Linked from

The 21 pages that link to Vapor–liquid equilibrium, each with the reason it gives.

• DistillationRelated: It determines which components enrich the vapor above a boiling mixture.

• VolatilityRelated: Mixture volatility depends on equilibrium behavior, not simply on pure-component properties.

• Critical pointRelated: The critical point is where this two-phase equilibrium ceases to distinguish the phases.

• Fractional distillationRelated: Each condensation and re-vaporization step approaches a new vapor–liquid equilibrium.

• Ideal solutionRelated: Raoult’s law predicts the vapor composition above an ideal liquid mixture.

• Gibbs–Duhem equationRelated: Thermodynamic consistency checks for mixture equilibrium data often rely on this constraint.

• Extractive distillationRelated: The column’s separation depends on how solvent addition reshapes this equilibrium.

• Vacuum distillationRelated: It determines vapor composition and separation at the reduced pressures used in the column.

• Flash evaporationRelated: The final vapor fraction depends on the equilibrium reached after the pressure or temperature change.

• Separation processRelated: It predicts the composition differences exploited by distillation.

• Continuous distillationRelated: It determines how each stage redistributes components between rising vapor and descending liquid.

• Redlich–Kwong equation of stateRelated: Redlich–Kwong estimates phase fugacities used to calculate equilibrium.

• Fractionating columnRelated: Each contact stage approaches this equilibrium, redistributing components between rising vapor and descending liquid.

• N-HeptaneRelated: It underlies the separation of N-heptane from other hydrocarbons by distillation.

• Theorem of Corresponding StatesRelated: Corresponding-states correlations help estimate phase-equilibrium properties across substances.

• Vapor–liquid separatorRelated: Equilibrium determines which material can exist as vapor or liquid at separator conditions.