An ideal gas with adiabatic exponent (`gamma=1.5`) undergoes a process in which work done by the gas is same as increase in internal energy of the gas. Here R is gas constant. The molar heat capacity C of gas for the process is:

The molar heat capacity of a gas in a process

In an adiabatic process 90 J of work is done on the gas. The change in internal energy of the gas is

An ideal gas (gamma = 1.5) undergoes a thermodynamic process in which the temperature and pressure of the gas are related as T^(-1)P^(2) = constant. The molar heat capacity of the gas during the process is

An ideal gas with adiabatic exponent gamma undergoes a process in which internal energy depends on volume as U=aV^(alpha) then select the correct statement .

A monoatomic gas undergoes a process in which the pressure (P) and the volume (V) of the gas are related as PV^(-3)= constant. What will be the molar heat capacity of gas for this process?

An ideal gas with adiabatic exponent gamma = 4/3 undergoes a process in which internal energy is related to volume as U = V^2 . Then molar heat capacity of the gas for the process is :

In a thermodynamic process on an ideal diatomic gas, work done by the gas is eta times. The heat supplied (eta lt 1) . The molar heat capacity of the gas for the process is

An ideal gas whose adiabatic exponent equals gamma is expanded so that the amount of heat transferred to the gas is equal to the decrease of its internal energy. Find : (a) the molar heat capacity of the gas in the process , The equation of the process in the variables t, V , ( c) the work performed by one mole of the gas when its volume increases eta times if the initial temperature of the gas is T_0 .

An ideal gas with the adiabatic exponent gamma undergoes a process in which its internal energy relates to the volume as u = aV^alpha . Where a and alpha are constants. Find : (a) the work performed by the gas and the amount of heat to be transferred to this gas to increase its internal energy by Delta U , (b) the molar heat capacity of the gas in this process.

An ideal gas with the adiabatic exponent gamma undergoes a process in which its internal energy relates to the volume as U=aV^alpha , where a and alpha are constants. Find the work performed by the gas and the amount of heat to be transferred to this gas to increase its internal energy by DeltaU