A cylinder containing an ideal gas (0.1 mol of 1.0 dm3 ) is in thermal equilibrium with a large volume of 0.5 molal aqueous solution of ethylene glycol at it freezing point. If the stoppers S1 and S2 (as shown in the figure) suddenly withdrawn, the volume of the gas in liters after equilibrium is achieved will be(Given, Kf(water)=2.0 K kg mol–1 ,R=0.08 dm3atm K–1mol–1)

A cylinder containing an ideal gas (0.1 mol of 1.0 dm3 ) is in thermal

1.	A cylinder containing an ideal gas (0.1 mol of 1.0 dm3 ) is in thermal equilibrium with a large volume of 0.5 molal aqueous solution of ethylene glycol at it freezing point. If the stoppers S1 and S2 (as shown in the figure) suddenly withdrawn, the volume of the gas in liters after equilibrium is achieved will be(Given, Kf(water)=2.0 K kg mol–1 ,R=0.08 dm3atm K–1mol–1)
Answer» A cylinder containing an ideal gas (0.1 mol of 1.0 $d m^{3}$ ) is in thermal equilibrium with a large volume of 0.5 molal aqueous solution of ethylene glycol at it freezing point. If the stoppers $S_{1}$ and $S_{2}$ (as shown in the figure) suddenly withdrawn, the volume of the gas in liters after equilibrium is achieved will be(Given, $K_{f} (water) = 2.0 {K kg mol}^{- 1}$ , $R = 0.08 {dm}^{3} {atm K}^{- 1} {mol}^{- 1})$