Create relationships between the coldside fluid's thermal conductivity and specific heat capacity throughout the appropriate temperature...

 

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Create relationships between the coldside fluid's thermal conductivity and specific heat capacity throughout the appropriate temperature range. These can be used to fill up the heat exchanger model's cells so that each thermophysical property's value automatically changes in response to temperature changes. Find for the cold side of the specific heat capacity of Ethylene Glycol Solution cold side 35 degrees ( EGS (%) 0 10 20 30 40 50 0 Inlet Outlet 1.0038 0.97236 0.93576 0.89889 0.85858 0.81485 10 1.0018 0.97422 0.93976 0.90405 0.86484 0.82217 20 Coldside 40°C 45±0.5°C 1.0004 temperature 0.97619 0.94375 0.9092 0.87111 0.82949 30 0.99943 0.97827 0.94775 0.91436 0.87737 0.83682 40 0.99902 0.98047 0.95175 0.91951 0.88364 0.84414 50 0.99913 0.98279 0.95574 0.92467 0.8899 0.85146 Create relationships between the coldside fluid's thermal conductivity and specific heat capacity throughout the appropriate temperature range. These can be used to fill up the heat exchanger model's cells so that each thermophysical property's value automatically changes in response to temperature changes. Find for the cold side of the specific heat capacity of Ethylene Glycol Solution cold side 35 degrees ( EGS (%) 0 10 20 30 40 50 0 Inlet Outlet 1.0038 0.97236 0.93576 0.89889 0.85858 0.81485 10 1.0018 0.97422 0.93976 0.90405 0.86484 0.82217 20 Coldside 40°C 45±0.5°C 1.0004 temperature 0.97619 0.94375 0.9092 0.87111 0.82949 30 0.99943 0.97827 0.94775 0.91436 0.87737 0.83682 40 0.99902 0.98047 0.95175 0.91951 0.88364 0.84414 50 0.99913 0.98279 0.95574 0.92467 0.8899 0.85146