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
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

3

2

1

3

2

1

ANSWER DOWNLOAD EXAMIANS APP

Chemical Engineering Thermodynamics
If an ideal solution is formed by mixing two pure liquids in any proportion, then the __________ of mixing is zero

None of thr listed here

Volume

Enthalpy

Both of the listed here

None of thr listed here

Volume

Enthalpy

Both of the listed here

ANSWER DOWNLOAD EXAMIANS APP

Chemical Engineering Thermodynamics
Those solutions in which there is no volume change upon mixing the components in the liquid state and which, when diluted do not undergo any heat change (i.e. heat of dilution is zero), are called __________ solutions.

Isotonic

Ideal

Real

None of these

Isotonic

Ideal

Real

None of these

ANSWER DOWNLOAD EXAMIANS APP

Chemical Engineering Thermodynamics
__________ law of thermodynamics ascertains the direction of a particular spontaneous process.

Third

Second

Zeroth

First

Third

Second

Zeroth

First

ANSWER DOWNLOAD EXAMIANS APP

Chemical Engineering Thermodynamics
When liquid and vapour phase of multi-component system are in equilibrium (at a given temperature and pressure), then chemical potential of each component is

Zero in both the phases

Chemical Engineering Thermodynamics
Chemical potential is a/an

Both B and C

Force which drives the chemical system to equilibrium

Intensive property

Extensive property

Both B and C

Force which drives the chemical system to equilibrium

Intensive property

Extensive property

ANSWER DOWNLOAD EXAMIANS APP

Chemical Engineering Thermodynamics

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 If an ideal solution is formed by mixing two pure liquids in any proportion, then the __________ of mixing is zero

Chemical Engineering Thermodynamics Those solutions in which there is no volume change upon mixing the components in the liquid state and which, when diluted do not undergo any heat change (i.e. heat of dilution is zero), are called __________ solutions.

Chemical Engineering Thermodynamics __________ law of thermodynamics ascertains the direction of a particular spontaneous process.

Chemical Engineering Thermodynamics When liquid and vapour phase of multi-component system are in equilibrium (at a given temperature and pressure), then chemical potential of each component is

Chemical Engineering Thermodynamics Chemical potential is a/an

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
If an ideal solution is formed by mixing two pure liquids in any proportion, then the __________ of mixing is zero

Chemical Engineering Thermodynamics
Those solutions in which there is no volume change upon mixing the components in the liquid state and which, when diluted do not undergo any heat change (i.e. heat of dilution is zero), are called __________ solutions.

Chemical Engineering Thermodynamics
__________ law of thermodynamics ascertains the direction of a particular spontaneous process.

Chemical Engineering Thermodynamics
When liquid and vapour phase of multi-component system are in equilibrium (at a given temperature and pressure), then chemical potential of each component is

Chemical Engineering Thermodynamics
Chemical potential is a/an