Chaos and Complexity
Physics 206
Fall 2007
(last updated 14 August 2007)
|
Instructor: |
Dr. B. Clark, mailto:bkc@phy.ilstu.edu 312 D Moulton Hall, 8-5502 |
|
Office Hours: |
|
|
Class Meetings: |
Lecture: M, W, and F, Moulton Hall 215 |
Text: Required: “A Graphical Introduction to Nonlinear Dynamics” available in PDF form created and copyrighted by Brian Clark, Illinois State University.
Course Objective: The principal objectives of this course are to
recognize nonlinear phenomena that affect our daily lives and the complexity
that can develop from the applications of simple rules. We will become familiar with techniques used
to evaluate nonlinear processes and the fractal character of nature. We will also see that some of the techniques
applied here can help us understand problems in other disciplines, including
economics and the behavior of the stock market, for example.
Grading: There are four quizzes. Each quiz is scaled to the same value. Normally, each quiz consists of a set of multiple choice, short answer, and essay questions. The lowest quiz score is automatically dropped. However, you must take the final quiz and obtain a score of at least 60% of your previous quiz average to drop it. If you do not achieve the minimum score, the second lowest quiz score is dropped and the final quiz score is included in your final grade determination. Quizzes account for approximately 75% of the course grade.
Homework consists of four multiple-choice assignments and five to ten hands-on activities. The three highest scores of the multiple-choice assignments and eight highest scores of the laboratory exercises count toward the course grade. Homework and laboratory exercises account for approximately 25% of the course grade. There are no make-up assignments.
|
Quizzes |
3 x 150 pts |
450 pts |
|
Laboratory Exercises |
8 x 10 pts |
80 pts |
|
Homework |
3 x 25 pts |
75 pts |
|
Total Points |
|
605 pts |
The final grade for the course is determined according to
|
Final Grade |
Points Required (Percent of Possible Points) |
|
A |
515 (85 %) |
|
B |
424 (70 %) |
|
C |
363 (60 %) |
|
D |
303 (50 %) |
If you miss a quiz due to participation in other school activities you must notify me ahead of time. You must allow enough time so that your quiz can be rescheduled in advance of the general quiz. Make-up quizzes are more difficult than the general quizzes. If you fail to follow this policy or miss a quiz for any other reason, then your right to take a make-up quiz is determined on a case by case basis. Be sure to talk to me if you miss a quiz. Typically, you must contact me within one week. Homework and laboratory exercises are not accepted after the class period ends on the due date.
General policies: A working knowledge of algebra is expected. You are responsible for any material covered in the class whether you are present or not present. Expect to spend about six hours a week on this course in addition to the time spent in class. Only your own work will contribute toward your grade. To be a successful student, you need to place a high priority on school. This means being at class on time and doing the assigned homework. Sometimes it means seeing the teacher during office hours to clarify misconceptions. Please arrive before the class starts. If students arrive late, then they distract the entire class. The use of cell phones, mp3-players, or other electronic devices are prohibited during class time. Using an unapproved electronic device during a quiz is classified and treated as cheating. Talk to the course instructor for exceptions.
Tentative Schedule:
|
Date |
Topics / |
Homework / Exercises / Quizzes |
|
1. 8/20 – 24 |
Laws of Motion and Fundamental Forces |
|
|
2. 8/27 – 31 |
Modern Physics and Conservation Laws |
|
|
3. 9/4 – 7 |
Conservations Laws and Logarithms |
Lab Exercise : Logarithmic Graphs |
|
4. 9/10 – 14 |
Introductions to Nonlinear Phenomena and Phase Space |
Homework 1 (F) |
|
5. 9/17 – 21 |
The Logistic Equation and the Bouncing Ball |
Quiz 1 (W) Lab Exercise : Iterations |
|
6. 9/24 – 28 |
Feigenbaum Constant and Initial Conditions |
Lab Exercise : Return Maps |
|
7. 10/1 – 5 |
Accessible Space, Cantor Sets, and von Koch Curves |
Lab Exercise : Similarity Dimension |
|
8. 10/8 – 12 |
Sierpinski Carpets and Box Counting Dimension |
Homework 2 (F) |
|
9. 10/15 – 19 |
Box Counting Dimension |
Quiz 2 (W) |
|
10. 10/22 – 26 |
Correlation Dimension for Dynamical Systems |
Lab Exercise : Box Counting Dimension |
|
11. 10/29 – 11/2 |
One-dimensional Cellular Automata |
|
|
12. 11/5 – 9 |
Classification of Automata, Signal Propagation, and Causality |
Lab Exercise: Cellular Automata Homework 3 (F) |
|
13. 11/12 – 16 |
Two-dimensional Automata with applications |
Quiz 3 (W) |
|
14. 11/26 – 11/30 |
Emergent Behavior and Small World Networks |
Lab Exercise: Flocking |
|
15. 12/3 – 12/7 |
Control and Synchronization |
Homework 4 (F) |
|
16. 12/12 |
|
Quiz 4 (M) 9:00 a.m. |
This is a tentative course schedule. You are responsible for any changes that are made to the schedule. The reading material should be completed before we begin to talk about it in class. It is the best way for you to spot significant terms and concepts in the lecture. So far there are only five specified laboratory exercises. Additional exercises will be added through the semester. The laboratory exercises contribute a maximum of 80 points to your grade, regardless of the total number of laboratory exercises.