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The state of a mole of an ideal gas chan...

The state of a mole of an ideal gas changed from state `A` at pressure `2P` and volume `V` follows four different processes and finally returns to initial state `A` reversibly as shown below in the graph. By interpreting the graph, answer the following questions.

What would be the work done in state `B to C`?

A

`-PV`

B

`PV`

C

`2PV`

D

Zero

Text Solution

Verified by Experts

In conversion from `B` to `C`, volume does not change or `DeltaV = 0`, therefore `w = 0`
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CENGAGE CHEMISTRY-THERMODYNAMICS-Exercises (Linked Comprehension)
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  2. The state of a mole of an ideal gas changed from state A at pressure 2...

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  3. The state of a mole of an ideal gas changed from state A at pressure 2...

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  4. The state of a mole of an ideal gas changed from state A at pressure 2...

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  5. The second law of thermodynamics is a fundamental law of science. In t...

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  6. The second law of thermodynamics is a fundamental law of science. In t...

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  7. The second law of thermodynamics is a fundamental law of science. In t...

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  8. A sample consisting of 1mol of a mono-atomic perfect gas (C(V) = (3)/(...

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  9. A sample consisting of 1mol of a mono-atomic perfect gas (C(V) = (3)/(...

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  10. A sample consisting of 1mol of a mono-atomic perfect gas (C(V) = (3)/(...

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  11. A sample consisting of 1mol of a mono-atomic perfect gas (C(V) = (3)/(...

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  12. Chemical reactions are invariably associated with the transfter of ene...

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  13. Chemical reactions are invariably associated with the transfter of ene...

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  14. Chemical reactions are invariably associated with the transfter of ene...

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  15. Chemical reactions are invariably associated with the transfter of ene...

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  16. Bond energies can be obtained by using the following relation: DeltaH ...

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  17. Bond energies can be obtained by using the following relation: DeltaH ...

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  18. Bond energies can be obtained by using the following relation: DeltaH ...

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  19. Bond energies can be obtained by using the following relation: DeltaH ...

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  20. Bond energies can be obtained by using the following relation: DeltaH ...

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