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B. Guo, Weiming Cao (1996)
A preconditioner for the $h$- $p$ version of the finite element method in two dimensionsNumerische Mathematik, 75
J. Lions, E. Magenes (1972)
Non-homogeneous boundary value problems and applications
T. Petersdorff, E. Stephan (1992)
Multigrid solvers and preconditioners for first kind integral equationsNumerical Methods for Partial Differential Equations, 8
T. Tran, E. Stephan (1996)
Additive schwarz methods for the H-version boundary element methodApplicable Analysis, 60
M. Ainsworth, B. Guo (2000)
An additive Schwarz preconditioner for p-version boundary element approximation of the hypersingular operator in three dimensionsNumerische Mathematik, 85
M. Dryja, Barry Smith, O. Widlund (1994)
Schwarz analysis of iterative substructuring algorithms for elliptic problems in three dimensionsSIAM Journal on Numerical Analysis, 31
W. McLean, T. Tran (1997)
A preconditioning strategy for boundary element Galerkin methodsNumerical Methods for Partial Differential Equations, 13
M. Costabel (1988)
Boundary Integral Operators on Lipschitz Domains: Elementary ResultsSiam Journal on Mathematical Analysis, 19
B. Guo, Weiming Cao (1997)
Additive Schwarz Methods for the h-p Version of the Finite Element Method in Two DimensionsSIAM J. Sci. Comput., 18
M. Ainsworth (1996)
A Hierarchical Domain Decomposition Preconditioner for h-P Finite Element Approximation on Locally Refined MeshesSIAM J. Sci. Comput., 17
M. Dryja, O. Widlund (1992)
Domain Decomposition Algorithms with Small OverlapSIAM J. Sci. Comput., 15
T. Tran, E. Stephan, S. Zaprianov (1998)
Wavelet-based preconditioners for boundary integral equationsAdvances in Computational Mathematics, 9
Barry Smith, P. Bjørstad, W. Gropp (1996)
Domain Decomposition: Parallel Multilevel Methods for Elliptic Partial Differential Equations
T. Petersdorff, E. Stephan (1990)
On the convergence of the multigrid method for a hypersingular integral equation of the first kindNumerische Mathematik, 57
I. Babuska, A. Craig, J. Mandel, J. Pitkäranta (1991)
Efficient preconditioning for the p -version finite element method in two dimensionsSIAM Journal on Numerical Analysis, 28
W. Wendland, E. Stephan (1990)
A hypersingular boundary integral method for two-dimensional screen and crack problemsArchive for Rational Mechanics and Analysis, 112
B. Guo, Weiming Cao (1998)
An Additive Schwarz Method for the h - b Version of the Finite Element Method in Three DimensionsSIAM Journal on Numerical Analysis, 35
B. Khoromskij, S. Prössdorf (1995)
Multilevel preconditioning on the refined interface and optimal boundary solvers for the Laplace equationAdvances in Computational Mathematics, 4
T. Petersdorff, C. Schwab (1996)
Wavelet approximations for first kind boundary integral equations on polygonsNumerische Mathematik, 74
W. Dahmen, S. Prössdorf, R. Schneider (1994)
Wavelet approximation methods for pseudodifferential equations: I Stability and convergenceMathematische Zeitschrift, 215
T. Tran (2000)
Overlapping additive Schwarz preconditioners for boundary element methodsJournal of Integral Equations and Applications, 12
O. Steinbach, W. Wendland (1998)
The construction of some efficient preconditioners in the boundary element methodAdvances in Computational Mathematics, 9
M. Maischak, E. Stephan, T. Tran (2000)
Multiplicative Schwarz Algorithms for the Galerkin Boundary Element MethodSIAM J. Numer. Anal., 38
M. Ainsworth, W. McLean, T. Tran (1999)
The Conditioning of Boundary Element Equations on Locally Refined Meshes and Preconditioning by Diagonal ScalingSIAM Journal on Numerical Analysis, 36
N. Heuer, E. Stephan (1998)
Iterative Substructuring for Hypersingular Integral Equations in $\Bbb R^3$SIAM J. Sci. Comput., 20
T. Tran, E. Stephan, P. Mund (1997)
Hierarchical basis preconditioners for first kind integral equationsApplicable Analysis, 65
W. Dahmen, S. Prössdorf, R. Schneider (1993)
Wavelet approximation methods for pseudodifferential equations II: Matrix compression and fast solutionAdvances in Computational Mathematics, 1
I. Babuska, B. Guo, E. Stephan (1990)
On the exponential convergence of the h-p version for boundary element Galerkin methods on polygonsMathematical Methods in The Applied Sciences, 12
By Bramble, J. Pasciak, A. Schatz (2010)
The Construction of Preconditioners for Elliptic Problems by Substructuring.
N. Heuer, E. Stephan (2001)
An additive Schwarz method for the h‐p version of the boundary element method for hypersingular integral equations in ℜ3Ima Journal of Numerical Analysis, 21
P. Grisvard (1985)
Elliptic Problems in Nonsmooth Domains
N. Heuer, E. Stephan, T. Tran (1998)
Multilevel additive Schwarz method for the h-p version of the Galerkin boundary element methodMath. Comput., 67
M. Ainsworth, B. Guo (2002)
Analysis of Iterative Sub-structuring Techniques for Boundary Element Approximation of the Hypersingular Operator in Three DimensionsApplicable Analysis, 81
M. Ainsworth (1996)
A Preconditioner Based on Domain Decomposition for H-P Finite-Element Approximation on Quasi-Uniform MeshesSIAM Journal on Numerical Analysis, 33
L. Pavarino (1994)
Schwarz methods with local refinement for the p-version finite element methodNumerische Mathematik, 69
E. Stephan, M. Suri (1991)
The $h-p$ version of the boundary element method on polygonal domains with quasiuniform meshesMathematical Modelling and Numerical Analysis, 25
J. Shao, T. Chan (1994)
Domain decomposition algorithmsActa Numerica, 3
We study two-level additive Schwarz preconditioners for the h-p version of the Galerkin boundary element method when used to solve hypersingular integral equations of the first kind, which arise from the Neumann problems for the Laplacian in two dimensions. Overlapping and non-overlapping methods are considered. We prove that the non-overlapping preconditioner yields a system of equations having a condition number bounded by where H i is the length of the i-th subdomain, h i is the maximum length of the elements in this subdomain, and p is the maximum polynomial degree used. For the overlapping method, we prove that the condition number is bounded by where δ is the size of the overlap and H=max i H i . We also discuss the use of the non-overlapping method when the mesh is geometrically graded. The condition number in that case is bounded by clog2 M, where M is the degrees of freedom.
Computing – Springer Journals
Published: Jul 1, 2001
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