`A(g)hArr B(g)+C(g),K_C=10^(-8)` `C(g)hArr D(g),K_C=10^(-5)` 1 mole of A(g) is taken in a closed container of volume 1 litre at temperature T. If concentration of D at equilibrium is `10^(-x)`, then , calculate value of x.

`A(g)hArr B(g)+C(g),K_C=10^(-8)` `C(g)hArr D(g),K_C=10^(-5)` 1 mole of

1.	`A(g)hArr B(g)+C(g),K_C=10^(-8)` `C(g)hArr D(g),K_C=10^(-5)` 1 mole of A(g) is taken in a closed container of volume 1 litre at temperature T. If concentration of D at equilibrium is `10^(-x)`, then , calculate value of x.
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`A(g)hArr B(g)+C(g),K_C=10^(-8)` `C(g)hArr D(g),K_C=10^(-5)` 1 mole of A(g) is taken in a closed container of volume 1 litre at temperature T. If concentration of D at equilibrium is `10^(-x)`, then , calculate value of x.

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