Physics topic timeline
Electromagnetism Timeline
Records in the Physics collection relating to electricity, magnetism, electromagnetic theory, fields and electromagnetic experiments.
About this Electromagnetism timeline
Follow the experimental and theoretical development of electricity, magnetism, electromagnetic induction, fields and electromagnetic waves.
This page contains 129 records spanning 1626–2025. Frequently represented countries include United States of America, Great Britain, Germany, France, Netherlands. Example event labels include Magnet Armature Experiments, Birth of Hans Christian Oersted, Coulomb Law, Electromagnetism Demonstration, Magnetic Effect of Electric Current.
Physicists frequently represented in these records
Timeline records
| Date | Person | Event | Place | Description |
|---|---|---|---|---|
| 1626 | Galileo Galilei | Magnet Armature Experiments | Italy | Galileo reports experiments in which an iron armature greatly increases the lifting strength of a magnet. |
| 1777 | Hans Christian Oersted | Birth of Hans Christian Oersted | Netherlands | Birth of Hans Christian Oersted, founder of the science of electromagnetism |
| 1785 | Charles-Augustin de Coulomb Physicist | Coulomb Law | Paris, France | Uses a torsion balance to measure forces between electric charges. |
| 21 April 1820 | Hans Christian Oersted Physicist | Electromagnetism Demonstration | Copenhagen, Denmark | Observes an electric current deflecting a nearby compass needle. |
| 21 April 1820 | Hans Christian Oersted Physicist | Magnetic Effect of Electric Current | Copenhagen, Denmark | Establishes an experimental connection between electricity and magnetism. |
| 1822 | William Sturgeon | Invention of Electromagnet | Great Britain | Invents the 1st electromagnet |
| 1831 | Michael Faraday | Discovery of Electro-Magnetism | Great Britain | Discovers Electro-Magnetic Induction |
| 25 February 1837 | Thomas Davenport Inventor | Electric Motor Patent | Washington, United States of America | Receives United States patent number 132 for an electromagnetic motor. |
| 25 February 1837 | Thomas Davenport Inventor | First United States Electric Motor Patent | Washington, United States of America | Secures the first United States patent issued for an electric motor. |
| 1837 | William Fothergill Cooke Inventor | Electric Telegraph Patent | London, Great Britain | Co-develops and patents a practical electric telegraph system. |
| 1837 | William Fothergill Cooke Inventor | Five-Needle Telegraph | London, Great Britain | Creates a five-needle instrument for transmitting letters through electrical signals. |
| 1837 | Samuel Finley Breese Morse Inventor | Experimental Telegraph Receiver | New York, United States of America | Builds an experimental receiver capable of recording electrical signal changes. |
| 1837 | Samuel Finley Breese Morse Inventor | Telegraph Patent Caveat | New York, United States of America | Files a patent caveat while refining his electromagnetic telegraph. |
| 1837 | Charles Wheatstone Physicist and Inventor | Electric Telegraph Collaboration | London, Great Britain | Provides electrical and instrument expertise for the Cooke-Wheatstone telegraph. |
| 1837 | Charles Wheatstone Physicist and Inventor | Needle Telegraph Development | London, Great Britain | Helps transform electromagnetic needle deflection into practical written communication. |
| 1838 | Richard Laming | Discovery of Electrons | Great Britain | Between 1838 and 1851, British natural philosopher Richard Laming developed the idea that an atom is composed of a core of matter surrounded by subatomic particles that had unit electric charge |
| 1846 | William Weber | Discovery of Electrons | Germany | Beginning in 1846, German physicist William Weber theorized that electricity was composed of positively and negatively charged fluids, and their interaction was governed by the inverse square law |
| 1858 | Julius Plucker Physicist | Magnetic Deflection of Cathode Rays | Bonn, Germany | Shows that magnetic fields alter the path of cathode-ray fluorescence in gas-discharge tubes. |
| 1865 | James Clerk Maxwell Physicist | Electromagnetic Theory | London, Great Britain | Publishes equations showing electromagnetic waves can propagate through space. |
| 1874 | George Johnstone Stoney | Discovery of Electrons | Ireland | After studying the phenomenon of electrolysis in 1874, Irish physicist George Johnstone Stoney suggested that there existed a "single definite quantity of electricity", the charge of a monovalent ion |
| 1879 | Edwin Herbert Hall Physicist | Hall Effect | Baltimore, United States of America | Discovers that a magnetic field produces a transverse voltage in a current-carrying conductor, later understood through electron motion. |
| 1880 | Jacques Curie Physicist | Piezoelectricity | Paris, France | Discovers piezoelectricity with his brother Pierre Curie. |
| 1880 | Pierre Curie Physicist | Piezoelectricity | Paris, France | Discovers piezoelectricity with his brother Jacques Curie. |
| 16 May 1881 | Werner von Siemens Inventor | First Electric Tram | Berlin-Lichterfelde, Germany | Opens an electric railway at Lichterfelde near Berlin. |
| 16 May 1881 | Werner von Siemens Inventor | Lichterfelde Electric Railway | Berlin-Lichterfelde, Germany | The line becomes the world's first electric tramway. |
| 1881 | Jacques Curie Physicist | Inverse Piezoelectric Effect | Paris, France | Helps demonstrate the inverse piezoelectric effect. |
| 1881 | Pierre Curie Physicist | Inverse Piezoelectric Effect | Paris, France | Helps experimentally verify the inverse piezoelectric effect. |
| 1881 | Pierre Curie Physicist | Inverse Piezoelectric Effect | Paris, France | Shows crystals can deform under an electric field. |
| 1881 | Pierre Curie Physicist | Piezoelectric Verification | Paris, France | Shows that electric fields can deform suitable crystals. |
| 1881 | Hermann von Helmholtz | Discovery of Electrons | Germany | In 1881, German physicist Hermann von Helmholtz argued that both positive and negative charges were divided into elementary parts, each of which "behaves like atoms of electricity" |
| 1881 | William Thomson Kelvin Professor | Electric Lighting of University House | Glasgow, Great Britain | Creates one of the first houses in the world to be fully lit by electricity on the university campus. |
| 1884 | Svante August Arrhenius Physical Chemist | Electrolytic Dissociation Theory | Uppsala, Sweden | Proposes that dissolved salts separate into electrically charged ions. |
| 1884 | Svante August Arrhenius Physical Chemist | Ions in Solution | Uppsala, Sweden | Explains electrical conductivity and chemical reactions in electrolyte solutions. |
| 1892 | Hendrik Antoon Lorentz Physicist | Electron Theory of Matter | Leiden, Netherlands | Develops an electrodynamic theory in which charged microscopic particles account for electrical and optical behaviour in matter. |
| 1892 | Hendrik Antoon Lorentz Physicist | Relativity, Theory of | Leiden, Netherlands | Lorentz develops electron theory and uses contraction ideas in attempts to account for electromagnetic experiments |
| 1894 | George Johnstone Stoney | Discovery of Electrons | Ireland | Stoney coined the term electron to describe these elementary charges, saying, "... an estimate was made of the actual amount of this most remarkable fundamental unit of electricity, for which I have since ventured to suggest the name electron" |
| 1895 | Jagadish Chandra Bose Physicist | Microwave Demonstration | Calcutta, India | Jagadish Chandra Bose publicly demonstrates the transmission and detection of millimetre-wave electromagnetic radiation in Calcutta. |
| 1895 | Pierre Curie Physicist | Curie Point | Paris, France | Shows that magnetic properties change at a critical temperature. |
| 1895 | Pierre Curie Physicist | Doctorate | Paris, France | Receives a doctorate for research on magnetism. |
| 1895 | Hendrik Antoon Lorentz Physicist | Relativity, Theory of | Leiden, Netherlands | Lorentz introduces local time in electromagnetic theory, a step toward the later Lorentz transformations |
| 1895 | Jean Baptiste Perrin Physicist | Negative Charge of Cathode Rays | Paris, France | Demonstrates that cathode rays carry negative electric charge by collecting the rays in an insulated conductor. |
| 1896 | Pieter Zeeman Physicist | Zeeman Effect and Charged Oscillators | Leiden, Netherlands | Finds that magnetic fields split spectral lines, providing evidence for charged particles participating in atomic radiation. |
| 1897 | Jagadish Chandra Bose Physicist | Microwave Research | London, India | Jagadish Chandra Bose presents his microwave apparatus and research on short electromagnetic waves at the Royal Institution in London. |
| 10 December 1902 | Hendrik Antoon Lorentz Physicist | Nobel Prize in Physics | Stockholm, Netherlands | Shares the Nobel Prize in Physics for research on the influence of magnetism on radiation. |
| 10 December 1902 | Pieter Zeeman Physicist | Nobel Prize in Physics | Stockholm, Netherlands | Shares the Nobel Prize in Physics for discovering the effect of magnetism on light spectra. |
| 1902 | Philipp Lenard Physicist | Photoelectric Electron Energy | Kiel, Germany | Shows that photoelectron energy depends strongly on light frequency rather than simply on intensity. |
| 1902 | Hendrik Antoon Lorentz Physicist | Nobel Prize | Stockholm, Netherlands | Shares the Nobel Prize in Physics for research on the influence of magnetism upon radiation phenomena and for developing the electron theory used to explain the Zeeman effect. |
| 1902 | Pieter Zeeman Physicist | Nobel Prize | Stockholm, Netherlands | Shares the Nobel Prize in Physics for discovering that magnetic fields split spectral lines, providing experimental evidence for the interaction between magnetism and light. |
| 1904 | Jagadish Chandra Bose Physicist | Radio Detector Patent | United States, India | Jagadish Chandra Bose receives a United States patent for a detector of electrical disturbances based on semiconductor-like crystal detection. |
| 1904 | Friedrich Hasenohrl Physicist | Electromagnetic Mass-Energy | Vienna, Austria | Explores the relationship between electromagnetic energy and mass before relativity. |
| 17 March 1905 | Albert Einstein Physicist | Photoelectric Effect Paper Submitted | Bern, Switzerland | Sends his light-quantum paper to Annalen der Physik, using quanta to explain the photoelectric effect. |
| 1905 | Albert Einstein Physicist | Photoelectric Quantum Explanation | Bern, Switzerland | Explains photoelectric emission by proposing that light transfers energy in discrete quanta to electrons. |
| 1905 | Philip Lenard | Nobel Prize | Germany | Winner of the Nobel Prize for Physics, for photoelectric effects & cathode rays |
| December 1906 | Joseph John Thomson Physicist | Nobel Prize for Gas Conduction | Stockholm, Great Britain | Receives the Nobel Prize in Physics for investigations of electrical conduction through gases. |
| 1906 | Joseph John Thomson Physicist | Nobel Prize | Stockholm, Great Britain | Receives the Nobel Prize in Physics for theoretical and experimental investigations of electrical conduction through gases, work closely associated with the identification of the electron. |
| 1909 | Harvey Fletcher Physicist | Oil-Drop Experiment Development | Chicago, United States of America | Develops the use of slowly evaporating oil droplets for precision measurements of elementary electric charge. |
| 1909 | Robert Andrews Millikan Physicist | Oil Drop Charge Experiment | Chicago, United States of America | Begins oil-drop measurements that isolate elementary electric charge by balancing electrical and gravitational forces on charged droplets. |
| 20 May 1910 | Erwin Rudolf Josef Alexander Schrodinger Doctoral Student | Doctorate Awarded | Vienna, Austria | Receives his doctorate from the University of Vienna for research on the conduction of electricity over the surface of insulators in moist air. |
| 1911 | Robert Andrews Millikan Physicist | Elementary Electron Charge | Chicago, United States of America | Reports a precise value for the elementary electric charge from oil-drop measurements, strengthening the case for quantized charge. |
| 1 August 1913 | Robert Andrews Millikan Physicist | Final Oil-Drop Charge Publication | Chicago, United States of America | Publishes the definitive oil-drop measurement of the elementary electric charge. |
| 1915 | Albert Einstein Physicist | Einstein-de Haas Effect | Berlin, Germany | Publishes experimental work with Wander de Haas linking magnetism to angular momentum. |
| 1915 | Robert Andrews Millikan Physicist | Photoelectric Equation Verification | Chicago, United States of America | Experimentally verifies Einstein's relation between light frequency and the kinetic energy of emitted electrons. |
| 1919 | Heinrich Barkhausen | Discovery of Barkhausen Law | Germany | Discovers discontinuities in the magnetization of ferrous metals |
| 1921 | Albert Einstein Physicist | Nobel Prize | Stockholm, Germany | Receives the Nobel Prize in Physics for contributions to theoretical physics, particularly his explanation of the law governing the photoelectric effect. |
| 1921 | Albert Einstein Physicist | Nobel Prize in Physics | Berlin, Germany | Awarded the 1921 Nobel Prize in Physics for theoretical physics, especially the law of the photoelectric effect. |
| 1922 | Albert Einstein Physicist | Early Unified Field Program | Berlin, Germany | Begins sustained attempts to combine gravitation and electromagnetism within a single field framework. |
| December 1923 | Robert Andrews Millikan Physicist | Nobel Prize for Electron Charge | Stockholm, United States of America | Receives the Nobel Prize in Physics for elementary-charge measurements and photoelectric-effect work. |
| 1923 | Robert Millikan | Nobel Prize | Stockholm, United States of America | Receives the Nobel Prize in Physics for work on the elementary electric charge and the photoelectric effect. |
| 1927 | Charles Thomson Rees Wilson Physicist | Nobel Prize | Stockholm, Great Britain | Shares the Nobel Prize in Physics for developing the cloud-chamber method that makes the tracks of electrically charged particles visible. |
| 1928 | Ralph Howard Fowler Physicist | Field Electron Emission Theory | Cambridge, Great Britain | With Lothar Nordheim, explains electron emission from metals in strong electric fields as quantum tunnelling. |
| 15 May 1935 | Albert Einstein Physicist | Franklin Medal | Philadelphia, Switzerland | Receives the Franklin Medal in recognition of his work in relativity and the photoelectric effect. |
| 1936 | Felix Bloch Physicist | Neutron Magnetic Moment Prediction | Stanford, Switzerland | Predicts that the neutron should possess a magnetic moment despite having no net electric charge. |
| 1939 | Luis Alvarez Physicist | Neutron Magnetic Moment Measurement | Berkeley, United States of America | With Felix Bloch, uses magnetic resonance to measure the neutron magnetic moment. |
| 1939 | Felix Bloch Physicist | Neutron Magnetic Resonance | Berkeley, Switzerland | With Luis Alvarez, applies resonance methods to determine the neutron magnetic moment. |
| 15 January 1940 | Luis Alvarez Physicist | Quantitative Neutron Moment Publication | Berkeley, United States of America | Publishes a quantitative magnetic-resonance determination of the neutron magnetic moment with Felix Bloch. |
| 15 January 1940 | Felix Bloch Physicist | Quantitative Neutron Moment Publication | Berkeley, Switzerland | Publishes the neutron magnetic-moment measurement obtained with Luis Alvarez. |
| 13 September 1942 | Ernest Orlando Lawrence | Electromagnetic Pilot Plant Recommendation | Berkeley, United States of America | The S-1 Executive Committee recommends a Tennessee pilot plant based on Lawrence's electromagnetic isotope-separation work. |
| 1942 | — | Uranium Enrichment Methods | Oak Ridge, United States of America | The Manhattan Project commits to parallel development of electromagnetic and gaseous-diffusion methods for large-scale uranium isotope separation. |
| 1942 | Hannes Olof Gosta Alfven Plasma Physicist | Alfven Waves | Stockholm, Sweden | Predicts waves travelling through magnetized electrically conducting fluids. |
| 1942 | Hannes Olof Gosta Alfven Plasma Physicist | Magnetohydrodynamic Waves | Stockholm, Sweden | Establishes a central phenomenon in plasma physics and space science. |
| 1942 | Erwin Rudolf Josef Alexander Schrodinger Director | Unified Field Theory Research | Dublin, Austria | Pursues mathematical approaches to unifying gravitation and electromagnetism while directing theoretical-physics research in Dublin. |
| January 1944 | — | Y-12 Calutron Operations | Oak Ridge, United States of America | The first Alpha calutron at Y-12 begins operation as electromagnetic isotope separation moves from construction into production. |
| 1944 | Isidor Isaac Rabi | Nobel Prize | Stockholm, United States of America | Receives the Nobel Prize in Physics for the resonance method used to measure magnetic properties of atomic nuclei. |
| 1944 | Yevgeny Konstantinovich Zavoisky Physicist | Electron Paramagnetic Resonance | Kazan, Russia | Observes resonant absorption associated with unpaired electron spins in a magnetic field, founding electron paramagnetic resonance. |
| 28 February 1945 | Robert Oppenheimer | Final Plutonium Bomb Design Meeting | Los Alamos, United States of America | A senior design meeting fixes the plutonium bomb approach around a solid core, explosive lenses, electric detonators and a modulated neutron initiator. |
| 2 May 1945 | Luis Walter Alvarez | X-Unit Detonation Testing | Los Alamos, United States of America | A Raytheon Mark II X-Unit arrives for testing as part of the electrical firing system for the implosion bomb. |
| 1947 | Polykarp Kusch Physicist | Electron Magnetic Moment Anomaly | New York, United States of America | Measures a deviation of the electron magnetic moment from the simplest Dirac prediction, providing another key test for quantum electrodynamics. |
| 1947 | Erwin Rudolf Josef Alexander Schrodinger Director | General Relativity Research | Dublin, Austria | Continues mathematical investigations into general relativity and attempts to formulate unified descriptions of gravitation and electromagnetism. |
| 1948 | Enrico Fermi Physicist | Particle Acceleration Theory | Chicago, United States of America | Develops ideas explaining how charged particles can gain energy through repeated interactions with moving magnetic fields in astrophysical environments. |
| 1948 | Julian Seymour Schwinger Physicist | Electron Anomalous Magnetic Moment | Cambridge Massachusetts, United States of America | Calculates the leading quantum-electrodynamic correction to the electron magnetic moment with striking agreement to experiment. |
| 1950 | Edward Purcell Physicist | First Neutron EDM Measurement | Oak Ridge, United States of America | With Smith and Ramsey, carries out the first neutron electric-dipole-moment measurement. |
| 1950 | Norman Ramsey Physicist | First Neutron EDM Measurement | Oak Ridge, United States of America | With Smith and Purcell, measures a stringent early limit on the neutron electric dipole moment. |
| 1950 | Andrei Dmitrievich Sakharov Theoretical Physicist | Magnetic Fusion Confinement | Moscow, Russia | The achievement marks magnetic fusion confinement as an important Russian scientific milestone. |
| 1950 | Andrei Dmitrievich Sakharov Theoretical Physicist | Tokamak Concept | Moscow, Russia | Co-proposes the tokamak approach for confining hot plasma with magnetic fields. |
| 1950 | James H. Smith Physicist | First Neutron EDM Measurement | Oak Ridge, United States of America | With Edward Purcell and Norman Ramsey, performs the first experimental search for a neutron electric dipole moment. |
| 1951 | Albert Einstein Physicist | Unified Field Equations Refinement | Princeton, United States of America | Refines asymmetric-field approaches intended to combine gravitation and electromagnetism. |
| 1951 | Clifford Shull Physicist | Antiferromagnetic Neutron Diffraction | Oak Ridge, United States of America | Uses neutron diffraction to reveal magnetic ordering in manganese oxide and confirm antiferromagnetism. |
| 1951 | Wilbur Strauser Physicist | Manganese Oxide Magnetic Structure | Oak Ridge, United States of America | Works with Shull and Wollan to determine manganese oxide antiferromagnetic structure using neutrons. |
| 1951 | Ernest Wollan Physicist | Manganese Oxide Magnetic Structure | Oak Ridge, United States of America | Uses neutron scattering with Shull and Strauser to reveal antiferromagnetic order in manganese oxide. |
| 1955 | Francois Englert Theoretical Physicist | Engineering Degree | Brussels, Belgium | Graduates from the Universite Libre de Bruxelles as a civil electrical-mechanical engineer. |
| 1 October 1957 | Edward Purcell Physicist | Neutron EDM Result Published | United States of America, United States of America | Publishes the early neutron EDM limit obtained from magnetic-resonance measurements. |
| 1 October 1957 | Norman Ramsey Physicist | Neutron EDM Result Published | United States of America, United States of America | Publishes the first-generation experimental limit on the neutron electric dipole moment. |
| 1 October 1957 | James H. Smith Physicist | Neutron EDM Result Published | United States of America, United States of America | Publishes the neutron electric-dipole-moment limit measured with Purcell and Ramsey. |
| 1958 | Philip Warren Anderson Physicist | Electron Localization in Disorder | Murray Hill, United States of America | Shows that disorder can localize electron wavefunctions and suppress electrical conduction, now called Anderson localization. |
| 1959 | Yakir Aharonov Physicist | Aharonov-Bohm Electron Phase Effect | Bristol, Israel | With David Bohm, predicts that electron interference can depend on electromagnetic potentials even where the electrons traverse no magnetic field. |
| 1960 | Robert G Chambers Physicist | Electron Interference Test of Magnetic Flux | Bristol, Great Britain | Uses electron interference around a magnetic whisker to obtain early experimental evidence for the Aharonov-Bohm phase effect. |
| 1965 | Ezra Newman Physicist | Kerr-Newman Metric | United States of America | With collaborators, obtains the rotating electrically charged black hole solution now called the Kerr-Newman metric. |
| 1967 | Steven Weinberg Theoretical Physicist | Weak Mixing | Cambridge, Massachusetts, United States of America | Relates electromagnetic and weak interactions through a common gauge framework whose parameters include the weak mixing angle. |
| 10 December 1970 | Hannes Olof Gosta Alfven Plasma Physicist | Magnetohydrodynamics Recognition | Stockholm, Sweden | Is recognized for discoveries concerning plasma and magnetic-field interactions. |
| 10 December 1970 | Hannes Olof Gosta Alfven Plasma Physicist | Nobel Prize in Physics | Stockholm, Sweden | Shares the physics prize for foundational work in magnetohydrodynamics. |
| 1970 | Hannes Alfven | Nobel Prize | Stockholm, Sweden | Shares the Nobel Prize in Physics for fundamental work and discoveries in magnetohydrodynamics and plasma physics. |
| 1972 | Saul Arno Teukolsky Physicist | Teukolsky Equation | California Institute of Technology, United States of America | Teukolsky derives separable equations for electromagnetic and gravitational perturbations of rotating Kerr black holes. |
| 15 October 1977 | Don Page Physicist | Charged Lepton Emission | Canada | Calculates Hawking emission of electrons and muons from a nonrotating black hole and analyzes fluctuations in the hole's electric charge. |
| 10 December 1979 | Abdus Salam Theoretical Physicist · Nobel Laureate | Nobel Prize | Stockholm, Pakistan | Shares the Nobel Prize in Physics with Sheldon Glashow and Steven Weinberg for contributions to unified weak and electromagnetic interactions. |
| 1980 | Klaus von Klitzing Physicist | Integer Quantum Hall Effect | Grenoble, Germany | Discovers precisely quantized Hall resistance in a two-dimensional electron system at low temperature and high magnetic field. |
| 1986 | Akira Tonomura Physicist | Shielded Aharonov-Bohm Electron Experiment | Tokyo, Japan | Uses electron holography with shielded magnetic flux to demonstrate the Aharonov-Bohm phase shift without electrons entering the magnetic field. |
| 1988 | Albert Fert Physicist | Giant Magnetoresistance Electron Spin Transport | Orsay, France | Co-discovers giant magnetoresistance, showing that electrical resistance can depend strongly on electron spin in magnetic multilayers. |
| 1988 | Peter Grunberg Physicist | Giant Magnetoresistance Discovery | Julich, Germany | Independently discovers giant magnetoresistance in magnetic multilayers, demonstrating strong spin-dependent electron transport. |
| 2001 | Hartmut Haffner Physicist | Bound Electron g-Factor Measurement | Mainz, Germany | Helps measure the magnetic moment of a bound electron in hydrogenlike carbon with a Penning trap, providing a precision test of strong-field quantum electrodynamics. |
| 7 March 2005 | Lyn Evans Physicist | Large Hadron Collider Magnet Installation | Geneva, Great Britain | Oversees the project as the first superconducting dipole magnet is lowered into the Large Hadron Collider tunnel. |
| 25 August 2005 | Lyn Evans Physicist | Large Hadron Collider Installation | Geneva, Great Britain | Sees major detector magnet milestones reached for ATLAS and CMS while installation of the Large Hadron Collider continues. |
| 2006 | Gerald Gabrielse Physicist | Single-Electron Magnetic Moment Measurement | Cambridge Massachusetts, United States of America | Uses a single trapped electron to make an exceptionally precise measurement of the electron magnetic moment. |
| December 2007 | Albert Fert Physicist | Nobel Prize for Giant Magnetoresistance | Stockholm, France | Shares the Nobel Prize in Physics for discovery of giant magnetoresistance and spin-dependent electron transport. |
| December 2007 | Peter Grunberg Physicist | Nobel Prize for Giant Magnetoresistance | Stockholm, Germany | Shares the Nobel Prize in Physics for discovery of giant magnetoresistance. |
| 19 September 2008 | Lyn Evans Physicist | Large Hadron Collider Incident | Geneva, Great Britain | Sees an electrical connection failure cause serious damage in one Large Hadron Collider sector, forcing an extended repair programme. |
| 2008 | David Hanneke Physicist | Improved Electron g-Factor Measurement | Cambridge Massachusetts, United States of America | With collaborators, improves the precision measurement of the electron magnetic moment using a single trapped electron. |
| 2025 | John Clarke | Nobel Prize | Stockholm, Great Britain | Shares the Nobel Prize in Physics for discovering macroscopic quantum tunnelling and energy quantisation in an electric circuit. |
| 2025 | Michel H. Devoret | Nobel Prize | Stockholm, France | Shares the Nobel Prize in Physics for discovering macroscopic quantum tunnelling and energy quantisation in an electric circuit. |
| 2025 | John M. Martinis | Nobel Prize | Stockholm, United States of America | Shares the Nobel Prize in Physics for discovering macroscopic quantum tunnelling and energy quantisation in an electric circuit. |