The velocity of sound waves in an ideal gas at temperatures `T_(1) K and T_(2)` are respectively `v_(1) and v_(2)` . The rms velocity of gas molecules at these two temperatures are `w _(1) and e_(2)` , respectively then

The velocities of sound in an ideal gas at temperature T_(1) and T_(2) K are found to be V_(1) and V_(2) respectively. If ther.m.s velocities of the molecules of the same gas at the same temperatures T_(1) and T_(2) are v_(1) and v_(2) respectively then

The velocities of sound in an ideal gas at temperature T_(1) and T_(2) K are found to be V_(1) and V_(2) respectively. If ther.m.s velocities of the molecules of the same gas at the same temperatures T_(1) and T_(2) are v_(1) and v_(2) respectively then

The velocities of sound in an ideal gas at temperature T_(1) and T_(2) K are found to be V_(1) and V_(2) respectively. If ther.m.s velocities of the molecules of the same gas at the same temperatures T_(1) and T_(2) are v_(1) and v_(2) respectively then

The velocity of sound in an ideal gas at temperature T_1 and T_2 K are v_1 and v_2 respectively. If the root mean square velocity of the same gas at same temperature are c_1 and c_2 then-

The velocity of molecules of a gas at temperature 120 K is v. At what temperature will the velocity be 2v?

The root mean squae (rms) velocity of an ideal gas at temperature T is v. If the temperature is increased to 4T, the rms velocity of the gas is

The velocity of sound in a gas at temperature 27^@C is V then in the same gas its velocity will be 2V at temperature.