Parallel efficiency of a boundary integral equation method for nonlinear water waves

Bob Hertzberger; P. Strating; P.C.A. de Haas; Peter Sloot

doi:10.1007/BFb0031613

Parallel efficiency of a boundary integral equation method for nonlinear water waves

Bob Hertzberger (Editor), P. Strating, P.C.A. de Haas, Peter Sloot (Editor)

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Abstract

We describe the application of domain decomposition on a boundary integral method for the study of nonlinear surface waves on water in a test case for which the domain decomposition approach is an important tool to reduce the computational effort. An important aspect is the determination of the optimum number of domains for a given parallel architecture. Previous work on hetero- geneous clusters of workstations is extended to (dedicated) parallel platforms. For these systems a better indication of the parallel performance of the domain decomposition method is obtained because of the absence of varying speed of the processing elements.

Original language	Undefined
Pages	410-420
Number of pages	11
DOIs	https://doi.org/10.1007/BFb0031613
Publication status	Published - 1997

Keywords

IR-75781
Boundary integral equation method
EWI-16336
Water waves
Domain decomposition

Access to Document

10.1007/BFb0031613

P_Strating_410
open
P_Strating_410
open

Cite this

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title = "Parallel efficiency of a boundary integral equation method for nonlinear water waves",

abstract = "We describe the application of domain decomposition on a boundary integral method for the study of nonlinear surface waves on water in a test case for which the domain decomposition approach is an important tool to reduce the computational effort. An important aspect is the determination of the optimum number of domains for a given parallel architecture. Previous work on hetero- geneous clusters of workstations is extended to (dedicated) parallel platforms. For these systems a better indication of the parallel performance of the domain decomposition method is obtained because of the absence of varying speed of the processing elements.",

keywords = "IR-75781, Boundary integral equation method, EWI-16336, Water waves, Domain decomposition",

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T1 - Parallel efficiency of a boundary integral equation method for nonlinear water waves

AU - Strating, P.

AU - de Haas, P.C.A.

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A2 - Sloot, Peter

PY - 1997

Y1 - 1997

N2 - We describe the application of domain decomposition on a boundary integral method for the study of nonlinear surface waves on water in a test case for which the domain decomposition approach is an important tool to reduce the computational effort. An important aspect is the determination of the optimum number of domains for a given parallel architecture. Previous work on hetero- geneous clusters of workstations is extended to (dedicated) parallel platforms. For these systems a better indication of the parallel performance of the domain decomposition method is obtained because of the absence of varying speed of the processing elements.

AB - We describe the application of domain decomposition on a boundary integral method for the study of nonlinear surface waves on water in a test case for which the domain decomposition approach is an important tool to reduce the computational effort. An important aspect is the determination of the optimum number of domains for a given parallel architecture. Previous work on hetero- geneous clusters of workstations is extended to (dedicated) parallel platforms. For these systems a better indication of the parallel performance of the domain decomposition method is obtained because of the absence of varying speed of the processing elements.

KW - IR-75781

KW - Boundary integral equation method

KW - EWI-16336

KW - Water waves

KW - Domain decomposition

U2 - 10.1007/BFb0031613

DO - 10.1007/BFb0031613

M3 - Paper

SP - 410

EP - 420

ER -