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Symmetries and Semi-invariants in the Analysis of Nonlinear Systems

Symmetries and Semi-invariants in the Analysis of Nonlinear Systems
Kataloginformation
Feldname Details
Vorliegende Sprache eng
ISBN 978-0-85729-611-5
Name Menini, Laura
Tornambè, Antonio
Name ANZEIGE DER KETTE Tornambè, Antonio
T I T E L Symmetries and Semi-invariants in the Analysis of Nonlinear Systems
Verlagsort London
Verlag Springer-Verlag London Limited
Erscheinungsjahr 2011
2011
Umfang Online-Ressource (X, 324p. 2 illus. in color, digital)
Reihe SpringerLink. Bücher
Notiz / Fußnoten Includes bibliographical references and index
Weiterer Inhalt Symmetries and Semi-invariants in the Analysis of Nonlinear Systems; Preface; Contents; Chapter 1: Notation and Background; 1.1 Notation; 1.2 Analytic and Meromorphic Functions; 1.3 Differential and Difference Equations; 1.4 Differential Forms; 1.5 The Cauchy-Kovalevskaya Theorem; 1.6 The Frobenius Theorem; 1.7 Semi-simple, Normal and Nilpotent Square Matrices; Chapter 2: Analysis of Linear Systems; 2.1 The Linear Centralizer and Linear Normalizer of a Square Matrix; 2.2 Darboux Polynomials and First Integrals; Chapter 3: Analysis of Continuous-Time Nonlinear Systems. 3.1 Semi-invariants and Darboux Polynomials of Continuous-Time Nonlinear Systems3.2 Symmetries and Orbital Symmetries of Continuous-Time Nonlinear Systems; 3.3 Continuous-Time Homogeneous Nonlinear Systems; 3.4 Characteristic Solutions of Continuous-Time Homogeneous Nonlinear Systems; 3.5 Reduction of Continuous-Time Nonlinear Systems; 3.6 Continuous-Time Nonlinear Planar Systems; 3.7 Parameterization of Continuous-Time Nonlinear Planar Systems Having a Given Orbital Symmetry; Case 1: orbital symmetry g=[ P(x1)+Q(x2) 0 ]; Case 2: orbital symmetry g=[ P(x1) Q(x1)]. Case 3: orbital symmetry g=[ P(x1) Q(x2)]Case 4: orbital symmetry g=[ Q(x2)P(x1) 0 ]; 3.8 The Inverse Jacobi Last Multiplier; 3.9 Matrix Integrating Factors; 3.10 Lax Pairs for Continuous-Time Nonlinear Systems; 3.11 A ""Computational"" Result for the Darboux Polynomials of Continuous-Time Nonlinear Systems; 3.12 The Poincaré-Dulac Normal Form of Continuous-Time Nonlinear Systems; 3.13 Homogeneity and Resonance of Continuous-Time Nonlinear Systems; 3.14 The Belitskii Normal Form of Continuous-Time Nonlinear Systems; 3.15 Nonlinear Transformations of Linear Systems. 3.16 Invariant Distributions and Dual Semi-Invariants3.17 Decomposition of Continuous-Time Nonlinear Systems; 3.18 Symmetries of Algebraic Equations; 3.19 Symmetries and Dimensional Analysis; 3.20 Symmetries of Scalar Ordinary Differential Equations; Chapter 4: Analysis of Discrete-Time Nonlinear Systems; 4.1 Semi-invariants and Darboux Polynomials of Discrete-Time Nonlinear Systems; 4.2 A ""Computational"" Result for the Darboux Polynomials of Discrete-Time Nonlinear Systems; 4.3 Symmetries of Discrete-Time Nonlinear Systems; 4.4 Symmetries of Scalar Discrete-Time Nonlinear Systems. 4.5 Reduction of Discrete-Time Nonlinear Systems4.6 A Property of Discrete-Time Nonlinear Planar Systems; 4.7 Lax Pairs for Discrete-Time Nonlinear Systems; 4.8 The Poincaré-Dulac Normal Form for Discrete-Time Nonlinear Systems; 4.9 Linearization of Discrete-Time Nonlinear Systems; 4.10 Homogeneity and Resonance of Discrete-Time Nonlinear Systems; 4.11 The Belitskii Normal Form of Discrete-Time Nonlinear Systems; 4.12 Decomposition of Discrete-Time Nonlinear Systems; Chapter 5: Analysis of Hamiltonian Systems; 5.1 Euler-Lagrange Equations; 5.2 Hamiltonian Systems. 5.3 Normal Forms of Hamiltonian Systems
Titelhinweis Buchausg. u.d.T.ISBN: 978-0-85729-611-5
ISBN ISBN 978-0-85729-612-2
Klassifikation TJFM
TEC004000
*93-02
93C10
93C95
93D05
93C15
93C55
93C35
93C57
003.75
629.836
TJ212-225
Kurzbeschreibung This book details the analysis of continuous- and discrete-time dynamical systems described by differential and difference equations respectively. Differential geometry provides the tools for this, such as first-integrals or orbital symmetries, together with normal forms of vector fields and of maps. A crucial point of the analysis is linearization by state immersion. The theory is developed for general nonlinear systems and specialized for the class of Hamiltonian systems. By using the strong geometric structure of Hamiltonian systems, the results proposed are stated in a different, less comp
SWB-Titel-Idn 345800958
Signatur Springer E-Book
Bemerkungen Elektronischer Volltext - Campuslizenz
Elektronische Adresse $uhttp://dx.doi.org/10.1007/978-0-85729-612-2
Internetseite / Link Volltext
Siehe auch Volltext
Siehe auch Inhaltsverzeichnis
Siehe auch Einführung/Vorwort
Siehe auch Inhaltstext
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