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This deck focuses on Heat Capacity And Calorimetry, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Heat Capacity And Calorimetry 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 does the symbol q represent in calorimetry equations?
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Heat absorbed or released. Standard symbol for heat energy in thermodynamic calculations.
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This deck focuses on Heat Capacity And Calorimetry, 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: Heat absorbed or released. Standard symbol for heat energy in thermodynamic calculations.
Answer: Bomb calorimeter operates at constant volume, coffee cup at constant pressure. Different conditions affect which thermodynamic quantity is measured.
Answer: Use calorimetry to find c from q=m×c×△T. Heat known metal in calorimeter and measure temperature change.
Answer: Sum of q for temperature change and q for phase change. Both sensible and latent heat contributions must be included.
Answer: Joules per gram per degree Celsius (J/g°C). Standard SI units for energy per unit mass per temperature change.
Answer: The heat capacity of the calorimeter itself. Accounts for heat absorbed by the calorimeter apparatus itself.
Answer: No heat is lost to the surroundings. Ideal calorimeter assumption for simplified calculations.
Answer: Use qreaction=−Ccal×ΔT. Uses total calorimeter heat capacity for precise energy measurement.
Answer: Indicates heat is released by the system. Negative sign indicates exothermic process with energy release.
Answer: Heat absorbed or released. Standard symbol for heat energy in thermodynamic calculations.
Answer: Bomb calorimeter operates at constant volume, coffee cup at constant pressure. Different conditions affect which thermodynamic quantity is measured.
Answer: △H=qp. At constant pressure, heat equals enthalpy change.
Answer: To measure the heat of combustion reactions. Specialized for high-energy combustion reactions requiring sealed conditions.
Answer: Pressure remains constant throughout the experiment. Open system allows pressure equilibrium with atmosphere.
Answer: Heat capacity of the calorimeter. Standard notation for calorimeter's heat capacity.
Answer: Joules (J). Standard SI energy unit for all thermodynamic calculations.
Answer: To measure the heat of combustion reactions. Specialized for high-energy combustion reactions requiring sealed conditions.
Answer: △T=Tfinal−Tinitial. Standard definition of temperature change in thermodynamics.
Answer: C=m×c. Heat capacity equals mass times specific heat capacity.
Answer: Use c=m×△Tq. Rearrangement of the basic calorimetry equation.
Answer: The heat capacity of the calorimeter itself. Accounts for heat absorbed by the calorimeter apparatus itself.
Answer: Ccal=△Tq for the calorimeter. Determined by measuring heat and temperature change for the calorimeter.
Answer: Heat lost by the system equals heat gained by the surroundings. Based on conservation of energy in thermal equilibrium.
Answer: Acts as the medium absorbing or releasing heat. Water's high heat capacity makes it ideal for absorbing reaction heat.
Answer: Acts as the medium absorbing or releasing heat. Water's high heat capacity makes it ideal for absorbing reaction heat.
Answer: q=m×△Htransition. Where △Htransition is the specific enthalpy of phase change.
Answer: To measure heat of reaction at constant volume. Bomb calorimeter operates under constant volume conditions.
Answer: Sum of q for temperature change and q for phase change. Both sensible and latent heat contributions must be included.
Answer: △U=qv. At constant volume, heat equals internal energy change.
Answer: The heat required to raise the temperature of 1 gram of a substance by 1°C. This is the definition of specific heat capacity, an intensive property.
Answer: Use calorimetry to find c from q=m×c×ΔT. Heat known metal in calorimeter and measure temperature change.
Answer: Pressure remains constant throughout the experiment. Open system allows pressure equilibrium with atmosphere.
Answer: q=m×c×△T. Fundamental equation for calculating thermal energy transfer.
Answer: Measure △T and calculate q using solution mass and c. Dissolution process measured by temperature change of solution.
Answer: qreaction=−(qwater+qcal). Accounts for heat absorbed by both water and calorimeter.
Answer: C=△Tq. Heat capacity is the ratio of heat absorbed to temperature change.
Answer: Heat lost by the system equals heat gained by the surroundings. Based on conservation of energy in thermal equilibrium.
Answer: q=m×c×ΔT. Same formula applies to any substance including water in calorimeters.
Answer: Use c=m×△Tq. Rearrangement of the basic calorimetry equation.
Answer: Heat capacity is total heat required, specific is per gram. Heat capacity is extensive, specific heat is intensive property.
Answer: To measure heat of reaction at constant volume. Bomb calorimeter operates under constant volume conditions.
Answer: q=m×c×△T. Where q is heat, m is mass, c is specific heat, and △T is temperature change.
Answer: Energy cannot be created or destroyed; it is conserved. Fundamental principle stating total energy remains constant in isolated systems.
Answer: Indicates heat is released by the system. Negative sign indicates exothermic process with energy release.
Answer: C=m×c. Heat capacity equals mass times specific heat capacity.
Answer: q=m×c×△T. Same formula applies to any substance including water in calorimeters.
Answer: Joules per gram per degree Celsius (J/g°C). Standard SI units for energy per unit mass per temperature change.
Answer: No heat is lost to the surroundings. Ideal calorimeter assumption for simplified calculations.
Answer: △U=qv. At constant volume, heat equals internal energy change.
Answer: Joules (J). Standard SI energy unit for all thermodynamic calculations.
Answer: q=m×c×△T. Fundamental equation for calculating thermal energy transfer.
Answer: qreaction=−(qwater+qcal). Accounts for heat absorbed by both water and calorimeter.
Answer: q=m×c×△T. Where q is heat, m is mass, c is specific heat, and △T is temperature change.
Answer: Heat capacity of the calorimeter. Standard notation for calorimeter's heat capacity.
Answer: Ccal=△Tq for the calorimeter. Determined by measuring heat and temperature change for the calorimeter.
Answer: To measure the heat of chemical reactions or physical changes. Primary purpose is precise measurement of thermal energy changes.
Answer: Heat capacity is total heat required, specific is per gram. Heat capacity is extensive, specific heat is intensive property.
Answer: Use qreaction=−Ccal×ΔT. Uses total calorimeter heat capacity for precise energy measurement.
Answer: △H=qp. At constant pressure, heat equals enthalpy change.
Answer: q=m×△Htransition. Where △Htransition is the specific enthalpy of phase change.
Answer: C=△Tq. Heat capacity is the ratio of heat absorbed to temperature change.
Answer: Measure △T and calculate q using solution mass and c. Dissolution process measured by temperature change of solution.
Answer: Determining enthalpy changes of reactions. Essential application for studying reaction thermodynamics.
Answer: Energy cannot be created or destroyed; it is conserved. Fundamental principle stating total energy remains constant in isolated systems.
Answer: To measure the heat of chemical reactions or physical changes. Primary purpose is precise measurement of thermal energy changes.
Answer: Determining enthalpy changes of reactions. Essential application for studying reaction thermodynamics.