How is equilibrium affected by increase of pressure and increase of temperature in `P(g)+3Q(g)iff2M(g)+N(g)+heat`

Dihydrogen gas is obtained from natural gas by partial oxidation with steam as per following CH_(4)(g)+H_(2)O(g)hArr CO(g)+3H_(2)(g) How will the values of K_(p) and composition of equilibrium mixture be affected by (i) Increasing the pressure (ii) Incresing the temperature (iii) using a catalyst ?

How will the following reaction equilibrium be affected if the volume of each reaction system is increased at constant temperature? (1) 2SO_(2)(g)+O_(2)(g)hArr 2SO_(3)(g) (2) C(s)+(1)/(2)O_(2)(g)hArr CO(g)

Does the number of moles of reaction products increase, decrease of remain same when each of the following equilibria is subjected to a decrease in pressure by increasing the volume? PCl_(5)(g)hArr PCl_(3)(g)+Cl_(2)(g)

Consider the reaction, A(g)+2B(g)hArr 2D(g)+3E(g)+ heat and state how the following changes at equilibrium will affect the yield of the product. D(g)- pressure is increased at constant temperature.

Consider the reaction : A(s)+2B_2(g)toAB_4(g) , /_\H<0 . At equilibrium, what would be the effect of increasing temperature on the concentration of B_2(g) ?

What is the amount of heat required to increase the temperature of 7 g N_2 by 50^@C .

Explain the effect of (i) increasing pressure and (ii) continuous removal of Hl at constant temperature on the following equilibrium : H_2(g)+l_2(g)iff2Hl(g)

At a given temperature, the reaction, A(g)hArr 2N(g) , is in equilibrium in a closed flask. At the same temperature, the reaction c(g)hArr D(g)+E(g) is in equilibrium in an another closed flask. Values of equilibrium constants of these two reactions are K_(p1) and K_(p2) respectively and the total pressures of the equilibrium mixtures are P_1 and P_2 respectively. If K_(p1) : K_(p2) = 1 : 4 and P_1 : P_2 = 1 : 4 then the ratio of degree of dissociation of A(g) and C(g) are ( assume the degrees of dissociation of both are very small compared to 1)-

Consider the reaction, A(g)+2B(g)hArr 2D(g)+3E(g)+ heat and state how the following changes at equilibrium will affect the yield of the product. D(g)- temperature is increased.