KnowraHendrik LorentzLinked fromLinked fromThe 30 pages that link to Hendrik Lorentz, each with the reason it gives.All 30Related 29Compared with 1Albert EinsteinRelated: Einstein built on Lorentz’s transformations while giving them a new physical interpretation.Special relativityRelated: His transformations supplied mathematical tools that Einstein gave a new physical interpretation.Zeeman effectRelated: His classical interpretation linked Zeeman's observation to oscillating charged particles.Henri PoincaréRelated: Poincaré analyzed Lorentz transformations and helped clarify their role in electrodynamics.Lorentz transformationRelated: His 1904 formulation supplied a key mathematical precursor to the modern interpretation.Michelson–Morley experimentRelated: He sought to reconcile the null result with ether theory through length contraction.Minkowski spacetimeRelated: His transformations supplied the mathematics Minkowski recast geometrically.Drude modelRelated: Lorentz extended classical electron theory and examined its consequences for transport.Thomson scatteringRelated: His classical electron framework helped establish the scattering calculation.Hermann MinkowskiRelated: Lorentz transformations preserve the spacetime interval central to Minkowski’s formulation.Lorentz ether theoryRelated: He developed the theory's mathematical account of moving bodies and electromagnetic fields.Classical field theoryRelated: His transformations clarified how electromagnetic fields relate between inertial frames.Electromagnetic field tensorRelated: His transformations expose how electric and magnetic fields mix between inertial frames.Free electron modelRelated: His work refined the classical model and exposed its limits against measured properties.Johannes Diderik van der WaalsRelated: Lorentz succeeded van der Waals as professor of theoretical physics at Leiden.Aether theoriesRelated: His transformations and contraction hypothesis made aether theory compatible with null drift experiments.Electromagnetic four-potentialRelated: Lorentz transformations exposed the need for electric and magnetic quantities to mix between frames.Karl SchwarzschildRelated: Schwarzschild corresponded with Lorentz about the foundations of Einstein’s new theory.Pieter ZeemanRelated: Lorentz supplied the theory that connected Zeeman’s spectral observations to charged particles in atoms.Poincaré groupRelated: The group incorporates the transformations that bear his name.History of special relativityRelated: His work supplied mathematical structures that Einstein reinterpreted as relations between inertial frames.Larmor formulaRelated: Lorentz's relativistic treatment leads to the formula's broader Liénard form.Paul EhrenfestRelated: Lorentz recruited Ehrenfest to succeed him as professor in Leiden and remained a central mentor.Wiedemann–Franz lawRelated: His theoretical work helped explain the law using electron transport.Edward W. MorleyRelated: Lorentz analyzed the ether problem that the Michelson–Morley result sharpened.Gabriel LippmannRelated: Lorentz shared the 1908 Nobel Prize in Physics with Lippmann’s work recognized that year.Heaviside–Lorentz unitsRelated: His name became attached to the unit convention alongside Heaviside's.History of electromagnetic theoryRelated: His work connected electromagnetic fields with charged particles and prepared ground for relativity.Moving magnet and conductor problemRelated: His electron theory helped form the classical electrodynamics Einstein reconsidered.
KnowraHendrik LorentzLinked fromLinked fromThe 30 pages that link to Hendrik Lorentz, each with the reason it gives.All 30Related 29Compared with 1Albert EinsteinRelated: Einstein built on Lorentz’s transformations while giving them a new physical interpretation.Special relativityRelated: His transformations supplied mathematical tools that Einstein gave a new physical interpretation.Zeeman effectRelated: His classical interpretation linked Zeeman's observation to oscillating charged particles.Henri PoincaréRelated: Poincaré analyzed Lorentz transformations and helped clarify their role in electrodynamics.Lorentz transformationRelated: His 1904 formulation supplied a key mathematical precursor to the modern interpretation.Michelson–Morley experimentRelated: He sought to reconcile the null result with ether theory through length contraction.Minkowski spacetimeRelated: His transformations supplied the mathematics Minkowski recast geometrically.Drude modelRelated: Lorentz extended classical electron theory and examined its consequences for transport.Thomson scatteringRelated: His classical electron framework helped establish the scattering calculation.Hermann MinkowskiRelated: Lorentz transformations preserve the spacetime interval central to Minkowski’s formulation.Lorentz ether theoryRelated: He developed the theory's mathematical account of moving bodies and electromagnetic fields.Classical field theoryRelated: His transformations clarified how electromagnetic fields relate between inertial frames.Electromagnetic field tensorRelated: His transformations expose how electric and magnetic fields mix between inertial frames.Free electron modelRelated: His work refined the classical model and exposed its limits against measured properties.Johannes Diderik van der WaalsRelated: Lorentz succeeded van der Waals as professor of theoretical physics at Leiden.Aether theoriesRelated: His transformations and contraction hypothesis made aether theory compatible with null drift experiments.Electromagnetic four-potentialRelated: Lorentz transformations exposed the need for electric and magnetic quantities to mix between frames.Karl SchwarzschildRelated: Schwarzschild corresponded with Lorentz about the foundations of Einstein’s new theory.Pieter ZeemanRelated: Lorentz supplied the theory that connected Zeeman’s spectral observations to charged particles in atoms.Poincaré groupRelated: The group incorporates the transformations that bear his name.History of special relativityRelated: His work supplied mathematical structures that Einstein reinterpreted as relations between inertial frames.Larmor formulaRelated: Lorentz's relativistic treatment leads to the formula's broader Liénard form.Paul EhrenfestRelated: Lorentz recruited Ehrenfest to succeed him as professor in Leiden and remained a central mentor.Wiedemann–Franz lawRelated: His theoretical work helped explain the law using electron transport.Edward W. MorleyRelated: Lorentz analyzed the ether problem that the Michelson–Morley result sharpened.Gabriel LippmannRelated: Lorentz shared the 1908 Nobel Prize in Physics with Lippmann’s work recognized that year.Heaviside–Lorentz unitsRelated: His name became attached to the unit convention alongside Heaviside's.History of electromagnetic theoryRelated: His work connected electromagnetic fields with charged particles and prepared ground for relativity.Moving magnet and conductor problemRelated: His electron theory helped form the classical electrodynamics Einstein reconsidered.