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This deck focuses on Free Energy And Equilibrium, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Free Energy And Equilibrium 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 is the effect of increasing temperature on an exothermic reaction's equilibrium position?
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Shifts to the left (toward reactants). Higher temperature opposes the exothermic direction per Le Châtelier's principle.
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This deck focuses on Free Energy And Equilibrium, 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: Shifts to the left (toward reactants). Higher temperature opposes the exothermic direction per Le Châtelier's principle.
Answer: Depends only on initial and final states. State functions are path-independent, only depending on endpoints.
Answer: △G=0. At equilibrium, there is no net change in free energy.
Answer: Endothermic. Positive enthalpy change indicates heat is absorbed from surroundings.
Answer: Endothermic. Positive enthalpy change indicates heat is absorbed from surroundings.
Answer: Shifts toward more moles of gas. Larger volume favors the side with more gas molecules.
Answer: Shifts to the right (toward products). Higher temperature favors the endothermic direction according to Le Châtelier's principle.
Answer: △G=0. At equilibrium, there is no net change in free energy.
Answer: K decreases. Higher temperature disfavors exothermic reactions, reducing K.
Answer: Q=K. At equilibrium, the reaction quotient equals the equilibrium constant.
Answer: △G=△G°+RTlnQ. This equation relates free energy to reaction progress via quotient Q.
Answer: Shifts toward more moles of gas. Larger volume favors the side with more gas molecules.
Answer: Shifts to the left (toward reactants). Higher temperature opposes the exothermic direction per Le Châtelier's principle.
Answer: Exothermic. Negative enthalpy change indicates heat is released to surroundings.
Answer: Joules per Kelvin (J/K). Entropy has units of energy per temperature unit.
Answer: Endothermic. Positive enthalpy change indicates heat is absorbed from surroundings.
Answer: Bond dissociation energy. Energy input needed to break existing chemical bonds in reactants.
Answer: Depends only on initial and final states. State functions are path-independent, only depending on endpoints.
Answer: The system is at equilibrium. At equilibrium, forward and reverse reaction rates are equal.
Answer: The measure of disorder or randomness. Entropy quantifies the number of possible microstates in a system.
Answer: Shifts to the right (toward products). Lower temperature favors the exothermic direction per Le Châtelier's principle.
Answer: The total heat content of a system. Enthalpy represents the total energy stored in chemical bonds.
Answer: △G=−RTlnK. This equation connects thermodynamics (△G) to kinetics (K).
Answer: Joules (J). Energy units match the dimensions of enthalpy and entropy terms.
Answer: Reactants are favored at equilibrium. Small K values indicate equilibrium lies toward the reactant side.
Answer: Shifts toward fewer moles of gas. Higher pressure favors the side with fewer gas molecules.
Answer: Decreases solubility. Common ion effect shifts equilibrium by Le Châtelier's principle.
Answer: Shifts to the right (toward products). Higher temperature favors the endothermic direction according to Le Châtelier's principle.
Answer: Endothermic. Positive enthalpy change indicates heat is absorbed from surroundings.
Answer: The reaction is spontaneous. Negative △G means the process proceeds forward without external energy.
Answer: 8.314 J/mol\cdotpK. Universal gas constant used in thermodynamic calculations.
Answer: Shifts toward fewer moles of gas. Higher pressure favors the side with fewer gas molecules.
Answer: Gibbs free energy, △G. Gibbs free energy determines whether reactions proceed spontaneously.
Answer: The reaction is spontaneous. Negative △G means the process proceeds forward without external energy.
Answer: K increases. Higher temperature favors endothermic reactions, increasing K.
Answer: Negative △G indicates spontaneity. The sign of △G determines if a reaction proceeds spontaneously.
Answer: Negative △G indicates spontaneity. The sign of △G determines if a reaction proceeds spontaneously.
Answer: No effect on equilibrium position. Catalysts speed up both forward and reverse reactions equally.
Answer: The measure of disorder or randomness. Entropy quantifies the number of possible microstates in a system.
Answer: The reaction is non-spontaneous. Positive △G means external energy is required for the process to occur.
Answer: Gibbs free energy, △G. Gibbs free energy determines whether reactions proceed spontaneously.
Answer: No effect on equilibrium. Inert gases don't participate and don't change partial pressures.
Answer: Exothermic. Negative enthalpy change indicates heat is released to surroundings.
Answer: Products are favored at equilibrium. Large K values indicate equilibrium lies toward the product side.
Answer: K decreases. Higher temperature disfavors exothermic reactions, reducing K.
Answer: No effect on equilibrium. Inert gases don't participate and don't change partial pressures.
Answer: △G°=−RTlnK. Standard free energy change relates directly to equilibrium constant.
Answer: How a system at equilibrium responds to changes. Le Châtelier's principle describes equilibrium shifts to counteract disturbances.
Answer: Joules per Kelvin (J/K). Entropy has units of energy per temperature unit.
Answer: Products are favored at equilibrium. Large K values indicate equilibrium lies toward the product side.
Answer: 8.314 J/mol\cdotpK. Universal gas constant used in thermodynamic calculations.
Answer: How a system at equilibrium responds to changes. Le Châtelier's principle describes equilibrium shifts to counteract disturbances.
Answer: Rate of forward and reverse reactions are equal. Dynamic equilibrium means constant concentrations with ongoing reactions.
Answer: Bond dissociation energy. Energy input needed to break existing chemical bonds in reactants.
Answer: △G°=−RTlnK. Standard free energy change relates directly to equilibrium constant.
Answer: Shifts to the right (toward products). Lower temperature favors the exothermic direction per Le Châtelier's principle.
Answer: △G=−RTlnK. This equation connects thermodynamics (△G) to kinetics (K).
Answer: No effect on equilibrium position. Catalysts speed up both forward and reverse reactions equally.