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Averaging Methods in Nonlinear Dynamical Systems Second Edition 2007 [Kõva köide]

  • Formaat: Hardback, 434 pages, kõrgus x laius: 235x155 mm, kaal: 852 g, XXIV, 434 p., 1 Hardback
  • Sari: Applied Mathematical Sciences 59
  • Ilmumisaeg: 06-Jun-2007
  • Kirjastus: Springer-Verlag New York Inc.
  • ISBN-10: 0387489169
  • ISBN-13: 9780387489162
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  • Formaat: Hardback, 434 pages, kõrgus x laius: 235x155 mm, kaal: 852 g, XXIV, 434 p., 1 Hardback
  • Sari: Applied Mathematical Sciences 59
  • Ilmumisaeg: 06-Jun-2007
  • Kirjastus: Springer-Verlag New York Inc.
  • ISBN-10: 0387489169
  • ISBN-13: 9780387489162
Teised raamatud teemal:
Perturbation theory and in particular normal form theory has shown strong growth during the last decades. So it is not surprising that the authors have presented an extensive revision of the first edition of the Averaging Methods in Nonlinear Dynamical Systems book. There are many changes, corrections and updates in chapters on Basic Material and Asymptotics, Averaging, and Attraction. Chapters on Periodic Averaging and Hyperbolicity, Classical (first level) Normal Form Theory, Nilpotent (classical) Normal Form, and Higher Level Normal Form Theory are entirely new and represent new insights in averaging, in particular its relation with dynamical systems and the theory of normal forms. Also new are surveys on invariant manifolds in Appendix C and averaging for PDEs in Appendix E. Since the first edition, the book has expanded in length and the third author, James Murdock has been added.Review of First Edition"One of the most striking features of the book is the nice collection of examples, which range from the very simple to some that are elaborate, realistic, and of considerable practical importance. Most of them are presented in careful detail and are illustrated with profuse, illuminating diagrams." - Mathematical Reviews

Perturbation theory, especially normal form theory, has shown strong growth during the last decades, and that is why the authors are now presenting an extensive revision of this text. A number of new chapters have been added, and many existing chapters have undergone major changes, updates and corrections. Also, one appendix includes new surveys on invariant manifolds and another appendix now offers averaging for PDEs.

Arvustused

From the reviews of the second edition:





"This monograph is a second edition comprising a thorough revision and an expansion of the first one . Thus, the reader is exposed to the practice of examining both concrete applications and theory. comprehensive content is extremely well written. The presentation is self-contained, thus offering a high level and convenient exposition to those who wish to study the subject matter as a whole. The text introduces particular notations which are not too common in the literature." (Zvi Artstein, Mathematical Reviews, Issue 2008 h)

"The new book will be an ideal place to learn about averaging, including whats new in the last quarter century . Overall, the authors are to be commended for writing this timely and important piece of scholarship, which should teach many about their topic and related analysis." (Robert E. O Malley, Jr., Siam Review, Vol. 51 (1), 2009)

This monograph is a revised and expanded second edition of the original text from 1985 by the first two authors. This first edition has since then become one of the standard references for the modern theory of averaging and singular perturbations of ordinary differential equations. Without doubt the second edition will continue this legacy. The book is well-written with full proves and a wealth of enlightening examples. It can only be warmly recommended to everybody working in this field . (G. Teschl, Monatshefte für Mathematik, Vol. 156 (4), April, 2009)

Basic Material and Asymptotics
1(20)
Introduction
1(1)
Existence and Uniqueness
2(2)
The Gronwall Lemma
4(1)
Concepts of Asymptotic Approximation
5(7)
Naive Formulation of Perturbation Problems
12(4)
Reformulation in the Standard Form
16(1)
The Standard Form in the Quasilinear Case
17(4)
Averaging: the Periodic Case
21(24)
Introduction
21(1)
Van der Pol Equation
22(2)
A Linear Oscillator with Frequency Modulation
24(1)
One Degree of Freedom Hamiltonian System
25(1)
The Necessity of Restricting the Interval of Time
26(1)
Bounded Solutions and a Restricted Time Scale of Validity
27(1)
Counter Example of Crude Averaging
28(2)
Two Proofs of First-Order Periodic Averaging
30(7)
Higher-Order Periodic Averaging and Trade-Off
37(8)
Higher-Order Periodic Averaging
37(4)
Estimates on Longer Time Intervals
41(1)
Modified Van der Pol Equation
42(1)
Periodic Orbit of the Van der Pol Equation
43(2)
Methodology of Averaging
45(22)
Introduction
45(1)
Handling the Averaging Process
45(7)
Lie Theory for Matrices
46(1)
Lie Theory for Autonomous Vector Fields
47(1)
Lie Theory for Periodic Vector Fields
48(2)
Solving the Averaged Equations
50(2)
Averaging Periodic Systems with Slow Time Dependence
52(4)
Pendulum with Slowly Varying Length
54(2)
Unique Averaging
56(4)
Averaging and Multiple Time Scale Methods
60(7)
Averaging: the General Case
67(22)
Introduction
67(1)
Basic Lemmas; the Periodic Case
68(4)
General Averaging
72(3)
Linear Oscillator with Increasing Damping
75(2)
Second-Order Averaging
77(5)
Example of Second-Order Averaging
81(1)
Almost-Periodic Vector Fields
82(7)
Example
84(5)
Attraction
89(22)
Introduction
89(1)
Equations with Linear Attraction
90(3)
Examples of Regular Perturbations with Attraction
93(3)
Two Species
93(1)
A perturbation theorem
94(2)
Two Species, Continued
96(1)
Examples of Averaging with Attraction
96(4)
Anharmonic Oscillator with Linear Damping
97(1)
Duffing's Equation with Damping and Forcing
97(3)
Theory of Averaging with Attraction
100(3)
An Attractor in the Original Equation
103(1)
Contracting Maps
104(2)
Attracting Limit-Cycles
106(1)
Additional Examples
107(4)
Perturbation of the Linear Terms
108(1)
Damping on Various Time Scales
108(3)
Periodic Averaging and Hyperbolicity
111(30)
Introduction
111(2)
Coupled Duffing Equations, An Example
113(3)
Rest Points and Periodic Solutions
116(3)
The Regular Case
116(1)
The Averaging Case
117(2)
Local Conjugacy and Shadowing
119(9)
The Regular Case
120(6)
The Averaging Case
126(2)
Extended Error Estimate for Solutions Approaching an Attractor
128(1)
Conjugacy and Shadowing in a Dumbbell-Shaped Neighborhood
129(6)
The Regular Case
130(4)
The Averaging Case
134(1)
Extension to Larger Compact Sets
135(3)
Extensions and Degenerate Cases
138(3)
Averaging over Angles
141(30)
Introduction
141(1)
The Case of Constant Frequencies
141(5)
Total Resonances
146(4)
The Case of Variable Frequencies
150(2)
Examples
152(4)
Einstein Pendulum
152(1)
Nonlinear Oscillator
153(1)
Oscillator Attached to a Flywheel
154(2)
Secondary (Not Second Order) Averaging
156(1)
Formal Theory
157(2)
Slowly Varying Frequency
159(4)
Einstein Pendulum
163(1)
Higher Order Approximation in the Regular Case
163(3)
Generalization of the Regular Case
166(5)
Two-Body Problem with Variable Mass
169(2)
Passage Through Resonance
171(22)
Introduction
171(1)
The Inner Expansion
172(1)
The Outer Expansion
173(1)
The Composite Expansion
174(1)
Remarks on Higher-Dimensional Problems
175(4)
Introduction
175(1)
The Case of More Than One Angle
175(1)
Example of Resonance Locking
176(2)
Example of Forced Passage through Resonance
178(1)
Inner and Outer Expansion
179(9)
Two Examples
188(5)
The Forced Mathematical Pendulum
188(2)
An Oscillator Attached to a Fly-Wheel
190(3)
From Averaging to Normal Forms
193(12)
Classical, or First-Level, Normal Forms
193(9)
Differential Operators Associated with a Vector Field
194(2)
Lie Theory
196(1)
Normal Form Styles
197(1)
The Semisimple Case
198(1)
The Nonsemisimple Case
199(1)
The Transpose or Inner Product Normal Form Style
200(1)
The sl2 Normal Form
201(1)
Higher Level Normal Forms
202(3)
Hamiltonian Normal Form Theory
205(58)
Introduction
205(5)
The Hamiltonian Formalism
205(2)
Local Expansions and Rescaling
207(1)
Basic Ingredients of the Flow
207(3)
Normalization of Hamiltonians around Equilibria
210(4)
The Generating Function
210(3)
Normal Form Polynomials
213(1)
Canonical Variables at Resonance
214(1)
Periodic Solutions and Integrals
215(1)
Two Degrees of Freedom, General Theory
216(7)
Introduction
216(2)
The Linear Flow
218(2)
Description of the ω1 : ω2-Resonance in Normal Form
220(1)
General Aspects of the k : l-Resonance, k ≠ l
221(2)
Two Degrees of Freedom, Examples
223(15)
The 1 : 2-Resonance
223(4)
The Symmetric 1 : 1-Resonance
227(2)
The 1 : 3-Resonance
229(4)
Higher-order Resonances
233(5)
Three Degrees of Freedom, General Theory
238(11)
Introduction
238(1)
The Order of Resonance
239(2)
Periodic Orbits and Integrals
241(2)
The ω1 : ω2 : ω3-Resonance
243(1)
The Kernel of ad(H0)
243(6)
Three Degrees of Freedom, Examples
249(14)
The 1 : 2 : 1-Resonance
249(1)
Integrability of the 1 : 2 : 1 Normal Form
250(2)
The 1 : 2 : 2-Resonance
252(1)
Integrability of the 1 : 2 : 2 Normal Form
253(1)
The 1 : 2 : 3-Resonance
254(1)
Integrability of the 1 : 2 : 3 Normal Form
255(2)
The 1 : 2 : 4-Resonance
257(1)
Integrability of the 1 : 2 : 4 Normal Form
258(1)
Summary of Integrability of Normalized Systems
259(1)
Genuine Second-Order Resonances
260(3)
Classical (First--Level) Normal Form Theory
263(22)
Introduction
263(1)
Leibniz Algebras and Representations
264(3)
Cohomology
267(2)
A Matter of Style
269(5)
Example: Nilpotent Linear Part in R2
272(2)
Induced Linear Algebra
274(7)
The Nilpotent Case
276(2)
Nilpotent Example Revisited
278(1)
The Nonsemisimple Case
279(2)
The Form of the Normal Form, the Description Problem
281(4)
Nilpotent (Classical) Normal Form
285(30)
Introduction
285(1)
Classical Invariant Theory
285(1)
Transvectants
286(4)
A Remark on Generating Functions
290(3)
The Jacobson--Morozov Lemma
293(1)
Description of the First Level Normal Forms
294(16)
The N2 Case
294(3)
The N3 Case
297(1)
The N4 Case
298(4)
Intermezzo: How Free?
302(1)
The N2,2 Case
303(3)
The N5 Case
306(1)
The N2,3 Case
307(3)
Description of the First Level Normal Forms
310(5)
The N2,2,2 Case
310(1)
The N3,3 Case
311(1)
The N3,4 Case
312(2)
Concluding Remark
314(1)
Higher--Level Normal Form Theory
315(22)
Introduction
315(2)
Some Standard Results
316(1)
Abstract Formulation of Normal Form Theory
317(3)
The Hilbert--Poincare Series of a Spectral Sequence
320(1)
The Anharmonic Oscillator
321(5)
Case Ar : β0/2r Is Invertible
323(1)
Case Ar: β0/2r Is Not Invertible, but β1/2r Is
323(3)
The m-adic Approach
326(1)
The Hamiltonian 1 : 2-Resonance
326(2)
Averaging over Angles
328(1)
Definition of Normal Form
329(1)
Linear Convergence, Using the Newton Method
330(4)
Quadratic Convergence, Using the Dynkin Formula
334(3)
A. The History of the Theory of Averaging
337(8)
Early Calculations and Ideas
337(3)
Formal Perturbation Theory and Averaging
340(3)
Jacobi
340(1)
Poincare
341(1)
Van der Pol
342(1)
Proofs of Asymptotic Validity
343(2)
B. A 4-Dimensional Example of Hopf Bifurcation
345(8)
Introduction
345(1)
The Model Problem
346(1)
The Linear Equation
347(1)
Linear Perturbation Theory
348(2)
The Nonlinear Problem
350(3)
C. Invariant Manifolds by Averaging
353(10)
Introduction
353(1)
Deforming a Normally Hyperbolic Manifold
354(2)
Tori by Bogoliubov-Mitropolsky-Hale Continuation
356(1)
The Case of Parallel Flow
357(3)
Tori Created by Neimark--Sacker Bifurcation
360(3)
D. Celestial Mechanics
363(14)
Introduction
363(1)
The Unperturbed Kepler Problem
364(1)
Perturbations
365(1)
Motion Around an `Oblate Planet'
366(1)
Harmonic Oscillator Formulation
367(1)
First Order Averaging
368(3)
A Dissipative Force: Atmospheric Drag
371(2)
Systems with Mass Loss or Variable G
373(3)
Two--body System with Increasing Mass
376(1)
E. On Averaging Methods for Partial Differential Equations
377(18)
Introduction
377(1)
Averaging of Operators
378(5)
Averaging in a Banach Space
378(1)
Averaging a Time-Dependent Operator
379(2)
A Time-Periodic Advection-Diffusion Problem
381(1)
Nonlinearities, Boundary Conditions and Sources
382(1)
Hyperbolic Operators with a Discrete Spectrum
383(11)
Averaging Results by Buitelaar
384(2)
Galerkin Averaging Results
386(3)
Example: the Cubic Klein--Gordon Equation
389(2)
Example: Wave Equation with Many Resonances
391(1)
Example: the Keller--Kogelman Problem
392(2)
Discussion
394(1)
References 395(18)
Index of Definitions & Descriptions 413(4)
General Index 417