Towards large-scale three-dimensional blood flow simulations in realistic geometries

This paper addresses the numerical approximation of uid dynamics problems using various finite element methods including high order methods and high order geometry. The paper is divided in three parts. The first part concerns the various problem formulations and discretization methods we are interes...

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Published inESAIM. Proceedings Vol. 43; pp. 195 - 212
Main Authors Caldini-Queiros, Céline, Chabannes, Vincent, Ismail, Mourad, Pena, Goncalo, Prud’homme, Christophe, Szopos, Marcela, Tarabay, Ranine
Format Journal Article
LanguageEnglish
Published EDP Sciences 01.12.2013
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Summary:This paper addresses the numerical approximation of uid dynamics problems using various finite element methods including high order methods and high order geometry. The paper is divided in three parts. The first part concerns the various problem formulations and discretization methods we are interested in. Using the Stokes equations as model, several different types of boundary conditions are presented and discussed. The second part deals with describing the high performance framework Feel++ with which we obtained the various numerical results including scalability studies. Finally we display numerical results: we start with convergence properties of the various formulations and associated discretization choices including high order geometries and we finish with a Navier-Stokes simulation within the cerebral venous system.
Bibliography:Tel.: +33476635497, Fax: +33476631263
istex:4EBAD705A4432FF8500A5E12AD2A67C1426A3C47
ark:/67375/80W-C6VLWS5S-R
Note to the reader: the PDF version published on January 9, 2014, does correct and replace the previous version.
publisher-ID:proc134313
ObjectType-Article-2
SourceType-Scholarly Journals-1
ObjectType-Feature-1
content type line 23
ISSN:1270-900X
1270-900X
DOI:10.1051/proc/201343013