v/2

v

2v

4v

The gas particles are in constant, random motion.

There are no attractive or repulsive forces between gas particles except during collisions.

Collisions between gas particles are perfectly elastic.

The volume of the gas particles is significant compared to the volume occupied by the gas.

Both $a$ and $b$ represent correction in volume

Both $a$ and $b$ represent adhesive force between molecules

$a$ represents adhesive force between molecules and $b$ correction in volume

$a$ represents correction in volume and $b$ represents adhesive force between molecules

$3\;:2$

$2\;:3$

$2\;:21$

$4\;:9$

$1.45 imes 10^{-10}$ m

$2.89 imes 10^{-10}$ m

$7.25 imes 10^{-11}$ m

$3.62 imes 10^{-11}$ m

$\frac{3}{2}\frac{{RT}}{N}$

$\frac{3}{2}\frac{{RT}}{M}$

$\frac{3}{2}RT$

$\frac{3}{2}NKT$

Proportional to pressure of gas

Inversely proportional to volume of gas

Inversely proportional to absolute temperature of gas

Directly proportional to absolute temperature of gas

P

2P

3P

4P

Is proportional to the square root of the absolute temperature of the gas

Is proportional to the absolute temperature of the gas

Is proportional to the square of the absolute temperature of the gas

Does not depend upon the absolute temperature of the gas

$0.186 imes {10^{ - 20}}Joule$

$0.372 imes {10^{ - 20}}Joule$

$0.56 imes {10^{ - 20}}Joule$

$5.6 imes {10^{ - 20}}Joule$

Uniform everywhere

Less in the front

Less at the back

Less at the top