Graph Related Problems
PHXI12:THERMODYNAMICS

371280 An ideal gas is taken through a cyclic thermodynamical process through four steps. The amounts of heat involved in these steps are:\({Q_1} = 5960\,J,{Q_2} = - 5585\,J,{Q_3} = - 2980\,J\), \({Q_4} = 3645\,J\) respectively. The corresponding works involved are \({W_1} = 2200\,J,{W_2} = - 825\,J,{W_3} = - 1100\,J\) and \(W_{4}\) respectively. The value of \(W_{4}\) is :

1 \(1315\;J\)
2 \(275\;J\)
3 \(765\;J\)
4 \(675\;J\)
PHXI12:THERMODYNAMICS

371281 The heat absorbed by a system in going through the given cyclic process is
supporting img

1 \({19.6 J}\)
2 \({61.6 J}\)
3 \(431.2{\text{ }}J\)
4 \({616 J}\)
PHXI12:THERMODYNAMICS

371282 A thermodynamic system is taken from an original state \({A}\) to an intermediate state \({B}\) by a linear process as shown in the figure. It's volume is then reduced to the original value from to by an isobaric process. The total work done by the gas from \({A}\) to \({B}\) and \({B}\) to \({C}\) would be
supporting img

1 \({1200 J}\)
2 \({600 J}\)
3 \({2200 J}\)
4 \(800{\text{ }}J\)
PHXI12:THERMODYNAMICS

371283 A thermodynamic system is taken through the cycle abcda. The work done by the gas along the path \({b c}\) is:
supporting img

1 Zero
2 \({30 J}\)
3 \({-90 J}\)
4 \({-60 J}\)
PHXI12:THERMODYNAMICS

371280 An ideal gas is taken through a cyclic thermodynamical process through four steps. The amounts of heat involved in these steps are:\({Q_1} = 5960\,J,{Q_2} = - 5585\,J,{Q_3} = - 2980\,J\), \({Q_4} = 3645\,J\) respectively. The corresponding works involved are \({W_1} = 2200\,J,{W_2} = - 825\,J,{W_3} = - 1100\,J\) and \(W_{4}\) respectively. The value of \(W_{4}\) is :

1 \(1315\;J\)
2 \(275\;J\)
3 \(765\;J\)
4 \(675\;J\)
PHXI12:THERMODYNAMICS

371281 The heat absorbed by a system in going through the given cyclic process is
supporting img

1 \({19.6 J}\)
2 \({61.6 J}\)
3 \(431.2{\text{ }}J\)
4 \({616 J}\)
PHXI12:THERMODYNAMICS

371282 A thermodynamic system is taken from an original state \({A}\) to an intermediate state \({B}\) by a linear process as shown in the figure. It's volume is then reduced to the original value from to by an isobaric process. The total work done by the gas from \({A}\) to \({B}\) and \({B}\) to \({C}\) would be
supporting img

1 \({1200 J}\)
2 \({600 J}\)
3 \({2200 J}\)
4 \(800{\text{ }}J\)
PHXI12:THERMODYNAMICS

371283 A thermodynamic system is taken through the cycle abcda. The work done by the gas along the path \({b c}\) is:
supporting img

1 Zero
2 \({30 J}\)
3 \({-90 J}\)
4 \({-60 J}\)
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXI12:THERMODYNAMICS

371280 An ideal gas is taken through a cyclic thermodynamical process through four steps. The amounts of heat involved in these steps are:\({Q_1} = 5960\,J,{Q_2} = - 5585\,J,{Q_3} = - 2980\,J\), \({Q_4} = 3645\,J\) respectively. The corresponding works involved are \({W_1} = 2200\,J,{W_2} = - 825\,J,{W_3} = - 1100\,J\) and \(W_{4}\) respectively. The value of \(W_{4}\) is :

1 \(1315\;J\)
2 \(275\;J\)
3 \(765\;J\)
4 \(675\;J\)
PHXI12:THERMODYNAMICS

371281 The heat absorbed by a system in going through the given cyclic process is
supporting img

1 \({19.6 J}\)
2 \({61.6 J}\)
3 \(431.2{\text{ }}J\)
4 \({616 J}\)
PHXI12:THERMODYNAMICS

371282 A thermodynamic system is taken from an original state \({A}\) to an intermediate state \({B}\) by a linear process as shown in the figure. It's volume is then reduced to the original value from to by an isobaric process. The total work done by the gas from \({A}\) to \({B}\) and \({B}\) to \({C}\) would be
supporting img

1 \({1200 J}\)
2 \({600 J}\)
3 \({2200 J}\)
4 \(800{\text{ }}J\)
PHXI12:THERMODYNAMICS

371283 A thermodynamic system is taken through the cycle abcda. The work done by the gas along the path \({b c}\) is:
supporting img

1 Zero
2 \({30 J}\)
3 \({-90 J}\)
4 \({-60 J}\)
PHXI12:THERMODYNAMICS

371280 An ideal gas is taken through a cyclic thermodynamical process through four steps. The amounts of heat involved in these steps are:\({Q_1} = 5960\,J,{Q_2} = - 5585\,J,{Q_3} = - 2980\,J\), \({Q_4} = 3645\,J\) respectively. The corresponding works involved are \({W_1} = 2200\,J,{W_2} = - 825\,J,{W_3} = - 1100\,J\) and \(W_{4}\) respectively. The value of \(W_{4}\) is :

1 \(1315\;J\)
2 \(275\;J\)
3 \(765\;J\)
4 \(675\;J\)
PHXI12:THERMODYNAMICS

371281 The heat absorbed by a system in going through the given cyclic process is
supporting img

1 \({19.6 J}\)
2 \({61.6 J}\)
3 \(431.2{\text{ }}J\)
4 \({616 J}\)
PHXI12:THERMODYNAMICS

371282 A thermodynamic system is taken from an original state \({A}\) to an intermediate state \({B}\) by a linear process as shown in the figure. It's volume is then reduced to the original value from to by an isobaric process. The total work done by the gas from \({A}\) to \({B}\) and \({B}\) to \({C}\) would be
supporting img

1 \({1200 J}\)
2 \({600 J}\)
3 \({2200 J}\)
4 \(800{\text{ }}J\)
PHXI12:THERMODYNAMICS

371283 A thermodynamic system is taken through the cycle abcda. The work done by the gas along the path \({b c}\) is:
supporting img

1 Zero
2 \({30 J}\)
3 \({-90 J}\)
4 \({-60 J}\)