`1` mole of a gas `A` is taken in a vessel of volume `1L`. It dissociates according to the reaction `A(g)hArrB(g)+C(g) "at" 27^(@)C`. Forward and backward reaction rate constants for the reaction are `1.5xx10_(-2) "and" 3xx10_(-2)` respectively. Find the concentrations of `A,B "and" C` at equilibrium.

`1` mole of a gas `A` is taken in a vessel of volume `1L`. It dissocia

1.	`1` mole of a gas `A` is taken in a vessel of volume `1L`. It dissociates according to the reaction `A(g)hArrB(g)+C(g) "at" 27^(@)C`. Forward and backward reaction rate constants for the reaction are `1.5xx10_(-2) "and" 3xx10_(-2)` respectively. Find the concentrations of `A,B "and" C` at equilibrium.
Answer» Correct Answer - `[A]_(eq)=[B]_(eq)=[C]_(eq)=1//2M,Kp=12.3 "atm", K_(c)=0.5` m(Unitless).

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