120 prize years · 145 citations · 7 topics
Nobel Prize in Physics winners, 1901–2026
Every Nobel Prize in Physics from 1901 to 2026 is listed here by year, with its laureates and a story about the work it honoured.
Pick a year and follow its link to the story behind the prize. When one year honoured two separate pieces of work, each has its own line, so 120 prize years hold 145 citations. No prize was awarded in 1916, 1931, 1934, 1940, 1941 or 1942.
Browse by topic
Each prize belongs to one of seven topics. A topic page puts its stories in reading order and links the interactive experiments that go with them.
Quantum physics and atoms
How did spectra, collisions and single atoms reveal the quantum rules?
26 citations
Light, waves and imaging
How do X-rays, lasers, electrons and neutrons show structures too small to see?
26 citations
Materials, devices and quantum fluids
Why do transistors, superconductors and superfluids behave the way they do?
25 citations
Heat, chance and collective behaviour
How do vast numbers of particles add up to gases, phase changes, climate and memory?
11 citations
Nuclei, particles and detectors
How did detectors and accelerators find the particles and forces inside matter?
39 citations
Astronomy, cosmology and gravity
What can starlight, radio pulses and gravitational waves tell us about the universe?
13 citations
Neutrinos
How did physicists catch a particle that passes through almost everything?
5 citations
1900s
1901
Wilhelm Conrad Röntgen
Röntgen: what a shadow could prove
1902
Hendrik A. Lorentz · Pieter Zeeman
Why a magnetic field splits a spectral line
1903
Henri Becquerel
How an unexposed plate led to radioactivityPierre Curie · Marie Curie
How an unexposed plate led to radioactivity
1904
Lord Rayleigh
The extra weight that revealed argon
1905
Philipp Lenard
Lenard lets cathode rays out of the tube
1906
J.J. Thomson
Thomson finds a common particle in cathode rays
1907
Albert A. Michelson
Michelson: a fringe count becomes a length
1908
Gabriel Lippmann
Lippmann: colour stored through the depth of a plate
1909
Guglielmo Marconi · Ferdinand Braun
Wireless and the ionosphere: reception was only the beginning
1910s
1910
Johannes Diderik van der Waals
How a gas becomes a liquid and loses the boundary
1911
1912
Gustaf Dalén
The rods that switched a lighthouse off at dawn
1913
Heike Kamerlingh Onnes
How liquid helium opened the way to superconductivity
1914
1915
William Bragg · Lawrence Bragg
Laue and the Braggs: from spots to a crystal model
1916
No prize was awarded.
1917
Charles Glover Barkla
Barkla: why the target material changed the radiation
1918
1919
1920s
1920
Charles Edouard Guillaume
How Invar reduces temperature errors in precision measurement
1921
Albert Einstein
Photoelectric evidence: the voltage is not yet the energy
1922
1923
Robert A. Millikan
Oil drops: finding a charge unit in falling timesAlso read:Photoelectric evidence: the voltage is not yet the energy
1924
1925
James Franck · Gustav Hertz
Franck–Hertz: what a drop in current can show
1926
Jean Baptiste Perrin
Perrin counted the grains that refused to settle
1927
Arthur H. Compton
Compton scattering: light must balance momentum tooC.T.R. Wilson
Wilson turns ionisation into a visible track
1928
Owen Willans Richardson
How electrons escape a hot metal
1929
Louis de Broglie
de Broglie: a wavelength for matter, a speed for the packet
1930s
1930
Sir Chandrasekhara Venkata Raman
Raman: the shifted lines moved with the source
1931
No prize was awarded.
1932
Werner Heisenberg
Matrices and waves: two routes to the same predictions
1933
Erwin Schrödinger · Paul A.M. Dirac
Matrices and waves: two routes to the same predictionsAlso read:Dirac’s electron: a successful equation with an unfinished story
1934
No prize was awarded.
1935
James Chadwick
The recoiling atoms that revealed the neutron
1936
Victor F. Hess
Hess found stronger radiation above the cloudsCarl D. Anderson
The lead plate that revealed a positron
1937
Clinton Davisson · George Paget Thomson
Electron diffraction: two experiments, one wavelength test
1938
1939
Ernest Lawrence
How a cyclotron gives the same ion another push
1940s
1940
No prize was awarded.
1941
No prize was awarded.
1942
No prize was awarded.
1943
1944
Isidor Isaac Rabi
How to tell when a nucleus is in resonance
1945
Wolfgang Pauli
Pauli: count the states before filling the shells
1946
Percy W. Bridgman
Bridgman opened the way into matter under pressure
1947
Edward V. Appleton
Wireless and the ionosphere: reception was only the beginning
1948
Patrick M.S. Blackett
Blackett and Occhialini let a particle take its own photograph
1949
1950s
1950
1951
John Cockcroft · Ernest T.S. Walton
Splitting lithium with a laboratory proton beam
1952
Felix Bloch · E. M. Purcell
How to tell when a nucleus is in resonance
1953
1954
1955
Willis E. Lamb
How missing hydrogen atoms revealed the Lamb shiftPolykarp Kusch
How Kusch and Foley found the electron’s extra magnetism
1956
William B. Shockley · John Bardeen · Walter H. Brattain
How the first transistor amplified a weak signal
1957
Chen Ning Yang · Tsung-Dao Lee
Wu’s cobalt experiment showed a preference for one direction
1958
Pavel A. Cherenkov · Igor Y. Tamm · Il´ja M. Frank
Cherenkov follows the blue light to a moving charge
1959
Emilio Segrè · Owen Chamberlain
Finding the antiproton among thousands of pions
1960s
1960
Donald A. Glaser
Glaser makes a particle trail start the boiling
1961
Robert Hofstadter
Measuring the proton with scattered electronsRudolf Mössbauer
How a crystal takes the recoil of an emitting nucleus
1962
1963
Eugene Wigner
What symmetry tells us about a particleMaria Goeppert Mayer · J. Hans D. Jensen
Why some nuclei close a shell
1964
Charles H. Townes · Nicolay G. Basov · Aleksandr M. Prokhorov
How an ammonia beam became a microwave oscillator
1965
Sin-Itiro Tomonaga · Julian Schwinger · Richard P. Feynman
QED turned small atomic discrepancies into precision predictions
1966
Alfred Kastler
How light moves atoms into states that stop absorbing
1967
1968
1969
Murray Gell-Mann
How quarks brought order to the particle families
1970s
1970
Hannes Alfvén
A bent magnetic field can carry a waveLouis Néel
How atomic magnets can order and still cancel
1971
1972
John Bardeen · Leon N. Cooper · Robert Schrieffer
How BCS pairing theory explains the superconducting gap
1973
Leo Esaki · Ivar Giaever
Why a tunnel diode carries less current at a higher voltageAlso read:How tunneling current revealed the superconducting gap
Brian D. Josephson
How phase drives a supercurrent across a thin insulator
1974
Martin Ryle · Antony Hewish
How Ryle built a large radio telescope from smaller ones
1975
Aage N. Bohr · Ben R. Mottelson · James Rainwater
How a nucleus can turn as a whole
1976
Burton Richter · Samuel C.C. Ting
Two experiments met at the same narrow particle peak
1977
Philip W. Anderson · Sir Nevill F. Mott · John H. Van Vleck
How disorder can stop a quantum wave from spreadingAlso read:Why repelling electrons can turn a partly filled band into an insulatorWhy apparently nonmagnetic states still respond to a field
1978
Pyotr Kapitsa
Why flow and oscillation reveal different responses in superfluid heliumArno Penzias · Robert Woodrow Wilson
The microwave hiss that remained after the antenna was checked
1979
Sheldon Glashow · Abdus Salam · Steven Weinberg
How electromagnetism and weak decay came to share one theory
1980s
1980
James Cronin · Val Fitch
The rare kaon decay that broke CP symmetry
1981
Nicolaas Bloembergen · Arthur L. Schawlow
Finding sharp atomic lines inside a broad thermal spectrumKai M. Siegbahn
Kai Siegbahn: when electron energies began to reveal chemistry
1982
Kenneth G. Wilson
Why very different materials behave alike near a critical point
1983
Subrahmanyan Chandrasekhar
Why a white dwarf has a maximum massWilliam A. Fowler
Making the elements one measured reaction at a time
1984
Carlo Rubbia · Simon van der Meer
W and Z particles emerged from the collider debris
1985
Klaus von Klitzing
How a quantum Hall plateau became a resistance standard
1986
Ernst Ruska
Ruska: making an electron image was only the beginningGerd Binnig · Heinrich Rohrer
STM: a current contour is more than a height map
1987
J. Georg Bednorz · K. Alex Müller
How an oxide ceramic opened high-temperature superconductivity
1988
Leon M. Lederman · Melvin Schwartz · Jack Steinberger
Why did physicists need a second kind of neutrino?Also read:Why do neutrinos keep appearing in the Nobel Prize?
1989
Norman F. Ramsey
How Ramsey and ion traps gave atoms more timeAlso read:Reading a cavity phase error in an atomic fountainCounting the quantum noise left by a perfect detectorFollowing a fountain clock’s extrapolation to zero density
Hans G. Dehmelt · Wolfgang Paul
How a changing electric field holds an ion
1990s
1990
Jerome I. Friedman · Henry W. Kendall · Richard E. Taylor
Electrons found compact constituents inside the proton
1991
Pierre-Gilles de Gennes
A liquid can flow and still keep a direction
1992
1993
Russell A. Hulse · Joseph H. Taylor Jr.
A pulsar clock revealed an orbit losing energy
1994
Bertram N. Brockhouse
Neutron scattering: where atoms sit and how they moveClifford G. Shull
Neutron scattering: where atoms sit and how they move
1995
1996
David M. Lee · Douglas D. Osheroff · Robert C. Richardson
How a pressure anomaly revealed superfluid helium-three
1997
Steven Chu · Claude Cohen-Tannoudji · William D. Phillips
When sodium atoms came out colder than expectedAlso read:Keeping a slowing atomic beam in tune with one laserHow six laser beams slowed Chu’s atomsReading a cold-atom thermometer from the flight of the cloudHow an atom loses energy climbing hills made of lightHow helium atoms escaped the light and formed two narrow peaks
1998
Robert B. Laughlin · Horst L. Störmer · Daniel C. Tsui
How a one-third Hall plateau led to fractional charge
1999
Gerardus 't Hooft · Martinus J.G. Veltman
How quantum corrections made electroweak theory precise
2000s
2000
Zhores Alferov · Herbert Kroemer
How a semiconductor interface confines charge and lightJack Kilby
Putting a complete circuit into one semiconductor
2001
Eric Cornell · Wolfgang Ketterle · Carl Wieman
How expanding atom clouds revealed Bose–Einstein condensation
2002
Raymond Davis Jr. · Masatoshi Koshiba
The Sun’s missing neutrinos: a tank, a calculation and a long disagreementAlso read:SN 1987A: a supernova seen from undergroundWhy do neutrinos keep appearing in the Nobel Prize?
Riccardo Giacconi
A rocket found an unexpectedly bright X-ray sky
2003
Alexei Abrikosov · Vitaly L. Ginzburg · Anthony J. Leggett
How superconducting order varies through a materialAlso read:How magnetic flux enters a superconductor as a vortex latticeWhat nuclear resonance revealed about pairing in helium-three
2004
David J. Gross · H. David Politzer · Frank Wilczek
Why quarks look almost free in a hard collision
2005
Roy J. Glauber
Glauber’s coherence theory goes beyond interference fringesJohn L. Hall · Theodor W. Hänsch
Frequency combs measure both the spacing and the offset
2006
John C. Mather · George F. Smoot
COBE compared the sky with a laboratory blackbody
2007
Albert Fert · Peter Grünberg
Why relative magnetization changes a multilayer’s resistance
2008
Yoichiro Nambu
A symmetric law can have an asymmetric ground stateMakoto Kobayashi · Toshihide Maskawa
Why a third quark generation opened a way to CP violation
2009
Charles K. Kao
Kao: guiding light was only half the problemWillard S. Boyle · George E. Smith
How a CCD moves an image to its output
2010s
2010
Andre Geim · Konstantin Novoselov
Turning graphene flakes into controllable electronic systems
2011
Saul Perlmutter · Brian P. Schmidt · Adam G. Riess
Distant supernovae showed that cosmic expansion had accelerated
2012
Serge Haroche · David J. Wineland
How to measure one quantum system and keep it availableAlso read:How one trapped ion switches its fluorescence off and onReading the sidebands in the first ion ground-state cooling experimentLet a second ion read out a narrow transitionA cavity cat loses coherence before it loses its energyCounting stored photons one atom at a timeKeeping a chosen number of photons in a cavity
2013
François Englert · Peter Higgs
Two mass peaks brought the Higgs field within reach
2014
Isamu Akasaki · Hiroshi Amano · Shuji Nakamura
How efficient blue LEDs turned current into light
2015
Takaaki Kajita · Arthur B. McDonald
2015: how did two very different experiments establish flavor change?Also read:Why do neutrinos keep appearing in the Nobel Prize?
2016
David J. Thouless · F. Duncan M. Haldane · J. Michael Kosterlitz
How vortex pairs unbind and destroy two-dimensional superfluidityAlso read:Why integer and half-integer spin chains behave differentlyHow wave geometry fixes an integer Hall response
2017
Rainer Weiss · Barry C. Barish · Kip S. Thorne
The short rising signal that reached both LIGO detectors
2018
Arthur Ashkin
Optical tweezers: from holding a bead to measuring forceGérard Mourou · Donna Strickland
Chirped pulse amplification separates energy gain from peak power
2019
James Peebles
From an almost smooth sky to a universe full of galaxiesMichel Mayor · Didier Queloz
The four-day year of 51 Pegasi b
2020s
2020
Roger Penrose
Why collapse does not need a perfectly spherical starReinhard Genzel · Andrea Ghez
The stars that weighed the Milky Way’s dark centre
2021
Syukuro Manabe · Klaus Hasselmann
Manabe and Wetherald followed heat through the atmosphereAlso read:How the ocean remembers changing weather
Giorgio Parisi
The magnets that cannot satisfy all their neighbours
2022
Alain Aspect · John Clauser · Anton Zeilinger
How Bell tests distinguish quantum correlationsAlso read:Freedman and Clauser test Bell’s inequality with calcium lightAspect changes the analyzers while photons are in flightPhoton Bell tests keep the trials where detectors stay silentThree-photon GHZ correlations defeat a shared answer sheetHow the 1997 photon experiment transferred a quantum stateA joint measurement entangles two photons that never metDense coding sends three distinguishable messages with one photonReconstructing a photon state from calibrated counts
2023
Pierre Agostini · Ferenc Krausz · Anne L’Huillier
Attosecond pulses: how electrons timed the shortest flashes of light
2024
John Hopfield · Geoffrey Hinton
How a Hopfield network finds a damaged memoryAlso read:How a Boltzmann machine learns which patterns belong together
2025
John Clarke · Michel H. Devoret · John M. Martinis
How a circuit’s collective phase revealed tunneling and discrete levels
2026
Where this list comes from
The laureates, and how each year’s prize is split between pieces of work, follow the official records of the Nobel Prize organisation. Each story names the wider team behind the work and lists its own sources.