- Rate constant.
- Half-life.
- Order of reaction.
- Activation energy.
No category found.
- Changes with concentration but not temperature.
- Changes with temperature but not concentration.
- Changes with both temperature and concentration.
- Is always a whole number.
- An increase in temperature.
- A decrease in reactant concentrations.
- The formation of a catalyst.
- An increase in surface area.
- Higher than the uncatalyzed reaction.
- Lower than the uncatalyzed reaction.
- Unchanged compared to the uncatalyzed reaction.
- Absent.
- A decrease due to molecular instability.
- An increase due to reduced activation energy.
- An increase due to more frequent and more energetic collisions.
- No significant change.
- The reaction is exothermic.
- The reaction is endothermic.
- Energy is required to overcome the reaction barrier.
- The reaction proceeds spontaneously.
- Speed only.
- Orientation only.
- Both proper orientation and sufficient energy.
- Minimal energy.
- Concentration.
- Surface area.
- Nature.
- Temperature.
- Elementary step.
- Overall step.
- Rate-determining step.
- Initiation step.
- Activation energy is reduced.
- The concentration of gaseous reactants effectively increases.
- The equilibrium shifts to the product side.
- The temperature of the system rises.
- Zero-order.
- First-order.
- Second-order.
- Third-order.
- Zero-order.
- First-order.
- Second-order.
- Third-order.
- Decreases, leading to fewer collisions.
- Increases, leading to fewer collisions.
- Increases, leading to a higher proportion of effective collisions.
- Remains unchanged.
- Homogeneous catalysis.
- Enzyme catalysis.
- Heterogeneous catalysis.
- Autocatalysis.
- Be reduced by half.
- Be reduced by a quarter.
- Remain unchanged.
- Double.
- High molecular weight.
- Protein nature and high specificity.
- Ability to lower activation energy.
- Reusability in reactions.
