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Moment Maps, Cobordisms and Hamiltonian Group Actions illustrated Edition [Kietas viršelis]

  • Formatas: Hardback, 350 pages, bibliography; index
  • Serija: Mathematical Surveys and Monographs
  • Išleidimo metai: 01-Sep-2002
  • Leidėjas: American Mathematical Society
  • ISBN-10: 0821805029
  • ISBN-13: 9780821805022
  • Formatas: Hardback, 350 pages, bibliography; index
  • Serija: Mathematical Surveys and Monographs
  • Išleidimo metai: 01-Sep-2002
  • Leidėjas: American Mathematical Society
  • ISBN-10: 0821805029
  • ISBN-13: 9780821805022
This research monograph presents many new results in a rapidly developing area of great current interest. Guillemin, Ginzburg, and Karshon show that the underlying topological thread in the computation of invariants of G-manifolds is a consequence of a linearization theorem involving equivariant cobordisms. The book incorporates a novel approach and showcases exciting new research. During the last 20 years, 'localization' has been one of the dominant themes in the area of equivariant differential geometry. Typical results are the Duistermaat-Heckman theory, the Berline-Vergne-Atiyah-Bott localization theorem in equivariant de Rham theory, and the 'quantization commutes with reduction' theorem and its various corollaries. To formulate the idea that these theorems are all consequences of a single result involving equivariant cobordisms, the authors have developed a cobordism theory that allows the objects to be non-compact manifolds.A key ingredient in this non-compact cobordism is an equivariant-geometrical object which they call an 'abstract moment map'. This is a natural and important generalization of the notion of a moment map occurring in the theory of Hamiltonian dynamics. The book contains a number of appendices that include introductions to proper group-actions on manifolds, equivariant cohomology, Spin${^\mathrm{c}}$-structures, and stable complex structures. It is geared toward graduate students and research mathematicians interested in differential geometry. It is also suitable for topologists, Lie theorists, combinatorists, and theoretical physicists. Prerequisite is some expertise in calculus on manifolds and basic graduate-level differential geometry.
Introduction
1(12)
Topological aspects of Hamiltonian group actions
1(3)
Hamiltonian cobordism
4(1)
The linearization theorem and non-compact cobordisms
5(2)
Abstract moment maps and non-degeneracy
7(1)
The quantum linearization theorem and its applications
8(2)
Acknowledgements
10(3)
Part
1. Cobordism
13(74)
Hamiltonian cobordism
15(16)
Hamiltonian group actions
15(6)
Hamiltonian geometry
21(3)
Compact Hamiltonian cobordisms
24(3)
Proper Hamiltonian cobordisms
27(2)
Hamiltonian complex cobordisms
29(2)
Abstract moment maps
31(14)
Abstract moment maps: definitions and examples
31(2)
Proper abstract moment maps
33(1)
Cobordism
34(3)
First examples of proper cobordisms
37(2)
Cobordisms of surfaces
39(3)
Cobordisms of linear actions
42(3)
The linearization theorem
45(18)
The simplest case of the linearization theorem
45(2)
The Hamiltonian linearization theorem
47(4)
The linearization theorem for abstract moment maps
51(1)
Linear torus actions
52(4)
The right-hand side of the linearization theorems
56(2)
The Duistermaat-Heckman and Guillemin-Lerman-Sternberg formulas
58(5)
Reduction and applications
63(24)
(Pre-)symplectic reduction
63(2)
Reduction for abstract moment maps
65(4)
The Duistermaat--Heckman theorem
69(3)
Kahler reduction
72(1)
The complex Delzant construction
73(8)
Cobordism of reduced spaces
81(1)
Jeffrey--Kirwan localization
82(2)
Cutting
84(3)
Part
2. Quantization
87(78)
Geometric quantization
89(30)
Quantization and group actions
89(1)
Pre-quantization
90(6)
Pre-quantization of reduced spaces
96(3)
Kirillov--Kostant pre-quantization
99(3)
Polarizations, complex structures, and geometric quantization
102(8)
Dolbeault Quantization and the Riemann--Roch formula
110(3)
Stable complex quantization and Spinc quantization
113(4)
Geometric quantization as a push-forward
117(2)
The quantum version of the linearization theorem
119(20)
The quantization of Cd
119(6)
Partition functions
125(5)
The character of Q(Cd)
130(4)
A quantum version of the linearization theorem
134(5)
Quantization commutes with reduction
139(26)
Quantization and reduction commute
139(2)
Quantization of stable complex toric varieties
141(4)
Linearization of [ Q,R]=0
145(4)
Straightening the symplectic and complex structures
149(1)
Passing to holomorphic sheaf cohomology
150(2)
Computing global sections; the lit set
152(3)
The Cech complex
155(2)
The higher cohomology
157(2)
Singular [ Q,R]=0 for non-symplectic Hamiltonian G-manifolds
159(3)
Overview of the literature
162(3)
Part
3. Appendices
165(174)
Appendix A. Signs and normalization conventions
167(6)
1. The representation of G on C∞(M)
167(1)
2. The integral weight lattice
168(1)
3. Connection and curvature for principal torus bundles
169(2)
4. Curvature and Chern classes
171(1)
5. Equivariant curvature; integral equivariant cohomology
172(1)
Appendix B. Proper actions of Lie groups
173(24)
1. Basic definitions
173(5)
2. The slice theorem
178(4)
3. Corollaries of the slice theorem
182(7)
4. The Mostow--Palais embedding theorem
189(2)
5. Rigidity of compact group actions
191(6)
Appendix C. Equivariant cohomology
197(32)
1. The definition and basic properties of equivariant cohomology
197(4)
2. Reduction and cohomology
201(2)
3. Additivity and localization
203(2)
4. Formality
205(3)
5. The relation between H*G and H*T
208(3)
6. Equivariant vector bundles and characteristic classes
211(6)
7. The Atiyah--Bott--Berline--Vergne localization formula
217(5)
8. Applications of the Atiyah--Bott--Berline--Vergne localization formula
222(4)
9. Equivariant homology
226(3)
Appendix D. Stable complex and Spinc-structures
229(28)
1. Stable complex structures
229(9)
2. Spinc-structures
238(10)
3. Spinc-structures and stable complex structures
248(9)
Appendix E. Assignments and abstract moment maps
257(22)
1. Existence of abstract moment maps
257(6)
2. Exact moment maps
263(2)
3. Hamiltonian moment maps
265(4)
4. Abstract moment maps on linear spaces are exact
269(4)
5. Formal cobordism of Hamiltonian spaces
273(6)
Appendix F. Assignment cohomology
279(10)
1. Construction of assignment cohomology
279(2)
2. Assignments with other coefficients
281(2)
3. Assignment cohomology for pairs
283(2)
4. Examples of calculations of assignment cohomology
285(2)
5. Generalizations of assignment cohomology
287(2)
Appendix G. Non-degenerate abstract moment maps
289(12)
1. Definitions and basic examples
289(1)
2. Global properties of non-degenerate abstract moment maps
290(4)
3. Existence of non-degenerate two-forms
294(7)
Appendix H. Characteristic numbers, non-degenerate cobordisms, and non-virtual quantization
301(14)
1. The Hamiltonian cobordism ring and characteristic classes
301(3)
2. Characteristic numbers
304(1)
3. Characteristic numbers as a full system of invariants
305(3)
4. Non-degenerate cobordisms
308(2)
5. Geometric quantization
310(5)
Appendix I. The Kawasaki Riemann-Roch formula
315(12)
1. Todd classes
315(1)
2. The Equivariant Riemann--Roch Theorem
316(4)
3. The Kawasaki Riemann--Roch formula I: finite abelian quotients
320(3)
4. The Kawasaki Riemann--Roch formula II: torus quotients
323(4)
Appendix J. Cobordism invariance of the index of a transversally elliptic operator by Maxim Braverman
327(12)
1. The SpinC-Dirac operator and the SpinC-quantization
327(2)
2. The summary of the results
329(2)
3. Transversally elliptic operators and their indexes
331(2)
4. Index of the operator Ba
333(2)
5. The model operator
335(1)
6. Proof of Theorem 1
336(3)
Bibliography 339(10)
Index 349