Module Identifier | MA34110 | ||

Module Title | PARTIAL DIFFERENTIAL EQUATIONS | ||

Academic Year | 2000/2001 | ||

Co-ordinator | Professor A R Davies | ||

Semester | Semester 1 | ||

Pre-Requisite | MA20410 , MA20110 | ||

Mutually Exclusive | MA24110 | ||

Course delivery | Lecture | 19 x 1hour lectures | |

Seminars / Tutorials | 3 x 1hour example classes | ||

Assessment | Exam | 2 hour written examination | 100% |

Resit assessment | 2 hour written examination | 100% |

**General description**

Many mathematical problems arising in the physical sciences, engineering, and technology, may be formulated in terms of partial differential equations. In attempting to solve such problems, one must be aware of the various types of partial differential equation which exist, and of the different boundary conditions associated with each type. These factors determine which method of solution one should use.

**Aims**

To teach the student how to recognise the type of a partial differential equation, and how to choose and implement an appropriate method of solution.

**Learning outcomes**

On completion of this module, a student should be able to:

- solve simple linear partial differential equations;
- illustrate with suitable examples the occurrence of such equations in physics and industry;
- interpret the meaning of mathematical solutions of partial differential equations in the appropriate context.

**Syllabus**

1. EQUATIONS WITH CONSTANT COEFFICIENTS

2. FIRST ORDER EQUATIONS: The method of characteristics

3. SECOND ORDER EQUATIONS: Classification according to type. Canonical forms

4. THE DIFFUSION EQUATION; THE WAVE EQUATION; POISSON'S EQUATION

5. SOLUTION METHODS: Separation of variables. Fourier and Laplace transforms.

**Reading Lists**

**Books**
**** Recommended Text**

G F Carrier and C E Pearson.
*Partial Differential Equations*. 2nd. Academic Press

P Duchateau and D W Zachman.
*Partial Differential Equations*. Schaum's Outline Series, McGraw-Hill
**** Supplementary Text**

K E Gustafson.
*Introduction to Partial Differential Equations*. 2nd. John Wiley