Differential Geometry of Foliations: The Fundamental Integrability Problem (Ergebnisse der Mathematik und ihrer Grenzgebiete, 99, Band 99)

Reinhart, B.L.:

ISBN 10: 3540122699 / ISBN 13: 9783540122692

Published by Springer Verlag., 1983

About this Item

194 Seiten, Zust: Gutes Exemplar. Schneller Versand und persönlicher Service - jedes Buch händisch geprüft und beschrieben - aus unserem Familienbetrieb seit über 25 Jahren. Eine Rechnung mit ausgewiesener Mehrwertsteuer liegt jeder unserer Lieferungen bei. Wir versenden mit der deutschen Post. Sprache: Englisch Gewicht in Gramm: 458.

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Bibliographic Details

• Title: Differential Geometry of Foliations: The Fundamental Integrability Problem (Ergebnisse der Mathematik und ihrer Grenzgebiete, 99, Band 99)
• Publisher: Springer Verlag.
• Publication Date: 1983
• Language: English
• ISBN 10: 3540122699
• ISBN 13: 9783540122692
• Binding: Karton Karton
• Condition: Sehr gut
• Weight: 458 grams
• Seller catalogs:
  • Mathematik

About this title

Synopsis

Whoever you are! How can I but offer you divine leaves . . . ? Walt Whitman The object of study in modern differential geometry is a manifold with a differ­ ential structure, and usually some additional structure as well. Thus, one is given a topological space M and a family of homeomorphisms, called coordinate sys­ tems, between open subsets of the space and open subsets of a real vector space V. It is supposed that where two domains overlap, the images are related by a diffeomorphism, called a coordinate transformation, between open subsets of V. M has associated with it a tangent bundle, which is a vector bundle with fiber V and group the general linear group GL(V). The additional structures that occur include Riemannian metrics, connections, complex structures, foliations, and many more. Frequently there is associated to the structure a reduction of the group of the tangent bundle to some subgroup G of GL(V). It is particularly pleasant if one can choose the coordinate systems so that the Jacobian matrices of the coordinate transformations belong to G. A reduction to G is called a G-structure, which is called integrable (or flat) if the condition on the Jacobians is satisfied. The strength of the integrability hypothesis is well-illustrated by the case of the orthogonal group On. An On-structure is given by the choice of a Riemannian metric, and therefore exists on every smooth manifold.