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E-raamat: Convection-Diffusion Problems

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Many physical problems involve diffusive and convective (transport) processes. When diffusion dominates convection, standard numerical methods work satisfactorily. But when convection dominates diffusion, the standard methods become unstable, and special techniques are needed to compute accurate numerical approximations of the unknown solution. This convection-dominated regime is the focus of the book. After discussing at length the nature of solutions to convection-dominated convection-diffusion problems, the authors motivate and design numerical methods that are particularly suited to this class of problems. At first they examine finite-difference methods for two-point boundary value problems, as their analysis requires little theoretical background. Upwinding, artificial diffusion, uniformly convergent methods, and Shishkin meshes are some of the topics presented. Throughout, the authors are concerned with the accuracy of solutions when the diffusion coefficient is close to zero. Later in the book they concentrate on finite element methods for problems posed in one and two dimensions.

This lucid yet thorough account of convection-dominated convection-diffusion problems and how to solve them numerically is meant for beginning graduate students, and it includes a large number of exercises. An up-to-date bibliography provides the reader with further reading. This book is published in cooperation with Atlantic Association for Research in the Mathematical Sciences.
Preface vii
Chapter 1 Introduction and Preliminary Material
1(14)
§1.1 A simple example
1(6)
§1.2 A little motivation and history
7(1)
§1.3 Notation
7(1)
§1.4 Maximum principle and barrier functions
8(2)
§1.5 Asymptotic expansions
10(5)
Chapter 2 Convection-Diffusion Problems in One Dimension
15(28)
§2.1 Asymptotic analysis---an extended example
15(6)
§2.2 Green's functions
21(3)
§2.3 A priori bounds on the solution and its derivatives
24(14)
§2.4 Decompositions of the solution
38(5)
Chapter 3 Finite Difference Methods in One Dimension
43(26)
§3.1 M-matrices, upwinding
45(9)
§3.2 Artificial diffusion
54(2)
§3.3 Uniformly convergent schemes
56(3)
§3.4 Shishkin meshes
59(10)
Chapter 4 Convection-Diffusion Problems in Two Dimensions
69(18)
§4.1 General description
69(8)
§4.2 A priori estimates
77(7)
§4.3 General comments on numerical methods
84(3)
Chapter 5 Finite Difference Methods in Two Dimensions
87(8)
§5.1 Extending one-dimensional approaches
87(2)
§5.2 Shishkin meshes
89(2)
§5.3 Characteristic boundary layers
91(2)
§5.4 Other remarks
93(2)
Chapter 6 Finite Element Methods
95(48)
§6.1 The loss of stability in the (Bubnov-)Galerkin FEM
95(3)
§6.2 Relationship to classical FEM analysis
98(2)
§6.3 L*-splines
100(3)
§6.4 The streamline-diffusion finite element method (SUPG)
103(8)
§6.5 Stability of the Galerkin FEM for higher-degree polynomials
111(6)
§6.6 Shishkin meshes
117(9)
§6.7 Discontinuous Galerkin finite element method
126(5)
§6.8 Continuous interior penalty (CIP) method
131(8)
§6.9 Adaptive methods
139(4)
Chapter 7 Concluding Remarks
143(2)
Bibliography 145(10)
Index 155
Martin Stynes, Beijing Computational Science Research Center, China.

David Stynes, Cork Institute of Technology, Ireland.