[" For the equilibrium "],[qquad [PCl_(5),,PCl_(3)],[" vessel,"K_(P)" is found to be double of "K_(C)" ."],[" This is attained when,"],[" (A) "T=2K],[" (B) "T=12.18K],[" (C) "T=24.36K]]

For the equilibrium in a closed vessel " "PCl_(5)(g) hArr PCl_(3)(g)+Cl_(2)(g) , K_(p) is found to be double of K_(e) . This is attained when :

For the equilibrium in a closed vessel " "PCl_(5)(g) hArr PCl_(3)(g)+Cl_(2)(g) , K_(p) is found to be double of K_(e) . This is attained when :

For the equilibrium in a closed vessel " "PCl_(5)(g) hArr PCl_(3)(g)+Cl_(2)(g) , K_(p) is found to be half of K_(c) . This is attained when :

For the following equilibrium PCl_(5)(g) hArr PCl_(3)(g)+Cl_(2)(g) K_(p) is formed to be equal to K_(x ) . This is attained at

The equilibrium : PCl_(5(g))hArrPCl_(3(g))+Cl_(2(g)) shows that K_(p) (atm) is double to the value of K_(c) ( mol litre^(-1) ) at a particular temperature T , then T is :

For the following gaseous phase eqilibrium PCl_(5(s)) hArr PCl_(3(g))+Cl_(2(g)) Kp is found to be equal to K_(x) K_(x) is equilibrium constant when concentratiion are taken in interms of mole fraction). This attained when