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The 77 pages that link to Niels Bohr, each with the reason it gives.

• Albert EinsteinRelated: Their debates over quantum theory exposed a lasting disagreement about chance and physical reality.

• Island of stabilityRelated: His liquid-drop description of nuclei became a baseline against which shell effects were assessed.

• Quantum measurementRelated: His complementarity framework made measurement conditions central to quantum descriptions.

• Ernest RutherfordRelated: Bohr developed a quantum account of the nuclear atom that Rutherford’s model left unexplained.

• Bohr modelRelated: He introduced the model in 1913 to account for atomic structure and hydrogen’s spectrum.

• Max PlanckRelated: Bohr applied quantized energy levels to atoms, extending the framework Planck had begun.

• Hydrogen atomRelated: His model explained hydrogen’s spectral pattern using discrete energy levels.

• Copenhagen interpretationRelated: Bohr developed complementarity and a central philosophical account associated with Copenhagen.

• Extended periodic tableRelated: Shell-based accounts of periodicity shaped early attempts to infer elements beyond the known table.

• Werner HeisenbergRelated: Bohr mentored Heisenberg and influenced his approach to atomic theory.

• Wolfgang PauliRelated: Pauli worked in Bohr’s Copenhagen institute during a formative period in quantum physics.

• Paul DiracRelated: Bohr’s institute in Copenhagen was a major setting for Dirac’s scientific exchanges.

• Wave–particle dualityRelated: His complementarity principle shaped the interpretation of wave–particle duality.

• J. Robert OppenheimerRelated: Bohr visited Los Alamos and urged scientists to consider the political consequences of atomic weapons.

• George GamowRelated: Gamow studied at Bohr’s institute in Copenhagen, a center of theoretical physics in the 1920s.

• Lise MeitnerRelated: Meitner and her nephew Otto Frisch discussed their fission interpretation with Bohr in 1939.

• Old quantum theoryRelated: Bohr turned quantum assumptions into a model that accounted for hydrogen’s spectrum.

• Heisenberg uncertainty principleRelated: Bohr's response emphasized complementary experimental arrangements and shaped the principle's interpretation.

• Measurement problemRelated: His account emphasized classical descriptions of experimental arrangements and outcomes.

• AtomRelated: Bohr’s model connected atomic structure to the observed hydrogen spectrum.

• Atomic theoryRelated: Bohr’s model linked atomic structure to discrete spectral lines.

• ComplementarityRelated: He formulated complementarity as a central principle of his interpretation of quantum mechanics.

• Rydberg formulaRelated: Bohr derived the hydrogen line relation from quantized atomic energies.

• James ChadwickRelated: Bohr’s Copenhagen institute hosted Chadwick in 1922, during his work on beta radiation.

• Periodic table extensionRelated: Nuclear theory developed in his era underpins modern reasoning about heavy and superheavy nuclei.

• University of CopenhagenRelated: He led the university’s Institute for Theoretical Physics and shaped modern physics there.

• University of ManchesterRelated: He held a Manchester position early in his career and worked with Rutherford.

• Balmer seriesRelated: His model derived the series from transitions ending at the second orbit.

• Hydrogen spectral seriesRelated: His model supplied a physical basis for the observed series wavelengths.

• Henry MoseleyRelated: Bohr’s theory helped account for the regular X-ray frequencies Moseley observed.

• Hydrogen spectrumRelated: Bohr used hydrogen’s spectrum as a key test of his quantized atomic model.

• Bohr magnetonRelated: The magneton is named for Bohr, whose atomic theory helped establish its historical setting.

• Correspondence principleRelated: Bohr formulated the principle while developing his account of atomic spectra.

• Quantum theoryRelated: His atomic model applied quantization to explain discrete spectral lines.

• Rydberg constantRelated: Bohr derived the hydrogen line pattern from quantized electron energies.

• Sommerfeld modelRelated: Sommerfeld developed Bohr’s framework rather than replacing its central quantization idea.

• James FranckRelated: Bohr’s model predicted the discrete energy transfers Franck and Hertz measured.

• Aage BohrRelated: Aage Bohr’s father and an influential collaborator in the Copenhagen nuclear-physics community.

• Franck–Hertz experimentRelated: The experiment’s results were interpreted as support for Bohr’s quantized atomic model.

• Hendrik CasimirRelated: Casimir worked at Bohr’s institute in Copenhagen before joining Philips.

• Schrödinger’s catRelated: Bohr’s account of measurement formed a central target of Schrödinger’s critique.

• Wave function collapseRelated: His account of measurement helped shape the framework in which collapse is a state update.

• Felix BlochRelated: Bloch spent time at Bohr’s institute, where theoretical physics and experimental problems closely interacted.

• Johannes RydbergRelated: Bohr supplied a physical explanation for the spectral pattern Rydberg had formulated.

• John Archibald WheelerRelated: Bohr and Wheeler jointly explained how nuclear fission can occur.

• Max DelbrückRelated: Bohr’s call to consider biology’s relation to physics helped inspire Delbrück’s move into biology.

• Niels Bohr InstituteRelated: He founded the institute in 1921 and led its early research community.

• Vacuum energyRelated: The quantum principles he developed help explain why ground states need not have zero energy.

• Actinide conceptRelated: His proposed placements for heavy elements differed from Seaborg's actinide-series interpretation.

• George de HevesyRelated: De Hevesy worked at Bohr's institute in Copenhagen, where his research broadened.