Modular Forms and Fermat's Last Theorem

by ; ;
Format: Paperback
Pub. Date: 2000-01-01
Publisher(s): Springer Nature
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Summary

This volume contains expanded versions of lectures given at an instructional conference on number theory and arithmetic geometry held August 9 through 18, 1995 at Boston University. Contributor's includeThe purpose of the conference, and of this book, is to introduce and explain the many ideas and techniques used by Wiles in his proof that every (semi-stable) elliptic curve over Q is modular, and to explain how Wiles' result can be combined with Ribet's theorem and ideas of Frey and Serre to show, at long last, that Fermat's Last Theorem is true. The book begins with an overview of the complete proof, followed by several introductory chapters surveying the basic theory of elliptic curves, modular functions, modular curves, Galois cohomology, and finite group schemes. Representation theory, which lies at the core of Wiles' proof, is dealt with in a chapter on automorphic representations and the Langlands-Tunnell theorem, and this is followed by in-depth discussions of Serre's conjectures, Galois deformations, universal deformation rings, Hecke algebras, complete intersections and more, as the reader is led step-by-step through Wiles' proof. In recognition of the historical significance of Fermat's Last Theorem, the volume concludes by looking both forward and backward in time, reflecting on the history of the problem, while placing Wiles' theorem into a more general Diophantine context suggesting future applications. Students and professional mathematicians alike will find this volume to be an indispensable resource for mastering the epoch-making proof of Fermat's Last Theorem.

Table of Contents

Preface v
Contributors xiii
Schedule of Lectures xvii
Introduction xix
An Overview of the Proof of Fermat's Last Theorem
1(16)
Glenn Stevens
A remarkable elliptic curve
2(1)
Galois representations
3(4)
A remarkable Galois representation
7(1)
Modular Galois representations
7(2)
The Modularity Conjecture and Wiles's Theorem
9(1)
The proof of Fermat's Last Theorem
10(1)
The proog of Wiles's Theorem
10(7)
References
15(2)
A Survey of the Arithmetic Theory of Elliptic Curves
17(24)
Joseph H. Silverman
Basic definitions
17(1)
The group law
18(1)
Singular cubics
18(1)
Isogenies
19(1)
The endomorphism ring
19(1)
Torsion points
20(1)
Galois representations attached to E
20(1)
The Weil pairing
21(1)
Elliptic curves over finite fields
22(2)
Elliptic curves over C and elliptic functions
24(2)
The formal group of an elliptic curve
26(1)
Elliptic curves over local fields
27(2)
The Selmer and Shafarevich-Tate groups
29(2)
Discriminants, conductors, and L-series
31(2)
Duality theory
33(1)
Rational torsion and the image of Galois
34(1)
Tate curves
34(1)
Heights and descent
35(2)
The conjecture of Birch and Swinnerton-Dyer
37(1)
Complex multiplication
37(2)
Integral points
39(2)
References
40(1)
Modular Curves, Hecke Correspondences, and L-Functions
41(60)
David E. Rohrlich
Modular curves
41(20)
The Hecke correspondences
61(12)
L-functions
73(28)
References
99(2)
Galois Cohomology
101(20)
Lawrence C. Washington
Ho, H1, and H2
101(4)
Preliminary results
105(2)
Local Tate duality
107(1)
Extensions and deformations
108(3)
Generalized Selmer groups
111(2)
Local conditions
113(1)
Conditions at p
114(3)
Proof of theorem 2
117(4)
References
120(1)
Finite Flat Group Schemes
121(34)
John Tate
Introduction
121(1)
Group objects in a category
122(3)
Group schemes, Examples
125(7)
Finite flat group schemes; passage to quotient
132(14)
Raynaud's results on commutative p-group schemes
146(9)
References
154(1)
Three Lectures on the Modularity of PE, 3 and the Langlands Reciprocity Conjecture
155(54)
Stephen Gelbart
The modularity of PE, 3 and automorphic representations of weight one
156(1)
The modularity of PE, 3
157(7)
Automorphic representations of weight one
164(12)
The Langlands program: Some results and methods
The local Langlands correspondence for GL(2)
176(3)
The Langlands reciprocity conjecture (LRC)
179(3)
The Langlands functoriality principle theory and results
182(10)
Proof of the Langlands-Tunnell theorem
192(1)
Base change theory
192(5)
Application to Artin's conjecture
197(12)
References
204(5)
Serre's Conjectures
209(34)
Bas Edixhoven
Serre's conjecture: statement and results
209(13)
The cases we need
222(2)
Weight two, trivial character and square free level
224(6)
Dealing with the Langlands--Tunnell form
230(13)
References
239(4)
An Introduction to the Deformation Theory of Galois Representations
243(70)
Barry Mazur
Galois representations
246(5)
Group representations
251(8)
The deformation theory for Galois representations
259(8)
Functors and representability
267(17)
Zariski tangent spaces and deformation problems subject to ``conditions''
284(10)
Back to Galois representations
294(19)
References
309(4)
Explicit Construction of Universal Deformation Rings
313(14)
Bart de Smit
Hendrik W. Lenstra, Jr.
Introduction
313(1)
Main results
314(3)
Lifting homomorphisms to matrix groups
317(1)
The condition of absolute irreducibility
318(2)
Projective limits
320(3)
Restrictions on deformations
323(1)
Relaxing the absolute irreducibility condition
324(3)
References
326(1)
Hecke Algebras and the Gorenstein Property
327(16)
Jacques Tilouine
The Gorenstein property
328(2)
Hecke algebras
330(1)
The main theorem
331(3)
Strategy of the proof of theorem 3.4
334(1)
Sketch of the proof
335(8)
Appendix
340(1)
References
341(2)
Criteria for Complete Intersections
343(14)
Bart De Smit
Karl Rubin
Rene Schoof
Introduction
343(2)
Preliminaries
345(2)
Complete intersections
347(3)
Proof of Criterion I
350(3)
Proof of Criterion II
353(4)
Bibliography
355(2)
l-adic Modular Deformations and Wiles's ``Main Conjecture''
357(16)
Fred Diamond
Kenneth A. Ribet
Introduction
357(1)
Strategy
358(1)
The ``Main Conjecture''
359(4)
Reduction to the case Σ = ø
363(7)
Epilogue
370(3)
Bibliography
370(3)
The Flat Deformation Functor
373(48)
Brian Conrad
Introduction
373(1)
Notation
374(1)
Motivation and flat representations
375(19)
Defining the functor
394(3)
Local Galois cohomology and deformation theory
397(9)
Fontaine's approach to finite flat group schemes
406(6)
Applications to flat deformations
412(9)
References
418(3)
Hecke Rings and Universal Deformation Rings
421(26)
Ehud De Shalit
Introduction
421(3)
An outline of the proof
424(8)
Proof of proposition 10 -- On the structure of the Hecke algebra
432(4)
Proof of proposition 11 -- On the structure of the universal deformation ring
436(6)
Conclusion of the proof: Some group theory
442(5)
Bibliography
444(3)
Explicit Families of Elliptic Curves with Prescribed Mod N Representations
447(16)
Alice Silverberg
Introduction
447(1)
Elliptic curves with the same mod N representation
448(1)
Modular curves and elliptic modular surfaces of level N
448(1)
Twists of YN and WN
449(1)
Model for W when N = 3, 4, or 5
450(1)
Level 4
451(3)
Explicit families of modular elliptic curves
454(1)
Modular j invariants
454(1)
Semistable reduction
455(1)
Mod 4 representations
456(1)
Torsion subgroups
457(6)
References
461(2)
Modularity of Mod 5 Representations
463(12)
Karl Rubin
Introduction
463(2)
Preliminaries: Group theory
465(1)
Preliminaries: Modular curves
466(4)
Proof of the irreducibility theorem (Theorem 1)
470(1)
Proof of the modularity theorem (Theorem 2)
470(1)
Mod 5 representations and elliptic curves
471(4)
References
473(2)
An Extension of Wiles' Results
475(24)
Fred Diamond
Introduction
475(1)
Local representations mod l
476(4)
Minimally ramified liftings
480(1)
Universal deformation rings
481(1)
Hecke algebras
482(1)
The main results
483(1)
Sketch of Proof
484(15)
References
488(3)
Classification of PE, l by the j Invariant of E
491(8)
Fred Diamond
Kenneth Kramer
Class Field Theory and the First Case of Fermat's Last Theorem
499(6)
Hendrik W. Lenstra, Jr.
Peter Stevenhagen
Remarks on the History of Fermat's Last Theorem 1844 to 1984
505(22)
Michael Rosen
Introduction
507(1)
Fermat's last theorem for polynomials
507(1)
Kummer's work on cyclotomic fields
508(5)
Fermat's last theorem for regular primes and certain other cases
513(4)
The structure of the p-class group
517(4)
Suggested readings
521(6)
Kummer congruence and Hilbert's theorem 94
522(2)
Bibliography
524(3)
On Ternary Equations of Fermat Type and Relations with Elliptic Curves
527(22)
Gerhard Frey
Conjectures
527(13)
The generic case
540(2)
K = Q
542(7)
References
548(1)
Wiles' Theorem and the Arithmetic of Elliptic Curves
549(24)
Henri Darmon
Prelude: plane conics, Fermat and Gauss
549(3)
Elliptic curves and Wiles' theorem
552(5)
The special values of L (E/Q, s) at s = 1
557(6)
The Birch and Swinnerton-Dyer conjecture
563(10)
References
566(7)
Index 573

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