For the reaction `PCI_(3)(g) + CI_(2)(g)hArrPCI_(5)(g)`, the value of `K_(p)` at `250^(@)`C is `0.61` `atm^(-1)`. The value of `K_(c)` at this temperature will beA. 15 `(mol//I)^(-1)`B. 26 `(mol//I)^(-1)`C. 35 `(mol//I)^(-1)`D. 52 `(mol//I)^(-1)`

For the reaction `PCI_(3)(g) + CI_(2)(g)hArrPCI_(5)(g)`, the value of

1.	For the reaction `PCI_(3)(g) + CI_(2)(g)hArrPCI_(5)(g)`, the value of `K_(p)` at `250^(@)`C is `0.61` `atm^(-1)`. The value of `K_(c)` at this temperature will beA. 15 `(mol//I)^(-1)`B. 26 `(mol//I)^(-1)`C. 35 `(mol//I)^(-1)`D. 52 `(mol//I)^(-1)`
Answer» Correct Answer - B `PCI_(3)(g) + CI_(2)(g)hArrPCI_(5)(g)` `Delta n = -1, K_(p) = 0.61 atm^(-1)` `K_(C) = K_(p)(RT)^(-Delta n)` `= 0.61 (0.0821xx523)^(1) = 26 mol//L`

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For the reaction `PCI_(3)(g) + CI_(2)(g)hArrPCI_(5)(g)`, the value of `K_(p)` at `250^(@)`C is `0.61` `atm^(-1)`. The value of `K_(c)` at this temperature will beA. 15 `(mol//I)^(-1)`B. 26 `(mol//I)^(-1)`C. 35 `(mol//I)^(-1)`D. 52 `(mol//I)^(-1)`

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