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9780198501787

Domain Decomposition Methods for Partial Differential Equations

by ;
  • ISBN13:

    9780198501787

  • ISBN10:

    0198501781

  • Format: Hardcover
  • Copyright: 1999-07-29
  • Publisher: Oxford University Press

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Summary

A relatively new field, domain composition methods draw on parallel computing techniques and are proving a powerful approach to the numerical solution of partial differential equations. This book illustrates the basic mathematical concepts and looks at a large variety of boundary value problems.

Table of Contents

The Mathematical Foundation of Domain Decomposition Methods
1(40)
Multi-domain formulation and the Steklov--Poincare interface equation
2(3)
Variational formulation of the multi-domain problem
5(5)
Iterative substructuring methods based on transmission conditions at the interface
10(8)
Generalisations
18(8)
The Steklov--Poincare equation for the Neumann boundary value problem
22(2)
Iterations on many subdomains
24(2)
The Schwarz method for overlapping subdomains
26(8)
The multiplicative and additive forms of the Schwarz method
26(2)
Variational interpretation of the Schwarz method
28(1)
The Schwarz method as a projection method
29(2)
The Schwarz method as a Richardson method
31(1)
A characterisation of the projection operators
32(1)
The Schwarz method for many subdomains
33(1)
The fictitious domain method
34(4)
The three-field method
38(3)
Discretised Equations and Domain Decomposition Methods
41(30)
Finite element approximation of elliptic equations
41(5)
The multi-domain formulation for finite elements
43(2)
Algebraic formulation of the discrete problem
45(1)
Finite element approximation of the Steklov--Poincare operator
46(3)
Eigenvalue analysis for the finite element Steklov--Poincare operator
48(1)
Algebraic formulation of the discrete Steklov--Poincare operator: the Schur complement matrix
49(6)
Preconditioners of the stiffness matrix derived from preconditioners of the Schur complement matrix
51(4)
The case of many subdomains
55(4)
Non-conforming domain decomposition methods
59(12)
The mortar method
60(6)
The three-field method at the finite dimensional level
66(5)
Iterative Domain Decomposition Methods at the Discrete Level
71(32)
Iterative substructuring methods at the finite element level
71(2)
The link between the Schur complement system and iterative substructuring methods
73(4)
Schur complement preconditioners
77(9)
Decomposition with two subdomains
77(2)
Decomposition with many subdomains
79(7)
The Schwarz method for finite elements
86(5)
Acceleration of the Schwarz method
91(5)
Inexact solvers
96(1)
Two-level methods
96(4)
Abstract setting of two-level methods
97(1)
Multiplicative and additive two-level preconditioners
98(1)
The case of the Schwarz method
99(1)
Convergence of two-level methods
99(1)
Direct Galerkin approximation of the Steklov--Poincare equation
100(3)
Convergence Analysis for Iterative Domain Decomposition Algorithms
103(38)
Extension theorems and spectrally equivalent operators
104(13)
Extension theorems in H1 (Ωi)
104(7)
Extension theorems in H (div; Ωi)
111(3)
Extension theorems in H (rot; Ωi)
114(3)
Splitting of operators and preconditioned iterative methods
117(16)
The finite dimensional case
122(3)
The case of symmetric matrices
125(3)
The case of complex matrices
128(5)
Convergence of the Dirichlet--Neumann iterative method
133(2)
An alternative way to prove convergence
133(2)
Convergence of the Neumann--Neumann iterative method
135(1)
Convergence of the Robin iterative method
135(2)
Convergence of the alternating Schwarz method
137(4)
Other Boundary Value Problems
141(78)
Non-symmetric elliptic operators
141(6)
Weak multi-domain formulation and the Steklov--Poincare interface equation
142(4)
Substructuring iterative methods
146(1)
The finite dimensional approximation
147(1)
The problem of linear elasticity
147(6)
Weak multi-domain formulation and the Steklov--Poincare interface equation
148(3)
Substructuring iterative methods
151(1)
The finite dimensional approximation
151(2)
The Stokes problem
153(37)
Weak multi-domain formulation and the Steklov--Poincare interface equation
156(14)
Substructuring iterative methods
170(3)
Finite dimensional approximation: the case of discontinuous pressure
173(12)
Finite dimensional approximation: the case of continuous pressure
185(4)
Methods based on the Uzawa pressure operator
189(1)
The Stokes problem for compressible flows
190(7)
Weak multi-domain formulation and the Steklov--Poincare interface equation
191(3)
Substructuring iterative methods
194(1)
The finite dimensional approximation
195(2)
The Stokes problem for inviscid compressible flows
197(6)
Weak multi-domain formulation and the Steklov--Poincare interface equation
198(3)
Substructuring iterative methods
201(1)
The finite dimensional approximation
202(1)
First-order equations
203(7)
Weak multi-domain formulation and the Steklov--Poincare interface equation
204(4)
Substructuring iterative methods
208(2)
The time-harmonic Maxwell equations
210(9)
Weak multi-domain formulation
211(2)
The finite dimensional Steklov--Poincare interface equation
213(1)
Substructuring iterative methods
214(5)
Advection--Diffusion Equations
219(32)
The advection--diffusion problem and its multi-domain formulations
220(4)
Iterative substructuring methods for one-dimensional problems
224(3)
Adaptive iterative substructuring methods: ADN, ARN and ARβN
227(7)
The damped form of the iterative algorithms: d-ADN, d-ARN and d-ARβN
232(2)
Coercive iterative substructuring methods: γ-DR and γ-RR
234(10)
The γ-DR iterative method
234(3)
Convergence of the γ-DR iterative method
237(2)
The γ-DR iterative method for systems of advection--diffusion equations
239(1)
The γ-RR iterative method
240(2)
Convergence of the γ-RR iterative method
242(2)
The finite element realisation of the iterative algorithms
244(7)
Time-Dependent Problems
251(34)
Parabolic problems
252(9)
Multi-domain formulation and space discretisation
253(3)
Implicit time discretisation and subdomain iterations
256(5)
Hyperbolic problems
261(11)
Multi-domain formulation
263(3)
Implicit time discretisation and subdomain iterations
266(6)
Non-linear time-dependent problems
272(13)
Navier--Stokes equations for incompressible flows
273(2)
Navier--Stokes equations for compressible flows
275(2)
Euler equations for compressible flows
277(8)
Heterogeneous Domain Decomposition Methods
285(48)
Heterogeneous models for advection-diffusion equations
287(9)
The Steklov--Poincare reformulation
290(5)
The coupling for non-linear convection-diffusion equations
295(1)
Heterogeneous models for incompressible flows
296(9)
The coupling for the linearised Stokes problem
297(3)
The coupling for the Navier--Stokes equations in exterior domains
300(5)
Heterogeneous models for compressible flows
305(12)
The coupling between the Navier--Stokes and Euler equations
306(3)
The coupling between the Euler equations and the full potential equation
309(8)
The coupling for the compressible Stokes equations
317(11)
Variational formulation and finite element approximation
320(2)
An alternative formulation: variational setting and finite element approximation
322(6)
The coupling for the time-harmonic Maxwell equations
328(5)
Appendix
333(10)
Function spaces
333(6)
Some properties of the Sobolev spaces
339(4)
References 343(14)
Index 357

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