`A(g) + 3B(g) rarr 4C(g)`Initially concentration of A is equal to that of B. The equilibrium concentrations of A and C are equal. Kc is :

A(g) + 3(g) hArr 4C(g) Initial concentration of A is equal to that of B. The equilibrium concentration of A and C are equal. K_(c) is equal to .

The following equilibrium exists in a closed vessel in 1L capacity A(g)+3B(g)hArr4C(g) initial cocentration of A(g) is equal to that B(g) . The equilibrium concentration of A(g) and C(g) are equal. K_(c) for the reaction is

The following equilibrium exists in a closed vessel in 1L capacity A(g)+3B(g)hArr4C(g) initial cocentration of A(g) is equal to that B(g) . The equilibrium concentration of A(g) and C(g) are equal. K_(c) for the reaction is

In Homogeneous gaseous equlibrium, M(h)+3N(g)hArr4P(g). Initial concentration of M is equal to that of N is equlibrium concentration of M and P are equal then what will be the value of K_(c) ?

In Homogeneous gaseous equlibrium, M(h)+3N(g)hArr4P(g). Initial concentration of M is equal to that of N is equlibrium concentration of M and P are equal then what will be the value of K_(c) ?

The reaction A(g)+2BhArr2C(g)+D(g) was studied using an initial concentration of B which was 1.5 times that of A. The equilibrium concentration of A and C were found to be equal. So, K_c for the equilibrium is-