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The 46 pages that link to Bohr model, each with the reason it gives.

• Angular momentumRelated: Its original quantization rule assigned discrete angular momentum to electron orbits.

• Atomic spectrumRelated: It explained hydrogen’s line spectrum by assigning discrete electron energies.

• Fraunhofer linesRelated: Quantized energy levels help explain why atoms absorb only particular wavelengths.

• Rydberg formulaRelated: Its energy-level rule yields the hydrogen form of the formula.

• Coulomb potentialRelated: Its bound-state energy levels follow from combining the Coulomb potential with quantized orbital motion.

• Principal quantum numberRelated: It introduced shell labels corresponding to discrete principal energy levels.

• Rutherford scatteringRelated: Bohr added quantized electron orbits to the nuclear atom left unexplained by scattering.

• Stark effectRelated: The Stark effect challenged and refined early explanations of atomic spectra.

• Balmer seriesRelated: It gave a physical account of the spectral regularities Balmer had fit mathematically.

• Hydrogen spectral seriesRelated: Its quantized hydrogen energy levels provide the basic account of series transitions.

• Rutherford modelRelated: Bohr kept Rutherford’s nucleus while adding stable electron orbits to explain hydrogen’s spectrum.

• Henry MoseleyRelated: Its account of inner-shell electron transitions helped explain Moseley’s characteristic X-ray frequencies.

• Hydrogen spectrumRelated: It first accounted for hydrogen’s spectral lines by assigning discrete energies to its electron.

• Atomic physicsRelated: It introduced quantized atomic states before the modern quantum-mechanical account.

• Bohr magnetonRelated: Its quantized orbital angular momentum leads directly to the characteristic magnetic-moment scale.

• Moseley's lawRelated: Its energy-level predictions help explain why X-ray frequencies scale with nuclear charge.

• Rydberg constantRelated: Its quantized energies explain why hydrogen lines follow a simple constant-scaled pattern.

• Geiger–Marsden experimentRelated: It developed the nuclear atom into a model that accounted for atomic spectra.

• James FranckRelated: Franck and Hertz’s observations provided evidence for Bohr’s prediction of discrete atomic energies.

• Bohr radiusRelated: It treats the Bohr radius as the radius of the lowest-energy orbit.

• Franck–Hertz experimentRelated: Franck and Hertz initially connected their measured energy threshold to Bohr’s model.

• Lyman seriesRelated: It first gave a simple account of hydrogen’s discrete spectral lines.

• Johannes RydbergRelated: Bohr’s model later derived the hydrogen spectrum pattern that Rydberg had described empirically.

• Rydberg atomRelated: Its quantized hydrogen energies anticipated the level structure associated with Rydberg states.

• Rutherford scattering experimentsRelated: Bohr added quantized electron orbits to Rutherford's nuclear atom.

• History of subatomic physicsRelated: It applied quantum ideas to the spectra of atoms after the nucleus was discovered.

• Planck postulateRelated: It applied quantized energies to atomic structure and spectra.