Linked from

The 70 pages that link to Ideal gas law, each with the reason it gives.

• Jacobus Henricus van ’t HoffCompared with: His dilute-solution theory extended a gas-like pressure relation to dissolved particles.

• Number densityRelated: For a gas, pressure can be written as number density times Boltzmann's constant and temperature.

• Johannes Diderik van der WaalsCompared with: His equation modifies this simpler model to account for real molecules.

• Kelvin scaleRelated: The equation requires absolute temperature, normally expressed in kelvins.

• Standard temperature and pressureRelated: It predicts how a gas property changes when STP conditions change.

• AerostaticsRelated: It predicts how heating or altitude changes the gas volume and density inside an aerostat.

• Barometric formulaRelated: It connects density to pressure and temperature in the formula's usual derivation.

• Degenerate matterCompared with: Unlike a classical gas, degenerate matter can exert substantial pressure without high temperature.

• Amedeo AvogadroRelated: It expresses gas behavior quantitatively in terms of amount of substance.

• Bondi accretionRelated: It connects the ambient gas conditions to the sound speed used in Bondi's model.

• Rankine scaleRelated: Rankine supplies absolute temperature in customary-unit calculations.

• Amagat's lawRelated: For ideal gases, each component’s volume contribution follows directly from its amount at common temperature and pressure.

• Redlich–Kwong equation of stateCompared with: It neglects molecular size and attraction, unlike Redlich–Kwong.

• Virial expansionCompared with: It is the zero-density limit recovered when all virial corrections vanish.

• Graham's lawRelated: It supplies the gas-state relationships often used when comparing effusion experiments.

• Combined gas lawNarrower topic: The combined gas law follows from this equation when the amount of gas stays fixed.

• InflatableRelated: It describes how heating or compressing the filling gas changes internal pressure.

• Theorem of Corresponding StatesCompared with: It describes the dilute limit, while corresponding states addresses nonideal fluid behavior too.

• Thermodynamic equationsCompared with: Its simple equation of state contrasts with broader, interacting-fluid models.

• Toy balloonRelated: It describes how warming or squeezing the gas changes the balloon's volume and pressure.