A group of scholars, who believed that most physics textbooks on “chaos” lack depth, joined forces to create a textbook which shows the “subject in its beauty and intellectual depth (that) ranks alongside statistical mechanics and quantum field theory, with which it shares many fundamental techniques.” Their text is 995 pages which, based on their rationale for creating a webbook, can only be expected to grow.

Predrag Cvitanovic’, Roberto Artuso, Ronnie Mainieri, Gregor Tanner, Gábor Vattay, Niall Whelan and Andreas Wirzba, Niels Bohr Institute, Copenhagen 2009 (with continual updates and revisions). A number of colleges and universities are using this free textbook in their classes.

One of the contributing authors, Predrag Cvitanovic, is a professor at the Georgia Institute of Technology. He offers an open online 2-part course course entitled *Nonlinear Dynamics I & II: Geometry of Chaos*. Students will use part one of the *Chaos: Classical and Quantum* textbook for part I of this course. The course is generally offered to PhD students, postdoctoral fellows and advanced undergraduates studying physics, mathematics, chemistry and engineering. Prerequisites include linear algebra, calculus, ordinary differential equations involving vectors and matrices, differentiate simple functions and an understanding of probability distribution. Prior exposure to Matlab, Octave or another programming language is helpful.

## Table of Contents for *Chaos: Classical and Quantum* Textbook

- I. Geometry of Chaos
- 1. Overture
- 2. Go with the flow
- 3. Discrete time dynamics
- 4. Local stability
- 5. Cycle stability
- 6. Lyapunov exponents
- 7. Hamiltonian dynamics
- 8. Billiards
- 9. World in a mirror
- 10. Relativity for cyclists
- 11. Charting the state space
- 12. Stretch, fold, prune
- 13. Fixed points, and how to get them
- II. Chaos Rules
- 14. Walkabout: Transition graphs
- 15. Counting
- 16. Transporting densities
- 17. Averaging
- 18. Trace formulas
- 19. Spectral determinants
- 20. Cycle expansions
- 21. Discrete factorization
- III. Chaos: what to do about it?
- 22. Why cycle?
- 23. Why does it work?
- 24. Intermittency
- 25. Deterministic diffusion
- 26. Turbulence?
- 27. Irrationally winding
- IV. The rest is noise
- 28. Noise
- 29. Relaxation for cyclists
- V. Quantum chaos
- 30. Prologue
- 31. Quantum mechanics, the short short version
- 32. WKB quantization
- 33. Semiclassical evolution
- 34. Semiclassical quantization
- 35. Quantum scattering
- 36. Chaotic multiscattering
- 37. Helium atom
- 38. Diffraction distraction
- Epilogue
- Index
- VI. Web Appendices
- A. A brief history of chaos
- B. Go straight
- C. Linear stability
- D. Finding cycles
- E. Symbolic dynamics techniques
- F. Counting itineraries
- G. Implementing evolution
- H. Transport of vector fields
- I. Discrete symmetries of dynamics
- J. Convergence of spectral determinants
- K. Infinite dimensional operators
- L. Thermodynamic formalism
- M. Statistical mechanics recycled
- N. Noise/quantum corrections
- S. Projects
- S.1. Deterministic diffusion, zig-zag map
- S.2. Deterministic diffusion, sawtooth map

View this Free Online Material at the source:

Chaos: Classical and Quantum