.eqnTim.weaDatEndTim", "End time of weather data [s|d]",\
- 1484, 31536000, 0.0,0.0,0.0,0,2608)
+ 1490, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("weaDat.eqnTim.modTimAux", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 1024)
-DeclareVariable("weaDat.eqnTim.calTimAux", "Calendar time [s]", 9744, 0.0, \
+ 5, 8469, 1024)
+DeclareVariable("weaDat.eqnTim.calTimAux", "Calendar time [s]", 9713, 0.0, \
0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.eqnTim.lenWea", "Length of weather data [s]", 8257, 0.0,\
+DeclareVariable("weaDat.eqnTim.lenWea", "Length of weather data [s]", 8217, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.eqnTim.canRepeatWeatherFile", "=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
- 8258, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("weaDat.eqnTim.tNext", "Start time of next period [s]", 8470, 0,\
+ 8218, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("weaDat.eqnTim.tNext", "Start time of next period [s]", 8433, 0,\
0.0,0.0,0.0,0,2704)
DeclareAlias2("weaDat.eqnTim.nDay", "Zero-based day number in seconds (January 1=0, January 2=86400) [s]",\
- "building.weaBus.cloTim", 1, 5, 8506, 1024)
-DeclareVariable("weaDat.eqnTim.eqnTim", "Equation of time [s|min]", 9745, 0.0, \
+ "building.weaBus.cloTim", 1, 5, 8469, 1024)
+DeclareVariable("weaDat.eqnTim.eqnTim", "Equation of time [s|min]", 9714, 0.0, \
0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.eqnTim.Bt", "Intermediate variable", 9746, 0.0, 0.0,0.0,\
+DeclareVariable("weaDat.eqnTim.Bt", "Intermediate variable", 9715, 0.0, 0.0,0.0,\
0.0,0,2560)
DeclareAlias2("weaDat.solTim.locTim", "Local time [s]", "weaDat.locTim.locTim", 1,\
- 5, 9742, 1024)
+ 5, 9711, 1024)
DeclareAlias2("weaDat.solTim.equTim", "Equation of time [s]", "weaDat.eqnTim.eqnTim", 1,\
- 5, 9745, 1024)
+ 5, 9714, 1024)
DeclareAlias2("weaDat.solTim.solTim", "Solar time [s|s]", "building.weaBus.solTim", 1,\
- 5, 8505, 1024)
+ 5, 8468, 1024)
DeclareAlias2("weaDat.conWinDir.u", "Connector of Real input signal to be converted [deg]",\
- "weaDat.datRea.y[11]", 1, 5, 9714, 1024)
+ "weaDat.datRea.y[11]", 1, 5, 9683, 1024)
DeclareAlias2("weaDat.conWinDir.y", "Connector of Real output signal containing input signal u in another unit [rad]",\
- "weaDat.winDirSel.y", 1, 5, 9733, 1024)
+ "weaDat.winDirSel.y", 1, 5, 9702, 1024)
DeclareAlias2("weaDat.conTDryBul.u", "Connector of Real input signal to be converted [degC]",\
- "weaDat.datRea.y[1]", 1, 5, 9704, 1024)
+ "weaDat.datRea.y[1]", 1, 5, 9673, 1024)
DeclareAlias2("weaDat.conTDryBul.y", "Connector of Real output signal containing input signal u in another unit [K]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 1024)
+ "building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("weaDat.conTDewPoi.u", "Connector of Real input signal to be converted [degC]",\
- "weaDat.datRea.y[2]", 1, 5, 9705, 1024)
+ "weaDat.datRea.y[2]", 1, 5, 9674, 1024)
DeclareAlias2("weaDat.conTDewPoi.y", "Connector of Real output signal containing input signal u in another unit [K]",\
- "building.weaBus.TDewPoi", 1, 5, 8489, 1024)
+ "building.weaBus.TDewPoi", 1, 5, 8452, 1024)
DeclareAlias2("weaDat.altAng.zen", "Zenith angle [rad]", "building.weaBus.solZen", 1,\
- 5, 8504, 1024)
+ 5, 8467, 1024)
DeclareAlias2("weaDat.altAng.alt", "Solar altitude angle [rad|deg]", \
-"building.weaBus.solAlt", 1, 5, 8501, 1024)
+"building.weaBus.solAlt", 1, 5, 8464, 1024)
DeclareAlias2("weaDat.zenAng.solHouAng", "Solar hour angle [rad]", \
-"building.weaBus.solHouAng", 1, 5, 8503, 1024)
+"building.weaBus.solHouAng", 1, 5, 8466, 1024)
DeclareAlias2("weaDat.zenAng.decAng", "Solar declination angle [rad]", \
-"building.weaBus.solDec", 1, 5, 8502, 1024)
+"building.weaBus.solDec", 1, 5, 8465, 1024)
DeclareAlias2("weaDat.zenAng.zen", "Zenith angle [rad|deg]", "building.weaBus.solZen", 1,\
- 5, 8504, 1024)
-DeclareVariable("weaDat.zenAng.lat", "Latitude [rad|deg]", 8259, \
+ 5, 8467, 1024)
+DeclareVariable("weaDat.zenAng.lat", "Latitude [rad|deg]", 8219, \
0.9116922633158369, 0.0,0.0,0.0,0,2561)
DeclareParameter("weaDat.decAng.weaDatStaTim", "Start time of weather data [s|d]",\
- 1485, 0, 0.0,0.0,0.0,0,2608)
+ 1491, 0, 0.0,0.0,0.0,0,2608)
DeclareParameter("weaDat.decAng.weaDatEndTim", "End time of weather data [s|d]",\
- 1486, 31536000, 0.0,0.0,0.0,0,2608)
+ 1492, 31536000, 0.0,0.0,0.0,0,2608)
DeclareAlias2("weaDat.decAng.modTimAux", "Model time [s]", "building.weaBus.cloTim", 1,\
- 5, 8506, 1024)
-DeclareVariable("weaDat.decAng.calTimAux", "Calendar time [s]", 9747, 0.0, \
+ 5, 8469, 1024)
+DeclareVariable("weaDat.decAng.calTimAux", "Calendar time [s]", 9716, 0.0, \
0.0,0.0,0.0,0,2560)
-DeclareVariable("weaDat.decAng.lenWea", "Length of weather data [s]", 8260, 0.0,\
+DeclareVariable("weaDat.decAng.lenWea", "Length of weather data [s]", 8220, 0.0,\
0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.decAng.canRepeatWeatherFile", "=true, if the weather file can be repeated, since it has the length of a year or a multiple of it [:#(type=Boolean)]",\
- 8261, false, 0.0,0.0,0.0,0,2563)
-DeclareVariable("weaDat.decAng.tNext", "Start time of next period [s]", 8471, 0,\
+ 8221, false, 0.0,0.0,0.0,0,2563)
+DeclareVariable("weaDat.decAng.tNext", "Start time of next period [s]", 8434, 0,\
0.0,0.0,0.0,0,2704)
DeclareAlias2("weaDat.decAng.nDay", "Day number with units of seconds [s]", \
-"building.weaBus.cloTim", 1, 5, 8506, 1024)
+"building.weaBus.cloTim", 1, 5, 8469, 1024)
DeclareAlias2("weaDat.decAng.decAng", "Solar declination angle [rad|deg]", \
-"building.weaBus.solDec", 1, 5, 8502, 1024)
-DeclareVariable("weaDat.decAng.k1", "Constant", 8262, 0.3979486313076103, \
+"building.weaBus.solDec", 1, 5, 8465, 1024)
+DeclareVariable("weaDat.decAng.k1", "Constant", 8222, 0.3979486313076103, \
0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.decAng.k2", "Constant", 8263, 0.017202423838958484, \
+DeclareVariable("weaDat.decAng.k2", "Constant", 8223, 0.017202423838958484, \
0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.solHouAng.solTim", "Solar time [s]", "building.weaBus.solTim", 1,\
- 5, 8505, 1024)
+ 5, 8468, 1024)
DeclareAlias2("weaDat.solHouAng.solHouAng", "Solar hour angle [rad|deg]", \
-"building.weaBus.solHouAng", 1, 5, 8503, 1024)
-DeclareVariable("weaDat.latitude.latitude", "Latitude [rad|deg]", 8264, \
+"building.weaBus.solHouAng", 1, 5, 8466, 1024)
+DeclareVariable("weaDat.latitude.latitude", "Latitude [rad|deg]", 8224, \
0.9116922633158369, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.latitude.y", "Latitude of the location [rad|deg]", 8265,\
+DeclareVariable("weaDat.latitude.y", "Latitude of the location [rad|deg]", 8225,\
0.9116922633158369, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.longitude.longitude", "Longitude [rad|deg]", 8266, \
+DeclareVariable("weaDat.longitude.longitude", "Longitude [rad|deg]", 8226, \
0.22757907099030072, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.longitude.y", "Longitude of the location [rad|deg]", 8267,\
+EndNonAlias(7)
+PreNonAliasNew(8)
+StartNonAlias(8)
+DeclareVariable("weaDat.longitude.y", "Longitude of the location [rad|deg]", 8227,\
0.22757907099030072, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.altitude.Altitude", "Location altitude above sea level [m]",\
- 8268, 0.0, 0.0,0.0,0.0,0,2561)
-DeclareVariable("weaDat.altitude.y", "Location altitude above sea level [m]", 8269,\
+ 8228, 0.0, 0.0,0.0,0.0,0,2561)
+DeclareVariable("weaDat.altitude.y", "Location altitude above sea level [m]", 8229,\
0.0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.tWetBul_TDryBulXi.approximateWetBulb", "Set to true to approximate wet bulb temperature [:#(type=Boolean)]",\
- 8270, false, 0.0,0.0,0.0,0,2563)
+ 8230, false, 0.0,0.0,0.0,0,2563)
DeclareAlias2("weaDat.tWetBul_TDryBulXi.TDryBul", "Dry bulb temperature [K|degC]",\
- "building.weaBus.TDryBul", 1, 5, 8487, 1024)
+ "building.weaBus.TDryBul", 1, 5, 8450, 1024)
DeclareAlias2("weaDat.tWetBul_TDryBulXi.phi", "Relative air humidity", \
-"building.weaBus.relHum", 1, 5, 8491, 1024)
+"building.weaBus.relHum", 1, 5, 8454, 1024)
DeclareAlias2("weaDat.tWetBul_TDryBulXi.p", "Pressure [Pa]", "weaDat.pAtmSel.p", 1,\
- 5, 8192, 1024)
+ 5, 8152, 1024)
DeclareAlias2("weaDat.tWetBul_TDryBulXi.TWetBul", "Wet bulb temperature [K]", \
-"building.weaBus.TWetBul", 1, 5, 8488, 1024)
+"building.weaBus.TWetBul", 1, 5, 8451, 1024)
DeclareVariable("weaDat.tWetBul_TDryBulXi.uniCon1", "Constant to satisfy unit check [1/rad]",\
- 8271, 1, 0.0,0.0,0.0,0,2561)
-EndNonAlias(7)
-PreNonAliasNew(8)
-StartNonAlias(8)
+ 8231, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.tWetBul_TDryBulXi.uniConK", "Constant to satisfy unit check [K/rad]",\
- 8272, 1, 0.0,0.0,0.0,0,2561)
+ 8232, 1, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.tWetBul_TDryBulXi.TDryBul_degC", "Dry bulb temperature in degree Celsius [degC;]",\
- 8273, 0, 0.0,0.0,0.0,0,2561)
+ 8233, 0, 0.0,0.0,0.0,0,2561)
DeclareVariable("weaDat.tWetBul_TDryBulXi.rh_per", "Relative humidity in percentage",\
- 8274, 0, 0.0,1E+100,0.0,0,2561)
+ 8234, 0, 0.0,1E+100,0.0,0,2561)
DeclareVariable("weaDat.tWetBul_TDryBulXi.XiDryBul", "Water vapor mass fraction at dry bulb state [1]",\
- 9748, 0.0, 0.0,1.0,0.0,0,2560)
+ 9717, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("weaDat.tWetBul_TDryBulXi.XiSat", "Water vapor mass fraction at saturation [1]",\
- 9749, 0.0, 0.0,1.0,0.0,0,2560)
+ 9718, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("weaDat.tWetBul_TDryBulXi.XiSatRefIn", "Water vapor mass fraction at saturation, referenced to inlet mass flow rate [1]",\
- 9750, 0.0, 0.0,1.0,0.0,0,2560)
+ 9719, 0.0, 0.0,1.0,0.0,0,2560)
DeclareVariable("weaDat.conTotSkyCov.k", "Gain value multiplied with input signal [1]",\
- 8275, 0.1, 0.0,0.0,0.0,0,2561)
+ 8235, 0.1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.conTotSkyCov.u", "Input signal connector", \
-"weaDat.datRea.y[13]", 1, 5, 9716, 1024)
+"weaDat.datRea.y[13]", 1, 5, 9685, 1024)
DeclareAlias2("weaDat.conTotSkyCov.y", "Output signal connector", \
-"weaDat.totSkyCovSel.y", 1, 5, 9732, 1024)
+"weaDat.totSkyCovSel.y", 1, 5, 9701, 1024)
DeclareVariable("weaDat.conOpaSkyCov.k", "Gain value multiplied with input signal [1]",\
- 8276, 0.1, 0.0,0.0,0.0,0,2561)
+ 8236, 0.1, 0.0,0.0,0.0,0,2561)
DeclareAlias2("weaDat.conOpaSkyCov.u", "Input signal connector", \
-"weaDat.datRea.y[14]", 1, 5, 9717, 1024)
+"weaDat.datRea.y[14]", 1, 5, 9686, 1024)
DeclareAlias2("weaDat.conOpaSkyCov.y", "Output signal connector", \
-"weaDat.opaSkyCovSel.y", 1, 5, 9731, 1024)
+"weaDat.opaSkyCovSel.y", 1, 5, 9700, 1024)
DeclareParameter("weaDat.cheTemBlaSky.TMin", "Minimum allowed temperature [K|degC]",\
- 1487, 0, 0.0,1E+100,300.0,0,2608)
+ 1493, 0, 0.0,1E+100,300.0,0,2608)
DeclareParameter("weaDat.cheTemBlaSky.TMax", "Maximum allowed temperature [K|degC]",\
- 1488, 343.15, 0.0,1E+100,300.0,0,2608)
+ 1494, 343.15, 0.0,1E+100,300.0,0,2608)
DeclareAlias2("weaDat.cheTemBlaSky.TIn", "Black-body sky temperature [K|degC]", \
-"building.weaBus.TBlaSky", 1, 5, 8490, 1024)
+"building.weaBus.TBlaSky", 1, 5, 8453, 1024)
DeclareAlias2("weaDat.cheTemBlaSky.TBlaSky", "Black-body sky temperature [K|degC]",\
- "building.weaBus.TBlaSky", 1, 5, 8490, 1024)
+ "building.weaBus.TBlaSky", 1, 5, 8453, 1024)
DeclareVariable("control.use_openModelica", "=true to disable features which are not available in open modelica [:#(type=Boolean)]",\
- 8277, false, 0.0,0.0,0.0,0,515)
+ 8237, false, 0.0,0.0,0.0,0,515)
DeclareAlias2("control.sigBusHyd.TSetDHWOve", "Connector of Real output signal",\
- "control.constTSetDHW.k", 1, 5, 8282, 4)
+ "control.constTSetDHW.k", 1, 5, 8242, 4)
DeclareAlias2("control.sigBusHyd.oveTSetDHW", "Connector of Real output signal used as actuator signal [:#(type=Boolean)]",\
- "control.hys.y", 1, 5, 8472, 69)
+ "control.hys.y", 1, 5, 8435, 69)
DeclareAlias2("control.sigBusHyd.TBuiLoc", "[K|degC]", "hydraulic.control.buiAndDHWCtr.TBuiSet", 1,\
- 5, 9250, 4)
-DeclareVariable("control.sigBusHyd.TSetDHW", "DHW set temperature [K|degC]", 8278,\
+ 5, 9219, 4)
+DeclareVariable("control.sigBusHyd.TSetDHW", "DHW set temperature [K|degC]", 8238,\
323.15, 0.0,0.0,0.0,0,521)
DeclareAlias2("control.sigBusHyd.TStoDHWTop", "Connector of Real output signal",\
- "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9430, 4)
+ "hydraulic.distribution.T_stoDHWTop.y", 1, 5, 9399, 4)
DeclareAlias2("control.useProBus.TZoneSet[1]", "[K|degC]", "building.useProBus.TZoneSet[1]", 1,\
- 5, 8283, 4)
-DeclareVariable("control.useProBus.intGains[1]", "Output signal connector", 9751,\
+ 5, 8243, 4)
+DeclareVariable("control.useProBus.intGains[1]", "Output signal connector", 9720,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("control.useProBus.intGains[2]", "Output signal connector", 9752,\
+DeclareVariable("control.useProBus.intGains[2]", "Output signal connector", 9721,\
0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("control.useProBus.intGains[3]", "Output signal connector", 9753,\
+DeclareVariable("control.useProBus.intGains[3]", "Output signal connector", 9722,\
0.0, 0.0,0.0,0.0,0,520)
DeclareAlias2("control.buiMeaBus.TZoneMea[1]", "[K|degC]", "building.buiMeaBus.TZoneMea[1]", 1,\
- 5, 8507, 4)
+ 5, 8470, 4)
DeclareVariable("control.buiMeaBus.TZoneOpeMea[1]", "Connector of Real output signal [K|degC]",\
- 9754, 0.0, 0.0,0.0,0.0,0,520)
-DeclareVariable("control.reaExp.y", "Value of Real output", 9755, 0.0, 0.0,0.0,\
+ 9723, 0.0, 0.0,0.0,0.0,0,520)
+DeclareVariable("control.reaExp.y", "Value of Real output", 9724, 0.0, 0.0,0.0,\
0.0,0,512)
DeclareAlias2("control.hys.reference", "Connector of Real input signal used as reference signal",\
- "control.const.k", 1, 5, 8280, 0)
+ "control.const.k", 1, 5, 8240, 0)
DeclareAlias2("control.hys.u", "Connector of Real input signal used as measurement signal",\
- "control.reaExp.y", 1, 5, 9755, 0)
+ "control.reaExp.y", 1, 5, 9724, 0)
DeclareVariable("control.hys.y", "Connector of Real output signal used as actuator signal [:#(type=Boolean)]",\
- 8472, false, 0.0,0.0,0.0,0,642)
-DeclareVariable("control.hys.bandwidth", "Bandwidth around reference signal", 8279,\
+ 8435, false, 0.0,0.0,0.0,0,642)
+DeclareVariable("control.hys.bandwidth", "Bandwidth around reference signal", 8239,\
0.1, 0.0,0.0,0.0,0,513)
DeclareParameter("control.hys.pre_y_start", "Value of pre(y) at initial time [:#(type=Boolean)]",\
- 1489, false, 0.0,0.0,0.0,0,562)
-DeclareVariable("control.const.k", "Constant output value", 8280, 1, 0.0,0.0,0.0,\
+ 1495, false, 0.0,0.0,0.0,0,562)
+DeclareVariable("control.const.k", "Constant output value", 8240, 1, 0.0,0.0,0.0,\
0,513)
DeclareAlias2("control.const.y", "Connector of Real output signal", \
-"control.const.k", 1, 5, 8280, 0)
+"control.const.k", 1, 5, 8240, 0)
DeclareParameter("control.houOveHea", "Time of the day where overheating of DHW starts [s|h]",\
- 1490, 43200, 0.0,0.0,0.0,0,560)
+ 1496, 43200, 0.0,0.0,0.0,0,560)
DeclareParameter("control.dtOveHea", "Time prior and after houOveHea to activate overheating [s|h]",\
- 1491, 3600, 0.0,0.0,0.0,0,560)
-DeclareVariable("control.TSetDHW", "DHW set temperature [K|degC]", 8281, 323.15,\
+ 1497, 3600, 0.0,0.0,0.0,0,560)
+DeclareVariable("control.TSetDHW", "DHW set temperature [K|degC]", 8241, 323.15,\
0.0,1E+100,300.0,0,513)
DeclareParameter("control.dTDHW", "Temperature added to DHW setpoint on overheating [K,]",\
- 1492, 5, 0.0,0.0,0.0,0,560)
-DeclareVariable("control.constTSetDHW.k", "Constant output value", 8282, 1, \
+ 1498, 5, 0.0,0.0,0.0,0,560)
+DeclareVariable("control.constTSetDHW.k", "Constant output value", 8242, 1, \
0.0,0.0,0.0,0,513)
DeclareAlias2("control.constTSetDHW.y", "Connector of Real output signal", \
-"control.constTSetDHW.k", 1, 5, 8282, 0)
+"control.constTSetDHW.k", 1, 5, 8242, 0)
DeclareOutput("electricalGrid.PElecLoa", "Electrical power flow; positive = power consumption; negative = power generation [W]",\
42, 0.0, 0.0,0.0,0.0,0,520)
DeclareOutput("electricalGrid.PElecGen", "Electrical power flow; positive = power generation; negative = power consumption [W]",\
diff --git a/BuildingSim/working_dir/Modelica_RollOut/dymosim.exe b/BuildingSim/working_dir/Modelica_RollOut/dymosim.exe
index 70522ee93a5eb4fe77bfb01fa3c0b20f08a8f611..6dda65ad43a7255192a5c7da43a38e76be7469c8 100644
Binary files a/BuildingSim/working_dir/Modelica_RollOut/dymosim.exe and b/BuildingSim/working_dir/Modelica_RollOut/dymosim.exe differ