At `700K`, for the reaction `2SO_(2)(g)+O_(2)(g)hArr2SO_(3)(g)` the `K_(p) "is" 3.2xx10^(4)`. At the same temperature the `K_(p)` for the reaction `SO_(3)(g)hArrSO_(2)(g)+0.50O_(2)(g)` is:

For the reaction 2SO_(2)(g)+O_(2)(g)hArr2SO_(3)(g),K_(p)=3xx10^(24) at 25^(@)C . Find the value of K_(c) .

The equilibrium constant for the reaction 2SO_(2)(g)+O_(2)(g)hArr 2SO_(3)(g) is 256 at 1000 K. The equilibrium constant for the reaction : SO_(3)(g)hArr SO_(2)(g)+1//2 O_(2)(g) is :

For the reaction 2SO_(2(g))+O_(2(g))hArr2SO_(3(g)) , if K_(p)=K_(c)(RT)^(X) then the value of X is

Write the expressions of K_(c) and K_(p) for the reaction: 3O_(2)(g)hArr2O_(3)(g) .

The equilibrium constant of the reaction SO_(2)(g) + 1//2O_(2)(g)hArrSO_(3)(g) is 4xx10^(-3)atm^(-1//2) . The equilibrium constant of the reaction 2SO_(3)(g)hArr2SO_(2)(g) + O_(2)(g) would be:

K_p for the reaction 2SO_3(g) +O_2(g) leftrightarrow 2SO_3(g) is 2.5 times 10^20 atm^-1 at 500K. Calculate the K_p for the reaction SO_3(g) leftrightarrow SO_2(g)+1/2 O_2(g) .

The equilibrium constant of the reaction SO_(2)(g) + 1//2O_(2)(g)hArrSO_(3)(g) is 4xx10^(3)atm^(-1//2) . The equilibrium constant of the reaction 2SO_(3)(g)hArr2SO_(2)(g) + O_(2) would be: