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Scattering of photons off charged particles
also called non-linear Compton scattering and multiphoton Compton scattering. It is the non-linear version of inverse Compton scattering in which the
Compton_scattering
Electron-many photon scattering
Non-linear inverse Compton scattering (NICS), also known as non-linear Compton scattering and multiphoton Compton scattering, is the scattering of multiple
Non-linear inverse Compton scattering
Non-linear_inverse_Compton_scattering
Deviation of electrons from their original trajectories
electron scattering occurs and the beam passes straight through. Single scattering: when an electron is scattered just once. Plural scattering: when electron(s)
Electron_scattering
Low energy photon scattering off charged particles
low-energy limit of Compton scattering: the particle's kinetic energy and photon frequency do not change as a result of the scattering. This limit is valid
Thomson_scattering
Topics referred to by the same term
wave structure Non-linear inverse Compton scattering (NICS; also known as non-linear Compton scattering or multiphoton Compton scattering), the process
Nonlinearity_(disambiguation)
Light or sound absorption in a substance
to two processes: absorption and scattering. Absorption indicates energy that is lost from the beam, while scattering indicates light that is redirected
Attenuation_coefficient
Electron-positron production from two photons
electrons will first radiate gamma photons via so-called non-linear inverse Compton scattering when interacting with the laser pulse. Still interacting
Breit–Wheeler_process
Inelastic scattering of photons by matter
In chemistry and physics, Raman scattering or the Raman effect (/ˈrɑːmən/) is the inelastic scattering of photons by matter, meaning that there is both
Raman_scattering
Particle collisions conserving kinetic energy
Elastic scattering is a form of particle scattering in scattering theory, nuclear physics and particle physics. In this process, the internal states of
Elastic_scattering
Penetrating form of electromagnetic radiation
produce secondary gamma rays by the mechanisms of bremsstrahlung, inverse Compton scattering and synchrotron radiation. A large fraction of such astronomical
Gamma_ray
Optical law in astrophysics
electron) or free-free absorption (the absorption of light when scattering a free ion, inverse of bremsstrahlung). It is often used to model radiative transfer
Kramers'_opacity_law
Pictorial representation of the behavior of subatomic particles
between scattering and correlation functions is the LSZ-theorem: The scattering amplitude for n particles to go to m particles in a scattering event is
Feynman_diagram
Harmful high-frequency radiation
if linear energy transfer does occur. But, for many nuclei struck by neutrons, inelastic scattering occurs. Whether elastic or inelastic scatter occurs
Ionizing_radiation
Trace radiation from the early universe
potential. 1969 – R. A. Sunyaev and Yakov Zel'dovich study the inverse Compton scattering of microwave background photons by hot electrons (see Sunyaev–Zel'dovich
Cosmic_microwave_background
Physical model of propagating energy
through space. It encompasses a broad spectrum, classified by frequency (inversely proportional to wavelength), ranging from radio waves, microwaves, infrared
Electromagnetic_radiation
Quantum mechanical waves describing matter
diffraction through the different scattering cross sections and sensitivity to magnetism. Small-angle neutron scattering provides way to obtain structure
Matter_wave
Elementary particle with negative charge
between a photon (light) and a solitary (free) electron is called Compton scattering. This collision results in a transfer of momentum and energy between
Electron
Branch of physics that studies light
similar to other distances, as a kind of scattering. The simplest type of scattering is Thomson scattering which occurs when electromagnetic waves are
Optics
Relativistic wave equation in quantum mechanics
Schrödinger equation. Apart from its use in studying dispersion and Compton scattering, the equation was not very useful for treating most physical problems
Klein–Gordon_equation
Theoretical framework in physics
it was able to account for the scattering of photons, resonance fluorescence and non-relativistic Compton scattering. Nonetheless, the application of
Quantum_field_theory
Description of a quantum-mechanical system
observable in that eigenstate. More generally, a quantum state will be a linear combination of the eigenstates, known as a quantum superposition. When an
Schrödinger_equation
Screened Coulomb potential which exponentially decays
attractive. In the SI system, the unit of the Yukawa potential is the inverse meter. The Coulomb potential of electromagnetism is an example of a Yukawa
Yukawa_potential
Hypothetical invisible cosmic material
density scales with the inverse cube of the scale factor, i.e., ρ ∝ a−3 . This is in contrast to "radiation", which scales as the inverse fourth power of the
Dark_matter
Astronomical object emitting X-rays
ordinary Coulomb, black-body radiation, synchrotron radiation, inverse Compton scattering of lower-energy photons by relativistic electrons, knock-on collisions
Astrophysical_X-ray_source
Recoil force on accelerating charged particle
to this accelerated electron beam. In a small number of cases, inverse-Compton scattering occurs between the photons and the electron beam, and the spectra
Abraham–Lorentz_force
Notes 2026 Majed Chergui For pioneering contributions in ultrafast linear and non-linear optical and X-ray spectroscopy and his seminal studies of the electronic
William F. Meggers Award in Spectroscopy
William_F._Meggers_Award_in_Spectroscopy
the energy of the photon is called the Compton effect. The opposite phenomenon occurs in inverse Compton scattering, when a charged particle transfers part
Glossary_of_physics
Type of non-destructive testing
with X-rays at those energy levels are the photoelectric effect, compton scattering and pair production. After having crossed the object, the photons
Industrial_radiography
Albert Einstein's hypothetical situations to argue scientific points
concept of the light quantum to prevail. In 1923, Arthur Compton was studying the scattering of high energy X-rays from a graphite target. Unexpectedly
Einstein's thought experiments
Einstein's_thought_experiments
Foundational principle in quantum physics
collision does not disturb the electron's momentum very much, but the scattering will reveal its position only vaguely. Problem 2 – If a large aperture
Uncertainty_principle
Technique in computational quantum field theory
contribution to the generalized parton distributions for deeply virtual Compton scattering, which can be computed from the overlap of light-front wave functions
Light_front_quantization
Energy driving the accelerated expansion of the universe
scales with the inverse cube of the scale factor, i.e., ρ ∝ a−3, while radiation is anything whose energy density scales to the inverse fourth power of
Dark_energy
Matter and radiation in the space between the star systems in a galaxy
and bump up the photon energies to X-rays and gamma-rays, via inverse Compton scattering. Due to the galactic magnetic field, charged particles follow
Interstellar_medium
Historical development of physics
"classical" world) was accepted when the Compton Effect established that light carries momentum and can scatter off particles, and when Louis de Broglie
History_of_physics
German-American physicist (1906–2005)
Albert Petschek, he came up with an approximation that converted the scattering equation into an easily solved differential equation. This then led him
Hans_Bethe
Water has a special phase diagram. Tyndall effect The effect of light scattering by colloidal or suspended particles. Contents: Top 0–9 A B C D E F G
Glossary_of_chemistry_terms
Kompaneets derives his Compton scattering Fokker–Planck equation 1957 – Ryogo Kubo derives the first of the Green-Kubo relations for linear transport coefficients
Timeline_of_thermodynamics
of the original ray. This discovery, now known as the "Compton effect" or "Compton scattering", demonstrates the "particle" concept of electromagnetic
Timeline of physical chemistry
Timeline_of_physical_chemistry
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