Linked from

The 25 pages that link to Boyle's law, each with the reason it gives.

• Ideal gas lawBroader topic: Holding n and T fixed in PV = nRT yields Boyle’s pressure-volume relation.

• Swim bladderRelated: As water pressure rises with depth, bladder gas compresses and buoyancy changes.

• Robert BoyleBroader topic: Boyle’s experiments with air provided the evidence for this pressure–volume relationship.

• Scuba divingRelated: Changing pressure compresses gas in the lungs, equipment, and buoyancy device.

• Ideal gasBroader topic: It follows from the ideal gas law when temperature and amount are fixed.

• Dalton's law of partial pressuresRelated: It shows how changing the shared volume changes the component pressures summed by Dalton's law.

• Real gasCompared with: Real gases depart from this relationship as compression strengthens molecular effects.

• Isothermal processRelated: It describes the ideal-gas pressure–volume relation along an isothermal path.

• Diving physiologyRelated: It predicts lung and air-space compression during descent.

• Pascal's lawCompared with: It relates gas pressure to volume, unlike Pascal's law for pressure transmission.

• Avogadro's lawCompared with: It changes volume by varying pressure, whereas Avogadro's law varies volume with amount at fixed pressure.

• FreedivingRelated: It explains how lung gas compresses during descent and expands during ascent.

• Compressed airRelated: It describes how reducing air volume raises pressure in many compressors.

• Gas lawsBroader topic: Isolates the pressure–volume relationship when temperature is fixed.

• GasRelated: Compression raises gas pressure when temperature and amount remain fixed.

• Air pumpRelated: Air-pump experiments supplied evidence for this quantitative relation between pressure and volume.

• Deep divingRelated: It predicts how air-filled spaces change volume during descent.

• Absolute pressureRelated: Comparing gas states with Boyle's law requires absolute pressure values.

• Scientific lawBroader topic: It shows how a law can state a relationship under explicit constraints.

• Charles's lawCompared with: It describes the pressure–volume tradeoff when temperature, rather than pressure, is held constant.

• Gay-Lussac's law (gas pressure)Related: It supplies the complementary pressure–volume relation under a different fixed condition.

• BreathingNarrower topic: Changes in chest volume alter lung pressure and produce airflow.

• Standard temperature and pressureRelated: It describes the volume correction needed when measured pressure differs from STP.

• Amagat's lawRelated: Amagat’s construction compares component volumes at the mixture’s common pressure.

• Combined gas lawBroader topic: It describes the pressure–volume relationship when temperature is held fixed.