Tag: principal and molar specific heats of gases
Questions Related to principal and molar specific heats of gases
If water at ${ 0 }^{ \circ }C.$kept in a container with an open top , is placed in a large evacuated chamber-
Equal volumes of monoatomic and diatomic gases of same initial temperature and pressure are mixed. The ratio of the specific heats of the mixture ($C _p/C _v$) will be
For an ideal gas during an adiabatic process $\left ( \frac{T^{1}}{P^{2}} \right )^{\frac{1}{5}}$ = constant. The molar heat capacity at constant volume of the gas is
Find the ratio of specific heat at constant pressure to the specific heat at constant volume for ${ NH } _{ 3 }$
An ideal gas has molar specific heat 5R/2 at constant pressure. If 300 J of heat is given to two moles of gas at constant pressure, the changes in temperature is :
The volume of 1 kg of hydrogen gas at N.T.P. is ${ 11.2 }m^{ 3 }$. Specific heat of hydrogen at constant volume is $100.46J\quad Kg^{ -1 }{ K }^{ -1 }$.Find the specific heat at constant pressure in $Jkg^{ -1 }{ K }^{ -1 }$?
The quantity of heat (in J) required to raise the temperature of $1.0\, kg$ of ethanol from $293.45\, K$ to the boiling point and then change the liquid to vapor at that temperature is closest to
[Given : Boiling point of ethanol $351.45\, K$
Specific heat capacity of liquid ethanol $2.44\, J\, g^{-1}\, K^{-1}$
Latent heat of vaporization of ethanol $855\, J \, g^{-1}$]
A real gas behaves like an ideal gas at which pressure (P) nd temperature (T)?
An ideal monatomic gas follows a law, $P\propto { T }^{ 2 }$ in addition to ideal gas law. Then molar heat capacity for the process is
An ideal gas expands into a vacuum in a rigid vessel. As a result there is :