Gaseous Mixture and Two Connected Chambers
PHXI13:KINETIC THEORY

360177 Cubical tanks X and Y have the same volumes and share a common fixed perfectly conducting wall. There is 1gm of helium in tank X and 2 gm of helium in tank Y. Which of the following is the same for both samples treating them as ideal gases?
supporting img

1 The number of molecular collisions per second on the common wall
2 The average speed of the molecules
3 The pressure exerted by the helium
4 The density of the helium
PHXI13:KINETIC THEORY

360178 N moles of a polyatomic gas (f=6) must be mixed with two moles of a monoatomic gas so that the mixture behaves as a diatomic gas. The value of N is

1 4
2 2
3 3
4 6
PHXI13:KINETIC THEORY

360179 Four mole of hydrogen, two mole of helium and one mole of water vapour form an ideal gas mixture. What is the molar specific heat at constant pressure of mixture?

1 167R
2 716R
3 R
4 237R
PHXI13:KINETIC THEORY

360180 Two spherical vessels of equal volume, are connected by a narrow tube. The apparatus contains an ideal gas at one atmosphere and at temperature 300K. Now if one vessel is immersed in a bath of constant temperature 600K and the other in a bath of constant temperature 300K. Then the common pressure will be
supporting img

1 45atm
2 1atm
3 34atm
4 43atm
PHXI13:KINETIC THEORY

360181 Two identical vessels contain the same gas at pressures P1 and P2 at absoulte temperatures T1 and T2, respectively. On joining the vessels with a small tube as shown in the figure, the gas reaches a common temperature T and a common pressure P. Determine the ratio P/T.
supporting img

1 12[P1T1+P2T2T1T2]
2 [P1T1+P2T2T1T2]
3 12[P1T2+P2T1T1T2]
4 [P1T2+P2T1T1T2]
PHXI13:KINETIC THEORY

360177 Cubical tanks X and Y have the same volumes and share a common fixed perfectly conducting wall. There is 1gm of helium in tank X and 2 gm of helium in tank Y. Which of the following is the same for both samples treating them as ideal gases?
supporting img

1 The number of molecular collisions per second on the common wall
2 The average speed of the molecules
3 The pressure exerted by the helium
4 The density of the helium
PHXI13:KINETIC THEORY

360178 N moles of a polyatomic gas (f=6) must be mixed with two moles of a monoatomic gas so that the mixture behaves as a diatomic gas. The value of N is

1 4
2 2
3 3
4 6
PHXI13:KINETIC THEORY

360179 Four mole of hydrogen, two mole of helium and one mole of water vapour form an ideal gas mixture. What is the molar specific heat at constant pressure of mixture?

1 167R
2 716R
3 R
4 237R
PHXI13:KINETIC THEORY

360180 Two spherical vessels of equal volume, are connected by a narrow tube. The apparatus contains an ideal gas at one atmosphere and at temperature 300K. Now if one vessel is immersed in a bath of constant temperature 600K and the other in a bath of constant temperature 300K. Then the common pressure will be
supporting img

1 45atm
2 1atm
3 34atm
4 43atm
PHXI13:KINETIC THEORY

360181 Two identical vessels contain the same gas at pressures P1 and P2 at absoulte temperatures T1 and T2, respectively. On joining the vessels with a small tube as shown in the figure, the gas reaches a common temperature T and a common pressure P. Determine the ratio P/T.
supporting img

1 12[P1T1+P2T2T1T2]
2 [P1T1+P2T2T1T2]
3 12[P1T2+P2T1T1T2]
4 [P1T2+P2T1T1T2]
NEET Test Series from KOTA - 10 Papers In MS WORD WhatsApp Here
PHXI13:KINETIC THEORY

360177 Cubical tanks X and Y have the same volumes and share a common fixed perfectly conducting wall. There is 1gm of helium in tank X and 2 gm of helium in tank Y. Which of the following is the same for both samples treating them as ideal gases?
supporting img

1 The number of molecular collisions per second on the common wall
2 The average speed of the molecules
3 The pressure exerted by the helium
4 The density of the helium
PHXI13:KINETIC THEORY

360178 N moles of a polyatomic gas (f=6) must be mixed with two moles of a monoatomic gas so that the mixture behaves as a diatomic gas. The value of N is

1 4
2 2
3 3
4 6
PHXI13:KINETIC THEORY

360179 Four mole of hydrogen, two mole of helium and one mole of water vapour form an ideal gas mixture. What is the molar specific heat at constant pressure of mixture?

1 167R
2 716R
3 R
4 237R
PHXI13:KINETIC THEORY

360180 Two spherical vessels of equal volume, are connected by a narrow tube. The apparatus contains an ideal gas at one atmosphere and at temperature 300K. Now if one vessel is immersed in a bath of constant temperature 600K and the other in a bath of constant temperature 300K. Then the common pressure will be
supporting img

1 45atm
2 1atm
3 34atm
4 43atm
PHXI13:KINETIC THEORY

360181 Two identical vessels contain the same gas at pressures P1 and P2 at absoulte temperatures T1 and T2, respectively. On joining the vessels with a small tube as shown in the figure, the gas reaches a common temperature T and a common pressure P. Determine the ratio P/T.
supporting img

1 12[P1T1+P2T2T1T2]
2 [P1T1+P2T2T1T2]
3 12[P1T2+P2T1T1T2]
4 [P1T2+P2T1T1T2]
PHXI13:KINETIC THEORY

360177 Cubical tanks X and Y have the same volumes and share a common fixed perfectly conducting wall. There is 1gm of helium in tank X and 2 gm of helium in tank Y. Which of the following is the same for both samples treating them as ideal gases?
supporting img

1 The number of molecular collisions per second on the common wall
2 The average speed of the molecules
3 The pressure exerted by the helium
4 The density of the helium
PHXI13:KINETIC THEORY

360178 N moles of a polyatomic gas (f=6) must be mixed with two moles of a monoatomic gas so that the mixture behaves as a diatomic gas. The value of N is

1 4
2 2
3 3
4 6
PHXI13:KINETIC THEORY

360179 Four mole of hydrogen, two mole of helium and one mole of water vapour form an ideal gas mixture. What is the molar specific heat at constant pressure of mixture?

1 167R
2 716R
3 R
4 237R
PHXI13:KINETIC THEORY

360180 Two spherical vessels of equal volume, are connected by a narrow tube. The apparatus contains an ideal gas at one atmosphere and at temperature 300K. Now if one vessel is immersed in a bath of constant temperature 600K and the other in a bath of constant temperature 300K. Then the common pressure will be
supporting img

1 45atm
2 1atm
3 34atm
4 43atm
PHXI13:KINETIC THEORY

360181 Two identical vessels contain the same gas at pressures P1 and P2 at absoulte temperatures T1 and T2, respectively. On joining the vessels with a small tube as shown in the figure, the gas reaches a common temperature T and a common pressure P. Determine the ratio P/T.
supporting img

1 12[P1T1+P2T2T1T2]
2 [P1T1+P2T2T1T2]
3 12[P1T2+P2T1T1T2]
4 [P1T2+P2T1T1T2]
PHXI13:KINETIC THEORY

360177 Cubical tanks X and Y have the same volumes and share a common fixed perfectly conducting wall. There is 1gm of helium in tank X and 2 gm of helium in tank Y. Which of the following is the same for both samples treating them as ideal gases?
supporting img

1 The number of molecular collisions per second on the common wall
2 The average speed of the molecules
3 The pressure exerted by the helium
4 The density of the helium
PHXI13:KINETIC THEORY

360178 N moles of a polyatomic gas (f=6) must be mixed with two moles of a monoatomic gas so that the mixture behaves as a diatomic gas. The value of N is

1 4
2 2
3 3
4 6
PHXI13:KINETIC THEORY

360179 Four mole of hydrogen, two mole of helium and one mole of water vapour form an ideal gas mixture. What is the molar specific heat at constant pressure of mixture?

1 167R
2 716R
3 R
4 237R
PHXI13:KINETIC THEORY

360180 Two spherical vessels of equal volume, are connected by a narrow tube. The apparatus contains an ideal gas at one atmosphere and at temperature 300K. Now if one vessel is immersed in a bath of constant temperature 600K and the other in a bath of constant temperature 300K. Then the common pressure will be
supporting img

1 45atm
2 1atm
3 34atm
4 43atm
PHXI13:KINETIC THEORY

360181 Two identical vessels contain the same gas at pressures P1 and P2 at absoulte temperatures T1 and T2, respectively. On joining the vessels with a small tube as shown in the figure, the gas reaches a common temperature T and a common pressure P. Determine the ratio P/T.
supporting img

1 12[P1T1+P2T2T1T2]
2 [P1T1+P2T2T1T2]
3 12[P1T2+P2T1T1T2]
4 [P1T2+P2T1T1T2]