For the reaction (1)and(2)
`A(g)hArrB(g)+C(g)`
` X(g) hArr2y(g)`
Given , `K_(p1):K_(p2)=9:1`
If the degree of dissocition of A(g) and X(g) be same then the toal pressure at equilibrium
(1)and(2) are in the ratio:

For the reaction (1)and(2) A(g)hArrB(g)+C(g) X(g) hArr2Y(g) Given , K_(p1):K_(p2)=9:1 If the degree of dissociation of A(g) and X(g) be same then the total pressure at equilibrium (1) and (2) are in the ratio:

For the reaction (1) and (2) A(g) iff B(g)+C(g) .....(1) X(g) iff 2Y(g) ....(2) Given, K_(p_1):K_(p_2) = 9:1 If the degree of dissociation of A(g) and X(g) be same then the total pressure at equilibrium (1) and (2) are in the ratio :

For the reaction CO(g)+(1)/(2) O_(2)(g) hArr CO_(2)(g),K_(p)//K_(c) is

For the reaction CO(g)+(1)/(2) O_(2)(g) hArr CO_(2)(g),K_(p)//K_(c) is

For the reaction : CO(g)+Cl_(2)(g)hArr COCl_(2)(g) the K_(p)//K_(c ) is equal to :

For the reaction CO_((g)) + (1)/(2) O_(2(g)) to CO_(2(g)) K_(p)//K_(c) is

In the reaction AB(g) hArr A(g) + B(g) at 30^(@)C, k_(p) for the dissociation equilibrium is 2.56xx10^(-2) atm . If the total pressure at equilibrium is 1 atm, then the percentage dissociation of AB is

In the reaction AB(g) hArr A(g) + B(g) at 30^(@)C, k_(p) for the dissociation equilibrium is 2.56xx10^(-2) atm . If the total pressure at equilibrium is 1 atm, then the percentage dissociation of AB is

For the reaction CO_((g)) + Cl_(2(g)) hArr COCl_(2(g)). The K_(p)//K_(c) is equal to