An ideal gas of total mass "m" and molecular weight "M" is isochorically cooled to a pressure `(1)/(n)` times the initial pressure.The gas is then expanded at constant pressure until its temperature becomes equal to the initial temperature `T_(1)` .The work done by the gas is

One mole of a gas is heated at constant pressure to raise its temperature by 1^(@)C . The work done in joules is

An ideal gas expands adiabatically from an initial temperature T_(1) to a final temperature T_(2) . Prove that the work done by the gas is C_(V) (T_(1) - T_(2)) .

Two moles of an ideal monatomic gas is heated at constant pressure so that its temperature increases from 127^° C to 227^° C , then work done by gas

The raise in the temperature of a given mass of an ideal gas at constant pressure and at temperature 27^@ to double its volume is

An ideal gas at a pressure of 1 atm and temperature of 27^(@)C is compressed adiabatically until its pressure becomes 8 times the initial pressure , then final temperature is (gamma=(3)/(2))

An ideal gas is compressed at constant pressure of 10^(5)Pa until its volume is halved. If the initial volume of the gas as 3.0 xx 10^(-2)m^(3) , find the work done on the gas?

Six grams of hydrogen gas at a temperature of 273 K isothoermally expanded to five times its initial volume and then isochorically heated so that the pressure in the final state becomes equal to that in the initial state. Find the total amount of heat absorbed by the gas during the entire process.

For an ideal gas the fractional change in its volume per degree rise in temperature at constant pressure is equal to [T is absolute temperature of gas]

The pressure of a gas filled in a closed containeer increases by 1% when temperature is increased by 1^(@)C. Find the initial temperature of the gas.

Two moles of an ideal gas at temperature T_(0) = 300 K was cooled isochorically so that the pressure was reduced to half. Then, in an isobaric process, the gas expanded till its temperature got back to the initial value. Find the total amount of heat absorbed by the gas in the processs