Differential Equations
Instructor- Chuck Iverson
- Office Hours: MESA/Learning Center
- Office: 18-108
- Office Phone: (650) 306-3253
- Email: iverson@smccd.edu
- Web Page: http://www.civerson.com
- Building 16, Room 108
- 12:45-2:00 pm MW
- Math 252 with a grade of C or better
- Differential Equations (2nd Edition) by Polking (ISBN 9780131437388)
- Homework (25%)
- Exams and Quizzes (70%)
- Class Participation (5%)
- Correctly classify differential equations by degree (first-order, second-order, ...) and type (linear/nonlinear, ordinary/partial, homogeneous/driven).
- Correctly develop a differential equation to model a particular system.
- Correctly determine whether a given function is a solution to a differential equation.
- Correctly use standard methods (integrating factors, undetermined coefficients, variation of parameters, Laplace Transforms, power series, numerical methods) to find a solution to an initial-value-problem.
- That means you are expected to attend class and to arrive on time (2 lates equals 1 absence, more than 4 absences leads to a drop).
- If you're going to miss class, you should notify me ahead of time, either by phone or email.
- You are expected to contribute to class discussions and to ask questions when something is not clear.
- You are expected to do your homework assignments before the class when they are due and to seek help from me or your classmates or a tutor if you are having difficulty completing them.
- You should check the class notes and assignments link (top right of this page) if you miss class. All class assignments, exam solutions, sample code and special notes will be posted at this web site after class.
- You are expected to see me during office hours for additional help or to take make-up exams.

Tentative Topic Schedule
| Tuesday | Thursday |
|---|---|
| 8/18 - 1.1 DE Models 1.2 Derivatives 1.3 Integration |
|
| 8/23 - 2.1 DE Solutions 2.2 Separable Equations |
8/25 - 2.3 Models of Motion |
| 8/30 - 2.4 Linear Equations | 9/01 - 2.5 Mixing Problems |
| 9/06 - 2.6 Exact DEs | 9/08 - 2.7 Solution Existence and Uniqueness 2.8 Initial Conditions |
| 9/13 - 2.9 Autonomous Equations and Stability | 9/15 - 3.1 Modeling Population Growth 3.2 Models and the Real World |
| 9/20 - 3.3 Personal Finance 3.4 Electrical Circuits |
9/21 - Review of Chapters 1-3 |
| 9/27 - Exam on Chapters 1-3 | 9/29 - 4.1 Definitions and Examples 4.2 Second-Order Equations and Systems |
| 10/04 - 4.3 Linear, Homogeneous Equations with Constant Coefficients 4.4 Harmonic Motion |
10/06 - 4.5 Undetermined Coefficients |
| 10/11 - 4.6 Variation of Parameters | 10/13 - 4.7 Forced Harmonic Motion |
| 10/18 - 5.1 Laplace Transform Definition 5.2 Properties of Laplace Transforms |
10/20 - 5.3 Inverse Laplace Transforms 5.4 Solving DEs with Laplace Transforms |
| 10/25 - 5.5 Discontinuous Forcing Terms | 10/27 - 5.6 Delta Functions |
| 11/01 - 5.7 Convolution 5.8 Summary |
11/03 - Review of Chapters 4-5 |
| 11/08 - Exam on Chapters 4-5 | 11/10 - 11.1 Power Series |
| 11/15 - 11.2 Power Series | 11/17 - 8.1 Definitions and Examples 8.2 Geometric Interpretation of Solutions |
| 11/22 - 8.3 Qualitative Analysis 8.4 Linear Systems |
11/24 - Thanksgiving Holiday |
| 11/29 - 8.5 Properties of Linear Systems 9.1 Overview of the Technique |
12/01 - 9.2 Planar Systems 9.3 Phase-Plane Portraits |
| 12/06 - 9.4 The Trace-Determinant Plane | 12/08 - Review of Chapters 8, 9 and 11 |
| 12/13 - No Class | 12/15 - 11:10-1:40 Final Exam |