When liquid and vapour phases of one component system are in equilibrium (at a given temperature and pressure), the molar free energy is

Chemical Engineering Thermodynamics
When liquid and vapour phases of one component system are in equilibrium (at a given temperature and pressure), the molar free energy is

Same in both the phases

Chemical Engineering Thermodynamics
If two pure liquid constituents are mixed in any proportion to give an ideal solution, there is no change in

Neither A nor B

Volume

Both A & B

Enthalpy

Neither A nor B

Volume

Both A & B

Enthalpy

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Chemical Engineering Thermodynamics
For an isothermal reversible compression of an ideal gas

Only ΔH =0

DQ = dE

Only ΔE = 0

ΔE = ΔH = 0

Only ΔH =0

DQ = dE

Only ΔE = 0

ΔE = ΔH = 0

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Chemical Engineering Thermodynamics
Charles' law for gases states that

PV/T = Constant

V ∝ 1/P

V ∝ 1/T

V/T = Constant

PV/T = Constant

V ∝ 1/P

V ∝ 1/T

V/T = Constant

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Chemical Engineering Thermodynamics
The reaction A (l) R(g) is allowed to reach equilibrium conditions in an autoclave. At equilibrium, there are two phases, one a pure liquid phase of A and the other a vapor phase of A, R and S. Initially A alone is present. The number of degrees of freedom are

2

1

3

2

1

3

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Chemical Engineering Thermodynamics
(∂H/∂T)p is the mathematical expression for

None of these

CV

Gibbs free energy

Entropy change

None of these

CV

Gibbs free energy

Entropy change

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Chemical Engineering Thermodynamics

Chemical Engineering Thermodynamics When liquid and vapour phases of one component system are in equilibrium (at a given temperature and pressure), the molar free energy is

Chemical Engineering Thermodynamics If two pure liquid constituents are mixed in any proportion to give an ideal solution, there is no change in

Chemical Engineering Thermodynamics For an isothermal reversible compression of an ideal gas

Chemical Engineering Thermodynamics Charles' law for gases states that

Chemical Engineering Thermodynamics The reaction A (l) R(g) is allowed to reach equilibrium conditions in an autoclave. At equilibrium, there are two phases, one a pure liquid phase of A and the other a vapor phase of A, R and S. Initially A alone is present. The number of degrees of freedom are

Chemical Engineering Thermodynamics (∂H/∂T)p is the mathematical expression for

Chemical Engineering Thermodynamics
When liquid and vapour phases of one component system are in equilibrium (at a given temperature and pressure), the molar free energy is

Chemical Engineering Thermodynamics
If two pure liquid constituents are mixed in any proportion to give an ideal solution, there is no change in

Chemical Engineering Thermodynamics
For an isothermal reversible compression of an ideal gas

Chemical Engineering Thermodynamics
Charles' law for gases states that

Chemical Engineering Thermodynamics
The reaction A (l) R(g) is allowed to reach equilibrium conditions in an autoclave. At equilibrium, there are two phases, one a pure liquid phase of A and the other a vapor phase of A, R and S. Initially A alone is present. The number of degrees of freedom are

Chemical Engineering Thermodynamics
(∂H/∂T)p is the mathematical expression for