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The 31 pages that link to Boltzmann distribution, each with the reason it gives.

• Statistical mechanicsRelated: It determines equilibrium state probabilities when a system exchanges energy with a heat bath.

• Thermodynamic equilibriumRelated: It describes equilibrium populations of microscopic energy states.

• Thermal equilibriumRelated: It predicts how equilibrium populations of energy states depend on temperature.

• Activation energyRelated: It explains why only a fraction of molecules have enough energy to cross a barrier.

• Arrhenius equationRelated: The fraction of molecules with sufficient energy follows an exponential dependence on temperature.

• Boltzmann constantRelated: The factor kT determines how strongly higher-energy states are suppressed.

• Effective temperatureRelated: A nonequilibrium distribution may resemble this form with a fitted effective temperature.

• Conformational isomerismRelated: It predicts how strongly each conformer contributes to a molecular sample.

• Transition state theoryRelated: It sets the fraction of reactants energetic enough to reach the barrier region.

• Conformational analysisRelated: It connects conformer energy differences to their equilibrium populations.

• Equipartition theoremRelated: Its energy weighting makes the average of each quadratic term equal to half of kBT.

• Ising modelRelated: It converts the Ising energy of each configuration into its thermal probability.

• Dipole–dipole interactionRelated: Thermal motion weights favorable and unfavorable orientations when average attraction is calculated.

• KelvinRelated: Kelvin temperature sets the energy scale governing these populations.

• Canonical ensembleRelated: It gives each accessible microstate its canonical probability weight.

• Debye lengthRelated: The distribution describes how mobile charges rearrange in an electrostatic potential.

• Debye–Hückel theoryRelated: The theory uses it to relate ion concentration to electrostatic potential.

• Absolute temperatureRelated: Its exponential weighting uses absolute temperature to set the scale of thermal fluctuations.

• Ergodic hypothesisRelated: Ergodic sampling can make long trajectories reproduce its equilibrium averages.

• Thermal fluctuationsRelated: It determines how likely different energy fluctuations are at equilibrium.

• Einstein coefficientsRelated: Einstein's equilibrium argument uses thermal level populations to relate the coefficients.

• Bose–Einstein distributionRelated: Its exponential weight is the dilute, nondegenerate limit of bosonic occupation.

• Barometric formulaRelated: The same gravitational-energy weighting gives the formula's exponential density profile.

• Meghnad SahaRelated: It supplies the temperature-dependent populations of atomic energy levels in the equation.

• Curie's lawRelated: Thermal populations determine how strongly magnetic moments align in Langevin's derivation.

• FKT algorithmRelated: Weighted Pfaffians yield partition functions that define probabilities over dimer configurations.