Quick Links:
Instructor:
Ralf Wittenberg
K-10536, 291-4792
ralf@sfu.ca |
Lectures:
M 2:30-3:20pm
W 2:30-4:20pm
in AQ 4130 |
Text:
Steven Strogatz,
Nonlinear Dynamics and Chaos
Westview Press |
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This Week:
- Poster Session!
Date: Thursday, December 4
Location: ASB 9896
(Applied Sciences Building, near Renaissance Coffee, next to construction...)
Time: Begin setting up at 3:00pm, poster session 3:30-6:00pm
Previous Weeks:
- Week 0: Introduction
- Week 1: 1-d Flows
- Week 2: Bifurcations of Fixed Points
- Week 3: Bifurcations with Symmetry
- Week 4: Imperfect Bifurcations, Flows on the Circle
- Week 5: Nonuniform Oscillators, Logistic Map
- Week 6: Fixed Points, Oscillations and Chaos in Maps
- Week 7: Midterm Exam, Linear Systems
- Week 8: Linear and Nonlinear Systems in the Plane
- Week 9: Linear Stability Analysis and Beyond
- Week 10: Index Theory, Limit Cycles
- Week 11: Bifurcations in the Plane, Midterm Exam
- Week 12: Bifurcations of Limit Cycles
- Week 13: Lorenz Equations and Chaos
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Instructor: |
Ralf Wittenberg
Office: K-10536; Tel: 291-4792
E-Mail: ralf@sfu.ca |
Lecture: |
Monday 2:30-3:20pm
Wednesday 2:30-4:20pm
Location: AQ 4130 |
Web Page: |
http://www.math.sfu.ca/~ralfw/math467 |
Text: |
Steven H. Strogatz,
"Nonlinear Dynamics and Chaos: With Applications to Physics, Biology, Chemistry and Engineering"
Westview Press. |
Nonlinear Dynamics and Bifurcation
This course is an introduction to the study of dynamical systems. Nonlinear differential equations and iterative maps arise in the mathematical description of numerous systems throughout science and engineering, for instance in physics, chemistry, biology, economics, and elsewhere. Such systems may display complicated and rich dynamical behaviour, and we will develop some linear and nonlinear mathematical tools for their analysis, and consider models in such fields as population biology, ecology, and mechanical and electrical oscillations. Our emphasis throughout will be on the qualitative behaviour of the models, in particular, on the prediction of qualitative change in the nature of the dynamics as a system parameter varies (bifurcation).
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