Linked from

The 28 pages that link to Raoult's law, each with the reason it gives.

• Chemical potentialRelated: It follows from matching solvent chemical potentials between ideal liquid and vapor phases.

• Vapor pressureRelated: It predicts how dissolving a substance changes a solvent’s vapor pressure.

• Boiling pointRelated: It helps predict how volatile mixtures change boiling behavior.

• DistillationRelated: It predicts vapor composition for many ideal liquid mixtures.

• VolatilityRelated: It links a component’s volatility to vapor pressure above a mixture.

• Henry's lawCompared with: It concerns vapor above a liquid, whereas Henry’s law commonly treats a dilute dissolved solute.

• Mole fractionRelated: Liquid mole fractions predict vapor composition and pressure in ideal mixtures.

• Activity coefficientRelated: It expresses ideal liquid behavior that activity coefficients correct.

• Dalton's law of partial pressuresCompared with: It describes vapor pressures above liquid mixtures, not additive pressures of gas components.

• Freezing-point depressionRelated: Lower solvent vapor pressure helps explain colligative shifts, though freezing equilibrium also involves the solid phase.

• Fractional distillationRelated: It approximates vapor composition for many liquid mixtures used in introductory distillation calculations.

• Vapor–liquid equilibriumRelated: It approximates vapor composition when liquid interactions resemble those of the pure components.

• Ideal solutionRelated: It defines the vapor–liquid behavior that every component follows in an ideal solution.

• AzeotropeRelated: Departures from this ideal relation help produce azeotropic compositions.

• Steam distillationCompared with: Steam distillation relies on immiscible liquids, unlike the ideal mixed solutions modeled by this law.

• Boiling-point elevationRelated: A nonvolatile solute lowers the solvent’s vapor pressure, the change that leads to boiling-point elevation.

• Chemical activityCompared with: Departures from this relation are expressed through liquid-phase activity coefficients.

• Colligative propertiesRelated: It quantifies the vapor-pressure lowering that underlies several colligative effects.

• Extractive distillationRelated: Departures from ideal behavior help explain why solvent addition changes component vapor pressures.

• Thermodynamic activityRelated: It motivates the pure-liquid standard convention for solvent activity.

• Vacuum distillationRelated: It helps predict how mixture composition affects vapor formation under vacuum.

• Azeotropic distillationRelated: Deviations from this ideal behavior help produce the azeotropes the process addresses.

• Amagat's lawCompared with: Raoult’s law governs vapor–liquid equilibrium, not additive gas-mixture volumes.

• Continuous distillationRelated: It offers a simple way to estimate vapor–liquid compositions for suitable mixtures.

• Entropy of mixingRelated: The ideal-solution assumptions linking vapor pressure to composition also underlie ideal mixing entropy.

• Fractionating columnRelated: It approximates vapor composition above many ideal liquid mixtures.

• François-Marie RaoultBroader topic: This is the law that made Raoult’s name central to solution chemistry.

• Kelvin equationCompared with: It changes vapor pressure through composition, unlike the Kelvin equation’s curvature effect.