Sufficient amount of a solid `X` is taken in a rigid vessel at `T^(@)C` where it attained the equilibrium: `X(s)hArrY_((g))+2Z(g)` Total pressure was measured. Now the vessel is evcuated and filled with sufficient amount of another solid `V` under same conditions where it attained theequilibrium: Total pressure measured now is found to be double that of previous value. Now, if both `X "&" V` solids are allowed to attain their respective equilibrium together in the same vessel at same temperature, select the correct staement(s):A. `K_(P)` for decompostion reaction of `V(s)=8xxK_(P)` for decomposition reaction of `X (s)`.B. In the`3^(rd)` case (when both solids are simultaneously establishing their equilibrium), `P_(Y)=(1)/(8)P_(W)`.C. `P_(Y) "in case"=(1)/(3sqrt3)xxP_(Y) "in" 1^(st)` case.D. In the `3^(rd)` case,`P_(W),P_(Z)=4.9`

Sufficient amount of a solid `X` is taken in a rigid vessel at `T^(@)C

1.	Sufficient amount of a solid `X` is taken in a rigid vessel at `T^(@)C` where it attained the equilibrium: `X(s)hArrY_((g))+2Z(g)` Total pressure was measured. Now the vessel is evcuated and filled with sufficient amount of another solid `V` under same conditions where it attained theequilibrium: Total pressure measured now is found to be double that of previous value. Now, if both `X "&" V` solids are allowed to attain their respective equilibrium together in the same vessel at same temperature, select the correct staement(s):A. `K_(P)` for decompostion reaction of `V(s)=8xxK_(P)` for decomposition reaction of `X (s)`.B. In the`3^(rd)` case (when both solids are simultaneously establishing their equilibrium), `P_(Y)=(1)/(8)P_(W)`.C. `P_(Y) "in case"=(1)/(3sqrt3)xxP_(Y) "in" 1^(st)` case.D. In the `3^(rd)` case,`P_(W),P_(Z)=4.9`
Answer» Correct Answer - A::B::C::D

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