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9789810247461

Riemannian Geometry in an Orthogonal Frame

by ; ; ;
  • ISBN13:

    9789810247461

  • ISBN10:

    981024746X

  • Format: Hardcover
  • Copyright: 2002-05-01
  • Publisher: World Scientific Pub Co Inc
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Summary

Elie Cartan's book Geometry of Riemannian Manifolds (1928) was one of the best introductions to his methods. It was based on lectures given by the author at the Sorbonne in the academic year 1925-26. A modernized and extensively augmented edition appeared in 1946 (2nd printing, 1951, and 3rd printing, 1988). Cartan's lectures in 1926-27 were different -- he introduced exterior forms at the very beginning and used extensively orthonormal frames throughout to investigate the geometry of Riemannian manifolds. In this course he solved a series of problems in Euclidean and non-Euclidean spaces, as well as a series of variational problems on geodesics. The lectures were translated into Russian in the book Riemannian Geometry in an Orthogonal Frame (1960). This book has many innovations, such as the notion of intrinsic normal differentiation and the Gaussian torsion of a submanifold in a Euclidean multidimensional space or in a space of constant curvature, an affine connection defined in a normal fiber bundle of a submanifold, etc. The only book of Elie Cartan that wa

Table of Contents

Foreword v
Translator's Introduction vii
Preface to the Russian Edition ix
PRELIMINARIES 1(34)
Method of Moving Frames
3(6)
Components of an infinitesimal displacement
3(1)
Relations among 1-forms of an orthonormal frame
4(1)
Finding the components of a given family of trihedrons
5(1)
Moving frames
5(1)
Line element of the space
6(1)
Contravariant and covariant components
7(1)
Infinitesimal affine transformations of a frame
8(1)
The Theory of Pfaffian Forms
9(10)
Differentiation in a given direction
9(1)
Bilinear covariant of Frobenius
10(3)
Skew-symmetric bilinear forms
13(1)
Exterior quadratic forms
14(1)
Converse theorems. Cartan's Lemma
15(3)
Exterior differential
18(1)
Integration of Systems of Pfaffian Differential Equations
19(10)
Integral manifold of a system
19(1)
Necessary condition of complete integrability
20(1)
Necessary and sufficient condition of complete integrability of a system of Pfaffian equations
21(1)
Path independence of the solution
22(2)
Reduction of the problem of integration of a completely integrable system to the integration of a Cauchy system
24(1)
First integrals of a completely integrable system
25(1)
Relation between exterior differentials and the Stokes formula
25(2)
Orientation
27(2)
Generalization
29(6)
Exterior differential forms of arbitrary order
29(2)
The Poincare theorem
31(1)
The Gauss formula
31(2)
Generalization of Theorem 6 of No. 12
33(2)
A. GEOMETRY OF EUCLIDEAN SPACE 35(46)
The Existence Theorem for a Family of Frames with Given Infinitesimal Components ωi and ωij
37(8)
Family of oblique trihedrons
37(1)
The family of orthonormal tetrahedrons
38(1)
Family of oblique trihedrons with a given line element
39(1)
Integration of system (I) by the method of the form invariance
40(1)
Particular cases
41(2)
Spaces of trihedrons
43(2)
The Fundamental Theorem of Metric Geometry
45(10)
The rigidity of the point space
45(1)
Geometric meaning of the Weyl theorem
46(1)
Deformation of the tangential space
47(3)
Deformation of the plane considered as a locus of straight lines
50(2)
Ruled space
52(3)
Vector Analysis in an n-Dimensional Euclidean Space
55(12)
Transformation of the space with preservation of a line element
55(3)
Equivalence of reduction of a line element to a sum of squares to the choosing of a frame to be orthogonal
58(1)
Congruence and symmetry
59(1)
Determination of forms ωji for given forms ωi
60(1)
Three-dimensional case
61(1)
Absolute differentiation
62(2)
Divergence of a vector
64(1)
Differential parameters
65(2)
The Fundamental Principles of Tensor Algebra
67(8)
Notion of a tensor
67(2)
Tensor algebra
69(2)
Geometric meaning of a skew-symmetric tensor
71(2)
Scalar product of a bivector and a vector and of two bivectors
73(1)
Simple rotation of a rigid body around a point
74(1)
Tensor Analysis
75(6)
Absolute differentiation
75(1)
Rules of absolute differentiation
76(1)
Exterior differential tensor-valued form
77(1)
A problem of absolute exterior differentiation
78(3)
B. THE THEORY OF RIEMANNIAN MANIFOLDS 81(36)
The Notion of a Manifold
83(4)
The general notion of a manifold
83(1)
Analytic representation
84(1)
Riemannian manifolds Regular metric
84(3)
Locally Euclidean Riemannian Manifolds
87(6)
Definition of a locally Euclidean manifold
87(1)
Examples
87(2)
Riemannian manifold with an everywhere regular metric
89(1)
Locally compact manifold
89(1)
The holonomy group
90(1)
Discontinuity of the holonomy group of the locally Euclidean manifold
91(2)
Euclidean Space Tangent at a Point
93(8)
Euclidean tangent metric
93(1)
Tangent Euclidean space
94(2)
The main notions of vector analysis
96(2)
Three methods of introducing a connection
98(1)
Euclidean metric osculating at a point
99(2)
Osculating Euclidean Space
101(10)
Absolute differentiation of vectors on a Riemannian manifold
101(1)
Geodesics of a Riemannian manifold
102(1)
Generalization of the Frenet formulas. Curvature and torsion
103(1)
The theory of curvature of surfaces in a Riemannian manifold
104(2)
Geodesic torsion. The Enneper theorem
106(2)
Conjugate directions
108(1)
The Dupin theorem on a triply orthogonal system
108(3)
Euclidean Space of Conjugacy along a Line
111(6)
Development of a Riemannian manifold in Euclidean space along a curve
111(1)
The constructed representation and the osculating Euclidean space
112(1)
Geodesics. Parallel surfaces
113(2)
Geodesics on a surface
115(2)
C. CURVATURE AND TORSION OF A MANIFOLD 117(50)
Space with a Euclidean Connection
119(14)
Determination of forms ωji for given forms ωi
119(2)
Condition of invariance of line element
121(2)
Axioms of equipollence of vectors
123(1)
Space with Euclidean connection
124(1)
Euclidean space of conjugacy
125(1)
Absolute exterior differential
126(1)
Torsion of the manifold
127(1)
Structure equations of a space with Euclidean connection
128(1)
Translation and rotation associated with a cycle
129(1)
The Bianchi identities
130(1)
Theorem of preservation of curvature and torsion
130(3)
Riemannian Curvature of a Manifold
133(16)
The Bianchi identities in a Riemannian manifold
133(1)
The Riemann-Christoffel tensor
134(2)
Riemannian curvature
136(1)
The case n = 2
137(2)
The case n = 3
139(1)
Geometric theory of curvature of a three-dimensional Riemannian manifold
140(1)
Schur's theorem
141(1)
Example of a Riemannian space of constant curvature
142(2)
Determination of the Riemann-Christoffel tensor for a Riemannian curvature given for all planar directions
144(1)
Isotropic n-dimensional manifold
145(1)
Curvature in two different two-dimensional planar directions
146(1)
Riemannian curvature in a direction of arbitrary dimension
146(1)
Ricci tensor. Einstein's quadric
147(2)
Spaces of Constant Curvature
149(8)
Congruence of spaces of the same constant curvature
149(2)
Existence of spaces of constant curvature
151(1)
Proof of Schur
152(1)
The system is satisfied by the solution constructed
153(4)
Geometric Construction of a Space of Constant Curvature
157(10)
Spaces of constant positive curvature
157(2)
Mapping onto an n-dimensional projective space
159(1)
Hyperbolic space
160(1)
Representation of vectors in hyperbolic geometry
161(1)
Geodesics in Riemannian manifold
161(1)
Pseudoequipollent vectors: pseudoparallelism
162(2)
Geodesics in spaces of constant curvature
164(2)
The Cayley metric
166(1)
D. THE THEORY OF GEODESIC LINES 167(26)
Variational Problems for Geodesics
169(10)
The field of geodesics
169(1)
Stationary state of the arc length of a geodesic in the family of lines joining two points
170(1)
The first variation of the arc length of a geodesic
171(1)
The second variation of the arc length of a geodesic
172(1)
The minimum for the arc length of a geodesic (Darboux's proof)
173(1)
Family of geodesics of equal length intersecting the same geodesic at a constant angle
174(5)
Distribution of Geodesics near a Given Geodesic
179(10)
Distance between neighboring geodesics and curvature of a manifold
179(2)
The sum of the angles of a parallelogramoid
181(1)
Stability of a motion of a material system without external forces
182(1)
Investigation of the maximum and minimum for the length of a geodesic in the case Aij = const.
183(2)
Symmetric vectors
185(1)
Parallel transport by symmetry
186(1)
Determination of three-dimensional manifolds, in which the parallel transport preserves the curvature
187(2)
Geodesic Surfaces
189(4)
Geodesic surface at a point. Severi's method of parallel transport of a vector
189(1)
Totally geodesic surfaces
190(1)
Development of lines of a totally geodesic surface on a plane
191(1)
The Ricci theorem on orthogonal trajectories of totally geodesic surfaces
191(2)
E. EMBEDDED MANIFOLDS 193(60)
Lines in a Riemannian Manifold
195(16)
The Frenet formulas in a Riemannian manifold
195(1)
Determination of a curve with given curvature and torsion. Zero torsion curves in a space of constant curvature
196(3)
Curves with zero torsion and constant curvature in a space of constant negative curvature
199(4)
Integration of Frenet's equations of these curves
203(2)
Euclidean space of conjugacy
205(1)
The curvature of a Riemannian manifold occurs only in infinitesimals of second order
206(5)
Surfaces in a Three-Dimensional Riemannian Manifold
211(10)
The first two structure equations and their geometric meaning
211(1)
The third structure equation. Invariant forms (scalar and exterior)
212(1)
The second fundamental form of a surface
213(2)
Asymptotic lines. Euler's theorem. Total and mean curvature of a surface
215(1)
Conjugate tangents
216(1)
Geometric meaning of the form ψ
216(1)
Geodesic lines on a surface. Geodesic torsion. Enneper's theorem
217(4)
Forms of Laguerre and Darboux
221(18)
Laguerre's form
221(1)
Darboux's form
222(2)
Riemannian curvature of the ambient manifold
224(1)
The second group of structure equations
225(1)
Generalization of classical theorems on normal curvature and geodesic torsion
226(2)
Surfaces with a given line element in Euclidean space
228(1)
Problems on Laguerre's form
229(2)
Invariance of normal curvature under parallel transport of a vector
231(2)
Surfaces in a space of constant curvature
233(6)
p-Dimensional Submanifolds in a Riemannian Manifold of n Dimensions
239(14)
Absolute variation of a tangent vector. Inner differentiation. Euler's curvature
239(1)
Tensor character of Euler's curvature
240(1)
The second system of structure equations
241(1)
Particular Cases
A Hypersurface in a Four-dimensional Space
Principal directions and principal curvatures
242(1)
Hypersurface in the Euclidean space
243(1)
Ellipse of normal curvature
244(3)
Two-dimensional Surfaces in a Four-dimensional Manifold
Generalization of classical notions
247(1)
Minimal surfaces
248(1)
Finding minimal surfaces
249(4)
Index 253

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