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Dynamical Systems: Stability, Symbolic Dynamics, and Chaos 2nd edition [Kõva köide]

(Northwestern University, Evanston, Illinois, USA)
  • Formaat: Hardback, 524 pages, kõrgus x laius: 254x178 mm, kaal: 1133 g
  • Sari: Studies in Advanced Mathematics
  • Ilmumisaeg: 17-Nov-1998
  • Kirjastus: CRC Press Inc
  • ISBN-10: 0849384958
  • ISBN-13: 9780849384950
  • Formaat: Hardback, 524 pages, kõrgus x laius: 254x178 mm, kaal: 1133 g
  • Sari: Studies in Advanced Mathematics
  • Ilmumisaeg: 17-Nov-1998
  • Kirjastus: CRC Press Inc
  • ISBN-10: 0849384958
  • ISBN-13: 9780849384950
New edition of a graduate textbook whose main topic is the dynamics induced by iteration of a function or by the solutions of ordinary differential equations. This edition features a revised discussion of the saddle node bifurcation, a new section on the horseshoe for a flow with a transverse homoclinic point, information proving the ergodicity of a hyperbolic toral automorphism, and a new chapter on Hamiltonian systems. The focus is on multidimensional systems of real variables. Annotation c. by Book News, Inc., Portland, Or.

Several distinctive aspects make Dynamical Systems unique, including:
  • treating the subject from a mathematical perspective with the proofs of most of the results included
  • providing a careful review of background materials
  • introducing ideas through examples and at a level accessible to a beginning graduate student
  • focusing on multidimensional systems of real variables

    The book treats the dynamics of both iteration of functions and solutions of ordinary differential equations. Many concepts are first introduced for iteration of functions where the geometry is simpler, but results are interpreted for differential equations. The dynamical systems approach of the book concentrates on properties of the whole system or subsets of the system rather than individual solutions. The more local theory discussed deals with characterizing types of solutions under various hypothesis, and later chapters address more global aspects.


  • The second edition of this popular text continues to treat dynamical systems from a mathematical perspective centering on multidimensional systems of real variables. At a level accessible to beginning graduate students, it addresses the dynamics of both the iteration of functions and solutions of ordinary differential equations. This edition includes material on horsehoes, an additional chapter on Hamiltonian systems, a revised discussion of the saddle node bifurcation, and proof of the ergodicity of a hyperbolic toral automorphism. Numerous exercises help readers understand the theorems presented and master the techniques of the proofs and topics under consideration.

    Arvustused

    "was impressed with the teachability of this text and with the exercises at the end of each chapter, which seemed be nicely graded in difficulty." -D. Givoli, APPLIED MECHANICS REVIEWS

    Chapter I. Introduction
    1(12)
    1.1 Population Growth Models, One Population
    2(1)
    1.2 Iteration of Real Valued Functions as Dynamical Systems
    3(2)
    1.3 Higher Dimensional Systems
    5(4)
    1.4 Outline of the Topics of the
    Chapters
    9(4)
    Chapter II. One-Dimensional Dynamics by Iteration
    13(52)
    2.1 Calculus Prerequisites
    13(2)
    *2.2 Periodic Points
    15(7)
    *2.2.1 Fixed Points for the Quadratic Family
    20(2)
    *2.3 Limit Sets and Recurrence for Maps
    22(4)
    *2.4 Invariant Cantor Sets for the Quadratic Family
    26(12)
    *2.4.1 Middle Cantor Sets
    26(4)
    *2.4.2 Construction of the Invariant Cantor Set
    30(3)
    *2.4.3 The Invariant Cantor Set for Mu is Greater than 4
    33(5)
    *2.5 Symbolic Dynamics for the Quadratic Map
    38(3)
    *2.6 Conjugacy and Structural Stability
    41(6)
    *2.7 Conjugacy and Structural Stability of the Quadratic Map
    47(3)
    2.8 Homeomorphisms of the Circle
    50(8)
    2.9 Exercises
    58(7)
    Chapter III. Chaos and Its Measurement
    65(30)
    3.1 Sharkovskii's Theorem
    65(9)
    3.1.1 Examples for Sharkovskii's Theorem
    72(2)
    3.2 Subshifts of Finite Type
    74(6)
    3.3 Zeta Function
    80(2)
    3.4 Period Doubling Cascade
    82(2)
    3.5 Chaos
    84(4)
    3.6 Liapunov Exponents
    88(3)
    3.7 Exercises
    91(4)
    Chapter IV. Linear Systems
    95(38)
    4.1 Review: Linear Maps and the Real Jordan Canonical Form
    95(2)
    *4.2 Linear Differential Equations
    97(2)
    *4.3 Solutions for Constant Coefficients
    99(5)
    *4.4 Phase Portraits
    104(4)
    *4.5 Contracting Linear Differential Equations
    108(5)
    *4.6 Hyperbolic Linear Differential Equations
    113(2)
    *4.7 Topologically Conjugate Linear Differential Equations
    115(2)
    *4.8 Nonhomogeneous Equations
    117(1)
    *4.9 Linear Maps
    118(11)
    4.9.1 Perron-Frobenius Theorem
    125(4)
    4.10 Exercises
    129(4)
    Chapter V. Analysis Near Fixed Points and Periodic Orbits
    133(82)
    *5.1 Review: Differentiation in Higher Dimensions
    133(3)
    *5.2 Review: The Implicit Function Theorem
    136(6)
    *5.2.1 Higher Dimensional Implicit Function Theorem
    138(1)
    *5.2.2 The Inverse Function Theorem
    139(1)
    *5.2.3 Contraction Mapping Theorem
    140(2)
    *5.3 Existence of Solutions for Differential Equations
    142(6)
    *5.4 Limit Sets and Recurrence for Flows
    148(3)
    *5.5 Fixed Points for Nonlinear Differential Equations
    151(7)
    *5.5.1 Nonlinear Sinks
    153(2)
    *5.5.2 Nonlinear Hyperbolic Fixed Points
    155(1)
    *5.5.3 Liapunov Functions Near a Fixed Point
    156(2)
    *5.6 Stability of Periodic Points for Nonlinear Maps
    158(2)
    5.7 Proof of the Hartman-Grobman Theorem
    160(8)
    *5.7.1 Proof of the Local Theorem
    166(1)
    5.7.2 Proof of the Hartman-Grobman Theorem for Flows
    167(1)
    *5.8 Periodic Orbits for Flows
    168(13)
    5.8.1 The Suspension of a Map
    173(1)
    5.8.2 An Attracting Periodic Orbit for the Van der Pol Equations
    174(5)
    5.8.3 Poincare Map for Differential Equations in the Plane
    179(2)
    *5.9 Poincare-Bendixson Theorem
    181(2)
    *5.10 Stable Manifold Theorem for a Fixed Point of a Map
    183(20)
    5.10.1 Proof of the Stable Manifold Theorem
    187(13)
    5.10.2 Center Manifold
    200(2)
    *5.10.3 Stable Manifold Theorem for Flows
    202(1)
    *5.11 The Inclination Lemma
    203(1)
    5.12 Exercises
    204(11)
    Chapter VI. Hamiltonian Systems
    215(22)
    6.1 Hamiltonian Differential Equations
    215(5)
    6.2 Linear Hamiltonian Systems
    220(3)
    6.3 Symplectic Diffeomorphisms
    223(4)
    6.4 Normal Form at Fixed Point
    227(4)
    6.5 KAM Theorem
    231(2)
    6.6 Exercises
    233(4)
    Chapter VII. Bifurcation of Periodic Points
    237(26)
    7.1 Saddle-Node Bifurcation
    237(2)
    7.2 Saddle-Node Bifurcation in Higher Dimensions
    239(5)
    7.3 Period Doubling Bifurcation
    244(5)
    7.4 Andronov-Hopf Bifurcation for Differential Equations
    249(7)
    7.5 Andronov-Hopf Bifurcation for Diffeomorphisms
    256(3)
    7.6 Exercises
    259(4)
    Chapter VIII. Examples of Hyperbolic Sets and Attractors
    263(106)
    *8.1 Definition of a Manifold
    263(10)
    *8.1.1 Topology on Space of Differentiable Functions
    265(1)
    *8.1.2 Tangent Space
    266(3)
    *8.1.3 Hyperbolic Invariant Sets
    269(4)
    *8.2 Transitivity Theorems
    273(2)
    *8.3 Two-Sided Shift Spaces
    275(2)
    8.3.1 Subshifts for Nonnegative Matrices
    275(2)
    *8.4 Geometric Horseshoe
    277(31)
    8.4.1 Horseshoe for the Henon Map
    283(4)
    *8.4.2 Horseshoe from a Homoclinic Point
    287(10)
    8.4.3 Nontransverse Homoclinic Point
    297(2)
    *8.4.4 Homoclinic Points and Horseshoes for Flows
    299(3)
    8.4.5 Melnikov Method for Homoclinic Points
    302(5)
    8.4.6 Fractal Basin Boundaries
    307(1)
    *8.5 Hyperbolic Toral Automorphisms
    308(18)
    8.5.1 Markov Partitions for Hyperbolic Toral Automorphisms
    313(7)
    8.5.2 Ergodicity of Hyperbolic Toral Automorphisms
    320(2)
    8.5.3 The Zeta Function for Hyperbolic Toral Automorphisms
    322(4)
    *8.6 Attractors
    326(2)
    *8.7 The Solenoid Attractor
    328(6)
    8.7.1 Conjugacy of the Solenoid to an Inverse Limit
    333(1)
    8.8 The DA Attractor
    334(4)
    8.8.1 The Branched Manifold
    338(1)
    *8.9 Plykin Attractors in the Plane
    338(3)
    8.10 Attractor for the Henon Map
    341(3)
    8.11 Lorenz Attractor
    344(9)
    8.11.1 Geometric Model for the Lorenz Equations
    347(6)
    8.11.2 Homoclinic Bifurcation to a Lorenz Attractor
    353(1)
    *8.12 Morse-Smale Systems
    353(8)
    8.13 Exercises
    361(8)
    Chapter IX. Measurement of Chaos in Higher Dimensions
    369(34)
    9.1 Topological Entropy
    369(18)
    9.1.1 Proof of Two Theorems on Topological Entropy
    379(7)
    9.1.2 Entropy of Higher Dimensional Examples
    386(1)
    9.2 Liapunov Exponents
    387(5)
    9.3 Sinai-Ruelle-Bowen Measure for an Attractor
    392(1)
    9.4 Fractal Dimension
    393(5)
    9.5 Exercises
    398(5)
    Chapter X. Global Theory of Hyperbolic Systems
    403(46)
    10.1 Fundamental Theorem of Dynamical Systems
    403(8)
    10.1.1 Fundamental Theorem for a Homeomorphism
    410(1)
    10.2 Stable Manifold Theorem for a Hyperbolic Invariant Set
    411(3)
    10.3 Shadowing and Expansiveness
    414(4)
    10.4 Anosov Closing Lemma
    418(1)
    10.5 Decomposition of Hyperbolic Recurrent Points
    419(6)
    10.6 Markov Partitions for a Hyperbolic Invariant Set
    425(10)
    10.7 Local Stability and Stability of Anosov Diffeomorphisms
    435(3)
    10.8 Stability of Anosov Flows
    438(3)
    10.9 Global Stability Theorems
    441(3)
    10.10 Exercises
    444(5)
    Chapter XI. Generic Properties
    449(20)
    11.1 Kupka-Smale Theorem
    449(4)
    11.2 Transversality
    453(2)
    11.3 Proof of the Kupka -- Smale Theorem
    455(6)
    11.4 Necessary Conditions for Structural Stability
    461(3)
    11.5 Nondensity of Structural Stability
    464(2)
    11.6 Exercises
    466(3)
    Chapter XII. Smoothness of Stable Manifolds and Applications
    469(18)
    12.1 Differentiable Invariant Sections for Fiber Contractions
    469(8)
    12.2 Differentiability of Invariant Splitting
    477(3)
    12.3 Differentiability of the Center Manifold
    480(1)
    12.4 Persistence of Normally Contracting Manifolds
    480(4)
    12.5 Exercises
    484(3)
    References 487(14)
    Index 501
    * Core Sections


    Clark Robinson