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This deck focuses on Composition Of Mixtures, giving you a quick way to review the definitions, rules, and examples that matter most for AP Chemistry.
Study Composition Of Mixtures 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 term is used for the maximum amount of solute that can dissolve in a solvent at a given temperature?
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Saturated solution. Equilibrium state where no more solute can dissolve.
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This deck focuses on Composition Of Mixtures, 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: Saturated solution. Equilibrium state where no more solute can dissolve.
Answer: Solubility. Maximum amount of solute that dissolves at equilibrium conditions.
Answer: Homogeneous mixtures have uniform composition; heterogeneous do not. Homogeneous means uniform throughout; heterogeneous has visible distinct phases.
Answer: Mole fraction = total moles of all componentsmoles of component. Expresses relative amount of each component in molar terms.
Answer: Colloid. Intermediate between solution and suspension with dispersed particles.
Answer: Saturated solution. Equilibrium state where no more solute can dissolve.
Answer: Chromatography. Components move through medium at different rates enabling separation.
Answer: Freezing point depression. Solute particles lower the freezing point below pure solvent.
Answer: Interface. Boundary between two immiscible liquid phases in mixture.
Answer: Colloids have larger particles than true solutions. Colloid particles are larger but still small enough to remain dispersed.
Answer: Molarity (M). Most common concentration unit for solutions in chemistry calculations.
Answer: Colloid. Intermediate between solution and suspension with dispersed particles.
Answer: Vapor pressure reduction. Solute particles decrease vapor pressure below pure solvent value.
Answer: Little to no effect. Solid solubility typically independent of pressure changes.
Answer: Centrifugation. High-speed spinning separates components by density differences.
Answer: Colloid. Light scattering distinguishes colloids from true solutions.
Answer: Solubility of gases decreases with increasing temperature. Higher temperature reduces gas-liquid attractive forces and solubility.
Answer: Interface. Boundary between two immiscible liquid phases in mixture.
Answer: Solubility. Maximum amount of solute that dissolves at equilibrium conditions.
Answer: Solubility rules. Empirical guidelines that predict which ionic compounds dissolve in water.
Answer: Liquids that are soluble in each other in all proportions. Complete solubility in each other at any ratio or proportion.
Answer: ppm = mass of solutionmass of solute×106. Expresses very small concentrations as parts per million by mass ratio.
Answer: Henry's Law. Gas solubility is directly proportional to partial pressure above liquid.
Answer: Normality (N). Concentration based on chemical equivalents rather than moles.
Answer: Colloid. Dispersed particles scatter light beams making them visible.
Answer: Mole fraction. Ratio of component moles to total moles in mixture.
Answer: ppb = mass of solutionmass of solute×109. Even smaller concentrations expressed as parts per billion by mass.
Answer: Particles in a suspension are larger and settle over time. Large particles settle due to gravity, unlike dissolved solutions.
Answer: Henry's Law. Gas solubility is directly proportional to partial pressure above liquid.
Answer: Isotonic solution. Equal solute concentrations prevent net water movement across membrane.
Answer: Boiling point elevation. Solute particles increase the boiling point above pure solvent.
Answer: ppm = mass of solutionmass of solute×106. Expresses very small concentrations as parts per million by mass ratio.
Answer: Osmotic pressure. Pressure needed to stop solvent flow across semipermeable membrane.
Answer: Colloids have larger particles than true solutions. Colloid particles are larger but still small enough to remain dispersed.
Answer: Chromatography. Components move through medium at different rates enabling separation.
Answer: Molality = kilograms of solventmoles of solute. Temperature-independent concentration based on solvent mass, not volume.
Answer: Homogeneous mixtures have uniform composition; heterogeneous do not. Homogeneous means uniform throughout; heterogeneous has visible distinct phases.
Answer: Distillation. Vaporization followed by condensation separates by volatility differences.
Answer: Mole fraction. Ratio of component moles to total moles in mixture.
Answer: Basic (or alkaline) solution. Low hydrogen ion concentration creates basic conditions.
Answer: M1V1=M2V2. Conservation relationship for diluting concentrated solutions to lower concentrations.
Answer: Filtration. Physical separation using porous barrier to retain solid particles.
Answer: Mass percent = total mass of mixturemass of component×100. Standard formula expressing component mass as percentage of total mixture mass.
Answer: Acidic solution. High hydrogen ion concentration creates acidic conditions.
Answer: Centrifugation. High-speed spinning separates components by density differences.
Answer: Basic (or alkaline) solution. Low hydrogen ion concentration creates basic conditions.
Answer: Supersaturated solution. Unstable solution exceeding normal solubility limit at that temperature.
Answer: Solvent. The major component that dissolves other substances in a solution.
Answer: Dialysis. Membrane separation based on particle size differences.
Answer: Distillation. Separation technique exploiting different boiling points of components.