At 1000 K, the value of `K_(p)` for the reaction: `A(g) + 2B(g)hArr3C(g) + D(g)` is `0.05` atmosphere. The value of `K_(c)` in terms of R would be:A. 20000 RB. `0.02 R`C. `5xx10^(-5) R`D. `5xx10^(-5)xxR^(-1)`

At 1000 K, the value of `K_(p)` for the reaction: `A(g) + 2B(g)hArr3C(

1.	At 1000 K, the value of `K_(p)` for the reaction: `A(g) + 2B(g)hArr3C(g) + D(g)` is `0.05` atmosphere. The value of `K_(c)` in terms of R would be:A. 20000 RB. `0.02 R`C. `5xx10^(-5) R`D. `5xx10^(-5)xxR^(-1)`
Answer» Correct Answer - D `K_(p) = K_(c)(RT)^(Delta n), Delta n = 4 - 3 = 1` `0.05 = K_(c)Rxx1000` `K_(c) = 5xx10^(-5)xxR^(-1)`

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At 1000 K, the value of `K_(p)` for the reaction: `A(g) + 2B(g)hArr3C(g) + D(g)` is `0.05` atmosphere. The value of `K_(c)` in terms of R would be:A. 20000 RB. `0.02 R`C. `5xx10^(-5) R`D. `5xx10^(-5)xxR^(-1)`

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