An efficient analysis of resin transfer molding process using extended finite element method

Numerical simulation for Resin Transfer Molding (RTM) manufacturing process is attempted by using the eXtended Finite Element Method (XFEM) combined with the level set method. XFEM allows to obtaining a good numerical precision of the pressure near the resin flow front, where its gradient is discont...

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Main Author: Jung, Yeonhee
Language:ENG
Published: 2013
Subjects:
Online Access:http://tel.archives-ouvertes.fr/tel-00937556
http://tel.archives-ouvertes.fr/docs/00/93/75/56/PDF/Jung-yeonhee-diff.pdf
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spelling ndltd-CCSD-oai-tel.archives-ouvertes.fr-tel-009375562014-03-19T03:21:55Z http://tel.archives-ouvertes.fr/tel-00937556 2013EMSE0701 http://tel.archives-ouvertes.fr/docs/00/93/75/56/PDF/Jung-yeonhee-diff.pdf An efficient analysis of resin transfer molding process using extended finite element method Jung, Yeonhee [SPI:OTHER] Engineering Sciences/Other [SPI:OTHER] Sciences de l'ingénieur/Autre RTM Process XFEM Level Set Method Localization Method Numerical Analysis Numerical simulation for Resin Transfer Molding (RTM) manufacturing process is attempted by using the eXtended Finite Element Method (XFEM) combined with the level set method. XFEM allows to obtaining a good numerical precision of the pressure near the resin flow front, where its gradient is discontinuous. The enriched shape functions of XFEM are derived by using the level set values so as to correctly describe the interpolation with the resin flow front. In addition, the level set method is used to transport the resin flow front at each time step during the mold filling. The level set values are calculated by an implicit characteristic Galerkin FEM. The multi-frontal solver of IPSAP is adopted to solve the system. This work is validated by comparing the obtained results with analytic solutions.Moreover, a localization method of XFEM and level set method is proposed to increase the computing efficiency. The computation domain is reduced to the small region near the resin flow front. Therefore, the total computing time is strongly reduced by it. The efficiency test is made with simple channel or radial flow models. Several application examples are analyzed to demonstrate ability of this method. A wind turbine blade is also treated as industrial application. Finally, a Graphic User Interface (GUI) tool is developed so as to make easy the pre/post-processing of the simulation. 2013-09-02 ENG PhD thesis
collection NDLTD
language ENG
sources NDLTD
topic [SPI:OTHER] Engineering Sciences/Other
[SPI:OTHER] Sciences de l'ingénieur/Autre
RTM Process
XFEM
Level Set Method
Localization Method
Numerical Analysis
spellingShingle [SPI:OTHER] Engineering Sciences/Other
[SPI:OTHER] Sciences de l'ingénieur/Autre
RTM Process
XFEM
Level Set Method
Localization Method
Numerical Analysis
Jung, Yeonhee
An efficient analysis of resin transfer molding process using extended finite element method
description Numerical simulation for Resin Transfer Molding (RTM) manufacturing process is attempted by using the eXtended Finite Element Method (XFEM) combined with the level set method. XFEM allows to obtaining a good numerical precision of the pressure near the resin flow front, where its gradient is discontinuous. The enriched shape functions of XFEM are derived by using the level set values so as to correctly describe the interpolation with the resin flow front. In addition, the level set method is used to transport the resin flow front at each time step during the mold filling. The level set values are calculated by an implicit characteristic Galerkin FEM. The multi-frontal solver of IPSAP is adopted to solve the system. This work is validated by comparing the obtained results with analytic solutions.Moreover, a localization method of XFEM and level set method is proposed to increase the computing efficiency. The computation domain is reduced to the small region near the resin flow front. Therefore, the total computing time is strongly reduced by it. The efficiency test is made with simple channel or radial flow models. Several application examples are analyzed to demonstrate ability of this method. A wind turbine blade is also treated as industrial application. Finally, a Graphic User Interface (GUI) tool is developed so as to make easy the pre/post-processing of the simulation.
author Jung, Yeonhee
author_facet Jung, Yeonhee
author_sort Jung, Yeonhee
title An efficient analysis of resin transfer molding process using extended finite element method
title_short An efficient analysis of resin transfer molding process using extended finite element method
title_full An efficient analysis of resin transfer molding process using extended finite element method
title_fullStr An efficient analysis of resin transfer molding process using extended finite element method
title_full_unstemmed An efficient analysis of resin transfer molding process using extended finite element method
title_sort efficient analysis of resin transfer molding process using extended finite element method
publishDate 2013
url http://tel.archives-ouvertes.fr/tel-00937556
http://tel.archives-ouvertes.fr/docs/00/93/75/56/PDF/Jung-yeonhee-diff.pdf
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