Please solve this problem Consider Case #2 from Table 1:Table 1: Case numbers and their respective P1 and V2Initial pressure (P1)Volume in state 2 (V2)Case #(kPa)(m)19000.30610000.27012000.216414000.186510000.234a) Find the temperature when the piston just touched the stopper (T2) in °C.b) Find the final pressure (P3) in kPa.c) Find the total heat transfer from state 1 to state 3.d)Draw a T-v in reference to the saturation line showing the constant pressure lines and all thestates. A closed piston-cylinder assembly as shown in Figure 1 filled with 12 kg of Refrigerant-22 has aninitial temperature of T1 = (10X14) °C and pressure P1. The refrigerant is brought to a state whereits temperature reaches 0°C through a two-step process by removing heat into the surrounding.The piston moves freely without friction keeping the pressure in the piston equal to P1 until thepiston hits the stopper. Both kinetic and potential differences of the refrigerant are neglected.Piston-Piston-PistonState 1State 2State 3

Given: P1 = 1000 kPa T1 = 140 °C m = 12 kg V2 = 0.270 m3 T3 = 0 °C

Consider Case #2 from Table 1: Table 1: Case numbers and their respective Pg and V2 Initial pressure (P1) Volume in state 2 (V2) Case # (kPa) (m³) 1 900 0.306 2 1000 0.270 1200 0.216 4 1400 0.186 5 1000 0.234 a) Find the temperature when the piston just touched the stopper (T2) in °C. b) Find the final pressure (P3) in kPa. c) Find the total heat transfer from state 1 to state 3. d) Draw a T-v in reference to the saturation line showing the constant pressure lines and all the states.

Consider Case #2 from Table 1: Table 1: Case numbers and their respective Pg and V2 Initial pressure (P1) Volume in state 2 (V2) Case # (kPa) (m³) 1 900 0.306 2 1000 0.270 1200 0.216 4 1400 0.186 5 1000 0.234 a) Find the temperature when the piston just touched the stopper (T2) in °C. b) Find the final pressure (P3) in kPa. c) Find the total heat transfer from state 1 to state 3. d) Draw a T-v in reference to the saturation line showing the constant pressure lines and all the states.

Refrigeration and Air Conditioning Technology (MindTap Course List)

8th Edition

ISBN:9781305578296

Author:John Tomczyk, Eugene Silberstein, Bill Whitman, Bill Johnson

Publisher:John Tomczyk, Eugene Silberstein, Bill Whitman, Bill Johnson

Chapter1: Heat, Temperature, And Pressure

Section: Chapter Questions

Problem 6RQ: One British thermal unit will raise the temperature of _____ 1b of water _____F.

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