Efficient parallel solutions to 3D electromagnetic problems using potentials

We present a massively parallel finite-element method for 3D electromagnetic forward modelling using vector and scalar potentials. The numerical scheme employs parallel Krylov subspace solvers with efficient preconditioning and hence displays good performance in terms of convergence and scalability...

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Main Authors: Puzyrev, Vladimir, De La Puente, J., Cela, J.
Format: Conference Paper
Published: 2013
Online Access:http://hdl.handle.net/20.500.11937/53390
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author Puzyrev, Vladimir
De La Puente, J.
Cela, J.
author_facet Puzyrev, Vladimir
De La Puente, J.
Cela, J.
author_sort Puzyrev, Vladimir
building Curtin Institutional Repository
collection Online Access
description We present a massively parallel finite-element method for 3D electromagnetic forward modelling using vector and scalar potentials. The numerical scheme employs parallel Krylov subspace solvers with efficient preconditioning and hence displays good performance in terms of convergence and scalability for large parallel applications. The method supports completely unstructured tetrahedral meshes and electric anisotropy. A realistic synthetic test case demonstrates the necessity of accurate representation of bathymetry and complex subsurface structures. Another focus of this study is to investigate the performance of different approximate inverse-based preconditioners, which are well suited for parallel implementation, but can lack efficiency when applied without regard for specific matrix properties.
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institution Curtin University Malaysia
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spelling curtin-20.500.11937-533902018-12-14T01:01:41Z Efficient parallel solutions to 3D electromagnetic problems using potentials Puzyrev, Vladimir De La Puente, J. Cela, J. We present a massively parallel finite-element method for 3D electromagnetic forward modelling using vector and scalar potentials. The numerical scheme employs parallel Krylov subspace solvers with efficient preconditioning and hence displays good performance in terms of convergence and scalability for large parallel applications. The method supports completely unstructured tetrahedral meshes and electric anisotropy. A realistic synthetic test case demonstrates the necessity of accurate representation of bathymetry and complex subsurface structures. Another focus of this study is to investigate the performance of different approximate inverse-based preconditioners, which are well suited for parallel implementation, but can lack efficiency when applied without regard for specific matrix properties. 2013 Conference Paper http://hdl.handle.net/20.500.11937/53390 10.1190/segam2013-1028.1 restricted
spellingShingle Puzyrev, Vladimir
De La Puente, J.
Cela, J.
Efficient parallel solutions to 3D electromagnetic problems using potentials
title Efficient parallel solutions to 3D electromagnetic problems using potentials
title_full Efficient parallel solutions to 3D electromagnetic problems using potentials
title_fullStr Efficient parallel solutions to 3D electromagnetic problems using potentials
title_full_unstemmed Efficient parallel solutions to 3D electromagnetic problems using potentials
title_short Efficient parallel solutions to 3D electromagnetic problems using potentials
title_sort efficient parallel solutions to 3d electromagnetic problems using potentials
url http://hdl.handle.net/20.500.11937/53390