Graph Related Problems
PHXI12:THERMODYNAMICS

371271 An ideal gas undergoes cyclic process \(A B C D A\) as shown in given \(P - V\) diagram. The amount of work done by the gas is
supporting img

1 \(6\,{p_0}{V_0}\)
2 \( - 2\,{p_0}{V_0}\)
3 \( + 2\,{p_0}{V_0}\)
4 \( + 4\,{p_0}{V_0}\)
PHXI12:THERMODYNAMICS

371272 supporting img
The above \(P - V\) diagram represents the thermodynamic cycle of an engine, operating with an ideal monoatomic gas. The amount of heat, extracted from the source in a single cycle is :

1 \(P_{0} V_{0}\)
2 \(\left(\dfrac{13}{2}\right) P_{0} V_{0}\)
3 \(\left(\dfrac{11}{2}\right) P_{0} V_{0}\)
4 \(4 P_{0} V_{0}\)
PHXI12:THERMODYNAMICS

371273 An ideal gas is taken via path \(A B C A\) as shown in figure. The net workdone in the whole cycle is
supporting img

1 \(6\,{P_1}\;{V_1}\)
2 zero
3 \(3\,{P_1}\;{V_1}\)
4 \( - 3\,{P_1}\;{V_1}\)
PHXI12:THERMODYNAMICS

371274 The \(P-V\) diagram of a system undergoing thermodynamic transformation is shown in figure. The work done by the system in going from \(A \rightarrow B \rightarrow C\) is \(30\;J\), and \(40\;J\) heat is given to the system. The change in internal energy between \(A\) and \(C\) is
supporting img

1 \(134\;J\)
2 \(10\;J\)
3 \(70\;J\)
4 \(84\;J\)
PHXI12:THERMODYNAMICS

371275 A gas is taken through the cycle \(A \to B \to C \to A\), as shown in the figure.
What is the net work done by the gas?
supporting img

1 \(2000 \mathrm{~J}\)
2 \(1000 \mathrm{~J}\)
3 Zero
4 \(-2000 \mathrm{~J}\)
PHXI12:THERMODYNAMICS

371271 An ideal gas undergoes cyclic process \(A B C D A\) as shown in given \(P - V\) diagram. The amount of work done by the gas is
supporting img

1 \(6\,{p_0}{V_0}\)
2 \( - 2\,{p_0}{V_0}\)
3 \( + 2\,{p_0}{V_0}\)
4 \( + 4\,{p_0}{V_0}\)
PHXI12:THERMODYNAMICS

371272 supporting img
The above \(P - V\) diagram represents the thermodynamic cycle of an engine, operating with an ideal monoatomic gas. The amount of heat, extracted from the source in a single cycle is :

1 \(P_{0} V_{0}\)
2 \(\left(\dfrac{13}{2}\right) P_{0} V_{0}\)
3 \(\left(\dfrac{11}{2}\right) P_{0} V_{0}\)
4 \(4 P_{0} V_{0}\)
PHXI12:THERMODYNAMICS

371273 An ideal gas is taken via path \(A B C A\) as shown in figure. The net workdone in the whole cycle is
supporting img

1 \(6\,{P_1}\;{V_1}\)
2 zero
3 \(3\,{P_1}\;{V_1}\)
4 \( - 3\,{P_1}\;{V_1}\)
PHXI12:THERMODYNAMICS

371274 The \(P-V\) diagram of a system undergoing thermodynamic transformation is shown in figure. The work done by the system in going from \(A \rightarrow B \rightarrow C\) is \(30\;J\), and \(40\;J\) heat is given to the system. The change in internal energy between \(A\) and \(C\) is
supporting img

1 \(134\;J\)
2 \(10\;J\)
3 \(70\;J\)
4 \(84\;J\)
PHXI12:THERMODYNAMICS

371275 A gas is taken through the cycle \(A \to B \to C \to A\), as shown in the figure.
What is the net work done by the gas?
supporting img

1 \(2000 \mathrm{~J}\)
2 \(1000 \mathrm{~J}\)
3 Zero
4 \(-2000 \mathrm{~J}\)
PHXI12:THERMODYNAMICS

371271 An ideal gas undergoes cyclic process \(A B C D A\) as shown in given \(P - V\) diagram. The amount of work done by the gas is
supporting img

1 \(6\,{p_0}{V_0}\)
2 \( - 2\,{p_0}{V_0}\)
3 \( + 2\,{p_0}{V_0}\)
4 \( + 4\,{p_0}{V_0}\)
PHXI12:THERMODYNAMICS

371272 supporting img
The above \(P - V\) diagram represents the thermodynamic cycle of an engine, operating with an ideal monoatomic gas. The amount of heat, extracted from the source in a single cycle is :

1 \(P_{0} V_{0}\)
2 \(\left(\dfrac{13}{2}\right) P_{0} V_{0}\)
3 \(\left(\dfrac{11}{2}\right) P_{0} V_{0}\)
4 \(4 P_{0} V_{0}\)
PHXI12:THERMODYNAMICS

371273 An ideal gas is taken via path \(A B C A\) as shown in figure. The net workdone in the whole cycle is
supporting img

1 \(6\,{P_1}\;{V_1}\)
2 zero
3 \(3\,{P_1}\;{V_1}\)
4 \( - 3\,{P_1}\;{V_1}\)
PHXI12:THERMODYNAMICS

371274 The \(P-V\) diagram of a system undergoing thermodynamic transformation is shown in figure. The work done by the system in going from \(A \rightarrow B \rightarrow C\) is \(30\;J\), and \(40\;J\) heat is given to the system. The change in internal energy between \(A\) and \(C\) is
supporting img

1 \(134\;J\)
2 \(10\;J\)
3 \(70\;J\)
4 \(84\;J\)
PHXI12:THERMODYNAMICS

371275 A gas is taken through the cycle \(A \to B \to C \to A\), as shown in the figure.
What is the net work done by the gas?
supporting img

1 \(2000 \mathrm{~J}\)
2 \(1000 \mathrm{~J}\)
3 Zero
4 \(-2000 \mathrm{~J}\)
PHXI12:THERMODYNAMICS

371271 An ideal gas undergoes cyclic process \(A B C D A\) as shown in given \(P - V\) diagram. The amount of work done by the gas is
supporting img

1 \(6\,{p_0}{V_0}\)
2 \( - 2\,{p_0}{V_0}\)
3 \( + 2\,{p_0}{V_0}\)
4 \( + 4\,{p_0}{V_0}\)
PHXI12:THERMODYNAMICS

371272 supporting img
The above \(P - V\) diagram represents the thermodynamic cycle of an engine, operating with an ideal monoatomic gas. The amount of heat, extracted from the source in a single cycle is :

1 \(P_{0} V_{0}\)
2 \(\left(\dfrac{13}{2}\right) P_{0} V_{0}\)
3 \(\left(\dfrac{11}{2}\right) P_{0} V_{0}\)
4 \(4 P_{0} V_{0}\)
PHXI12:THERMODYNAMICS

371273 An ideal gas is taken via path \(A B C A\) as shown in figure. The net workdone in the whole cycle is
supporting img

1 \(6\,{P_1}\;{V_1}\)
2 zero
3 \(3\,{P_1}\;{V_1}\)
4 \( - 3\,{P_1}\;{V_1}\)
PHXI12:THERMODYNAMICS

371274 The \(P-V\) diagram of a system undergoing thermodynamic transformation is shown in figure. The work done by the system in going from \(A \rightarrow B \rightarrow C\) is \(30\;J\), and \(40\;J\) heat is given to the system. The change in internal energy between \(A\) and \(C\) is
supporting img

1 \(134\;J\)
2 \(10\;J\)
3 \(70\;J\)
4 \(84\;J\)
PHXI12:THERMODYNAMICS

371275 A gas is taken through the cycle \(A \to B \to C \to A\), as shown in the figure.
What is the net work done by the gas?
supporting img

1 \(2000 \mathrm{~J}\)
2 \(1000 \mathrm{~J}\)
3 Zero
4 \(-2000 \mathrm{~J}\)
PHXI12:THERMODYNAMICS

371271 An ideal gas undergoes cyclic process \(A B C D A\) as shown in given \(P - V\) diagram. The amount of work done by the gas is
supporting img

1 \(6\,{p_0}{V_0}\)
2 \( - 2\,{p_0}{V_0}\)
3 \( + 2\,{p_0}{V_0}\)
4 \( + 4\,{p_0}{V_0}\)
PHXI12:THERMODYNAMICS

371272 supporting img
The above \(P - V\) diagram represents the thermodynamic cycle of an engine, operating with an ideal monoatomic gas. The amount of heat, extracted from the source in a single cycle is :

1 \(P_{0} V_{0}\)
2 \(\left(\dfrac{13}{2}\right) P_{0} V_{0}\)
3 \(\left(\dfrac{11}{2}\right) P_{0} V_{0}\)
4 \(4 P_{0} V_{0}\)
PHXI12:THERMODYNAMICS

371273 An ideal gas is taken via path \(A B C A\) as shown in figure. The net workdone in the whole cycle is
supporting img

1 \(6\,{P_1}\;{V_1}\)
2 zero
3 \(3\,{P_1}\;{V_1}\)
4 \( - 3\,{P_1}\;{V_1}\)
PHXI12:THERMODYNAMICS

371274 The \(P-V\) diagram of a system undergoing thermodynamic transformation is shown in figure. The work done by the system in going from \(A \rightarrow B \rightarrow C\) is \(30\;J\), and \(40\;J\) heat is given to the system. The change in internal energy between \(A\) and \(C\) is
supporting img

1 \(134\;J\)
2 \(10\;J\)
3 \(70\;J\)
4 \(84\;J\)
PHXI12:THERMODYNAMICS

371275 A gas is taken through the cycle \(A \to B \to C \to A\), as shown in the figure.
What is the net work done by the gas?
supporting img

1 \(2000 \mathrm{~J}\)
2 \(1000 \mathrm{~J}\)
3 Zero
4 \(-2000 \mathrm{~J}\)