A real gas within a closed chamber at 27°C undergoes the cyclic process as shown in figure. The gas obeys $PV^3 = ext{RT}$ equation for the path A to B. The net work done in the complete cycle is (assuming R = 8 J/molK): [Diagram: A PV diagram showing a cyclic process A-B, B-C, C-A]

Question

A real gas within a closed chamber at 27°C undergoes the cyclic process as shown in figure. The gas obeys $PV^3 = 	ext{RT}$ equation for the path A to B. The net work done in the complete cycle is (assuming R = 8 J/molK): [Diagram: A PV diagram showing a cyclic process A->B, B->C, C->A]

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205 J

Questions

A real gas within a closed chamber at 27°C undergoes the cyclic process as shown in figure. The gas obeys $PV^3 = \text{RT}$ equation for the path A to B. The net work done in the complete cycle is (assuming R = 8 J/molK): [Diagram: A PV diagram showing a cyclic process A->B, B->C, C->A]

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Questions

A real gas within a closed chamber at 27°C undergoes the cyclic process as shown in figure. The gas obeys PV3=RTPV^3 = \text{RT}PV3=RT equation for the path A to B. The net work done in the complete cycle is (assuming R = 8 J/molK): [Diagram: A PV diagram showing a cyclic process A->B, B->C, C->A]

Related questions

A real gas within a closed chamber at 27°C undergoes the cyclic process as shown in figure. The gas obeys $PV^3 = \text{RT}$ equation for the path A to B. The net work done in the complete cycle is (assuming R = 8 J/molK): [Diagram: A PV diagram showing a cyclic process A->B, B->C, C->A]