Riemannian Geometry. Second Edition - Paperback

EAN (ISBN-13): 9783540524014
ISBN (ISBN-10): 3540524010
Paperback
Publishing year: 1990
Publisher: Springer

Book in our database since 2007-05-22T13:44:35-04:00 (New York)
Detail page last modified on 2024-03-03T13:23:17-05:00 (New York)
ISBN/EAN: 9783540524014

ISBN - alternate spelling:
3-540-52401-0, 978-3-540-52401-4
Alternate spelling and related search-keywords:
Book author: gallot hulin, lafontaine, lafont, sylvestre four, springer, jacques gall
Book title: riemannian geometry, radiotherapie, handbook urology

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Information from Publisher

Author: Sylvestre Gallot; Dominique Hulin; Jacques Lafontaine
Title: Universitext; Riemannian Geometry
Publisher: Springer; Springer Berlin
286 Pages
Publishing year: 2001-09-01
Berlin; Heidelberg; DE
Printed / Made in
Weight: 0,480 kg
Language: English
85,55 € (DE)
87,95 € (AT)
106,60 CHF (CH)
Not available, publisher indicates OP
XIII, 286 p.

BC; Book; Hardcover, Softcover / Mathematik/Geometrie; Differentielle und Riemannsche Geometrie; Verstehen; Minimal surface; Riemannian geometry; Riemannian goemetry; covariant derivative; curvature; manifold; relativity; B; Differential Geometry; Manifolds and Cell Complexes (incl. Diff.Topology); Differential Geometry; Manifolds and Cell Complexes; Mathematics and Statistics; Topologie; BC; EA; BC

I. Differential Manifolds.- A. From Submanifolds to Abstract Manifolds.- Submanifolds of Rn+k.- Abstract manifolds.- Smooth maps.- B. Tangent Bundle.- Tangent space to a submanifold of Rn+k.- The manifold of tangent vectors.- Vector bundles.- Differential map.- C. Vector Fields.- Definitions.- Another definition for the tangent space.- Integral curves and flow of a vector field.- Image of a vector field under a diffeomorphism.- D. Baby Lie Groups.- Definitions.- Adjoint representation.- E. Covering Maps and Fibrations.- Covering maps and quotient by a discrete group.- Submersions and fibrations.- Homogeneous spaces.- F. Tensors.- Tensor product (digest).- Tensor bundles.- Operations on tensors.- Lie derivatives.- Local operators, differential operators.- A characterization for tensors.- G. Exterior Forms.- Definitions.- Exterior derivative.- Volume forms.- Integration on an oriented manifold.- Haar measure on a Lie group.- H. Appendix: Partitions of Unity.- II. Riemannian Metrics.- A. Existence Theorems and First Examples.- Definitions.- First examples.- Examples: Riemannian submanifolds, product Riemannian manifolds.- Riemannian covering maps, flat tori.- Riemannian submersions, complex projective space.- Homogeneous Riemannian spaces.- B. Covariant Derivative.- Connections.- Canonical connection of a Riemannian submanifold.- Extension of the covariant derivative to tensors.- Covariant derivative along a curve.- Parallel transport.- Examples.- C. Geodesics.- Definitions.- Local existence and uniqueness for geodesics, exponential map.- Riemannian manifolds as metric spaces.- Complete Riemannian manifolds, Hopf-Rinow theorem.- Geodesies and submersions, geodesies of PnC.- Cut locus.- III. Curvature.- A. The Curvature Tensor.- Second covariant derivative.- Algebraic properties of the curvature tensor.- Computation of curvature: some examples.- Ricci curvature, scalar curvature.- B. First and Second Variation of Arc-Length and Energy.- Technical preliminaries: vector fields along parameterized submanifolds.- First variation formula.- Second variation formula.- C. Jacobi Vector Fields.- Basic topics about second derivatives.- Index form.- Jacobi fields and exponential map.- Applications: Sn, Hn, PnR, 2-dimensional Riemannian manifolds.- D. Riemannian Submersions and Curvature.- Riemannian submersions and connections.- Jacobi fields of PnC.- O’Neill’s formula.- Curvature and length of small circles. Application to Riemannian submersions.- E. The Behavior of Length and Energy in the Neighborhood of a Geodesic.- The Gauss lemma.- Conjugate points.- Some properties of the cut-locus.- F. Manifolds with Constant Sectional Curvature.- Spheres, Euclidean and hyperbolic spaces.- G. Topology and Curvature.- The Myers and Hadamard-Cartan theorems.- H. Curvature and Volume.- Densities on a differentiable manifold.- Canonical measure of a Riemannian manifold.- Examples: spheres, hyperbolic spaces, complex projective spaces.- Small balls and scalar curvature.- Volume estimates.- I. Curvature and Growth of the Fundamental Group.- Growth of finite type groups.- Growth of the fundamental group of compact manifolds with negative curvature.- J. Curvature and Topology: An Account of Some Old and Recent Results.- Traditional point of view: pinched manifolds.- Almost flat pinching.- Coarse point of view: compactness theorems of Cheeger and Gromov.- K. Curvature Tensors and Representations of the Orthogonal Group.- Decomposition of the space of curvature tensors.- Conformally flat manifolds.- The second Bianchi identity.- L. Hyperbolic Geometry.- Angles and distances in the hyperbolic plane.- Polygons with “many” right angles.- Compact surfaces.- Hyperbolic trigonometry.- Prescribing constant negative curvature.- M. Conformai Geometry.- The Moebius group.- Conformai, elliptic and hyperbolic geometry.- IV. Analysis on Manifolds and the Ricci Curvature.- A. Manifolds with Boundary.- Definition.- The Stokes theorem and integration by parts.- B. Bishop’s Inequality Revisited.- Some commutations formulas.- Laplacian of the distance function.- Another proof of Bishop’s inequality.- The Heintze-Karcher inequality.- C. Differential Forms and Cohomology.- The de Rham complex.- Differential operators and their formal adjoints.- The Hodge-de Rham theorem.- A second visit to the Bochner method.- D. Basic Spectral Geometry.- The Laplace operator and the wave equation.- Statement of the basic results on the spectrum.- E. Some Examples of Spectra.- The spectrum of flat tori.- Spectrum of (Sn, can).- F. The Minimax Principle.- The basic statements.- G. The Ricci Curvature and Eigenvalues Estimates.- Bishop’s inequality and coarse estimates.- Some consequences of Bishop’s theorem.- Lower bounds for the first eigenvalue.- H. Paul Levy’s Isoperimetric Inequality.- The statement.- The proof.- V. Riemannian Submanifolds.- A. Curvature of Submanifolds.- Second fundamental form.- Curvature of hypersurfaces.- Application to explicit computations of curvatures.- B. Curvature and Convexity.- The Hadamard theorem.- C. Minimal Surfaces.- First results.- Some Extra Problems.- Solutions of Exercises.- I.- II.- III.- IV.- V.
This book, based on a graduate course on Riemannian geometry and analysis on manifolds, given in Paris, covers the topics of differential manifolds, Riemannian metrics connections, geodesics and curvature, with special emphasis on the intrinsic features of the subject. This book addresses both the graduate student wanting to learn Riemannian geometry, and also the professional mathematician from a neighbouring field who needs information about ideas and techniques which are now pervading many parts of mathematics.