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Maps with power-law memory: direct introduction and Eulerian numbers, fractional maps, and fractional difference maps

  • Mark Edelman
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Abstract

In fractional dynamics, as in regular dynamics, discrete maps can be used to investigate general properties of dynamical systems. Maps with power-law memory related to fractional dynamics can be introduced directly as convolutions. The same maps are solutions of fractional differential equations with periodic delta-function kicks. Solutions of fractional difference equations also can be represented in the form of maps with asymptotically power-law memory. Fractional generalizations of the logistic map (quadratic nonlinearity) and the standard map (harmonic nonlinearity) are introduced in this chapter to investigate the general properties of nonlinear fractional dynamics.

Abstract

In fractional dynamics, as in regular dynamics, discrete maps can be used to investigate general properties of dynamical systems. Maps with power-law memory related to fractional dynamics can be introduced directly as convolutions. The same maps are solutions of fractional differential equations with periodic delta-function kicks. Solutions of fractional difference equations also can be represented in the form of maps with asymptotically power-law memory. Fractional generalizations of the logistic map (quadratic nonlinearity) and the standard map (harmonic nonlinearity) are introduced in this chapter to investigate the general properties of nonlinear fractional dynamics.

Chapters in this book

  1. Frontmatter I
  2. Preface V
  3. Contents VII
  4. General theory of Caputo-type fractional differential equations 1
  5. Problems of Sturm–Liouville type for differential equations with fractional derivatives 21
  6. Maps with power-law memory: direct introduction and Eulerian numbers, fractional maps, and fractional difference maps 47
  7. Symmetries and group invariant solutions of fractional ordinary differential equations 65
  8. Operational method for fractional ordinary differential equations 91
  9. Lyapunov-type inequalities for fractional boundary value problems 119
  10. Fractional-parabolic equations and systems. Cauchy problem 145
  11. Time fractional diffusion equations: solution concepts, regularity, and long-time behavior 159
  12. Layer potentials for the time-fractional diffusion equation 181
  13. Fractional-hyperbolic equations and systems. Cauchy problem 197
  14. Equations with general fractional time derivatives–Cauchy problem 223
  15. User’s guide to the fractional Laplacian and the method of semigroups 235
  16. Parametrix methods for equations with fractional Laplacians 267
  17. Maximum principle for the time-fractional PDEs 299
  18. Wave equation involving fractional derivatives of real and complex fractional order 327
  19. Symmetries, conservation laws and group invariant solutions of fractional PDEs 353
  20. Fractional Duhamel principle 383
  21. Inverse problems of determining sources of the fractional partial differential equations 411
  22. Inverse problems of determining parameters of the fractional partial differential equations 431
  23. Inverse problems of determining coefficients of the fractional partial differential equations 443
  24. Abstract linear fractional evolution equations 465
  25. Abstract nonlinear fractional evolution equations 499
  26. Index 515
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