The pressure of one gram mole of a monoatomic gas increases linearly from `4xx10^(5)N//M^(2)` to `8xx10^(5)N//m^(2)`. Calculate
(i) Work done by the gas,
(ii) increase in internal energy, (iii) amount of heat supplied,
(iv) molar heat capacity of the gas.
Take `R=8.31J mol e^(-1)K^(-1)`.

The pressure in monoatomic gas increases linearly from =4xx10^(5) Nm^(-2) to 8xx10^(+5) Nm^(-2) when its volume increases from 0.2m^(3) to 0.5m^(3) . Calculate . (i) Work done by the gas , (ii) Increase in the internal energy, (iii) Amount of heat supplied, (iv) Molar heat capacity of the gas R= 8.31J mol^(-1) K^(-1)

The prssure in a monoatomic gas increases lineraly from 4 xx 10^(5) Nm^(-2) to 8 xx 10^(5)Nm^(-2) when its volume increases form 0.2 m^(3) to 0.5 m^(3) . Calculate the following: (a) work done by the gas. (2) increase in the internal energy

If 70 cal of heat is required to raise the temperature of moles of an ideal gas at constant pressure from 30^(@)C to 35^(@)C , calculate (i) the work done by the gas (ii) the increases in internal energy of the gas and (iii) degrees of freedom of gas molecules. given R =2 cal mol ^(-1) K^(-1)

Calculate the molar specific heat at constant volume of neon gas. (R=8.314J mol^(-1)K^(-1) )

5 moles of helium expand isothermally and reversibly from a pressure 40xx10^(-5)Nm^(-2) to 4xx10^(-5)Nm^(-2) at 300 K. Calculate the work done, change in internal energy and heat absorbed during the expansion . (R=8.314Jk^(-1)"mol"^(-1))

The volume of a monatomic ideal gas increases linearly with pressure, as shown in Fig. Calculate (a) increase in internal energy, (b) work done by the gas and (c ) heat supplied to the gas.

Calculate the molar specific heat at constant volume of neon gas. (R = 8.314 J mol^(-1) K^(-1) )

Calculate the molar specific heat of oxygen gas at constant volume. (R=8.314" J "mol^(-1)K^(-1))

Two kg of a monoatomic gas is at a pressure of 4 xx 10^(4) N//m^(2) . The density of the gas is 8 kg//m^(3) . What is the order of energy of the gas due to its thermal motion ?