The equilibrium constant for, `2H_2S(g) iff 2H_2(g) + S_2(g)`is 0.469 atm at `1065^@C` and heat of dissociation is 42.4 `kcalmol^-1`. Calculate the equilibrium constant at `1132^@C`.

The equilibrium constant (K_c) for the reaction 2HCl(g) iff H_2(g) + Cl_2(g) Is 4 xx 10^(-34) at 25^@C . What is the equilibrium constant for the reaction ? 1/2 H_2(g) + 1/2Cl_2(g) iff HCl(g)

For the reaction, 2HI(g) iff H_2(g) +I_2 (g) the degree of dissociation ( alpha ) of HI (g) is related to the equilibrium constant, K_p by expression

The equilibrium constant for the reaction N_2(g) +O_2(g)iff2NO is K_1 and the equilibrium constant for the reaction 2NO(g)+O_2(g)iff2NO_2(g) is K_2 What will be the equilibrium constant for the reaction N_2(g)+2O_2(g)iff2NO_2(g)

At 448^@C , the equilibrium constant (K_C) for the reaction H_2(g) + I_2(g) iff 2HI(g) is 50.5. Predict the direction in which the reaction will proceed to reach equilibrium at 448^@C , if we start with 2.0 xx 10^-2 mol of HI, 1.0 xx 10^-2 mol of H_2 and 3.0 xx 10^-2 mol of I_2 In a 20L- container.

The equilibrium constant for the reaction 2SO_(3(g))hArr2SO_(2(g))+O_(2(g)) is 0.15 at 900 K. Calculate the equilibrium constant for the reaction 2SO_(2(g))+O_(2(g))hArr2SO_(3(g)) at the same temperature.

The equilibrium constants for the reaction, N_2(g) + O_2(g) iff 2NO(g) , at 1727^@C and 2227^@C are 4.08 xx 10^-4 and 3.6 xx 10^-3 respectively. Calculate the enthalpy change for the reaction. (Given R = 1.987 cal.)

In the equilibrium reaction CO_(2(g))+C_((s))hArr 2CO_((g)) the partial pressure of CO2 and CO are 0.78 atm and 1.22 atm respectively at equilibrium. Calculate the equilibrium constant

Heat of reaction for, C_6H_(12)(s) + 6O_2(g) to 6 CO_2(g)+6H_2O(l) at constant pressure is -651 kcal at 17^@C . Calculate the heat of reaction at constant volume at 17^@C .