Boyle's law

Dalton's law

Charles' law

Avogadro's law

occupies volume proportional to its molecular weight

occupies volume inversely proportional to its molecular weight

occupies volume inversely proportional to its specific weight

occupies same volume

^{$p^{2}v=RT$}

$pv=RT$

$p{v}^2=RT$

$p^2{v}^2=RT$

pressure and volume

pressure and temperature

pressure, volume and temperature

none of the above

Pressure is very small and temperature is very high

Pressure is very high and temperature is very low

Both pressure and temperature are very high

Both pressure and temperature are very low

$\left(p+\frac{a}{v^2}\right)\left(v-b\right)=RT$

$\left(p-\frac{a}{v^2}\right)\left(v-b\right)=RT$

$\left(p+\frac{a}{v^2}\right)\left(v+b\right)=RT$

$\left(p-\frac{a}{v^2}\right)\left(v+b\right)=RT$

The coefficient a was introduced to account for the existence of mutual attraction between the molecules

The term $\frac{a}{v^2}$ is called the force of cohesion

The coefficient 'b' was introduced to account for the volumes of the molecules and is known as co-volume

All of the mentioned

They have negligible size

They do not have attractive forces

They do not apply pressure

They move in random motion

There is little or no attraction between the molecules of the gas

The volume occupied by the molecules is negligibly small compared to the volume of the gas

Both A and B

None of the mentioned

1

0.5

1.5

Depends on the gas