Asymptotic Differential Algebra and Model Theory of Transseries 1st Edition by Matthias Aschenbrenner, Lou van den Dries, Joris van der Hoeven – Ebook PDF Instant Download/Delivery: 9780691175423 ,069117542X
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ISBN 10: 069117542X
ISBN 13: 9780691175423
Author: Matthias Aschenbrenner, Lou van den Dries, Joris van der Hoeven
Asymptotic Differential Algebra and Model Theory of Transseries 1st Edition Table of contents:
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 Extensions
2 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 Continuity
4.5 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 Extensions
6.4 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 Components
8.2 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
10.2 Adjoining Integrals
10.3 The Differential-Valued Hull
10.4 Adjoining Exponential Integrals
10.5 H-Fields and Pre-H-Fields
10.6 Liouville Closed H-Fields
10.7 Miscellaneous Facts about Asymptotic Fields
11 Eventual Quantities, Immediate Extensions, and Special Cuts
11.1 Eventual Behavior
11.2 Newton Degree and Newton Multiplicity
11.3 Using Newton Multiplicity and Newton Weight
11.4 Constructing Immediate Extensions
11.5 Special Cuts in H-Asymptotic Fields
11.6 The Property of λ-Freeness
11.7 Behavior of the Function ω
11.8 Some Special Definable Sets
12 Triangular Automorphisms
12.1 Filtered Modules and Algebras
12.2 Triangular Linear Maps
12.3 The Lie Algebra of an Algebraic Unitriangular Group
12.4 Derivations on the Ring of Column-Finite Matrices
12.5 Iteration Matrices
12.6 Riordan Matrices
12.7 Derivations on Polynomial Rings
12.8 Application to Differential Polynomials
13 The Newton Polynomial
13.1 Revisiting the Dominant Part
13.2 Elementary Properties of the Newton Polynomial
13.3 The Shape of the Newton Polynomial
13.4 Realizing Cuts in the Value Group
13.5 Eventual Equalizers
13.6 Further Consequences of ω-Freeness
13.7 Further Consequences of λ-Freeness
13.8 Asymptotic Equations
13.9 Some Special H-Fields
14 Newtonian Differential Fields
14.1 Relation to Differential-Henselianity
14.2 Cases of Low Complexity
14.3 Solving Quasilinear Equations
14.4 Unravelers
14.5 Newtonization
15 Newtonianity of Directed Unions
15.1 Finitely Many Exceptional Values
15.2 Integration and the Extension K(x)
15.3 Approximating Zeros of Differential Polynomials
15.4 Proof of Newtonianity
16 Quantifier Elimination
16.1 Extensions Controlled by Asymptotic Couples
16.2 Model Completeness
16.3 ΛΩ-Cuts and ΛΩ-Fields
16.4 Embedding Pre-ΛΩ-Fields into ω-Free ΛΩ-Fields
16.5 The Language of ΛΩ-Fields
16.6 Elimination of Quantifiers with Applications
A Transseries
B Basic Model Theory
B.1 Structures and Their Definable Sets
B.2 Languages
B.3 Variables and Terms
B.4 Formulas
B.5 Elementary Equivalence and Elementary Substructures
B.6 Models and the Compactness Theorem
B.7 Ultraproducts and Proof of the Compactness Theorem
B.8 Some Uses of Compactness
B.9 Types and Saturated Structures
B.10 Model Completeness
B.11 Quantifier Elimination
B.12 Application to Algebraically Closed and Real Closed Fields
B.13 Structures without the Independence Property
Bibliography
List of Symbols
Index
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Tags: Matthias Aschenbrenner, Lou van den Dries, Joris van der Hoeven, Asymptotic Differential, Transseries, Algebra