Lippmann–Schwinger equation

E371027

The Lippmann–Schwinger equation is an integral equation in quantum scattering theory that reformulates the Schrödinger equation to describe how incoming waves are transformed into scattered waves by a potential.

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All labels observed (1)

Label Occurrences
Lippmann–Schwinger equation canonical 5

Statements (48)

Predicate Object
instanceOf equation in quantum mechanics
integral equation
scattering theory equation
appliesTo stationary scattering states
time-independent scattering
assumes short-range or well-behaved potentials for standard derivations
characterizedBy energy-dependent Green’s function
integral over intermediate coordinates or momenta
contains free Green’s operator G_0^{(±)}(E)
free Hamiltonian H_0
full Hamiltonian H = H_0 + V
interaction potential V
defines incoming scattering states
outgoing scattering states
describes quantum scattering from a potential
field quantum mechanics
quantum scattering theory
hasForm |ψ^{(±)}⟩ = |φ⟩ + G_0^{(±)} V |ψ^{(±)}⟩
hasSolutionType integral equation for wavefunctions
implies asymptotic boundary conditions for scattering states
mathematicalForm ψ^{(±)}(r) = φ(r) + ∫ G_0^{(±)}(r,r';E) V(r') ψ^{(±)}(r') d^3r'
namedAfter Bernard A. Lippmann NERFINISHED
Julian Schwinger
publishedIn Physical Review
reformulates Schrödinger equation
surface form: time-independent Schrödinger equation
relatedTo Schwinger–Dyson equations
surface form: Dyson equation

Møller operators
S-matrix
resolvent formalism in operator theory
relates incoming wave
scattered wave
scattering potential
usedFor Born approximation
Born expansion of Green’s function
surface form: Born series expansion

construction of scattering states from free states
derivation of differential cross sections
derivation of scattering amplitudes
derivation of the T-matrix
multiple scattering theory
usedIn atomic scattering theory
molecular scattering theory
nonrelativistic quantum mechanics
nuclear scattering theory
potential scattering
quantum chemistry scattering calculations
uses Green’s function
resolvent operator
yearProposed 1950

Referenced by (5)

Full triples — surface form annotated when it differs from this entity's canonical label.

Bethe–Salpeter equation relatedTo Lippmann–Schwinger equation
Sommerfeld radiation condition relatedTo Lippmann–Schwinger equation
Born series appliesTo Lippmann–Schwinger equation
Born series derivedFrom Lippmann–Schwinger equation
Born expansion of Green’s function appliesTo Lippmann–Schwinger equation