`4.0 g` of a gas occupies `22.4` litres at NTP. The specific heat capacity of the gas at constant volume is `5.0 JK^(-1)mol^(-1)`. If the speed of sound in this gas at NTP is `952 ms^(-1)`. Then the heat capacity at constant pressure is

4.0 g of gas occupies 22.4 litres at NTP . The specific heat capacityof the gas at constant volume is 5.0jk^(-1) mol ^(-1) if the speed of sound in this gas at NTP is 952 ms^(-1) , then the heat capacity at constant pressure is: (Take gas constant R=8.3JK^(-1) mol^-1) .

Molar heat capacity of a gas at constant volume.

Molar heat capacity of a gas at constant pressure .

4.0 g of helium occupies 22400 cm^(3) at STP. The specific heat capacity of helium at constant pressure is ( 5.0 cal K^(-1) mol ^(-1)) . Calculate the speed of sound in helium at STP.

4.0 g of helium occupies 22400 cm^(3) at STP. The specific heat capacity of helium at constant pressure is ( 5.0 cal K^(-1) mol ^(-1)) . Calculate the speed of sound in helium at STP.

4.0 g of helium occupies 22400 cm^(3) at STP. The specific heat capacity of helium at constant pressure is ( 5.0 cal K^(-1) mol ^(-1)) . Calculate the speed of sound in helium at STP.

Molar heat capacity of ethenol is 110.4 JK^(-1) mol^(-1) . Its specific heat capacity is

The specific heat capacity of a gas at constant pressure is greater than that at constant volume because