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Asymptotic differential algebra and model theory of transseries /

Asymptotic differential algebra seeks to understand the solutions of differential equations and their asymptotics from an algebraic point of view. The differential field of transseries plays a central role in the subject. Besides powers of the variable, these series may contain exponential and logar...

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Detalles Bibliográficos
Clasificación:Libro Electrónico
Autor principal: Aschenbrenner, Matthias, 1972-
Otros Autores: Van den Dries, Lou, Hoeven, J. van der (Joris)
Formato: Electrónico eBook
Idioma:Inglés
Publicado: Princeton : Princeton University Press, 2017.
Colección:Annals of mathematics studies ; no. 195.
Temas:
Acceso en línea:Texto completo
Tabla de Contenidos:
  • Cover; Title; Copyright; Contents; Preface; Conventions and Notations; Leitfaden; Dramatis Personæ; Introduction and Overview; A Differential Field with No Escape; Strategy and Main Results; Organization; The Next Volume; Future Challenges; A Historical Note on Transseries; 1 Some Commutative Algebra; 1.1 The Zariski Topology and Noetherianity; 1.2 Rings and Modules of Finite Length; 1.3 Integral Extensions and Integrally Closed Domains; 1.4 Local Rings; 1.5 Krull's Principal Ideal Theorem; 1.6 Regular Local Rings; 1.7 Modules and Derivations; 1.8 Differentials.
  • 1.9 Derivations on Field Extensions2 Valued Abelian Groups; 2.1 Ordered Sets; 2.2 Valued Abelian Groups; 2.3 Valued Vector Spaces; 2.4 Ordered Abelian Groups; 3 Valued Fields; 3.1 Valuations on Fields; 3.2 Pseudoconvergence in Valued Fields; 3.3 Henselian Valued Fields; 3.4 Decomposing Valuations; 3.5 Valued Ordered Fields; 3.6 Some Model Theory of Valued Fields; 3.7 The Newton Tree of a Polynomial over a Valued Field; 4 Differential Polynomials; 4.1 Differential Fields and Differential Polynomials; 4.2 Decompositions of Differential Polynomials; 4.3 Operations on Differential Polynomials.
  • 4.4 Valued Differential Fields and Continuity4.5 The Gaussian Valuation; 4.6 Differential Rings; 4.7 Differentially Closed Fields; 5 Linear Differential Polynomials; 5.1 Linear Differential Operators; 5.2 Second-Order Linear Differential Operators; 5.3 Diagonalization of Matrices; 5.4 Systems of Linear Differential Equations; 5.5 Differential Modules; 5.6 Linear Differential Operators in the Presence of a Valuation; 5.7 Compositional Conjugation; 5.8 The Riccati Transform; 5.9 Johnson's Theorem; 6 Valued Differential Fields; 6.1 Asymptotic Behavior of vP; 6.2 Algebraic Extensions.
  • 6.3 Residue Extensions6.4 The Valuation Induced on the Value Group; 6.5 Asymptotic Couples; 6.6 Dominant Part; 6.7 The Equalizer Theorem; 6.8 Evaluation at Pseudocauchy Sequences; 6.9 Constructing Canonical Immediate Extensions; 7 Differential-Henselian Fields; 7.1 Preliminaries on Differential-Henselianity; 7.2 Maximality and Differential-Henselianity; 7.3 Differential-Hensel Configurations; 7.4 Maximal Immediate Extensions in the Monotone Case; 7.5 The Case of Few Constants; 7.6 Differential-Henselianity in Several Variables; 8 Differential-Henselian Fields with Many Constants.
  • 8.1 Angular Components8.2 Equivalence over Substructures; 8.3 Relative Quantifier Elimination; 8.4 A Model Companion; 9 Asymptotic Fields and Asymptotic Couples; 9.1 Asymptotic Fields and Their Asymptotic Couples; 9.2 H-Asymptotic Couples; 9.3 Application to Differential Polynomials; 9.4 Basic Facts about Asymptotic Fields; 9.5 Algebraic Extensions of Asymptotic Fields; 9.6 Immediate Extensions of Asymptotic Fields; 9.7 Differential Polynomials of Order One; 9.8 Extending H-Asymptotic Couples; 9.9 Closed H-Asymptotic Couples; 10 H-Fields; 10.1 Pre-Differential-Valued Fields.