For an ideal gas `(C_(p,m))/(C_(v,m))=gamma`. The molecular mass of the gas is M, its specific heat capacity at constant volume is :

The ratio (C_(p))/(C_(v)) for a gas. Its molecular weight is M. Its specific heat capacity at constant pressure is

The ratio (C_p)/(C_v)=gamma for a gas. Its molecular weight is M. Its specific heat capacity at constant pressure is

The ratio (C_p)/(C_v)=gamma for a gas. Its molecular weight is M. Its specific heat capacity at constant pressure is

The ratio of C_p / C_v = gamma for a gas. It's molecular weight is M. It's specific heat capacity at constant volume is

The ratio of C_p / C_v = gamma for a gas. It's molecular weight is M. It's specific heat capacity at constant pressure is

For an ideal monoatomic gas, molar heat capacity at constant volume (C_(v)) is

An ideal gas is made to undergo a process T = T_(0)e^(alpha V) where T_(0) and alpha are constants. Find the molar specific heat capacity of the gas in the process if its molar specific heat capacity at constant volume is C_(v) . Express your answer as a function of volume (V).

An ideal gas is made to undergo a process T = T_(0)e^(alpha V) where T_(0) and alpha are constants. Find the molar specific heat capacity of the gas in the process if its molar specific heat capacity at constant volume is C_(v) . Express your answer as a function of volume (V).