At certain temp. compound `AB_(2(g))` dissociate according to reaction `AB_(2(g))hArrAB_(g)+B_(g)` with degree of dissociation `prop_(1)` which is small compared with unity. The expression of `K_(P)` in terms of `prop`and initial pressure P is :-

At certain temperature compound AB_(2)(g) dissociates according to the reaction 2AB_(2)(g) hArr2AB (g)+B_(2)(g) With degree of dissociation alpha Which is small compared with unity, the expression of K_(p) in terms of alpha and initial pressure P is :

At certain temperature compound AB_(2)(g) dissociates accoring to the reacation 2AB_(2)(g) hArr2AB (g)+B_(2)(g) With degree of dissociation alpha Which is small compared with unity, the expression of K_(p) in terms of alpha and initial pressure P is :

At certain temperature compound AB_(2)(g) dissociates accoring to the reacation 2AB_(2)(g) hArr2AB (g)+B_(2)(g) With degree of dissociation alpha Which is small compared with unity, the expression of K_(p) in terms of alpha and initial pressure P is :

At certain temperature compound AB_2(g) dissociates according to the reaction 2AB_2(g) iff 2AB(g) + B_2(g) . With degree of dissociation alpha , which is small compared with unity. The expression of K_p , in terms of alpha and initial pressure P is :

At temperature T, a compound AB_(2)(g) dissociates according to the reaction 2AB_(2)(g)hArr2AB(g)+B_(2)(g) with degree of dissociation alpha , which is small compared with unity. The expression for K_(p) in terms of alpha and the total pressure P_(T) is

At temperature T, a compound AB_(2)(g) dissociates according to the reaction 2AB_(2)(g)hArr2AB(g)+B_(2)(g) with degree of dissociation alpha , which is small compared with unity. The expression for K_(p) in terms of alpha and the total pressure P_(T) is