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It has been suggested that Timeline of particle physics be merged into this article. (Discuss) Proposed since November 2023. |

A timeline of atomic and subatomic physics.

- In 6th century BCE, Acharya Kanada proposed that all matter must consist of indivisible particles and called them "anu". He proposes examples like ripening of fruit as the change in the number and types of atoms to create newer units.
- 430 BCE
^{ [1] }Democritus speculates about fundamental indivisible particles—calls them "atoms"

- 1766 Henry Cavendish discovers and studies hydrogen
- 1778 Carl Scheele and Antoine Lavoisier discover that air is composed mostly of nitrogen and oxygen
- 1781 Joseph Priestley creates water by igniting hydrogen and oxygen
- 1800 William Nicholson and Anthony Carlisle use electrolysis to separate water into hydrogen and oxygen
- 1803 John Dalton introduces atomic ideas into chemistry and states that matter is composed of atoms of different weights
- 1805 (approximate time) Thomas Young conducts the double-slit experiment with light
- 1811 Amedeo Avogadro claims that equal volumes of gases should contain equal numbers of molecules
- 1832 Michael Faraday states his laws of electrolysis
- 1839 Alexandre Edmond Becquerel discovered the photovoltaic effect
- 1871 Dmitri Mendeleyev systematically examines the periodic table and predicts the existence of gallium, scandium, and germanium
- 1873 Johannes van der Waals introduces the idea of weak attractive forces between molecules
- 1885 Johann Balmer finds a mathematical expression for observed hydrogen line wavelengths
- 1887 Heinrich Hertz discovers the photoelectric effect
- 1894 Lord Rayleigh and William Ramsay discover argon by spectroscopically analyzing the gas left over after nitrogen and oxygen are removed from air
- 1895 William Ramsay discovers terrestrial helium by spectroscopically analyzing gas produced by decaying uranium
- 1896 Antoine Henri Becquerel discovers the radioactivity of uranium
- 1896 Pieter Zeeman studies the splitting of sodium D lines when sodium is held in a flame between strong magnetic poles
- 1897 Emil Wiechert, Walter Kaufmann and J.J. Thomson discover the electron
- 1898 Marie and Pierre Curie discovered the existence of the radioactive elements radium and polonium in their research of pitchblende
- 1898 William Ramsay and Morris Travers discover neon, and negatively charged beta particles

- 1887 Heinrich Rudolf Hertz discovers the photoelectric effect that will play a very important role in the development of the quantum theory with Einstein's explanation of this effect in terms of
*quanta*of light - 1896 Wilhelm Conrad Röntgen discovers the X-rays while studying electrons in plasma; scattering X-rays—that were considered as 'waves' of high-energy electromagnetic radiation—Arthur Compton will be able to demonstrate in 1922 the 'particle' aspect of electromagnetic radiation.
- 1900 Paul Villard discovers gamma-rays while studying uranium decay
- 1900 Johannes Rydberg refines the expression for observed hydrogen line wavelengths
- 1900 Max Planck states his quantum hypothesis and blackbody radiation law
- 1902 Philipp Lenard observes that maximum photoelectron energies are independent of illuminating intensity but depend on frequency
- 1905 Albert Einstein explains the photoelectric effect
- 1906 Charles Barkla discovers that each element has a characteristic X-ray and that the degree of penetration of these X-rays is related to the atomic weight of the element
- 1909 Hans Geiger and Ernest Marsden discover large angle deflections of alpha particles by thin metal foils
- 1909 Ernest Rutherford and Thomas Royds demonstrate that alpha particles are doubly ionized helium atoms
- 1911 Ernest Rutherford explains the Geiger–Marsden experiment by invoking a nuclear atom model and derives the Rutherford cross section
- 1911 Jean Perrin proves the existence of atoms and molecules with experimental work to test Einstein's theoretical explanation of Brownian motion
- 1911 Ștefan Procopiu measures the magnetic dipole moment of the electron
- 1912 Max von Laue suggests using crystal lattices to diffract X-rays
- 1912 Walter Friedrich and Paul Knipping diffract X-rays in zinc blende
- 1913 William Henry Bragg and William Lawrence Bragg work out the Bragg condition for strong X-ray reflection
- 1913 Henry Moseley shows that nuclear charge is the real basis for numbering the elements
- 1913 Niels Bohr presents his quantum model of the atom
^{ [2] } - 1913 Robert Millikan measures the fundamental unit of electric charge
- 1913 Johannes Stark demonstrates that strong electric fields will split the Balmer spectral line series of hydrogen
- 1914 James Franck and Gustav Hertz observe atomic excitation
- 1914 Ernest Rutherford suggests that the positively charged atomic nucleus contains protons
^{ [3] } - 1915 Arnold Sommerfeld develops a modified Bohr atomic model with elliptic orbits to explain relativistic fine structure
- 1916 Gilbert N. Lewis and Irving Langmuir formulate an electron shell model of chemical bonding
- 1917 Albert Einstein introduces the idea of stimulated radiation emission
- 1918 Ernest Rutherford notices that, when alpha particles were shot into nitrogen gas, his scintillation detectors showed the signatures of hydrogen nuclei.
- 1921 Alfred Landé introduces the Landé g-factor
- 1922 Arthur Compton studies X-ray photon scattering by electrons demonstrating the 'particle' aspect of electromagnetic radiation.
- 1922 Otto Stern and Walther Gerlach show "spin quantization"
- 1923 Lise Meitner discovers what is now referred to as the Auger process
- 1924 Louis de Broglie suggests that electrons may have wavelike properties in addition to their 'particle' properties; the
*wave–particle duality*has been later extended to all fermions and bosons. - 1924 John Lennard-Jones proposes a semiempirical interatomic force law
- 1924 Santiago Antúnez de Mayolo proposes a neutron.
- 1924 Satyendra Bose and Albert Einstein introduce Bose–Einstein statistics
- 1925 Wolfgang Pauli states the quantum exclusion principle for electrons
- 1925 George Uhlenbeck and Samuel Goudsmit postulate electron spin
- 1925 Pierre Auger discovers the Auger process (2 years after Lise Meitner)
- 1925 Werner Heisenberg, Max Born, and Pascual Jordan formulate quantum matrix mechanics
- 1926 Erwin Schrödinger states his nonrelativistic quantum wave equation and formulates quantum wave mechanics
- 1926 Erwin Schrödinger proves that the wave and matrix formulations of quantum theory are mathematically equivalent
- 1926 Oskar Klein and Walter Gordon state their relativistic quantum wave equation, now the Klein–Gordon equation
- 1926 Enrico Fermi discovers the spin–statistics connection, for particles that are now called 'fermions', such as the electron (of spin-1/2).
- 1926 Paul Dirac introduces Fermi–Dirac statistics
- 1926 Gilbert N. Lewis introduces the term "
*photon*", thought by him to be "*the carrier of radiant energy.*"^{ [4] }^{ [5] } - 1927 Clinton Davisson, Lester Germer, and George Paget Thomson confirm the wavelike nature of electrons
^{ [6] } - 1927 Werner Heisenberg states the quantum uncertainty principle
- 1927 Max Born interprets the probabilistic nature of wavefunctions
- 1927 Walter Heitler and Fritz London introduce the concepts of valence bond theory and apply it to the hydrogen molecule.
- 1927 Thomas and Fermi develop the Thomas–Fermi model
- 1927 Max Born and Robert Oppenheimer introduce the Born–Oppenheimer approximation
- 1928 Chandrasekhara Raman studies optical photon scattering by electrons
- 1928 Paul Dirac states the Dirac equation
- 1928 Charles G. Darwin and Walter Gordon solve the Dirac equation for a Coulomb potential
- 1928 Friedrich Hund and Robert S. Mulliken introduce the concept of molecular orbital
- 1929 Oskar Klein discovers the Klein paradox
- 1929 Oskar Klein and Yoshio Nishina derive the Klein–Nishina cross section for high energy photon scattering by electrons
- 1929 Nevill Mott derives the Mott cross section for the Coulomb scattering of relativistic electrons
- 1930 Paul Dirac introduces electron hole theory
- 1930 Erwin Schrödinger predicts the zitterbewegung motion
- 1930 Fritz London explains van der Waals forces as due to the interacting fluctuating dipole moments between molecules
- 1931 John Lennard-Jones proposes the Lennard-Jones interatomic potential
- 1931 Irène Joliot-Curie and Frédéric Joliot observe but misinterpret neutron scattering in paraffin
- 1931 Wolfgang Pauli puts forth the neutrino hypothesis to explain the apparent violation of energy conservation in beta decay
- 1931 Linus Pauling discovers resonance bonding and uses it to explain the high stability of symmetric planar molecules
- 1931 Paul Dirac shows that charge quantization can be explained if magnetic monopoles exist
- 1931 Harold Urey discovers deuterium using evaporation concentration techniques and spectroscopy
- 1932 John Cockcroft and Ernest Walton split lithium and boron nuclei using proton bombardment
- 1932 James Chadwick discovers the neutron
- 1932 Werner Heisenberg presents the proton–neutron model of the nucleus and uses it to explain isotopes
- 1932 Carl D. Anderson discovers the positron
- 1933 Ernst Stueckelberg (1932), Lev Landau (1932), and Clarence Zener discover the Landau–Zener transition
- 1933 Max Delbrück suggests that quantum effects will cause photons to be scattered by an external electric field
- 1934 Irène Joliot-Curie and Frédéric Joliot bombard aluminium atoms with alpha particles to create artificially radioactive phosphorus-30
- 1934 Leó Szilárd realizes that nuclear chain reactions may be possible
- 1934 Enrico Fermi publishes a very successful model of beta decay in which neutrinos were produced.
- 1934 Lev Landau tells Edward Teller that non-linear molecules may have vibrational modes which remove the degeneracy of an orbitally degenerate state (Jahn–Teller effect)
- 1934 Enrico Fermi suggests bombarding uranium atoms with neutrons to make a 93 proton element
- 1934 Pavel Cherenkov reports that light is emitted by relativistic particles traveling in a nonscintillating liquid
- 1935 Hideki Yukawa presents a theory of the nuclear force and predicts the scalar meson
- 1935 Albert Einstein, Boris Podolsky, and Nathan Rosen put forth the EPR paradox
- 1935 Henry Eyring develops the transition state theory
- 1935 Niels Bohr presents his analysis of the EPR paradox
- 1936 Alexandru Proca formulates the relativistic quantum field equations for a massive vector meson of spin-1 as a basis for nuclear forces
- 1936 Eugene Wigner develops the theory of neutron absorption by atomic nuclei
- 1936 Hermann Arthur Jahn and Edward Teller present their systematic study of the symmetry types for which the Jahn–Teller effect is expected
^{ [7] } - 1937 Carl Anderson proves experimentally the existence of the pion predicted by Yukawa's theory.
- 1937 Hans Hellmann finds the Hellmann–Feynman theorem
- 1937 Seth Neddermeyer, Carl Anderson, J.C. Street, and E.C. Stevenson discover muons using cloud chamber measurements of cosmic rays
- 1939 Richard Feynman finds the Hellmann–Feynman theorem
- 1939 Otto Hahn and Fritz Strassmann bombard uranium salts with thermal neutrons and discover barium among the reaction products
- 1939 Lise Meitner and Otto Robert Frisch determine that nuclear fission is taking place in the Hahn–Strassmann experiments
- 1942 Enrico Fermi makes the first controlled nuclear chain reaction
- 1942 Ernst Stueckelberg introduces the propagator to positron theory and interprets positrons as negative energy electrons moving backwards through spacetime

- 1947 Willis Lamb and Robert Retherford measure the Lamb–Retherford shift
- 1947 Cecil Powell, César Lattes, and Giuseppe Occhialini discover the pi meson by studying cosmic ray tracks
- 1947 Richard Feynman presents his propagator approach to quantum electrodynamics
^{ [8] } - 1948 Hendrik Casimir predicts a rudimentary attractive Casimir force on a parallel plate capacitor
- 1951 Martin Deutsch discovers positronium
- 1952 David Bohm propose his interpretation of quantum mechanics
- 1953 Robert Wilson observes Delbruck scattering of 1.33 MeV gamma-rays by the electric fields of lead nuclei
- 1953 Charles H. Townes, collaborating with J. P. Gordon, and H. J. Zeiger, builds the first ammonia maser
- 1954 Chen Ning Yang and Robert Mills investigate a theory of hadronic isospin by demanding local gauge invariance under isotopic spin space rotations, the first non-Abelian gauge theory
- 1955 Owen Chamberlain, Emilio Segrè, Clyde Wiegand, and Thomas Ypsilantis discover the antiproton
- 1956 Frederick Reines and Clyde Cowan detect antineutrino
- 1956 Chen Ning Yang and Tsung Lee propose parity violation by the weak nuclear force
- 1956 Chien Shiung Wu discovers parity violation by the weak force in decaying cobalt
- 1957 Gerhart Luders proves the CPT theorem
- 1957 Richard Feynman, Murray Gell-Mann, Robert Marshak, and E.C.G. Sudarshan propose a vector/axial vector (VA) Lagrangian for weak interactions.
^{ [9] }^{ [10] }^{ [11] }^{ [12] }^{ [13] }^{ [14] } - 1958 Marcus Sparnaay experimentally confirms the Casimir effect
- 1959 Yakir Aharonov and David Bohm predict the Aharonov–Bohm effect
- 1960 R.G. Chambers experimentally confirms the Aharonov–Bohm effect
^{ [15] } - 1961 Murray Gell-Mann and Yuval Ne'eman discover the Eightfold Way patterns, the SU(3) group
- 1961 Jeffrey Goldstone considers the breaking of global phase symmetry
- 1962 Leon Lederman shows that the electron neutrino is distinct from the muon neutrino
- 1963 Eugene Wigner discovers the fundamental roles played by quantum symmetries in atoms and molecules

- 1964 Murray Gell-Mann and George Zweig propose the quark/aces model
^{ [16] }^{ [17] } - 1964 Peter Higgs considers the breaking of local phase symmetry
- 1964 John Stewart Bell shows that all local hidden variable theories must satisfy Bell's inequality
- 1964 Val Fitch and James Cronin observe CP violation by the weak force in the decay of K mesons
- 1967 Steven Weinberg puts forth his electroweak model of leptons
^{ [18] }^{ [19] } - 1969 John Clauser, Michael Horne, Abner Shimony and Richard Holt propose a polarization correlation test of Bell's inequality
- 1970 Sheldon Glashow, John Iliopoulos, and Luciano Maiani propose the charm quark
- 1971 Gerard 't Hooft shows that the Glashow-Salam-Weinberg electroweak model can be renormalized
^{ [20] } - 1972 Stuart Freedman and John Clauser perform the first polarization correlation test of Bell's inequality
- 1973 David Politzer and Frank Anthony Wilczek propose the asymptotic freedom of quarks
^{ [17] } - 1974 Burton Richter and Samuel Ting discover the J/ψ particle implying the existence of the charm quark
- 1974 Robert J. Buenker and Sigrid D. Peyerimhoff introduce the multireference configuration interaction method.
- 1975 Martin Perl discovers the tau lepton
- 1977 Steve Herb finds the upsilon resonance implying the existence of the beauty/bottom quark
- 1982 Alain Aspect, J. Dalibard, and G. Roger perform a polarization correlation test of Bell's inequality that rules out conspiratorial polarizer communication
- 1983 Carlo Rubbia, Simon van der Meer, and the CERN UA-1 collaboration find the W and Z intermediate vector bosons
^{ [21] } - 1989 The Z intermediate vector boson resonance width indicates three quark–lepton generations
- 1994 The CERN LEAR Crystal Barrel Experiment justifies the existence of glueballs (exotic meson).
- 1995 The D0 and CDF experiments at the Fermilab Tevatron discover the top quark.
- 1998 Super-Kamiokande (Japan) observes evidence for neutrino oscillations, implying that at least one neutrino has mass.
- 1999 Ahmed Zewail wins the Nobel prize in chemistry for his work on femtochemistry for atoms and molecules.
^{ [22] } - 2001 The Sudbury Neutrino Observatory (Canada) confirms the existence of neutrino oscillations.
- 2005 At the RHIC accelerator of Brookhaven National Laboratory they have created a quark–gluon liquid of very low viscosity, perhaps the quark–gluon plasma
- 2010 The Large Hadron Collider at CERN begins operation with the primary goal of searching for the Higgs boson.
- 2012 CERN announces the discovery of a new particle with properties consistent with the Higgs boson of the Standard Model after experiments at the Large Hadron Collider.

In particle physics, an **elementary particle** or **fundamental particle** is a subatomic particle that is not composed of other particles. The Standard Model presently recognizes seventeen distinct particles—twelve fermions and five bosons. As a consequence of flavor and color combinations and antimatter, the fermions and bosons are known to have 48 and 13 variations, respectively. Among the 61 elementary particles embraced by the Standard Model number electrons and other leptons, quarks, and the fundamental bosons. Subatomic particles such as protons or neutrons, which contain two or more elementary particles, are known as composite particles.

In particle physics, a **fermion** is a particle that follows Fermi–Dirac statistics. Generally, it has a half-odd-integer spin: spin 1/2, spin 3/2, etc. These particles obey the Pauli exclusion principle. Fermions include all quarks and leptons and all composite particles made of an odd number of these, such as all baryons and many atoms and nuclei. Fermions differ from bosons, which obey Bose–Einstein statistics.

A **muon** is an elementary particle similar to the electron, with an electric charge of −1 *e* and a spin of 1/2, but with a much greater mass. It is classified as a lepton. As with other leptons, the muon is not thought to be composed of any simpler particles; that is, it is a fundamental particle.

**Nuclear physics** is the field of physics that studies atomic nuclei and their constituents and interactions, in addition to the study of other forms of nuclear matter.

**Particle physics** or **high-energy physics** is the study of fundamental particles and forces that constitute matter and radiation. The field also studies combinations of elementary particles up to the scale of protons and neutrons, while the study of combination of protons and neutrons is called nuclear physics.

In quantum mechanics, the **Pauli exclusion principle** states that two or more identical particles with half-integer spins cannot simultaneously occupy the same quantum state within a quantum system. This principle was formulated by Austrian physicist Wolfgang Pauli in 1925 for electrons, and later extended to all fermions with his spin–statistics theorem of 1940.

In nuclear physics and particle physics, the **weak interaction**, which is also often called the **weak force** or **weak nuclear force**, is one of the four known fundamental interactions, with the others being electromagnetism, the strong interaction, and gravitation. It is the mechanism of interaction between subatomic particles that is responsible for the radioactive decay of atoms: The weak interaction participates in nuclear fission and nuclear fusion. The theory describing its behaviour and effects is sometimes called **quantum flavourdynamics** (**QFD**); however, the term QFD is rarely used, because the weak force is better understood by electroweak theory (EWT).

**Degenerate matter** occurs when the Pauli exclusion principle significantly alters a state of matter at low temperature. The term is used in astrophysics to refer to dense stellar objects such as white dwarfs and neutron stars, where thermal pressure alone is not enough to avoid gravitational collapse. The term also applies to metals in the Fermi gas approximation.

A **virtual particle** is a theoretical transient particle that exhibits some of the characteristics of an ordinary particle, while having its existence limited by the uncertainty principle. The concept of virtual particles arises in the perturbation theory of quantum field theory where interactions between ordinary particles are described in terms of exchanges of virtual particles. A process involving virtual particles can be described by a schematic representation known as a Feynman diagram, in which virtual particles are represented by internal lines.

In physics, a **subatomic particle** is a particle smaller than an atom. According to the Standard Model of particle physics, a subatomic particle can be either a composite particle, which is composed of other particles, or an elementary particle, which is not composed of other particles. Particle physics and nuclear physics study these particles and how they interact. Most force carrying particles like photons or gluons are called bosons and, although they have discrete quanta of energy, do not have rest mass or discrete diameters and are unlike the former particles that have rest mass and cannot overlap or combine which are called fermions.

In particle physics, **annihilation** is the process that occurs when a subatomic particle collides with its respective antiparticle to produce other particles, such as an electron colliding with a positron to produce two photons. The total energy and momentum of the initial pair are conserved in the process and distributed among a set of other particles in the final state. Antiparticles have exactly opposite additive quantum numbers from particles, so the sums of all quantum numbers of such an original pair are zero. Hence, any set of particles may be produced whose total quantum numbers are also zero as long as conservation of energy, conservation of momentum, and conservation of spin are obeyed.

In particle physics, the **history of quantum field theory** starts with its creation by Paul Dirac, when he attempted to quantize the electromagnetic field in the late 1920s. Major advances in the theory were made in the 1940s and 1950s, leading to the introduction of renormalized quantum electrodynamics (QED). The field theory behind QED was so accurate and successful in predictions that efforts were made to apply the same basic concepts for the other forces of nature. Beginning in 1954, the parallel was found by way of gauge theory, leading by the late 1970s, to quantum field models of strong nuclear force and weak nuclear force, united in the modern Standard Model of particle physics.

**Quantum mechanics** is the study of matter and its interactions with energy on the scale of atomic and subatomic particles. By contrast, classical physics explains matter and energy only on a scale familiar to human experience, including the behavior of astronomical bodies such as the moon. Classical physics is still used in much of modern science and technology. However, towards the end of the 19th century, scientists discovered phenomena in both the large (macro) and the small (micro) worlds that classical physics could not explain. The desire to resolve inconsistencies between observed phenomena and classical theory led to a revolution in physics, a shift in the original scientific paradigm: the development of quantum mechanics.

This timeline lists significant discoveries in physics and the laws of nature, including experimental discoveries, theoretical proposals that were confirmed experimentally, and theories that have significantly influenced current thinking in modern physics. Such discoveries are often a multi-step, multi-person process. Multiple discovery sometimes occurs when multiple research groups discover the same phenomenon at about the same time, and scientific priority is often disputed. The listings below include some of the most significant people and ideas by date of publication or experiment.

The **timeline of particle physics** lists the sequence of particle physics theories and discoveries in chronological order. The most modern developments follow the scientific development of the discipline of particle physics.

In particle physics, a **boson** ( ) is a subatomic particle whose spin quantum number has an integer value. Bosons form one of the two fundamental classes of subatomic particle, the other being fermions, which have odd half-integer spin. Every observed subatomic particle is either a boson or a fermion.

The **timeline of quantum mechanics** is a list of key events in the history of quantum mechanics, quantum field theories and quantum chemistry.

The idea that matter consists of smaller particles and that there exists a limited number of sorts of primary, smallest particles in nature has existed in natural philosophy at least since the 6th century BC. Such ideas gained physical credibility beginning in the 19th century, but the concept of "elementary particle" underwent some changes in its meaning: notably, modern physics no longer deems elementary particles indestructible. Even elementary particles can decay or collide destructively; they can cease to exist and create (other) particles in result.

The **discovery of the neutron** and its properties was central to the extraordinary developments in atomic physics in the first half of the 20th century. Early in the century, Ernest Rutherford developed a crude model of the atom, based on the gold foil experiment of Hans Geiger and Ernest Marsden. In this model, atoms had their mass and positive electric charge concentrated in a very small nucleus. By 1920, isotopes of chemical elements had been discovered, the atomic masses had been determined to be (approximately) integer multiples of the mass of the hydrogen atom, and the atomic number had been identified as the charge on the nucleus. Throughout the 1920s, the nucleus was viewed as composed of combinations of protons and electrons, the two elementary particles known at the time, but that model presented several experimental and theoretical contradictions.

- ↑ Teresi, Dick (2010).
*Lost Discoveries: The Ancient Roots of Modern Science*. Simon and Schuster. pp. 213–214. ISBN 978-1-4391-2860-2. - ↑ Jammer, Max (1966),
*The conceptual development of quantum mechanics*, New York: McGraw-Hill, OCLC 534562 - ↑ Tivel, David E. (September 2012).
*Evolution: The Universe, Life, Cultures, Ethnicity, Religion, Science, and Technology*. Dorrance Publishing. ISBN 9781434929747. - ↑ Gilbert N. Lewis. Letter to the editor of
*Nature*(Vol. 118, Part 2, December 18, 1926, pp. 874–875). - ↑ The origin of the word "photon"
- ↑ The Davisson–Germer experiment, which demonstrates the wave nature of the electron
- ↑ A. Abragam and B. Bleaney. 1970. Electron Parmagnetic Resonance of Transition Ions, Oxford University Press: Oxford, U.K., p. 911
- ↑ Feynman, R.P. (2006) [1985].
*QED: The Strange Theory of Light and Matter*. Princeton University Press. ISBN 0-691-12575-9. - ↑ Richard Feynman;
**QED**. Princeton University Press: Princeton, (1982) - ↑ Richard Feynman;
*Lecture Notes in Physics*. Princeton University Press: Princeton, (1986) - ↑ Feynman, R.P. (2001) [1964].
*The Character of Physical Law*. MIT Press. ISBN 0-262-56003-8. - ↑ Feynman, R.P. (2006) [1985].
*QED: The Strange Theory of Light and Matter*. Princeton University Press. ISBN 0-691-12575-9. - ↑ Schweber, Silvan S. ; Q.E.D. and the men who made it: Dyson, Feynman, Schwinger, and Tomonaga, Princeton University Press (1994) ISBN 0-691-03327-7
- ↑ Schwinger, Julian ; Selected Papers on Quantum Electrodynamics, Dover Publications, Inc. (1958) ISBN 0-486-60444-6
- ↑
- Kleinert, H. (2008).
*Multivalued Fields in Condensed Matter, Electrodynamics, and Gravitation*(PDF). World Scientific. ISBN 978-981-279-170-2.

- Kleinert, H. (2008).
- ↑ Yndurain, Francisco Jose ;
*Quantum Chromodynamics: An Introduction to the Theory of Quarks and Gluons*, Springer Verlag, New York, 1983. ISBN 0-387-11752-0 - 1 2 Frank Wilczek (1999) "Quantum field theory",
*Reviews of Modern Physics*71: S83–S95. Also doi=10.1103/Rev. Mod. Phys. 71. - ↑ Weinberg, Steven ; The Quantum Theory of Fields: Foundations (vol. I), Cambridge University Press (1995) ISBN 0-521-55001-7. The first chapter (pp. 1–40) of Weinberg's monumental treatise gives a brief history of Q.F.T., pp. 608.
- ↑ Weinberg, Steven; The Quantum Theory of Fields: Modern Applications (vol. II), Cambridge University Press:Cambridge, U.K. (1996) ISBN 0-521-55001-7, pp. 489.
- ↑
- Gerard 't Hooft (2007) "The Conceptual Basis of Quantum Field Theory" in Butterfield, J., and John Earman, eds.,
*Philosophy of Physics, Part A*. Elsevier: 661-730.

- Gerard 't Hooft (2007) "The Conceptual Basis of Quantum Field Theory" in Butterfield, J., and John Earman, eds.,
- ↑ Pais, Abraham ; Inward Bound: Of Matter & Forces in the Physical World, Oxford University Press (1986) ISBN 0-19-851997-4 Written by a former Einstein assistant at Princeton, this is a beautiful detailed history of modern fundamental physics, from 1895 (discovery of X-rays) to 1983 (discovery of vectors bosons at C.E.R.N.)
- ↑ "Press Release: The 1999 Nobel Prize in Chemistry". 12 October 1999. Retrieved 30 June 2013.

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