Dynamical Systems with Applications using Mathematica

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Stephen Lynch Dynamical Systems with Applications using Mathematica Birkhäuser Boston Basel Berlin

Contents Preface xi 0 A Tutorial Introduction to Mathematica 1 0.1 A Quick Tour of Mathematica 2 0.2 Tutorial One: The Basics (One Hour) 4 0.3 Tutorial Two: Plots and Differential Equations (One Hour)... 6 0.4 The Manipulate Command and Simple Mathematica Programs. 8 0.5 Hints for Programming 11 0.6 Mathematica Exercises 12 1 Differential Equations 17 1.1 Simple Differential Equations and Applications 18 1.2 Applications to Chemical Kinetics 25 1.3 Applications to Electric Circuits 29 1.4 Existence and Uniqueness Theorem 32 1.5 Mathematica Commands in Text Format 35 1.6 Exercises 36 2 Planar Systems 41 2.1 Canonical Forms 42 2.2 Eigenvectors Defining Stahle and Unstable Manifolds 46 2.3 Phase Portraits of Linear Systems in the Plane 49

VI Contents 2.4 Linearization and Hartman's Theorem 54 2.5 Constructing Phase Plane Diagrams 55 2.6 Mathematica Commands in Text Format 64 2.7 Exercises 65 3 Interacting Species 69 3.1 Competing Species 69 3.2 Predator-Prey Models 72 3.3 Other Characteristics Affecting Interacting Species 78 3.4 Mathematica Commands in Text Format 80 3.5 Exercises 81 4 Limit Cycles 85 4.1 Historical Background 86 4.2 Existence and Uniqueness of Limit Cycles in the Plane 89 4.3 Nonexistence of Limit Cycles in the Plane 95 4.4 Perturbation Methods 98 4.5 Mathematica Commands in Text Format 106 4.6 Exercises 107 5 Hamiltonian Systems, Lyapunov Functions, and Stability 111 5.1 Hamiltonian Systems in the Plane 112 5.2 Lyapunov Functions and Stability 117 5.3 Mathematica Commands in Text Format 122 5.4 Exercises 123 6 Bifurcation Theory 127 6.1 Bifurcations of Nonlinear Systems in the Plane 128 6.2 Normal Forms 134 6.3 Multistability and Bistability 137 6.4 Mathematica Commands in Text Format 140 6.5 Exercises 140 7 Three-Dimensional Autonomous Systems and Chaos 145 7.1 Linear Systems and Canonical Forms 146 7.2 Nonlinear Systems and Stability 150 7.3 The Rössler System and Chaos 154 7.4 The Lorenz Equations, Chua's Circuit, and the Belousov-Zhabotinski Reaction.. 158 7.5 Mathematica Commands in Text Format 165 7.6 Exercises 166 8 Poincare Maps and Nonautonomous Systems in the Plane 171 8.1 Poincare Maps 172

Contents vii 8.2 Hamiltonian Systems with Two Degrees of Freedom 178 8.3 Nonautonomous Systems in the Plane 181 8.4 Mathematica Commands in Text Format 189 8.5 Exercises 192 9 Local and Global Bifurcations 195 9.1 Small-Amplitude Limit Cycle Bifurcations 196 9.2 Gröbner Bases 201 9.3 Melnikov Integrals and Bifurcating Limit Cycles from a Center 207 9.4 Bifurcations Involving Homoclinic Loops 209 9.5 Mathematica Commands in Text Format 211 9.6 Exercises 213 10 The Second Part of Hilbert's Sixteenth Problem 217 10.1 Statement of Problem and Main Results 218 10.2 Poincare Compactification 220 10.3 Global Results for Lienard Systems 227 10.4 Local Results for Lienard Systems 235 10.5 Exercises 237 11 Linear Discrete Dynamical Systems 241 11.1 Recurrence Relations 242 11.2 The Leslie Model 247 11.3 Harvesting and Culling Policies 251 11.4 Mathematica Commands in Text Format 255 11.5 Exercises 256 12 Nonlinear Discrete Dynamical Systems 261 12.1 The Tent Map and Graphical Iterations 262 12.2 Fixed Points and Periodic Orbits 266 12.3 The Logistic Map, Bifurcation Diagram, and Feigenbaum Number 273 12.4 Gaussian and He"non Maps 281 12.5 Applications 285 12.6 Mathematica Commands in Text Format 288 12.7 Exercises 289 13 Complex Iterative Maps 293 13.1 Julia Sets and the Mandelbrot Set 294 13.2 Boundaries of Periodic Orbits 298 13.3 Mathematica Commands in Text Format 300 13.4 Exercises 302

viii Contents 14 Electromagnetic Waves and Optical Resonators 305 14.1 Maxwell's Equations and Electromagnetic Waves 306 14.2 Historical Background 308 14.3 The Nonlinear SFR Resonator 312 14.4 Chaotic Attractors and Bistability 314 14.5 Linear Stability Analysis 318 14.6 Instabilities and Bistability 321 14.7 Mathematica Commands in Text Format 325 14.8 Exercises 327 15 Fractals and Multifractals 331 15.1 Construction of Simple Examples 332 15.2 Calculating Fractal Dimensions 338 15.3 A Multifractal Formalism 343 15.4 Multifractals in the Real World and Some Simple Examples... 348 15.5 Mathematica Commands in Text Format 356 15.6 Exercises 357 16 Chaos Control and Synchronization 363 16.1 Historical Background 364 16.2 Controlling Chaos in the Logistic Map 368 16.3 Controlling Chaos in the Henon Map 372 16.4 Chaos Synchronization 376 16.5 Mathematica Commands in Text Format 379 16.6 Exercises 381 17 Neural Networks 387 17.1 Introduction 388 17.2 The Delta Learning Rule and Backpropagation 394 17.3 The Hopneld Network and Lyapunov Stability 398 17.4 Neurodynamics 408 17.5 Mathematica Commands in Text Format 411 17.6 Exercises 415 18 Examination-Type Questions 421 18.1 Dynamical Systems with Applications 421 18.2 Dynamical Systems with Mathematica 424 19 Solutions to Exercises 429 19.0 ChapterO 429 19.1 Chapterl 431 19.2 Chapter2 431 19.3 Chapter3 433 19.4 Chapter4 435

Contents ix 19.5 Chapter5 436 19.6 Chapter6 437 19.7 Chapter7 438 19.8 Chapter8 439 19.9 Chapter9 440 19.10 Chapter 10 440 19.11 Chapter 11 442 19.12 Chapter 12 444 19.13 Chapter 13 445 19.14 Chapter 14 446 19.15 Chapter 15 446 19.16 Chapter 16 447 19.17 Chapter 17 447 19.18 Chapter 18 448 References 451 Textbooks 451 Research Papers 459 Mathematica Program Index 469 Index 473