MTH 244/2
 Differential Equations
Spring 2010/URI

TextOrdinary Differential Equations by Finizio and Ladas, Simon and Schuster, Third Edition

Exams and Grading: Your grade will be based on two tests, a final exam, quizzes and Maple projects as follows: 

 

Two tests at 150 points each

300 points 

Final exam

200 points

Quizzes

100 points

Two Maple Assignments

100 points

Total

700 points

 

Calculators and Computers: As in Calculus Courses you will need a programmable graphing calculator. You are encouraged to use the CAS (computer algebra system) such as Maple, Livemath, and Scientific Notebook and online programs that can be found on Internet. We will give a brief introduction to such resources. All Maple notebooks needed will be provided and demonstrated in the class.

Course Description: In MTH 244 we study ordinary differential equations in greater details than in the calculus courses. This subject has wide applications in the physical sciences, engineering, bio-medical sciences, and economics.  Ordinary Differential Equations lead to many advanced areas of mathematics itself. You will find that there are new algebraic ideas to master.  

The homework problems are the core of this course. An important purpose of the problems is to make you think through and master the ideas of the subject so that you can confidently apply your knowledge in new situations. You will learn a great deal from honest hard work on a problem, even if you don't succeed in solving it. Read the text material before working on the problems.
The exams will reflect the variety of the homework problems, quizzes and problems solved in the class. It is important that you give these problems adequate time and effort.

The topics that will be covered are:

Exact solutions of first order differential equations (homogeneous, linear, Bernoulli, differential equations with total differential)

Existence and uniqueness theorems for differential equations

Linear differential equations – general theory

Systems of linear differential equations

Laplace transform and applications in solving linear differential equations

Solving linear differential equations with method of series

Numerical solutions of  ordinary differential equations

 

Online information: www.math.uri.edu/courses and  www.math.uri.edu/~kulenm

Instructor: Dr. M. Kulenovic, Lippitt 200A,  Ph. 44436,                            e-mail: mkulenovic@mail.uri.edu

Office hours: MWF:  11 - 12     Time: MWF: 12-12: 50          Room: Bliss 205                                             

Syllabus

Sections

 Homework Problems

Exams/Events

1.1

5,9,11,14,18,25

1.2

3,7,10 

1.3

1,11,19, 24,33

1.4

5,7,17,31,35,41,44,45

1.5

1,5,11,15,23,25,29,32,41

1.6

1,7,12,19,23,29 

1.7

3,7,12

1.8

1,5

2.2

3,7,8,30,33,41

2.3

1,7,11

2.4

5,7,11,19,35

2.5

5,20,23,35,47

2.7

7,11,19,31,37

2.8

5,7,14,29

 

2.9

5,10,14

2.10

7,11,19,23

2.11

1,7,14,23,29,41

2.12

5,7,11,23

3.1

5,7,11,29

3.2

5,7,11,19

3.3

5,7,19,23,29,35

4.2

4,7,14,28,31,49

4.3

5,7,28,31 

5.2

7,11,16

 

5.3

7,10,14

5.4

4,7,19,20

5.5

7,11,23,29

7.2

4,5,8

7.3

2,5,8

 

 

 

 

 

 

Lectures on Differential Equations:

Bernd Schroeder lectures

Mohamed Khamsi’s Lecures on Differential Equations

Paul’s Online Notes

 

Online Handbooks on Differential Equations:

Equation World

Wolfram Math World

 


Sample Maple notebooks:

HTML format:

 Solving First and Second Order ODE

Maple  format:

Solving First and Second Order ODE

Series Solutions of ODE

Numerical Methods for ODE

Links for Differential Equations:

Interesting Java applets for Differential Equations 

Interactive Differential Equations set of applets for Differential Equations


Elementary Differential Equations
 by Douglas Meade - nice collection of Maple programs

Complete Maple animation of  free and forced harmonic oscillations 

Complete Maple animation of two pendulums coupled by spring

Complete Maple animation of bouncing ball

Complete Maple Animation of Gyroscopic Motion

Dynamics Lab a Maple package for simulation of dynamical systems