Kerr metric

E14416

The Kerr metric is the exact general relativity solution describing the spacetime geometry around a rotating, uncharged black hole.

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All labels observed (7)

Statements (48)

Predicate Object
instanceOf Lorentzian metric
black hole solution
exact solution of Einstein field equations
stationary axisymmetric spacetime
vacuum solution in general relativity
allows Penrose process for energy extraction
superradiant scattering
appliesTo rotating uncharged black holes
belongsToTheory general relativity
describes exterior gravitational field of a rotating mass
spacetime geometry around a rotating uncharged black hole
dimension 4-dimensional spacetime
generalizes Schwarzschild black hole
surface form: Schwarzschild solution
hasCondition |a| ≤ M for a black hole
hasCoordinateSystem Boyer–Lindquist coordinates
Kerr–Schild coordinates
hasCurvatureInvariant nonzero Kretschmann scalar
hasEffect Lense–Thirring precession near the black hole
hasFeature Killing horizon
ergosphere
event horizon
frame dragging
ring singularity
hasInvariant Kerr parameter a = J/M
hasParameter mass parameter M
spin parameter a
hasProperty Ricci-flat
asymptotically flat
axisymmetric
stationary
vacuum
hasRegion ergosphere between event horizon and static limit
inner Cauchy horizon at r_- = M - sqrt(M^2 - a^2)
outer event horizon at r_+ = M + sqrt(M^2 - a^2)
hasSymmetry axial symmetry
time-translation symmetry
two commuting Killing vector fields
hasTopology ring-shaped singularity in the equatorial plane
isGeneralizedBy Kerr–Newman black hole
surface form: Kerr–Newman metric
isUsedIn accretion disk models around black holes
astrophysical modeling of rotating black holes
gravitational wave modeling from compact binaries
reducesTo Schwarzschild metric when spin parameter a = 0
satisfies vacuum Einstein equations R_{μν} = 0
signature Lorentzian signature (-,+,+,+)
solves Einstein field equations in vacuum
wasProposedBy Roy Kerr
yearProposed 1963

Referenced by (28)

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

The Mathematical Theory of Black Holes mainSubject Kerr metric
this entity surface form: Kerr black hole
Kerr–Newman black hole generalizes Kerr metric
this entity surface form: Kerr black hole
Kerr–Newman black hole hasEffect Kerr metric
this entity surface form: Lense–Thirring precession
Israel–Carter–Robinson uniqueness theorems concerns Kerr metric
this entity surface form: Kerr black hole
general relativity includes Kerr metric
Kerr Penrose diagram represents Kerr metric
this entity surface form: Kerr spacetime
Kerr Penrose diagram basedOn Kerr metric
Boyer–Lindquist coordinates introducedInContext Kerr metric
this entity surface form: Kerr solution
Penrose process for energy extraction appliesTo Kerr metric
this entity surface form: Kerr black hole
Penrose process for energy extraction mathematicalFramework Kerr metric
this entity surface form: Kerr spacetime
Kerr–Schild coordinates usedIn Kerr metric
this entity surface form: Kerr spacetime
Roy Kerr knownFor Kerr metric
Roy Kerr notableConcept Kerr metric
this entity surface form: Kerr black hole
Roy Kerr notableConcept Kerr metric
this entity surface form: Kerr spacetime
Penrose–Carter diagrams appliesTo Kerr metric
subject surface form: Penrose–Carter diagram
this entity surface form: Kerr spacetime
Gravitation (with Charles Misner and Kip Thorne) covers Kerr metric
this entity surface form: Kerr black holes
“Rotating Black Holes: Locally Nonrotating Frames, Energy Extraction, and Scalar Synchrotron Radiation” mainSubject Kerr metric
subject surface form: Rotating Black Holes: Locally Nonrotating Frames, Energy Extraction, and Scalar Synchrotron Radiation
this entity surface form: Kerr black hole
“Rotating Black Holes: Locally Nonrotating Frames, Energy Extraction, and Scalar Synchrotron Radiation” usesSpacetimeMetric Kerr metric
subject surface form: Rotating Black Holes: Locally Nonrotating Frames, Energy Extraction, and Scalar Synchrotron Radiation
“Rotating Black Holes: Locally Nonrotating Frames, Energy Extraction, and Scalar Synchrotron Radiation” context Kerr metric
subject surface form: Rotating Black Holes: Locally Nonrotating Frames, Energy Extraction, and Scalar Synchrotron Radiation
this entity surface form: Kerr solution of Einstein's field equations
Cauchy horizon occursIn Kerr metric
this entity surface form: Kerr spacetime
Blandford–Znajek process appliesTo Kerr metric
this entity surface form: Kerr black holes
Richard W. Lindquist associatedWithConcept Kerr metric
this entity surface form: Kerr black hole
Richard W. Lindquist appliesTo Kerr metric
subject surface form: Boyer–Lindquist coordinates