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      Multiple time scale dynamics

      한글로보기

      https://www.riss.kr/link?id=M13866419

      • 저자
      • 발행사항

        Cham, Switzerland : Springer, [2015]

      • 발행연도

        2015

      • 작성언어

        영어

      • 주제어
      • DDC

        515.39 판사항(23)

      • ISSN

        2196-968X (electronic)

      • ISBN

        9783319123158
        3319123157
        9783319123165 (eBook)
        3319123165 (eBook)

      • 자료형태

        단행본(다권본)

      • 발행국(도시)

        스위스

      • 서명/저자사항

        Multiple time scale dynamics / Christian Kuehn

      • 형태사항

        xiii, 814 pages : illustrations (some color) ; 25 cm

      • 총서사항

        Applied mathematical sciences, 0066-5452 ; volume 191 Applied mathematical sciences, 0066-5452 ; volume 191

      • 일반주기명

        Includes bibliographical references (pages 705-798) and index

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      목차 (Table of Contents)

      • CONTENTS
      • Preface = v
      • 1 Introduction = 1
      • 1.1 User's Guide = 1
      • 1.2 Fast-Slow Systems = 8
      • CONTENTS
      • Preface = v
      • 1 Introduction = 1
      • 1.1 User's Guide = 1
      • 1.2 Fast-Slow Systems = 8
      • 1.3 The van der Pol Equation = 9
      • 1.4 The FitzHugh-Nagumo Equation = 10
      • 1.5 Terminology : Fast-Slow Systems = 11
      • 1.6 Terminology : Asymptotic Analysis = 14
      • 1.7 References = 16
      • 2 General Fenichel Theory = 19
      • 2.1 Invariant Manifolds = 20
      • 2.2 Perturbations of Invariant Manifolds = 28
      • 2.3 Normal Hyperbolicity = 40
      • 2.4 Specialization to Fast-Slow Systems = 47
      • 2.5 References = 50
      • 3 Geometric Singular Perturbation Theory = 53
      • 3.1 Fenichel's Theorem = 53
      • 3.2 he Slow Flow = 58
      • 3.3 Singularities = 61
      • 3.4 Examples = 65
      • 3.5 References = 70
      • 4 Normal Forms = 71
      • 4.1 The Normally Hyperbolic Case = 71
      • 4.2 Fold Points = 77
      • 4.3 Fold Curves = 80
      • 4.4 Systems of First Approximation = 82
      • 4.5 A Note on Linear Systems = 85
      • 4.6 References = 88
      • 5 Direct Asymptotic Methods = 91
      • 5.1 Elementary Results = 91
      • 5.2 Basics of Relaxation Oscillations = 95
      • 5.3 Normally Hyperbolic Planar Systems = 98
      • 5.4 Generic Folds in Planar Systems = 103
      • 5.5 The Period of Relaxation Oscillations = 108
      • 5.6 References = 111
      • 6 Tracking Invariant Manifolds = 113
      • 6.1 Simple Jumps and Transversality = 114
      • 6.2 The FitzHugh-Nagumo Equation = 120
      • 6.3 The C⁰Exchange Lemma = 124
      • 6.4 The C¹Exchange Lemma = 129
      • 6.5 Fast Waves in the FitzHugh-Nagumo Equation = 141
      • 6.6 Strong Exchange Lemmas = 145
      • 6.7 BVPs and Periodic Orbits = 149
      • 6.8 References = 155
      • 7 The Blowup Method = 159
      • 7.1 Basics = 160
      • 7.2 Local Computation = 167
      • 7.3 The Quasihomogeneous Case = 171
      • 7.4 Blowup Analysis of the Generic Fold = 178
      • 7.5 Relaxation Oscillations inℝ² = 187
      • 7.6 Relaxation Oscillations inℝ³ = 190
      • 7.7 Remarks on Rescaling = 194
      • 7.8 References = 196
      • 8 Singularities and Canards = 197
      • 8.1 Folded Singularities in Planar Systems = 198
      • 8.2 Singular Hopf Bifurcation inℝ² = 205
      • 8.3 The First Lyapunov Coefficient = 208
      • 8.4 Canard Explosion = 210
      • 8.5 Canards inℝ³ = 213
      • 8.6 Secondary Canards at Folded Nodes = 223
      • 8.7 Singularities beyond Folds = 228
      • 8.8 Curvature = 233
      • 8.9 References = 235
      • 9 Advanced Asymptotic Methods = 239
      • 9.1 Matched Asymptotic Expansions = 240
      • 9.2 further Concepts and Terminology = 251
      • 9.3 The Boundary Function Method = 255
      • 9.4 WKB Theory = 259
      • 9.5 Asymptotics and Blowup = 262
      • 9.6 Averaging = 265
      • 9.7 Gevrey Asymptotics = 268
      • 9.8 Poincaré-Lindstedt and Two-Timing = 274
      • 9.9 The Renormalization GroupⅠ = 279
      • 9.10 The Renormalization GroupⅡ = 285
      • 9.11 References = 290
      • 10 Numerical Methods = 295
      • 10.1 Stiff Equations = 295
      • 10.2 A-Stability = 299
      • 10.3 Boundary Value Problems(BVPs) = 303
      • 10.4 Two Standard BVP Methods = 306
      • 10.5 Conditioning = 308
      • 10.6 Continuation = 312
      • 10.7 Heterogeneous Multiscale Methods = 315
      • 10.8 Error Analysis for HMM = 319
      • 10.9 References = 322
      • 11 Computing Manifolds = 327
      • 11.1 Basic Techniques = 327
      • 11.2 The CSP Method = 331
      • 11.3 The ZDP Method = 342
      • 11.4 Other Reduction Methods = 344
      • 11.5 Saddle-Type Slow Manifolds = 348
      • 11.6 Manifolds and Singularities = 353
      • 11.7 References = 356
      • 12 Scaling and Delay = 359
      • 12.1 The Fold Revisited = 359
      • 12.2 Delayed Hopf Bifurcation = 361
      • 12.3 Delayed Bifurcation and WKB = 370
      • 12.4 The Newton Polygon = 373
      • 12.5 Power Transformations = 376
      • 12.6 Parameterizing Critical Manifolds = 379
      • 12.7 Slowly Time-Dependent Systems = 384
      • 12.8 Other Newton Polygon Applications = 392
      • 12.9 References = 395
      • 13 Oscillations = 397
      • 13.1 Overview = 398
      • 13.2 Folded Nodes = 400
      • 13.3 Singular Hopf and Hyperbolic Equilibria = 403
      • 13.4 Tourbillon = 407
      • 13.5 The Koper Model = 408
      • 13.6 Square-Wave/Fold-Homoclinic Bursting = 413
      • 13.7 Elliptic/subHopf-Foldcycle Bursting = 416
      • 13.8 Three Time-Scale Systems = 417
      • 13.9 References = 425
      • 14 Chaos in Fast-Slow Systems = 431
      • 14.1 A Basic Idea = 432
      • 14.2 Chaotic Dynamics = 434
      • 14.3 Smale Horseshoes = 436
      • 14.4 Chaos in van der Pol's EquationⅠ = 442
      • 14.5 Chaos in van der Pol's EquationⅡ = 448
      • 14.6 Hénon-Type Maps = 455
      • 14.7 Chaotic Forced Oscillations = 460
      • 14.8 Constructing Chaotic Attractors = 468
      • 14.9 Stochastic Replacement = 471
      • 14.10 References = 473
      • 15 Stochastic Systems = 477
      • 15.1 Motivation and Viewpoints = 478
      • 15.2 Fenichel Theory for SDEs = 482
      • 15.3 Noisy Fold with Slow Drift = 488
      • 15.4 Direct Asymptotics = 493
      • 15.5 Stochastic Reduction = 497
      • 15.6 Random Dynamical Systems = 505
      • 15.7 Markov Chains = 510
      • 15.8 Large Deviations = 512
      • 15.9 Dynkin's Equation and WKB = 517
      • 15.10 References = 520
      • 16 Topological Methods = 525
      • 16.1 Decomposition of Invariant Sets = 525
      • 16.2 Conley Index = 530
      • 16.3 Connecting Orbits = 535
      • 16.4 Singular Index Pairs = 540
      • 16.5 Further Techniques = 546
      • 16.6 References = 550
      • 17 Spatial Dynamics = 553
      • 17.1 Stability of Traveling WavesⅠ = 553
      • 17.2 Stability of Traveling WavesⅡ = 558
      • 17.3 Conservation Laws = 562
      • 17.4 Lattice Dynamical Systems = 573
      • 17.5 Adaptive Neural Fields = 578
      • 17.6 References = 580
      • 18 Infinite Dimensions = 583
      • 18.1 Semigroups = 584
      • 18.2 Invariant Manifolds = 587
      • 18.3 Homogenization = 595
      • 18.4 Delay Equations with Small Delay = 600
      • 18.5 Differential Inclusions = 605
      • 18.6 Amplitude Equations = 611
      • 18.7 References = 615
      • 19 Other Topics = 619
      • 19.1 Differential-Algebraic EquationsⅠ = 620
      • 19.2 Differential-Algebraic EquationsⅡ = 624
      • 19.3 Nonsmooth Dynamical Systems = 627
      • 19.4 Hysteresis = 633
      • 19.5 Nonstandard Analysis : Introduction = 637
      • 19.6 Nonstandard Analysis : An Application = 642
      • 19.7 Averaging and Adiabatic Invariants = 646
      • 19.8 Singular Bifurcation Diagrams = 649
      • 19.9 Critical Transitions = 654
      • 19.10 References = 661
      • 20 Applications = 665
      • 20.1 Engineering = 665
      • 20.2 Neuroscience = 668
      • 20.3 Chemical Oscillations = 673
      • 20.4 Lasers = 676
      • 20.5 Ecology = 679
      • 20.6 Pattern Formation = 681
      • 20.7 Celestial Mechanics = 685
      • 20.8 Systems Biology = 688
      • 20.9 Fluid Dynamics = 691
      • 20.10 Quantum Mechanics = 394
      • 20.11 Networks = 396
      • 20.12 References = 700
      • Bibliography = 705
      • Index = 799
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