theorem 13.109 Converse of the Poincaré lemma on a star-shaped domain

open in the book · parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5169 · p. 516

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theorem 13.109: Converse of the Poincaré lemma on a star-shaped domain13.109definition 13.105: Closed form13.105definition 13.106: Exact form13.106definition 13.108: Star-shaped domain13.108example 13.110: Closed but not exact: the angle form13.110theorem 13.112: Symmetric analogue of the converse Poincaré lemma13.112proof : ch:11-manifolds-tensors-curvature@proof-22proofdefinition 13.103: Exterior derivative13.103definition 13.98: k-form13.98definition A.67: Symplectic manifoldA.67definition 24.8: Symplectic manifold24.8lemma 13.107: Poincaré lemma13.107proposition 13.113: Product of a closed and an exact form13.113definition 6.2: Open set6.2equation 6.12: eq:top-euclidean-metric6.12definition 13.111: Linearised curvature of a symmetric field13.111proposition 7.105: Clairaut–Schwarz7.105proof : ch:11-manifolds-tensors-curvature@proof-23proof

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depends_on Closed form declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5181
depends_on Exact form declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5181
depends_on Star-shaped domain declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5181
depends_on Closed but not exact: the angle form declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5266
depends_on Symmetric analogue of the converse Poincaré lemma declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5306
proves ch:11-manifolds-tensors-curvature@proof-22 declared parts/02-mathematical-methods/11-manifolds-tensors-curvature.tex:5184