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JEE CHEMISTRY MCQ: STATES OF MATTER
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Statement I: Reduced equation of state in terms of reduce: temperature , reduced volume and reduced pressure x can be applied to solid, gases and liquid.
Statement II: . Equation is independent of and as well as independent of vander Waals' constant and .
Statement II: . Equation is independent of and as well as independent of vander Waals' constant and .
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Correct option: A
Both Statement I and Statement II are correct and Statement II is the correct explanation of Statement I
Option D ( becomes diamagnetic) is correct because removing an electron from N2, which has an odd number of electrons in its molecular orbitals, will not result in a diamagnetic species.
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A quantity of hydrogen gas occupies a volume of at a certain temperature and pressure. What volume would half this mass of hydrogen occupy at triple the absolute temperature and the pressure were one-ninth that of the original gas?
In deriving the kinetic equation we make use of the root mean square speed of the molecules which is:
Consider the following statements for kinetic molecular theory of gases
a. Particles of a gas move in all possible directions in straight lines.
b. At any particular time, different particles in the gas have different kinetic energies.
c. Collisions of gas molecules are perfectly inelastic in nature.
The correct statement(s) is/are The compressibility factor of an ideal gas is The relative strength of interionic/intermolecular forces in decreasing order is Compressibility factor of an ideal gas is
a. Particles of a gas move in all possible directions in straight lines.
b. At any particular time, different particles in the gas have different kinetic energies.
c. Collisions of gas molecules are perfectly inelastic in nature.
The correct statement(s) is/are The compressibility factor of an ideal gas is The relative strength of interionic/intermolecular forces in decreasing order is Compressibility factor of an ideal gas is
