Pu_Add state of the art calculation of C_out

@BearImp/calcCap.m

@@ -90,6 +90,8 @@ for posBall_conductive=1:L.numberOfConductiveBalls
     if any(B.noContactInd,'all') % Wenn Kraftfreie Wälzkörper vorhanden
         switch method.unloadedRE
             case 'neglect'
+            case 'stateOfTheArt'
+                stateOfTheArt(find(contactInd==0))
             case 'Leander_Parallel'
                 leander_parallel(B.noContactInd)
             case 'Leander_Radial'
@@ -113,6 +115,8 @@ for posBall_conductive=1:L.numberOfConductiveBalls
         case 'neglect'
         case 'k-factor'
             C.C_Hertz(:,contactInd,posBall_conductive) = C.k_C .* obj.epsilon_0 .* C.epsilon_primeOil(:,contactInd) .* temp_A(:,contactInd) ./ H.h_minth(:,contactInd);
+        case 'stateOfTheArt'
+            stateOfTheArt(find(contactInd==1))
         case 'Leander_Parallel'
             leander_parallel(B.contactInd)
         case 'Leander_Radial'
@@ -169,6 +173,19 @@ function calcZg
         C.g_2a = acos(L.B_a/(2*tempR_la));
 end
 
+function stateOfTheArt(indices)
+    y_max_i = @(x) G.R_y(1).*(1-x.^2./2./G.R_x(1).^2);
+    y_max_a = @(x) G.R_y(2).*(1-x.^2./2./G.R_x(2).^2);
+    for ii = indices
+        h_i = @(x,y) B.s(ii) + x.^2./2./G.R_x(1) + y.^2./2./G.R_y(1);
+        h_a = @(x,y) B.s(ii) + x.^2./2./G.R_x(2) + y.^2./2./G.R_y(2);
+        C.C_out(1,ii) = 4 * obj.epsilon_0 * S.epsilon_Oel * integral2(@(x,y) 1./h_i(x,y),temp_a(1,ii),G.R_x(1),temp_b(1,ii),y_max_i);
+        C.C_out(2,ii) = 4 * obj.epsilon_0 * S.epsilon_Oel * integral2(@(x,y) 1./h_a(x,y),temp_a(2,ii),G.R_x(2),temp_b(2,ii),y_max_a);
+    end
+end
+
+
+
 function leander_parallel(indices)
     C.R_hi = @(v) G.R_bi.*sqrt(1-(tempR_RE/G.R_bi.*cos(v)).^2);
     C.R_ha = @(v) G.R_ba.*sqrt(1-(tempR_RE/G.R_ba.*cos(v)).^2);

possibleMethods.m

@@ -23,8 +23,8 @@ classdef possibleMethods
             s = {'Hamrock/Dowson','Moes'};
         end
         function s = C
-            s.unloadedRE  = {           'neglect','Leander_Parallel','Leander_Radial','LeanderSteffen','TobiasSteffen_Kugelfläche','TobiasSteffen_Laufbahnfläche','semianalytisch3D'};
-            s.outsideArea = {'k-factor','neglect','Leander_Parallel','Leander_Radial','LeanderSteffen','TobiasSteffen_Kugelfläche','TobiasSteffen_Laufbahnfläche','semianalytisch3D'};
+            s.unloadedRE  = {           'neglect','stateOfTheArt','Leander_Parallel','Leander_Radial','LeanderSteffen','TobiasSteffen_Kugelfläche','TobiasSteffen_Laufbahnfläche','semianalytisch3D'};
+            s.outsideArea = {'k-factor','neglect','stateOfTheArt','Leander_Parallel','Leander_Radial','LeanderSteffen','TobiasSteffen_Kugelfläche','TobiasSteffen_Laufbahnfläche','semianalytisch3D'};
         end
         
         function s = Default