Physics  715        Nonlinear Dynamics and Chaos        Spring 2002

Course homepage: http://www.ipr.umd.edu/~wlosert/phys715/
 
Professor:    Wolfgang Losert Email:          wlosert@glue.umd.edu
Office:             A.V. Williams  Rm 3359 Office phone:  405-0629
Lab:                Energy Research Bldg Rm 0101 Lab phone:      405-6759

Lecture    M, W 3:00-4:15 pm  in Phys 1219.
Office hours: after class, or email/drop by

Suggested Textbooks:

        Ott, Chaos in Dynamical Systems
        Strogatz, Nonlinear Dynamics and Chaos
Course Description
Nonlinear terms enter into equations for many systems, e.g. the weather, lasers, fluids, or biological systems.  The dynamics of such systems can be very complex, often with a very sensitive dependence on the chosen initial conditions (an indication of chaos).  Still many - often surprisingly general - principles can be used to describe nonlinear dynamics and chaos.  This course will cover the theoretical foundations, numerical techniques, and some current applications of chaos and nonlinear dynamics.  Covered topics include strange attractors, Lyapunov exponents, quasiperiodicity, period doubling, intermittency, crises, fractal basin boundaries, chaotic scattering, KAM tori, and quantum chaos.  Applications include pattern formation, chaos control, and synchronization.
Homework
Homework is due each Monday at 6pm, in my mailbox in AV Williams Room 3322
Paper
A paper about a current topic in nonlinear Dynamics and Chaos must be submitted at the end of the semester.  The topic can be chosen from any field where nonlinear dynamics plays an important role.  Please discuss your paper topic with me.  You may choose to address the topic as a theoretical problem, or through simulations.  Additional credit is given for web-posting of papers.  The paper will include a brief in class presentation and discussion of the topic.
Exams
There will be two take-home exams: One midterm and one final comprehensive exam.
Grading
Midterm:    15%
Final exam:    20%
Homework and class participation:     30%
Paper:     35%
Homework turned in late will receive less credit. You will receive 2/3 credit if the work is turned in within one week of the due date, and 1/3 credit if it is turned in before the end of classes.
Tentative Schedule
 
Week Class Reading Notes
Jan 28 Introduction, Linear and nonlinear ODE's Chapter 1 Ott
Chapter 1 Strogatz
 
Feb 4  1D flows  parts of Chapter 2-4 Strogatz  
Feb 11 2D flows  parts of Chapter 5,6 Strogatz  
Feb 18 Bifurcations and Limit Cycles parts of  Chapter 7,8 Strogatz  
Feb 25 Chaos and Maps parts of Chapter 9,10 Strogatz
Chapter 2 Ott
 
Mar 4 Fractals and Strange attractors parts of Chapter 11,12 Strogatz
Chapter 3 Ott
 
Mar 11 Tools and Measures Chapter 4 Ott  
Mar 18 Midterm (DUE Apr 1)    
Mar 25 Spring Break    
Apr 1 Time series analysis / Chaos control  Chapter 4 Ott / Abarbanel book paper topic due (April 3)
Apr 8 Nonattracting Chaotic Sets  Chapter 5 Ott  paper outline due (DUE Apr 10)
Apr 15 Hamiltonian Chaos  Chapter 7 Ott  
Apr 22 Chaotic transitions  Chapter 8 Ott  
Apr 29 Multifractals / Synchronization  Ch 9 Ott  
May 6 Higher dimensional systems / Patterns     
May 13 Pattern Formation   Last class May 13
May ?? Final exam   paper due