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Capacity Theory with Local Rationality: The Strong Fekete-Szego Theorem on Curves [Kõva köide]

  • Formaat: Hardback, 448 pages, kaal: 456 g
  • Sari: Mathematical Surveys and Monographs
  • Ilmumisaeg: 01-Jan-2014
  • Kirjastus: American Mathematical Society
  • ISBN-10: 1470409801
  • ISBN-13: 9781470409807
Teised raamatud teemal:
  • Formaat: Hardback, 448 pages, kaal: 456 g
  • Sari: Mathematical Surveys and Monographs
  • Ilmumisaeg: 01-Jan-2014
  • Kirjastus: American Mathematical Society
  • ISBN-10: 1470409801
  • ISBN-13: 9781470409807
Teised raamatud teemal:
This book is devoted to the proof of a deep theorem in arithmetic geometry, the Fekete-Szego theorem with local rationality conditions. The prototype for the theorem is Raphael Robinson's theorem on totally real algebraic integers in an interval, which says that if $[ a,b]$ is a real interval of length greater than 4, then it contains infinitely many Galois orbits of algebraic integers, while if its length is less than 4, it contains only finitely many. The theorem shows this phenomenon holds on algebraic curves of arbitrary genus over global fields of any characteristic, and is valid for a broad class of sets.

The book is a sequel to the author's work Capacity Theory on Algebraic Curves and contains applications to algebraic integers and units, the Mandelbrot set, elliptic curves, Fermat curves, and modular curves. A long chapter is devoted to examples, including methods for computing capacities. Another chapter contains extensions of the theorem, including variants on Berkovich curves.

The proof uses both algebraic and analytic methods, and draws on arithmetic and algebraic geometry, potential theory, and approximation theory. It introduces new ideas and tools which may be useful in other settings, including the local action of the Jacobian on a curve, the universal function'' of given degree on a curve, the theory of inner capacities and Green's functions, and the construction of near-extremal approximating functions by means of the canonical distance.
Introduction ix
Some History xii
A Sketch of the Proof of the Fekete-Szego Theorem xiii
The Definition of the Cantor Capacity xvi
Outline of the Book xix
Acknowledgments xxiv
Symbol Table xxv
Chapter 1 Variants
1(8)
Chapter 2 Examples and Applications
9(52)
1 Local Capacities and Green's Functions of Archimedean Sets
9(11)
2 Local Capacities and Green's Functions of Nonarchimedean Sets
20(7)
3 Global Examples on P1
27(11)
4 Function Field Examples concerning Separability
38(2)
5 Examples on Elliptic Curves
40(13)
6 The Fermat Curve
53(4)
7 The Modular Curve Xo(p)
57(4)
Chapter 3 Preliminaries
61(42)
1 Notation and Conventions
61(1)
2 Basic Assumptions
62(2)
3 The L-rational and Lsep-rational Bases
64(5)
4 The Spherical Metric and Isometric Parametrizability
69(4)
5 The Canonical Distance and the (x, s)-Canonical Distance
73(4)
6 (x, s)-Functions and (x, s)-Pseudopolynomials
77(1)
7 Capacities
78(3)
8 Green's Functions of Compact Sets
81(4)
9 Upper Green's Functions
85(6)
10 Green's Matrices and the Inner Cantor Capacity
91(3)
11 Newton Polygons of Nonarchimedean Power Series
94(4)
12 Stirling Polynomials and the Sequence ψw(k)
98(5)
Chapter 4 Reductions
103(30)
Chapter 5 Initial Approximating Functions: Archimedean Case
133(26)
1 The Approximation Theorems
134(2)
2 Outline of the Proof of Theorem 5.2
136(5)
3 Independence
141(3)
4 Proof of Theorem 5.2
144(15)
Chapter 6 Initial Approximating Functions: Nonarchimedean Case
159(32)
1 The Approximation Theorems
160(2)
2 Reduction to a Set Ev in a Single Ball
162(9)
3 Generalized Stirling Polynomials
171(3)
4 Proof of Proposition 6.5
174(12)
5 Corollaries to the Proof of Theorem 6.3
186(5)
Chapter 7 The Global Patching Construction
191(58)
1 The Uniform Strong Approximation Theorem
193(2)
2 S-units and 5-subunits
195(1)
3 The Semi-local Theory
196(3)
4 Proof of Theorem 4.2 when char(K) = 0
199(24)
5 Proof of Theorem 4.2 when Char(K) =p > 0
223(19)
6 Proof of Proposition 7.18
242(7)
Chapter 8 Local Patching when Kv C
249(8)
Chapter 9 Local Patching when Kv R
257(12)
Chapter 10 Local Patching for Nonarchimedean RL-domains
269(10)
Chapter 11 Local Patching for Nonarchimedean Kv-simple Sets
279(52)
1 The Patching Lemmas
284(9)
2 Stirling Polynomials when Char(Kv) = p > 0
293(1)
3 Proof of Theorems 11.1 and 11.2
294(24)
4 Proofs of the Moving Lemmas
318(13)
Appendix A (x, s)-Potential Theory
331(20)
1 (x, s)-Potential Theory for Compact Sets
331(8)
2 Mass Bounds in the Archimedean Case
339(2)
3 Description of μx,s in the Nonarchimedean Case
341(10)
Appendix B The Construction of Oscillating Pseudopolynomials
351(38)
1 Weighted (x, s)-Capacity Theory
353(3)
2 The Weighted Cheybshev Constant
356(5)
3 The Weighted Transfinite Diameter
361(5)
4 Comparisons
366(4)
5 Particular Cases of Interest
370(8)
6 Chebyshev Pseudopolynomials for Short Intervals
378(4)
7 Oscillating Pseudopolynomials
382(7)
Appendix C The Universal Function
389(18)
Appendix D The Local Action of the Jacobian
407(16)
1 The Local Action of the Jacobian on Cgv
409(2)
2 Lemmas on Power Series in Several Variables
411(3)
3 Proof of the Local Action Theorem
414(9)
Bibliography 423(4)
Index 427
Robert Rumely, University of Georgia, Athens, GA, USA