A solute distributes itself between two non-miscible solvents in contact with each other in such a way that, at a constant temperature, the ratio of its concentrations in two layers is constant, irrespective of its total amount". This is

Chemical Engineering Thermodynamics
A solute distributes itself between two non-miscible solvents in contact with each other in such a way that, at a constant temperature, the ratio of its concentrations in two layers is constant, irrespective of its total amount". This is

A corollary of Henry's law

The distribution law

None of these

Followed from Margule's equation

A corollary of Henry's law

The distribution law

None of these

Followed from Margule's equation

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Chemical Engineering Thermodynamics
Critical temperature is defined as the temperature above which a gas will

Never liquify however high the pressure may be

Immediately liquify

Not liquify (barring exceptions)

None of these

Never liquify however high the pressure may be

Immediately liquify

Not liquify (barring exceptions)

None of these

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Chemical Engineering Thermodynamics
An irreversible process

Yields the maximum amount of work

Is an idealised visualisation of behaviour of a system

Yields an amount of work less than that of a reversible process

Is the analog of linear frictionless motion in machines

Yields the maximum amount of work

Is an idealised visualisation of behaviour of a system

Yields an amount of work less than that of a reversible process

Is the analog of linear frictionless motion in machines

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Chemical Engineering Thermodynamics
Fugacity and pressure are numerically not equal for the gases

At standard state

At low temperature and high pressure

In ideal state

Both A and B

At standard state

At low temperature and high pressure

In ideal state

Both A and B

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Chemical Engineering Thermodynamics
The free energy change for a chemical reaction is given by (where, K = equilibrium constant)

RT lnK

T lnK

-R lnK

-RT lnK

RT lnK

T lnK

-R lnK

-RT lnK

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Chemical Engineering Thermodynamics
Compressibility factor (i.e., the ratio of actual volume of gas to the volume predicted by ideal gas law) for all gases are

Both B & C

Same at the same reduced pressure

Same at the same reduced temperature

Always greater than one

Both B & C

Same at the same reduced pressure

Same at the same reduced temperature

Always greater than one

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Chemical Engineering Thermodynamics

Chemical Engineering Thermodynamics A solute distributes itself between two non-miscible solvents in contact with each other in such a way that, at a constant temperature, the ratio of its concentrations in two layers is constant, irrespective of its total amount". This is

Chemical Engineering Thermodynamics Critical temperature is defined as the temperature above which a gas will

Chemical Engineering Thermodynamics An irreversible process

Chemical Engineering Thermodynamics Fugacity and pressure are numerically not equal for the gases

Chemical Engineering Thermodynamics The free energy change for a chemical reaction is given by (where, K = equilibrium constant)

Chemical Engineering Thermodynamics Compressibility factor (i.e., the ratio of actual volume of gas to the volume predicted by ideal gas law) for all gases are

Chemical Engineering Thermodynamics
A solute distributes itself between two non-miscible solvents in contact with each other in such a way that, at a constant temperature, the ratio of its concentrations in two layers is constant, irrespective of its total amount". This is

Chemical Engineering Thermodynamics
Critical temperature is defined as the temperature above which a gas will

Chemical Engineering Thermodynamics
An irreversible process

Chemical Engineering Thermodynamics
Fugacity and pressure are numerically not equal for the gases

Chemical Engineering Thermodynamics
The free energy change for a chemical reaction is given by (where, K = equilibrium constant)

Chemical Engineering Thermodynamics
Compressibility factor (i.e., the ratio of actual volume of gas to the volume predicted by ideal gas law) for all gases are