wave–particle duality

E650605

Wave–particle duality is a fundamental concept in quantum mechanics stating that every quantum entity, such as an electron or photon, exhibits both wave-like and particle-like properties depending on how it is observed.

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Statements (48)

Predicate Object
instanceOf physical concept
principle of quantum mechanics
appliesTo all quantum entities
atom
electron
molecule
neutron
photon
characterizedBy diffraction
interference patterns
localized detection events
probabilistic outcomes
context microscopic scale
describes complementary wave and particle aspects
particle-like behavior of radiation
wave-like behavior of matter
evidencedBy C. J. Davisson and L. H. Germer NERFINISHED
Compton scattering NERFINISHED
Davisson–Germer experiment NERFINISHED
Young’s double-slit experiment with electrons NERFINISHED
electron diffraction experiments
photoelectric effect experiments
single-photon double-slit experiments
field physics
quantum mechanics
formalizedBy Schrödinger equation NERFINISHED
de Broglie wavelength NERFINISHED
hasAspect particle behavior
wave behavior
hasConsequence limits of classical descriptions of nature
need for probabilistic description of physical systems
historicallyProposedBy Louis de Broglie NERFINISHED
historicallySupportedBy Albert Einstein NERFINISHED
Erwin Schrödinger NERFINISHED
Niels Bohr NERFINISHED
Werner Heisenberg NERFINISHED
implies light has particle properties
matter has wave properties
measurement affects observed behavior
interpretationDependentOn quantum interpretation
notObservedClassicallyAs simultaneous wave and particle in classical physics
relatedTo Heisenberg uncertainty principle NERFINISHED
complementarity principle
de Broglie hypothesis
double-slit experiment NERFINISHED
photoelectric effect
quantum field theory
quantum superposition

Referenced by (1)

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de Broglie wavelength formula expresses wave–particle duality