Nash embedding theorem

E631

The Nash embedding theorem is a fundamental result in differential geometry that shows any Riemannian manifold can be isometrically embedded into some Euclidean space, thereby realizing abstract curved spaces as concrete subsets of standard Euclidean space.

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All labels observed (9)

Statements (48)

Predicate Object
instanceOf mathematical theorem
result in differential geometry
appliesTo Ck Riemannian metrics
compact Riemannian manifolds
noncompact Riemannian manifolds
smooth Riemannian manifolds
clarifies relationship between intrinsic curvature and extrinsic curvature
concerns Euclidean space
Riemannian manifolds
isometric embeddings
dimensionBound gives explicit upper bounds on the Euclidean dimension needed for embedding
field Riemannian geometry
differential geometry
generalizationOf local isometric embedding results
hasConsequence Riemannian manifolds can be studied via submanifolds of Euclidean space
any Riemannian manifold isometrically embeds into some RN
existence of isometric embeddings for compact Riemannian manifolds
existence of isometric embeddings for noncompact Riemannian manifolds
hasImpactOn theory of relativity
surface form: general relativity

the study of manifolds with given metric structures
hasProperty global embedding result
nonlinear partial differential equation method
hasVersion Nash embedding theorem self-linksurface differs
surface form: Nash C1 embedding theorem

Nash embedding theorem self-linksurface differs
surface form: Nash Ck embedding theorem

Nash embedding theorem self-linksurface differs
surface form: Nash C∞ embedding theorem

Nash embedding theorem self-linksurface differs
surface form: Nash isometric embedding theorem

Nash embedding theorem self-linksurface differs
surface form: Nash–Kuiper theorem
implies every abstract Riemannian manifold can be realized as a submanifold of Euclidean space
influenced geometric analysis
global Riemannian geometry
theory of isometric immersions
isStrongerThan local isometric embedding theorems
namedAfter John Nash
surface form: John Forbes Nash Jr.
provedBy John Nash
surface form: John Forbes Nash Jr.
relatedTo Janet–Cartan theorem
Whitney embedding theorem
relatesConcept embedding
extrinsic geometry
immersion
intrinsic geometry
isometry
metric tensor
shows intrinsic Riemannian geometry can be realized as extrinsic geometry in Euclidean space
statesThat every smooth Riemannian manifold admits an isometric embedding into some Euclidean space
usesMethod implicit function theorem
iteration scheme
smoothing operators
yearProved 1950s

Referenced by (10)

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

John Nash notableWork Nash embedding theorem
Nash embedding theorem hasVersion Nash embedding theorem self-linksurface differs
this entity surface form: Nash C1 embedding theorem
Nash embedding theorem hasVersion Nash embedding theorem self-linksurface differs
this entity surface form: Nash Ck embedding theorem
Nash embedding theorem hasVersion Nash embedding theorem self-linksurface differs
this entity surface form: Nash C∞ embedding theorem
Nash embedding theorem hasVersion Nash embedding theorem self-linksurface differs
this entity surface form: Nash isometric embedding theorem
Nash embedding theorem hasVersion Nash embedding theorem self-linksurface differs
this entity surface form: Nash–Kuiper theorem
Janet–Cartan theorem relatedTo Nash embedding theorem
this entity surface form: Nash embedding theorems
Janet–Cartan theorem strengthenedBy Nash embedding theorem
this entity surface form: Nash C^k isometric embedding theorem
Janet–Cartan theorem strengthenedBy Nash embedding theorem
this entity surface form: Nash C^1 isometric embedding theorem
Whitney embedding theorem relatedTo Nash embedding theorem