Masses of the two gases are same

Molecular structure of two gases would be similar

The two gases contain the same number of molecules

The two gases, if allowed to diffuse would do so at the same rate

$1{\rm{ }}\,mL{\rm{ }}\,\,of{\rm{ }}\,\,gas$

$1{\rm{ }}\,litre{\rm{ }}\,\,of{\rm{ }}\,gas$

$22.4{\rm{ }}\,litre{\rm{ }}\,\,of{\rm{ }}\,\,gas$

$22.4{\rm{ }}\,mL{\rm{ }}\,\,of{\rm{ }}\,\,gas$

Pressure is inversely proportional to volume at constant temperature and amount of gas.

Pressure is directly proportional to volume at constant temperature and amount of gas.

The product of pressure and volume is constant at constant temperature and amount of gas.

The law holds true only for ideal gases under specific conditions of temperature and pressure.

100\,^\circ C

273\,^\circ C

373\,^\circ C

446\,^\circ C

The product of pressure and volume of a gas is constant at constant temperature.

The volume of a gas is directly proportional to its pressure at constant temperature.

If the volume of a gas is halved, its pressure doubles at constant temperature.

Pressure and volume of a gas are inversely proportional at constant temperature.

A molecule of an element

An atom of an element

A molecule of a compound

None of the above

Molecular solid

Ionic solid

Covalent solid

Not exist

1/6

6

3/2

2/3

Boyle's Law

Charles's Law

Avogadro's Law

Gay-Lussac's Law

Zero degree centigrade

Its critical temperature

Absolute zero

Its Boyle’s temperature

13.33 L

16.67 L

26.67 L

6.67 L