[" (ctor,equilbrium constant "K_(k)" and "K_(2)" for the following equilibrium "],[NO(g)+1/2O_(K)(g)=NO_(2)(g)],[2NO_(2)(g)=NO(g)+O_(2)(g)],[" are related as - "]

Equilibrium constants K_1 and K_2 for the following equilibria NO_(g) +1/2O_2 hArr NO_(2(g)) and 2NO_(2(g)) overset(K_2)(hArr) 2NO_(g)+ O_(2(g) are related as

Equilibrium constants K_1 and K_2 for the following equilibria (a) NO_((g)) + 1/2 O_(2(g)) hArr NO_(2(g)) (b) 2NO_(2(g)) hArr 2NO_((g)) + O_(2(g)) are related as :

Equilibrium constants K_(1) and K_(2) for the following equilibria NO(g) +1//2O_(2)(g) overset(K_(1))(hArr) NO_(2)(g) and 2NO_(2)(g) overset(K_(2))(hArr)2NO(g)+O_(2)(g) are related as

Equilibrium constants K_(1) and K_(2) for the following equilibria NO(g) +1//2O_(2)(g) overset(K_(1))(hArr) NO_(2)(g) and 2NO_(2)(g) overset(K_(2))(hArr)2NO(g)+O_(2)(g) are related as

Consider the following gaseous equilibria with equilibrium constant K_(1) "and" K_(2) respectively. SO_(2)(g)+1/2O_(2)(g) rarr SO_(3)(g), 2SO_(3)(g) rarr 2SO_(2)(g) + O_(2)(g) The equilibrium constant are related as :

Consider the following gaseous equilibria with equilibrium constant K_(1) "and" K_(2) respectively. SO_(2)(g)+1/2O_(2)(g) rarr SO_(3)(g), 2SO_(3)(g) rarr 2SO_(2)(g) + O_(2)(g) The equilibrium constant are related as :