For `A(g) hArr 2B(g)`, equilibrium constant at total equilibrium pressure `p_(1)` is `K_(p1)& ` for `C(g)hArrD(g)+E(g)`. equilibrium constant at total equilibrium pressure `p_(2)` is `K_(p2)`. If degree of dissciation of `A & C` are same, then the ratio `K_(p1) //K_(p2)` , if `2p_(1)=p_(2)`, is `:`
For the reaction H_(2)(g)+I_(2)(g) hArr 2HI(g) The equilibrium constant K_(p) changes with
The degree of dissociation of SO_(3) at equilibrium pressure is: K_(p) for 2SO_(3) (g)hArr2SO_(2)(g) + O_(2) (g)
The equilibrium constant K_p for the reaction AhArr2B is related to the degree of dissociation (alpha) of A and total pressure P as
For the reaction H_(2)(g)+I_(2)(g)hArr2HI(g) the equilibrium constant K_(p) changes with
In the equilibrium constant for AhArr B+C is K_(eq)^((1)) and that of B+C=P is K_(eq)^((2)) , the equilibrium constant for AhArr P is :
For the reaction N_(2)O_(4)(g)hArr2NO_(2)(g) , the degree of dissociation at equilibrium is 0.2 at 1 atm pressure. The equilibrium constant K_(p) will be
For the reaction N_(2)O_(4)(g) hArr 2NO_(2)(g) the degree of dissociation at equilibrium is 0.2 at 1 atmospheric pressure. The equilibrium constant K_(p) will be