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Hyperbolic Knot Theory [Mīkstie vāki]

  • Formāts: Paperback / softback, 369 pages, weight: 690 g
  • Sērija : Graduate Studies in Mathematics
  • Izdošanas datums: 30-Jan-2021
  • Izdevniecība: American Mathematical Society
  • ISBN-10: 1470454998
  • ISBN-13: 9781470454999
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  • Mīkstie vāki
  • Cena: 111,94 €
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  • Formāts: Paperback / softback, 369 pages, weight: 690 g
  • Sērija : Graduate Studies in Mathematics
  • Izdošanas datums: 30-Jan-2021
  • Izdevniecība: American Mathematical Society
  • ISBN-10: 1470454998
  • ISBN-13: 9781470454999
Citas grāmatas par šo tēmu:
This book provides an introduction to hyperbolic geometry in dimension three, with motivation and applications arising from knot theory. Hyperbolic geometry was first used as a tool to study knots by Riley and then Thurston in the 1970s. By the 1980s, combining work of Mostow and Prasad with Gordon and Luecke, it was known that a hyperbolic structure on a knot complement in the 3-sphere gives a complete knot invariant. However, it remains a difficult problem to relate the hyperbolic geometry of a knot to other invariants arising from knot theory. In particular, it is difficult to determine hyperbolic geometric information from a knot diagram, which is classically used to describe a knot. This textbook provides background on these problems, and tools to determine hyperbolic information on knots. It also includes results and state-of-the art techniques on hyperbolic geometry and knot theory to date.

The book was written to be interactive, with many examples and exercises. Some important results are left to guided exercises. The level is appropriate for graduate students with a basic background in algebraic topology, particularly fundamental groups and covering spaces. Some experience with some differential topology and Riemannian geometry will also be helpful.
Preface xi
Why I wrote this book xi
How I structured the book xii
Prerequisites and notes to students xiv
Acknowledgments xiv
Introduction xvii
Chapter 0 A Brief Introduction to Hyperbolic Knots
1(18)
§0.1 An introduction to knot theory
1(3)
§0.2 Problems in knot theory
4(12)
§0.3 Exercises
16(3)
Part 1 Foundations of Hyperbolic Structures
Chapter 1 Decomposition of the Figure-8 Knot
19(10)
§1.1 Polyhedra
19(7)
§1.2 Generalizing: Exercises
26(3)
Chapter 2 Calculating in Hyperbolic Space
29(16)
§2.1 Hyperbolic geometry in dimension two
29(9)
§2.2 Hyperbolic geometry in dimension three
38(2)
§2.3 Exercises
40(5)
Chapter 3 Geometric Structures on Manifolds
45(22)
§3.1 Geometric structures
45(7)
§3.2 Complete structures
52(11)
§3.3 Developing map and completeness
63(1)
§3.4 Exercises
64(3)
Chapter 4 Hyperbolic Structures and Triangulations
67(18)
§4.1 Geometric triangulations
67(4)
§4.2 Edge gluing equations
71(6)
§4.3 Completeness equations
77(4)
§4.4 Computing hyperbolic structures
81(1)
§4.5 Exercises
82(3)
Chapter 5 Discrete Groups and the Thick-Thin Decomposition
85(24)
§5.1 Discrete subgroups of hyperbolic isometries
85(6)
§5.2 Elementary groups
91(3)
§5.3 Thick and thin parts
94(3)
§5.4 Hyperbolic manifolds with finite volume
97(2)
§5.5 Universal elementary neighborhoods
99(7)
§5.6 Exercises
106(3)
Chapter 6 Completion and Dehn Filling
109(24)
§6.1 Mostow-Prasad rigidity
109(1)
§6.2 Completion of incomplete structures
110(4)
§6.3 Hyperbolic Dehn filling space
114(8)
§6.4 A brief summary of geometric convergence
122(6)
§6.5 Exercises
128(5)
Part 2 Tools, Techniques, and Families of Examples
Chapter 7 Twist Knots and Augmented Links
133(24)
§7.1 Twist knots and Dehn fillings
133(5)
§7.2 Double twist knots and the Borromean rings
138(3)
§7.3 Augmenting and highly twisted knots
141(6)
§7.4 Cusps of fully augmented links
147(6)
§7.5 Exercises
153(4)
Chapter 8 Essential Surfaces
157(26)
§8.1 Incompressible surfaces
157(6)
§8.2 Torus decomposition, Seifert fibering, and geometrization
163(2)
§8.3 Normal surfaces, angled polyhedra, and hyperbolicity
165(8)
§8.4 Pleated surfaces and a 6-theorem
173(8)
§8.5 Exercises
181(2)
Chapter 9 Volume and Angle Structures
183(24)
§9.1 Hyperbolic volume of ideal tetrahedra
183(10)
§9.2 Angle structures and the volume functional
193(2)
§9.3 Leading-trailing deformations
195(6)
§9.4 The Schlafli formula
201(1)
§9.5 Consequences
202(2)
§9.6 Exercises
204(3)
Chapter 10 Two-Bridge Knots and Links
207(32)
§10.1 Rational tangles and 2-bridge links
207(4)
§10.2 Triangulations of 2-bridge links
211(9)
§10.3 Positively oriented tetrahedra
220(7)
§10.4 Maximum in interior
227(9)
§10.5 Exercises
236(3)
Chapter 11 Alternating Knots and Links
239(20)
§11.1 Alternating diagrams and hyperbolicity
240(13)
§11.2 Checkerboard surfaces
253(4)
§11.3 Exercises
257(2)
Chapter 12 The Geometry of Embedded Surfaces
259(22)
§12.1 Belted sums and mutations
260(4)
§12.2 Fuchsian, quasifuchsian, and accidental surfaces
264(6)
§12.3 Fibers and semifibers
270(6)
§12.4 Exercises
276(5)
Part 3 Hyperbolic Knot Invariants
Chapter 13 Estimating Volume
281(30)
§13.1 Summary of bounds encountered so far
281(4)
§13.2 Negatively curved metrics and Dehn filling
285(14)
§13.3 Volume, guts, and essential surfaces
299(9)
§13.4 Exercises
308(3)
Chapter 14 Ford Domains and Canonical Polyhedra
311(22)
§14.1 Horoballs and isometric spheres
312(7)
§14.2 Ford domain
319(7)
§14.3 Canonical polyhedra
326(5)
§14.4 Exercises
331(2)
Chapter 15 Algebraic Sets and the A-Polynomial
333(20)
§15.1 The gluing variety
333(6)
§15.2 Representations of knots
339(8)
§15.3 The k-polynomial
347(4)
§15.4 Exercises
351(2)
Bibliography 353(10)
Index 363
Jessica S. Purcell, Monash University, Clayton, Victoria, Australia