Module Identifier MAM4420  
Module Title BOUNDARY VALUE PROBLEMS  
Academic Year 2002/2003  
Co-ordinator Professor Russell Davies  
Semester Intended for use in future years  
Next year offered N/A  
Next semester offered N/A  
Other staff Professor Tim Phillips  
Pre-Requisite MA30210 , MA34110 , MA34410  
Course delivery Lecture   20 x 1hour lectures  
  Seminars / Tutorials   7 x 1hour seminars  
Assessment Semester Exam   2 Hours (written examination)   100%  
  Supplementary Assessment   2 Hours (written examination)   100%  

Learning outcomes

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

Brief description

Boundary value problems, in ordinary and partial differential equations, occur naturally in science and engineering, eg clamped beam problems, slow viscous flow, and elasticity. Over the centuries many famous mathematicians have been challenged by such problems and have produced elegant classical solution methods. Today it is possible to marry some of these classical discoveries with modern computational methods, to enable the solution of contemporary problems.

Aims

To teach students how to solve linear boundary problems using modern analytic and computational methods.

Content

1. TWO POINT BOUNDARY VALUE PROBLEMS: Variational and weak formulations.
2. GALERKIN AND PSEUDOSPECTRAL GALERKIN METHODS: Pseudospectral Galerkin and collocation methods.
3. ERROR ESTIMATE AND CONVERGENCE RATES FOR FINITE DIMENSIONAL APPROXIMATIONS
4. ELLIPTIC BOUNDARY VALUE PROBLEMS IN THE PLANE: Approximation in Tensor Product Spaces of Polynomials
5. INTRODUCTION TO ELEMENT METHODS.

Reading Lists

Books
** Supplementary Text
C Johnson. (1987) Numerical Solution of Partial Differential Equations by the Finite Element Method. Cambridge University Press 0521347580
D Funaro. (1992) Polynomial Approximation of Differential Equations. Springer Verlag 3540552308