Selberg trace formula

E246698

The Selberg trace formula is a fundamental result in analytic number theory and spectral theory that relates lengths of closed geodesics on a Riemannian manifold to the spectrum of its Laplace operator, serving as a non-abelian analogue of the Poisson summation formula.

All labels observed (4)

How this entity was disambiguated

Statements (49)

Predicate Object
instanceOf mathematical theorem
result in analytic number theory
result in spectral theory
trace formula
appliesTo Riemannian manifolds of constant negative curvature
hyperbolic surfaces
locally symmetric spaces of rank one
quotients of the hyperbolic plane by Fuchsian groups
author Atle Selberg
coreConcept Laplace operator
surface form: Laplace–Beltrami operator

closed geodesics
eigenvalues of the Laplacian
geometric side
length spectrum
spectral side
describedAs non-abelian analogue of the Poisson summation formula
field analytic number theory
automorphic forms
differential geometry
global analysis
representation theory
spectral theory
firstDevelopedIn mid-20th century
generalizedBy Arthur trace formula
hasComponent elliptic contribution
hyperbolic contribution
identity contribution
parabolic contribution
hasVersion Selberg trace formula self-linksurface differs
surface form: compact case Selberg trace formula

Selberg trace formula self-linksurface differs
surface form: non-compact case Selberg trace formula
historicalPeriod 20th century mathematics
inspired Arthur trace formula
namedAfter Atle Selberg
relatedTo Poisson summation formula
Selberg zeta function
Weyl law
surface form: Weyl law for eigenvalues

prime geodesic theorem
relates length spectrum of closed geodesics
spectrum of the Laplace operator
requires harmonic analysis on Lie groups
spectral theory of self-adjoint operators
theory of unitary representations
typicalSetting compact hyperbolic surfaces
finite-area hyperbolic surfaces with cusps
usedFor investigating distribution of closed geodesics
proving results about automorphic L-functions
relating geometric invariants to spectral invariants
spectral decomposition of automorphic representations
studying eigenvalues of the Laplacian on Riemann surfaces

How these facts were elicited

Referenced by (6)

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

Atle Selberg knownFor Selberg trace formula
Atle Selberg notableWork Selberg trace formula
Selberg trace formula hasVersion Selberg trace formula self-linksurface differs
this entity surface form: compact case Selberg trace formula
Selberg trace formula hasVersion Selberg trace formula self-linksurface differs
this entity surface form: non-compact case Selberg trace formula
Selberg integral relatedTo Selberg trace formula
Plancherel theorem for real reductive groups isImportantFor Selberg trace formula
this entity surface form: the Selberg trace formula