On the symplectic type of isomorphisms of the p-torsion of elliptic curves
Enregistré dans:
Auteurs principaux : | , |
---|---|
Format : | Livre |
Langue : | anglais |
Titre complet : | On the symplectic type of isomorphisms of the p-torsion of elliptic curves / Nuno Freitas, Alain Kraus |
Publié : |
Providence (R.I.) :
American Mathematical Society
, 2022 |
Description matérielle : | 1 vol. (V-105 p.) |
Collection : | Memoirs of the American Mathematical Society ; 1361 |
Sujets : |
- Chapter 1. Motivation and results
- 1.1 Introduction
- 1.2 A double motivation
- 1.3 Our approach to the problem of determining the symplectic type
- 1.4 A complete list of local symplectic criteria at l<>p
- Chapter 2. The existence of local symplectic criteria
- 2.1 Existence of symplectic criteria in terms of the image of PE,p
- 2.2 Symplectic criteria with PE,p (GQe) abelian
- Chapter 3. The criterion in the case of good reduction
- 3.1 The action of Frobenius
- 3.2 Proof of Theorem 1.18
- 3.3 A more general theorem
- Chapter 4. Elliptic curves with potentially good reduction
- 4.1 An useful Weierstrass model
- 4.2 The field of good reduction
- 4.3 The Galois group of the p-torsion field in the cases e=3, 4
- 4.4 Proof of Theorem 1.4
- 4.5 Proof of Lemmas 1.7, 1.8, 1.16 and 1.17
- 4.6 The completeness of Table 1.1
- Chapter 5. The morphism YE
- 5.1 Explicit description of YE
- 5.2 The morphism of YE in the tame case e=3
- 5.3 The morphism YE in the wild case e=3
- 5.4 The morphism YE in the tame case e=4
- 5.5 The morphism YE in the wild case e=4
- 5.6 The morphism YE in the wild case e=8
- 5.7 The morphism in the wild case e=12
- 5.8 Tables with coordinate changes
- Chapter 6. Proof of the criteria
- 6.1 Proof of Theorem 1.3
- 6.2 Proof of Theorem 1.5
- 6.3 Proof of Theorem 1.6
- 6.4 Proof of Theorem 1.9
- 6.5 proof of Theorem 1.10
- 6.6 Proof of Theorem 1.22
- 6.7 Proof of Theorems 1.13 and 1.15
- Chapter 7. Applications
- 7.1 Revisiting a question of Mazur
- 7.2 The Generalized Fermat equation x2 + y3 = zp
- 7.3 On the hyperelliptic curves y2 = xp - l and y2 = xp - 2l
- Bibliography