Theory of Atomic Collisions

E484920

Theory of Atomic Collisions is a foundational physics monograph that systematically analyzes the quantum-mechanical processes governing collisions between atomic and subatomic particles.

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Predicate Object
instanceOf non‑fiction book
physics monograph
scientific book
appliesTheory S‑matrix theory NERFINISHED
perturbation theory
quantum scattering theory
time‑dependent Schrödinger equation
time‑independent Schrödinger equation
describes Born approximation NERFINISHED
charge‑exchange collisions
close‑coupling methods
elastic scattering
excitation processes
inelastic scattering
ionization processes
long‑range interaction potentials
partial‑wave analysis
phase shifts in scattering
potential‑scattering models
quantum‑mechanical processes in collisions
scattering cross sections
short‑range interaction potentials
field atomic physics
collision theory
quantum mechanics
focusesOn angular distributions of scattered particles
energy transfer in collisions
interaction between projectiles and target atoms
microscopic description of collisions
quantum description of impact processes
transition probabilities in collisions
hasApproach quantum‑mechanical formalism
systematic theoretical analysis
hasAudience advanced students of physics
researchers in atomic and molecular physics
researchers in theoretical physics
hasImportance foundational work in atomic collision theory
reference text for researchers in atomic physics
language English
mainSubject atomic collisions
collisions between atomic and subatomic particles
quantum‑mechanical scattering
scattering theory
usedIn astrophysics
atomic physics research
nuclear physics
particle physics
plasma physics
spectroscopy

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Mott notableWork Theory of Atomic Collisions
subject surface form: Nevill Francis Mott