One mole of diatomic gas undergoes a process `P=(P_0)/([1+(V//V_0)^3])` , where `P_0 and V_0` are constants . The translational kinetic energy of the gas when `V=V_0` is given by

One mole of a diatomic gas undergoes a process P = P_(0)//[1 + (V//V_(0)^(3))] where P_(0) and V_(0) are constant. The translational kinetic energy of the gas when V = V_(0) is given by

One mole of a diatomic gas undergoes a process P = P_(0)//[1 + (V//V_(0)^(3))] where P_(0) and V_(0) are constant. The translational kinetic energy of the gas when V = V_(0) is given by

One mole of a diatomic gas undergoes a process P = P_(0)//[1 + (V//V_(0))^(3)] where P_(0) and V_(0) are constant. The translational kinetic energy of the gas when V = V_(0) is given by

One mole of an ideal gas undergoes a process p=(p_(0))/(1+((V)/(V_(0)))^(2)) where p_(0) and V_(0) are constants. Find temperature of the gas when V=V_(0) .

One mole of an ideal gas undergoes a process p=(p_(0))/(1+((V)/(V_(0)))^(2)) where p_(0) and V_(0) are constants. Find temperature of the gaas when V=V_(0) .

One mole of an ideal gas undergoes a process p=(p_(0))/(1+((V)/(V_(0)))^(2)) where p_(0) and V_(0) are constants. Find temperature of the gaas when V=V_(0) .