The Finite Element Method: An Introduction with Partial Differential Equations, 2/e (Paperback)

* Aimed at un undergraduate audience.
* Clear explanation of the ideas with a straightforward development of the techniques and concepts.
* Worked examples.
* Exercises with detailed solutions for all chapters.
* Useful introduction for postgraduates.

New to this edition

* This book is a major revision of the first edition and all chapters have been updated
* A new chapter on the boundary element method
* A new chapter on computational methods
* New exercises
* An introduction to the use of the numerical Laplace transform for diffusion problems

The finite element method is a technique for solving problems in applied science and engineering. The essence of this book is the application of the finite element method to the solution of boundary and initial-value problems posed in terms of partial differential equations. The method is developed for the solution of Poisson's equation, in a weighted-residual context, and then proceeds to time-dependent and nonlinear problems. The relationship with the variational approach is also explained.

This book is written at an introductory level, developing all the necessary concepts where required. Consequently, it is well-placed to be used as a textbook for a course in finite elements for final year undergraduates, the usual place for studying finite elements. There are worked examples throughout and each chapter has a set of exercises with detailed solutions.

Table Of Contents

1: Historical introduction

2: Weighted residual and variational methods

3: The finite element method for elliptical problems

4: Higher-order elements: the isoparametric concept

5: Further topics in the finite element method

6: Convergence of the finite element method

7: The boundary element method

8: Computational aspects

9: References

Appendices

A: Partial differential equation models in the physical sciences

B: Some integral theorems of the vector calculus

C: A formula for integrating products of area coordinates over a triangle

D: Numerical integration formulae

E: Stehfest's formula and weights for numerical Laplace transform inversion