Consider 2 mole of argon gas at 500K compacted in 6 L of total volume of 11 L. The heat capacity at constant volume, Cv = 12.48 JK-1mol-1. Use the data from the Appendix to help you answer the following questions. Consider isothermal irreversible expansion against a constant external pressure of 1 atmosphere. Calculate: ΔSs = ΔSR = ΔSUniv = Consider isothermal reversible expansion against a constant external pressure of 1 atmosphere. Calculate; ΔSs = ΔSR = ΔSUniv = Consider adiabatic irreversible expansion against a constant external pressure of 1 atmosphere. Calculate: W = ΔSs = ΔT = ΔSs = ΔSR = ΔSuniv = Consider adiabatic reversible expansion against a constant external pressure of 1 atmosphere. Calculate: W = ΔSs = ΔT = ΔSs = ΔSR = ΔSuniv = Consider 2 mole of argon gas at 500K compacted in 6 L of total volume of 11 L. The heat capacity at constant volume, Cv = 12.48 JK-1mol-1. Use the data from the Appendix to help you answer the following questions. Consider isothermal irreversible expansion against a constant external pressure of 1 atmosphere. Calculate: ΔSs = ΔSR = ΔSUniv = Consider isothermal reversible expansion against a constant external pressure of 1 atmosphere. Calculate; ΔSs = ΔSR = ΔSUniv = Consider adiabatic irreversible expansion against a constant external pressure of 1 atmosphere. Calculate: W = ΔSs = ΔT = ΔSs = ΔSR = ΔSuniv = Consider adiabatic reversible expansion against a constant external pressure of 1 atmosphere. Calculate: W = ΔSs = ΔT = ΔSs = ΔSR = ΔSuniv =

Physical Chemistry

2nd Edition

ISBN:9781133958437

Author:Ball, David W. (david Warren), BAER, Tomas

Publisher:Ball, David W. (david Warren), BAER, Tomas

Chapter2: The First Law Of Thermodynamics

Section: Chapter Questions

Problem 2.92E

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Consider 2 mole of argon gas at 500K compacted in 6 L of total volume of 11 L. The heat capacity at constant volume, Cv = 12.48 JK^-1mol^-1. Use the data from the Appendix to help you answer the following questions.
Consider isothermal irreversible expansion against a constant external pressure of 1 atmosphere. Calculate:

ΔS^s =
ΔS^R =
ΔS^Univ =

Consider isothermal reversible expansion against a constant external pressure of 1 atmosphere. Calculate;

ΔS^s =
ΔS^R =
ΔS^Univ =

Consider adiabatic irreversible expansion against a constant external pressure of 1 atmosphere. Calculate:

W =
ΔS^s =
ΔT =
ΔS^s =
ΔS^R =
ΔS^univ =

Consider adiabatic reversible expansion against a constant external pressure of 1 atmosphere. Calculate:

W =
ΔS^s =
ΔT =
ΔS^s =
ΔS^R =
ΔS^univ =
1. Consider 2 mole of argon gas at 500K compacted in 6 L of total volume of 11 L. The heat capacity at constant volume, Cv = 12.48 JK^-1mol^-1. Use the data from the Appendix to help you answer the following questions.
2. Consider isothermal irreversible expansion against a constant external pressure of 1 atmosphere. Calculate:
- ΔS^s =
- ΔS^R =
- ΔS^Univ =
1. Consider isothermal reversible expansion against a constant external pressure of 1 atmosphere. Calculate;
- ΔS^s =
- ΔS^R =
- ΔS^Univ =
1. Consider adiabatic irreversible expansion against a constant external pressure of 1 atmosphere. Calculate:
- W =
- ΔS^s =
- ΔT =
- ΔS^s =
- ΔS^R =
- ΔS^univ =
1. Consider adiabatic reversible expansion against a constant external pressure of 1 atmosphere. Calculate:
- W =
- ΔS^s =
- ΔT =
- ΔS^s =
- ΔS^R =
- ΔS^univ =

Irreversible Expansion
against constant pressure
Isothermal
Adiabatic
Reversible expansion
or compression
Isothermal
Adiabatic
W
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-PAV
CAT
#
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-ARTIN NATIN
#1 3
PerAV
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0
0
V₁
AU
0
0
-PAV AU + A(PV)
CAT
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0
0
AU + A(PV)
AT
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C₂
Q).
T₁[(V/V₂)-1]
cl
AS
nRin
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0
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ds = cu di
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APPENDIX H

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