For the reaction `CO(g)+Cl_(2)(g) harr COCl_(2)(g), K_(p)//K_(c)` is equal to:A. `(1)/(RT)`B. `1.0`C. `sqrt(RT)`D. RT

For the reaction `CO(g)+Cl_(2)(g) harr COCl_(2)(g), K_(p)//K_(c)` is e

1.	For the reaction `CO(g)+Cl_(2)(g) harr COCl_(2)(g), K_(p)//K_(c)` is equal to:A. `(1)/(RT)`B. `1.0`C. `sqrt(RT)`D. RT
Answer» Correct Answer - A `K_(p)=K_(c ) (RT)^(Deltan_(g))` or `(K_(p))/(K_(c))=(RT)^(Deltan_(g))` `CO(g)+Cl_(2)(g) hArr COCl_(2)(g)` Here, `Deltan_(g)=n_(p)-n_(r)=1-2=-1` `:. (K_(p))/(K_(c))=(RT)^(-1)` or `(K_(p))/(K_(c))=(1)/(RT)`

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For the reaction `CO(g)+Cl_(2)(g) harr COCl_(2)(g), K_(p)//K_(c)` is equal to:A. `(1)/(RT)`B. `1.0`C. `sqrt(RT)`D. RT

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