diff --git a/README.md b/README.md
index e64e7e29f515915ef9a2b771fdd1f658c0b7c1e7..fb1ca0faeef37f456e16a52a4588b93a55b4a437 100644
--- a/README.md
+++ b/README.md
@@ -18,7 +18,7 @@ import heatpipepy
             wick_type="sintered"
         )
 ```
-Then, the limits or resistance can be calculated as follows:
+Then, the operating limits of the heat pipe can be checked by calling for "check_operating_limits()" method:
 ```
 limits = hp.check_operating_limits(
         heat_load=30, 
@@ -28,10 +28,34 @@ limits = hp.check_operating_limits(
         operating_temp=353.15
     )
 
+It displays results as follows:
+```
+{   'capillary_limit': 0.003080575693712556, 
+    'sonic_limit': 1105.320667534435, 
+    'boiling_limit': 99.48474115077742, 
+    'entrainment_limit': 221.33230428405872, 
+    'viscous_limit': 12297.893181534095, 
+    'overall_limit': 0.003080575693712556, 
+    'limiting_factor': 'capillary_limit', 
+    'is_operational': False, 
+    'operation_margin': 0
+}
+
+The thermal resistance of the heat pipe can be evaluated with the "calculate_thermal_resistance" method:
+```
 results = hp.calculate_thermal_resistance(
             heat_load=100,      
             evap_length=0.05,   
             cond_length=0.10,   
             operating_temp=353.15
         )
-```
\ No newline at end of file
+```
+Which gives:
+```
+{   'R_wall_evaporator': 0.0011387603313016796,
+    'R_wall_condenser': 0.0005693801656508398, 
+    'R_wick_evaporator': 0.08991873466017047, 
+    'R_wick_condenser': 0.04495936733008524, 
+    'R_total': 0.13658624248720824
+}
+```