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This deck focuses on Thermodynamic And Kinetic Control, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Thermodynamic And Kinetic Control in AP Chemistry with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What role does entropy change (△S) play in thermodynamics?
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It affects Gibbs free energy. Entropy change contributes to overall ΔG calculation.
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This deck focuses on Thermodynamic And Kinetic Control, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: It affects Gibbs free energy. Entropy change contributes to overall ΔG calculation.
Answer: The product with the lower Gibbs free energy. Most negative ΔG indicates highest stability.
Answer: Thermodynamic control. Reversible reactions can reach equilibrium, favoring stable products.
Answer: The reaction is spontaneous. Negative ΔG means reaction proceeds forward spontaneously.
Answer: No effect on equilibrium position. Catalysts affect rate but not thermodynamic equilibrium.
Answer: At higher temperatures. Higher T provides energy to overcome barriers, favoring stability.
Answer: It can increase thermodynamic control favorability. Higher T promotes equilibration toward stable products.
Answer: It increases the reaction rate. Lowers Ea, increasing forward and reverse rates equally.
Answer: The product formed at a faster rate. Pathway with lowest activation energy dominates formation.
Answer: Activation energy. Height of energy barrier determines formation rate.
Answer: The product formed at a faster rate. Pathway with lowest activation energy dominates formation.
Answer: Thermodynamic control. Stability indicates thermodynamic favorability over kinetic.
Answer: Gibbs free energy. Overall energy change determines final product stability.
Answer: Thermodynamic control. Stability indicates thermodynamic favorability over kinetic.
Answer: Thermodynamic control favors stability; kinetic control favors speed. Thermodynamic focuses on lowest energy state, kinetic on pathway speed.
Answer: The energy required to initiate a reaction. Minimum energy needed for reactants to reach transition state.
Answer: It is likely kinetically favorable. Low barrier means reaction proceeds quickly.
Answer: Stability of the final product. Thermodynamic stability determines final product distribution.
Answer: Gibbs free energy change. Change in Gibbs free energy for the reaction.
Answer: The most stable product. Product with most negative ΔG is thermodynamically favored.
Answer: Thermodynamic control favors stability; kinetic control favors speed. Thermodynamic focuses on lowest energy state, kinetic on pathway speed.
Answer: Control based on the rate of product formation. Reaction outcome determined by formation rates, not stability.
Answer: The product with the lower activation energy. Lower Ea means faster formation rate.
Answer: No effect on equilibrium position. Catalysts affect rate but not thermodynamic equilibrium.
Answer: Yes, especially temperature. Temperature strongly influences kinetic versus thermodynamic control.
Answer: At higher temperatures. Higher T provides energy to overcome barriers, favoring stability.
Answer: The minimum energy needed to start a reaction. Energy barrier that must be overcome for reaction to proceed.
Answer: Control based on product stability. Reaction outcome determined by final energy states.
Answer: It can decrease kinetic control favorability. Higher T allows equilibration, reducing kinetic preference.
Answer: Speed of product formation. Rate of formation determines which product predominates.
Answer: Higher T favors thermodynamic; lower T favors kinetic. Temperature affects energy available to overcome barriers.
Answer: Kinetic control. Fast formation rate indicates kinetic control dominance.
Answer: It is thermodynamically favorable. High stability corresponds to negative ΔG values.
Answer: The reaction is spontaneous. Negative ΔG means reaction proceeds forward spontaneously.
Answer: At lower temperatures. Lower T reduces thermal energy, favoring fastest pathway.
Answer: Kinetic control. Product with lowest Ea forms fastest under kinetic control.
Answer: It is thermodynamically favorable. High stability corresponds to negative ΔG values.
Answer: Thermodynamic control. Reversible reactions can reach equilibrium, favoring stable products.
Answer: Gibbs free energy change. Change in Gibbs free energy for the reaction.
Answer: It indicates reaction spontaneity. Negative ΔG means spontaneous, positive means non-spontaneous.
Answer: It is likely kinetically favorable. Low barrier means reaction proceeds quickly.
Answer: Kinetic control. Irreversible reactions trap products, favoring fast formation.
Answer: Yes, especially temperature. Temperature strongly influences kinetic versus thermodynamic control.
Answer: Activation energy. Height of energy barrier determines formation rate.
Answer: Gibbs free energy. Overall energy change determines final product stability.
Answer: It indicates reaction spontaneity. Negative ΔG means spontaneous, positive means non-spontaneous.
Answer: It prioritizes the product formed fastest. Lowest activation energy pathway determines formation rate.
Answer: It can increase thermodynamic control favorability. Higher T promotes equilibration toward stable products.
Answer: It lowers the activation energy. Provides alternative pathway with lower activation energy.
Answer: Control based on product stability. Reaction outcome determined by final energy states.
Answer: Kinetic control. Fast formation rate indicates kinetic control dominance.
Answer: The reaction is non-spontaneous. Positive ΔG means reaction requires energy input.
Answer: Higher T favors thermodynamic; lower T favors kinetic. Temperature affects energy available to overcome barriers.
Answer: Gibbs free energy. Negative ΔG indicates spontaneous reaction direction.
Answer: Thermodynamic control. Product with lowest ΔG is thermodynamically favored.
Answer: The reaction is non-spontaneous. Positive ΔG means reaction requires energy input.
Answer: The product with the lower activation energy. Lower Ea means faster formation rate.
Answer: It prioritizes the most stable product. Lowest Gibbs free energy determines thermodynamic favorability.
Answer: The product with the lower Gibbs free energy. Most negative ΔG indicates highest stability.
Answer: Control based on the rate of product formation. Reaction outcome determined by formation rates, not stability.
Answer: At lower temperatures. Lower T reduces thermal energy, favoring fastest pathway.
Answer: It prioritizes the most stable product. Lowest Gibbs free energy determines thermodynamic favorability.
Answer: Gibbs free energy. Negative ΔG indicates spontaneous reaction direction.
Answer: It increases the reaction rate. Lowers Ea, increasing forward and reverse rates equally.
Answer: △G=△H−T△S. Combines enthalpy and entropy effects at given temperature.
Answer: Thermodynamic control. Product with lowest ΔG is thermodynamically favored.