Two identical containers `A` and `B` having same volume of ideal gas at the same temperature have mass of the gas as `m_(A)` and `m_(B)` respectively. `2 m_(A) = 3 m_(B)`. The gas in each cylinder expand isothermally to double its volume. If the change in pressure in `A` is `Delta p`, find the change in pressure in `B`:

Two identical containers A and B having volume of ideal gas at the same temperature have mass of the gas as m_(A) and m_(B) respectively. 2 m_(A) = 3 m_(B) . The gas in each cylinder expand isothermally to double its volume. If the change in pressure in A is Delta p , find the change in pressure in B :

Two identical constaners A and B having same volume of an ideal gas at same temperature hace mass of the gas as m_(1) and m_(2) respectively and 2m_(1) = 3m_(2) . The gas in each cylinder expands isomthermally to double of its voume. If change in pressure in A is 300 Pa , then the change in pressure in B is

Two identical containers A and B have frictionaless pistons. They contain the same volume of an ideal gas at the same temperature. The mass of the gs in A is m_(A) and that B is m_(B) . The gas in each cylinder is now allowed to expand isothermally to double the intial volume. The chages in the pressure in A and B are fopund to be Delta and 1.5Deltap respectively.

An ideal gas at 300K is expanded isothermally to double its volume, then pressure of the gas will be

Two identical containers A and B with frictionless pistons contain the same ideal gas at the same temperature and the same velocity V. The mass of the gas in A is m_A, and that in B is m_B . The gas in each cylinder is now allowed to expand isothermally to the same final volume 2V. The changes in the pressure in A and B are found to be DeltaP and 1.5 DeltaP respectively. Then

If one mole of an ideal gas (C_(p.m.)=(5)/(2)R) is expanded isothermally at 300K until it’s volume is tripled, then change in entropy of gas is:

The molecules of a gas A travel four times faster than the molecules of gas B at same temperature. The ratio of molecular weights (M_(A)//M_(B)) is