theorem 13.59 Regular value theorem

open in the book · parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:2763 · p. 485

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theorem 13.59: Regular value theorem13.59definition 13.52: Differential; pushforward13.52definition 13.58: Hypersurface13.58definition 13.49: Smooth map between manifolds13.49example 13.61: The 2-sphere in ℝ^313.61lemma 24.46: The level set of the momentum map is the symplectic orthogonal of the orbit24.46proposition A.547: The components of the level set are the leaves of an integrable distributionA.547proposition A.565: Freeness makes every value regularA.565theorem 24.47: Marsden–Weinstein reduction24.47proof : ch:11-manifolds-tensors-curvature@proof-10proofdefinition 13.81: Vector on a manifold13.81definition 13.53: Immersion, submersion, embedding13.53example 13.55: An injective immersion that is not an embedding13.55proposition 24.10: The canonical form is symplectic and intrinsic24.10theorem 13.62: Regular value theorem in codimension k13.62definition 13.54: Embedded submanifold13.54definition 13.44: Atlas13.44definition 13.45: Differentiable map on a topological space13.45definition 13.48: Differentiable manifold13.48definition 13.50: Diffeomorphism13.50definition 13.66: Smooth action; free; proper; orbit13.66lemma A.538: Submersions have smooth local sectionsA.538proposition A.539: Universal propertyA.539example A.294: The sphere, made explicitA.294example 13.87: The 2-sphere13.87definition 24.8: Symplectic manifold24.8definition 24.43: Momentum map24.43theorem A.563: Marsden–Weinstein reductionA.563theorem A.568: The radical is the isotropy orbitA.568proof : ch:07-symplectic-geometry@proof-15prooflemma A.546: The Hamiltonian fields of the integralsA.546theorem 13.133: Frobenius13.133lemma A.549: The action is transitiveA.549lemma A.555: The actions are well definedA.555proof : app:A-long-proofs@proof-331prooflemma A.564: Dimension and double orthogonalA.564lemma A.567: The differential of the momentum map along the orbitA.567proposition A.566: The isotropy group acts, and the quotient is smoothA.566proof : app:A-long-proofs@proof-340proofremark 24.48: Reduction is what physicists do without saying so24.48neighborhood truncated

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typedirectionnode provenancewhere
depends_on Differential; pushforward declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:2772
depends_on Hypersurface declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:2772
depends_on Smooth map between manifolds declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:2772
depends_on The $2$-sphere in $\R^{3}$ declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:2850
depends_on The level set of the momentum map is the symplectic orthogonal of the orbit declared parts/03-classical-mechanics/07-symplectic-geometry.tex:1568
depends_on The components of the level set are the leaves of an integrable distribution declared appendices/A-long-proofs.tex:26576
depends_on Freeness makes every value regular declared appendices/A-long-proofs.tex:27181
depends_on Marsden–Weinstein reduction declared parts/03-classical-mechanics/07-symplectic-geometry.tex:1613
proves ch:11-manifolds-tensors-curvature@proof-10 declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:2775