| (A) | Concentration of the reactants and the products increases. |
| (B) | Equilibrium will shift in the forward direction. |
| (C) | The equilibrium constant increases since the concentration of the products increases. |
| (D) | The equilibrium constant remains unchanged as the concentration of the reactants and the products remains the same. |
| 1. | (A) and (B) only | 2. | (A), (B), and (D) only |
| 3. | (B) and (C) only | 4. | (A), (B), and (C) only |
| 1. | On adding He gas at constant volume, equilibrium shifts in forward reaction. |
| 2. | On adding He gas at constant pressure, equilibrium shifts in forward reaction. |
| 3. | On adding He gas at constant pressure, equilibrium shifts in backward reaction. |
| 4. | On adding He gas at constant volume, equilibrium shifts in backward reaction. |
Consider the following reaction
\(\mathrm{N}_2 \mathrm{O}_4(g) \rightleftharpoons 2 \mathrm{NO}_2(g) ; \Delta H^0=+58 \mathrm{~kJ}\)
Also, consider the following stimuli on the above equilibrium.
| (I) | Temperature is decreased. |
| (II) | Pressure is increased by adding N2 at constant temperature. |
For each of the above cases (I, II), the direction in which the equilibrium shifts is:
1. (I) Towards reactant, (II) No change.
2. (I) Towards product, (II) Towards reactant.
3. (I) Towards product, (II) No change.
4. (I) Towards reactant, (II) Towards product.
Find the change that will increase the amount of ClF₃ at equilibrium for the exothermic reaction:
Cl₂(g) + 3F₂(g) ⇌ 2ClF₃(g), ΔH = −329 kJ
1. Adding F₂