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Convex Integration Theory: Solutions to the h-principle in geometry and topology

Convex Integration Theory: Solutions to the h-principle in geometry and topology
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Field name Details
Dewey Class 514
Title Convex Integration Theory ([EBook]) : Solutions to the h-principle in geometry and topology / by David Spring.
Author Spring, David. , 1939-
Other name(s) SpringerLink (Online service)
Publication Basel : Birkhäuser , 1998.
Physical Details VIII, 213 p. 2 illus. : online resource.
Series Monographs in mathematics ; 92
ISBN 9783034889407
Summary Note §1. Historical Remarks Convex Integration theory, first introduced by M. Gromov [17], is one of three general methods in immersion-theoretic topology for solving a broad range of problems in geometry and topology. The other methods are: (i) Removal of Singularities, introduced by M. Gromov and Y. Eliashberg [8]; (ii) the covering homotopy method which, following M. Gromov's thesis [16], is also referred to as the method of sheaves. The covering homotopy method is due originally to S. Smale [36] who proved a crucial covering homotopy result in order to solve the classification problem for immersions of spheres in Euclidean space. These general methods are not linearly related in the sense that succes­ sive methods subsumed the previous methods. Each method has its own distinct foundation, based on an independent geometrical or analytical insight. Conse­ quently, each method has a range of applications to problems in topology that are best suited to its particular insight. For example, a distinguishing feature of Convex Integration theory is that it applies to solve closed relations in jet spaces, including certain general classes of underdetermined non-linear systems of par­ tial differential equations. As a case of interest, the Nash-Kuiper Cl-isometrie immersion theorem ean be reformulated and proved using Convex Integration theory (cf. Gromov [18]). No such results on closed relations in jet spaees can be proved by means of the other two methods.:
Contents note 1 Introduction -- §1 Historical Remarks -- §2 Background Material -- §3 h-Principles -- §4 The Approximation Problem -- 2 Convex Hulls -- §1 Contractible Spaces of Surrounding Loops -- §2 C-Structures for Relations in Affine Bundles -- §3 The Integral Representation Theorem -- 3 Analytic Theory -- §1 The One-Dimensional Theorem -- §2 The C?-Approximation Theorem -- 4 Open Ample Relations in Spaces of 1-Jets -- §1 C°-Dense h-Principle -- §2 Examples -- 5 Microfibrations -- §1 Introduction -- §2 C-Structures for Relations over Affine Bundles -- §3 The C?-Approximation Theorem -- 6 The Geometry of Jet spaces -- §1 The Manifold X? -- §2 Principal Decompositions in Jet Spaces -- 7 Convex Hull Extensions -- §1 The Microfibration Property -- §2 The h-Stability Theorem -- 8 Ample Relations -- §1 Short Sections -- §2 h-Principle for Ample Relations -- §3 Examples -- §4 Relative h-Principles -- 9 Systems of Partial Differential Equations -- §1 Underdetermined Systems -- §2 Triangular Systems -- §3 C1-Isometric Immersions -- 10 Relaxation Theorem -- §1 Filippov’s Relaxation Theorem -- §2 C?-Relaxation Theorem -- References -- Index of Notation.
System details note Online access to this digital book is restricted to subscription institutions through IP address (only for SISSA internal users)
Internet Site http://dx.doi.org/10.1007/978-3-0348-8940-7
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