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The 81 pages that link to Boiling point, each with the reason it gives.

• PressureRelated: Changing external pressure changes the temperature at which boiling occurs.

• Vapor pressureRelated: Boiling begins when vapor pressure can match the pressure outside the liquid.

• Volatile organic compoundRelated: It offers a familiar, though incomplete, clue to how readily a compound can become airborne.

• Atmospheric pressureRelated: Changing atmospheric pressure changes the temperature at which water boils.

• DistillationRelated: Boiling-point differences often signal which component vaporizes more readily.

• Evaporative coolingCompared with: Evaporation can cool a liquid without reaching its boiling point.

• Intermolecular forceRelated: Stronger attractions generally require more heat for molecules to escape into vapor.

• VolatilityRelated: A more volatile liquid generally reaches its boiling condition at a lower temperature.

• Melting pointCompared with: It marks liquid–gas equilibrium, not the solid–liquid transition.

• Critical pointCompared with: Boiling marks liquid–gas coexistence below the critical point, not the loss of phase distinction.

• Flash pointCompared with: A liquid can reach its flash point far below the temperature at which it boils.

• HeliumRelated: Helium boils at a lower temperature than any other element.

• Liquefied natural gasRelated: Methane’s low boiling point explains why LNG requires cryogenic insulation and controlled storage.

• London dispersion forceRelated: Stronger dispersion generally raises the energy needed to separate molecules into vapor.

• Smoke pointCompared with: Fat may smoke through decomposition without reaching a conventional boiling point.

• CryogenicsRelated: Cryogenic liquids boil at low temperatures, and their boiling points shift with pressure.

• RefrigerantRelated: A refrigerant’s boiling point shifts with pressure, enabling evaporation at low temperatures.

• Clausius–Clapeyron relationRelated: The relation estimates how boiling temperature shifts when external pressure changes.

• Fractional distillationRelated: Differences in boiling points often indicate which component distills first.

• Latent heat of vaporizationRelated: At this temperature, vaporization proceeds throughout the liquid, not only at its surface.

• SteamingRelated: It determines the temperature of steam generated in an ordinary covered pot.

• ButaneRelated: Its low boiling point explains why butane vaporizes readily near room temperature.

• Dipole–dipole interactionRelated: Intermolecular attractions affect the energy needed for polar molecules to enter the vapor phase.

• Critical temperatureCompared with: Boiling occurs along a liquid–vapor boundary that terminates at the critical temperature.

• Pressure cookingRelated: Higher pressure raises water’s boiling point and the temperature available for cooking.

• PropaneRelated: Propane’s low boiling point lets it vaporize readily at ordinary temperatures.

• BoilingRelated: It sets the liquid temperature that drives this cooking method.

• Steam distillationCompared with: The mixture boils below the target compound's pure-liquid boiling point.

• Liquid nitrogenRelated: Its boiling point is about −196 °C at one atmosphere.

• Molecular structureRelated: Structure influences intermolecular forces that affect boiling temperatures.

• SimmeringRelated: Simmering stays just below this temperature, though the boiling point varies with pressure.

• Pressure cookerRelated: The cooker’s elevated pressure raises water’s boiling temperature and speeds cooking.

• Anders CelsiusRelated: Celsius used water’s boiling point as one reference for his scale.

• Enthalpy of vaporizationRelated: Vaporization enthalpy helps determine how vapor pressure rises toward the boiling condition.

• Liquefied petroleum gasRelated: LPG boils and vaporizes when pressure or temperature allows its boiling point to be reached.

• LNG carrierRelated: Methane’s low boiling point explains why even small heat leaks generate cargo vapor.

• Rice cookerRelated: While free water remains, its near-constant boiling temperature anchors the cooker's basic shutoff logic.

• HexaneRelated: Hexane's intermolecular attractions help determine its boiling temperature.

• Homologous seriesRelated: Boiling points often rise along a series as molecular size and dispersion forces increase.

• Liquid oxygenRelated: At standard pressure, oxygen boils near −183 °C, setting a practical temperature target for liquefaction.

• Vacuum dryingRelated: Vacuum lowers the pressure water must reach to boil.

• Isopropyl alcoholRelated: Isopropyl alcohol's boiling point helps explain its volatility and separation by distillation.

• Liquid heliumRelated: At atmospheric pressure, helium boils at about 4.2 kelvin.

• Vacuum distillationRelated: Reducing surrounding pressure lowers the temperature needed to boil each component.

• Aerosol propellantRelated: A propellant's boiling point helps determine whether it remains liquid under storage conditions and flashes into gas on release.

• Azeotropic distillationRelated: Azeotropes constrain separation because their vapor and liquid have the same composition at boiling.

• Liquid waterRelated: At standard pressure, water boils at 100 °C, defining its upper ordinary phase boundary.

• PentaneRelated: Pentane’s low boiling point makes it evaporate readily near ordinary temperatures.

• AcetonitrileRelated: Acetonitrile boils near 82 °C, contributing to its volatility and ease of removal.

• ChloromethaneRelated: Chloromethane’s low boiling point lets it be stored as a pressurized liquid and used as a refrigerant.