The degree of dissociation of `SO_3` is `alpha` at equilibrium pressure `P_0`.
`K_p` for `2SO_3(g) hArr 2SO_2(g)+O_2(g)` is :

The degree of dissociation of SO_(3) is alpha at equilibrium pressure P_(0) . K_(P) for 2SO_(3)(g)hArr2SO_(2)(g)+O_(2)(g) is

The degree of dissociation of SO_(3) at equilibrium pressure is: K_(p) for 2SO_(3) (g)hArr2SO_(2)(g) + O_(2) (g)

At equilibrium degree of dissociation of SO_(3) is 50% for the reaction 2SO_(3)(g)hArr 2SO_(2)(g)+O_(2)(g) . The equilibrium constant for the reaction is

At equilibrium degree of dissociation of SO_(3) is 50% for the reaction 2SO_(3)(g)hArr 2SO_(2)(g)+O_(2)(g) . The equilibrium constant for the reaction is

At 318K and 2 atm total pressure the degree of dissociation (alpha) is 28% at the equilibrium condition for the reaction N_(2)O_(4)(g)hArr 2NO_(2)(g) . Calculate K_(p) & K_(c) .

Write the equilibrium constant expression for the following reactions : 2SO_3(g)hArr 2SO_2(g) +O_2(g)

Given the mathematical expression for the equilibrium constant K_c for the reaction. 2SO_3(g) hArr 2SO_2(g)+O_2(g)

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 :

Find out the units of K_c and K_p for the following equilibrium reactions : 2SO_2(g)+ O_2(g) hArr 2SO_3(g)