The volume of one mode of an ideal gas with adiabatic exponent `gamma` is varied according to the law `V = a//T`, where a is constant . Find the amount of heat obtained by the gas in this process, if the temperature is increased by `Delta T`.

The volume of 1 mol of an ideal gas with the adiabatic exponent gamma is changed according to the relation V = b/T where b = constant. The amount of heat absorbed by the gas in the process if the temperature is increased by Delta T will be

The volume of one mole of an ideal gas with adiabatic exponent gamma=1.4 is vaned according to law V=a//T where 'a' is a constant. Find amount of heat absorbed by gas in this process if gas temperature increases by 100 K.

The volume of one mole of an ideal gas with adiabatic exponent gamma is varied according to V=b/T , where b is a constant. Find the amount of Heat is absorbed by the gas in this process temperature raised by DeltaT

The volume of one mole of ideal gas with adiabatic exponent is varied according to law V = 1/T . Find amount of heat obtained by gas in this process if gas temperature is increased by 100 K.

The volume of one mole of ideal gas with adiabatic exponent is varied according to law V = 1/T . Find amount of heat obtained by gas in this process if gas temperature is increased by 100 K.

An ideal gas has adiabatic exponent gamma . It expands according to the law P = alpha V, where is alpha constant. For this process, the Bulk modulus of the gas is

The ratio of specific heats ( C_(p) and C_(v) ) for an ideal gas is gamma . Volume of one mole sample of the gas is varied according to the law V = (a)/(T^(2)) where T is temperature and a is a constant. Find the heat absorbed by the gas if its temperature changes by Delta T .