At 1127 K & 1 atm, a gaseous mixture of CO and `CO_(2)` in equilibrium with solid carbon has 90.55% CO by mass `C(s)+CO_(2)(g)hArr 2CO(g)`. Calculate `K_(C)` for this reaction at the above temperature.

At 1127K & 1 atm, a gaseous mixture of CO and CO_2 in equilibrium with solid carbon has 90.55% of CO by mass C(g)+CO_2(g)

At 318K and 2 atm total pressure the degree of dissociation (alpha) is 28% at the equilibrium condition for the reaction N_(2)O_(4)(g)hArr 2NO_(2)(g) . Calculate K_(p) & K_(c) .

For the equilibrium 2NOCl_((g))hArr2NO_((g))+Cl_(2(g)) the value of the equilibrium constant K_(c) is 3.75xx10^(-6) at 790^(@)C . Calculate K_(p) for this equilibrium at the same temperature.

The burning of coal represented by the equation, C(s) + O_2(g) rarr CO_2(g) . The rate of this reaction is increased by:

The equilibrium pressure of CO_2 , CO and O_2 for the reaction 2CO_2(g)iff2CO(g)+O_2(g) at 3000K are 0.6, 0.4 and 0.2 atm respectively calculate (i) K_p and (ii) K_c for this reaction at that temperature.

The reaction CO(g)+3H_(2)(g) hArr CH_(4)(g)+H_(2)O(g) is at equilibrium at 1300K in a 1L flask. It also contains 0.30 mol of CO, 0.10 mol of H_(2) and 0.02 mol of H_2O and an unknown amount of CH_(4) in the flask. Determine the concentration on CH_(4) in the mixture. the equilibrium constant, K_(c) for the reaction at the given temperature is 3.90.

Calculate the value of K_P for the given reactions: C(s)+CO_2(g)hArr2CO(g),K_c=0.153 (at 854^(@)C )

What will be the relation between K_(p) and K_(c) for the given equilibrium ? CO(g)+H_(2)O(g)hArrCO_(2)(g)+H_(2)(g) .

The given reaction is carried out in a closed vessel: CaCO_(3)(s)hArr CaO(s)+CO_(2)(g), DeltaH^(0) gt0 . What would be the effect of the following changes on the equilibrium of the reaction if (1) solid CaCO_(3) is added to the reaction system, (2) some amount of CaO is removed from the reaction system, (3) CO_(2)(g) is introduced into the reaction system at constant volume and temperature., (4) temperature is increased, and (5) volume of the reaction vessel is reduced at constant temperature.