Linked from

The 22 pages that link to Wave–particle duality, each with the reason it gives.

• PhotonRelated: Photons produce interference patterns yet arrive in localized detection events.

• Electromagnetic radiationRelated: Radiation shows interference as a wave and exchanges energy in discrete photon quanta.

• ComplementarityRelated: It is the best-known case of complementary descriptions: interference and localized detection require different experimental arrangements.

• Louis de BroglieRelated: De Broglie extended this duality from light to material particles.

• Wave functionRelated: Wave functions encode interference while also predicting localized measurement outcomes.

• Corpuscular theory of lightRelated: Modern physics restored a qualified particle description without returning to Newton’s classical corpuscles.

• De Broglie wavelengthNarrower topic: De Broglie extended this duality from light to matter.

• Wave theory of lightNarrower topic: Modern physics retains wave predictions while also requiring particle descriptions.

• Davisson–Germer experimentNarrower topic: Electron diffraction made the wave aspect of a particle observable in the laboratory.

• Double-slit experimentRelated: The apparatus records localized impacts while their distribution forms a wave-like pattern.

• Matter waveRelated: Matter waves express the wave-like side of this duality.

• Clinton DavissonRelated: Davisson’s electron beams showed wave behavior in particles previously treated as corpuscles.

• Arthur ComptonRelated: The experiment connected X-ray wave measurements with photon-like collisions.

• Lester GermerRelated: Germer’s electrons arrived as particles but produced a wave-like diffraction pattern.

• Max von LaueNarrower topic: Laue’s diffraction result established X-rays’ wave behavior, later complemented by their particle behavior.

• George Paget ThomsonRelated: Thomson’s result helped establish this principle for electrons.

• Radiation (physics)Related: Quantum theory uses both descriptions to explain radiation's behavior.

• Beam techniquesRelated: It connects particle-beam descriptions with wave-based measurement and diffraction.

• De Broglie equationNarrower topic: The equation makes wave-like behavior a property of particles.

• History of subatomic physicsRelated: It captures a central challenge in interpreting electron and photon experiments.

• Owen RichardsonCompared with: The photoelectric effect studied by Richardson became central evidence in debates about light’s particle-like behavior.

• Planck postulateNarrower topic: The postulate helped make energy discreteness central to later accounts of light.