A SEM/FEM weak coupling for a more accurate definition of seismic input excitation in soil-structure interaction studies: An adaptation for a massively parallel FEM resolution

Author:

Korres M,Alves Fernandes V,Zentner I,Tardieu N,Voldoire F,Gatti F,Lopez-Caballero F

Abstract

Abstract Numerical simulation of source-to-structure wave propagation consists of a challenging and demanding task in terms of computational capabilities and resources. Some difficulties related to the multi-scale character of the numerical problem can be alleviated using a spectral element (SEM) and finite element (FEM) weak coupling, such as the one described and verified in this study. In addition, the adaptation of the FEM resolution in a domain decomposition framework is developed allowing to utilize iterative solvers and ensure the scalability of the numerical solution in a High-Performance Computing (HPC) framework more efficiently. Comparisons with solutions adopting a direct parallel solver allow to demonstrate the important acceleration of the computation chain.

Publisher

IOP Publishing

Reference22 articles.

1. Domain Reduction Method for Three-Dimensional Earthquake Modeling in Localized Regions, Part I: Theory;Bielak;Bulletin of the Seismological Society of America,2003

2. Enhanced seismic response prediction of critical structures via 3D regional scale physics-based earthquake simulation;Korres,2022

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