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This deck focuses on Solids Liquids And Gases, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Solids Liquids And Gases 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 main difference between crystalline and amorphous solids?
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Crystalline solids have ordered structures; amorphous do not. Structural organization distinguishes these two solid types.
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This deck focuses on Solids Liquids And Gases, 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: Crystalline solids have ordered structures; amorphous do not. Structural organization distinguishes these two solid types.
Answer: Molarity is moles of solute per liter of solution. Standard concentration unit expressed as mol/L or M.
Answer: Theory explaining the behavior of gases in terms of particle motion. Model treating gases as point particles in constant random motion.
Answer: L·atm/(mol·K). Units derived from PV=nRT rearranged to solve for R.
Answer: Intermolecular forces and atmospheric pressure. Stronger intermolecular forces require higher temperature to overcome.
Answer: PV=nRT. Fundamental equation relating pressure, volume, moles, and temperature for ideal gases.
Answer: A substance that readily vaporizes at low temperature. High vapor pressure leads to easy evaporation.
Answer: Nitrogen. Comprises approximately 78% of Earth's atmospheric composition.
Answer: Intermolecular forces and atmospheric pressure. Stronger intermolecular forces require higher temperature to overcome.
Answer: 3.92 g/L. Using d=RTPM with given values yields this density.
Answer: Crystalline solids have ordered structures; amorphous do not. Structural organization distinguishes these two solid types.
Answer: The solubility of a gas is proportional to its partial pressure. Gas solubility increases linearly with increasing partial pressure.
Answer: Pascal (Pa). Base SI unit equivalent to N/m2 or kg/(m⋅s2).
Answer: Theory explaining the behavior of gases in terms of particle motion. Model treating gases as point particles in constant random motion.
Answer: A hypothetical gas that perfectly fits the ideal gas law. Theoretical model with no intermolecular forces or molecular volume.
Answer: Decrease in freezing point due to solute addition. Colligative property that lowers the temperature at which freezing occurs.
Answer: n1V1=n2V2 (constant P and T). States that volume is directly proportional to amount of gas.
Answer: Molarity is moles of solute per liter of solution. Standard concentration unit expressed as mol/L or M.
Answer: P1V1=P2V2 (constant T and n). Describes inverse relationship between pressure and volume at constant temperature.
Answer: Surface tension is the energy required to increase surface area of a liquid. Results from unequal intermolecular forces at liquid-gas interface.
Answer: Theory explaining the behavior of gases in terms of particle motion. Model treating gases as point particles in constant random motion.
Answer: Pi=Xi×Ptotal. Partial pressure equals mole fraction times total pressure.
Answer: The boiling point at 1 atm pressure. Standard reference temperature for comparing boiling points.
Answer: The temperature and pressure above which a gas cannot be liquefied. Beyond this point, distinct liquid and gas phases cannot exist.
Answer: T1V1=T2V2 (constant P and n). Shows direct proportionality between volume and absolute temperature.
Answer: The temperature and pressure above which a gas cannot be liquefied. Beyond this point, distinct liquid and gas phases cannot exist.
Answer: The force of attraction between molecules in a liquid. Intermolecular attractions that hold liquid molecules together.
Answer: Vapor pressure increases with temperature. Higher temperature provides more kinetic energy for molecules to escape liquid phase.
Answer: The transition of a substance directly from solid to gas. Phase change that occurs when vapor pressure exceeds atmospheric pressure.
Answer: 100°C. Standard boiling point of pure water at standard atmospheric pressure.
Answer: 1 atm. Standard reference pressure at sea level.
Answer: The change in enthalpy when 1 mole of solid melts to liquid. Energy needed to break intermolecular forces during melting process.
Answer: Sublimation. Direct phase transition bypassing the liquid phase entirely.
Answer: 1 mole. At STP, 22.4 L equals one molar volume of any ideal gas.
Answer: The pressure exerted by a vapor in equilibrium with its liquid. Represents dynamic equilibrium between evaporation and condensation.
Answer: Vapor pressure of solution is proportional to mole fraction of solvent. Describes how solutes reduce vapor pressure of solutions.
Answer: Total pressure is the sum of partial pressures of gases. Each gas contributes independently to total system pressure.
Answer: Crystalline solids have ordered structures; amorphous do not. Structural organization distinguishes these two solid types.
Answer: Pascal (Pa). Base SI unit equivalent to N/m2 or kg/(m⋅s2).
Answer: The temperature above which a gas cannot be liquefied. Above this temperature, no amount of pressure can create liquid phase.
Answer: Vaporization. Phase transition requiring energy input to overcome intermolecular forces.
Answer: The heat required to vaporize 1 mole of liquid. Energy required to convert liquid molecules to gas phase.
Answer: T1P1=T2P2 (constant V and n). Describes direct relationship between pressure and absolute temperature.
Answer: Increase in boiling point due to solute addition. Colligative property dependent on solute particle concentration.
Answer: Viscosity is a measure of a fluid's resistance to flow. Property that determines how easily a fluid flows or moves.
Answer: 1 atm. Standard reference pressure at sea level.
Answer: The condition where all three phases coexist in equilibrium. Unique temperature and pressure where solid, liquid, and gas phases coexist.
Answer: Crystalline solids have ordered structures; amorphous do not. Structural organization distinguishes these two solid types.
Answer: Theory explaining the behavior of gases in terms of particle motion. Model treating gases as point particles in constant random motion.