Please use this identifier to cite or link to this item: https://hdl.handle.net/1822/39295

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dc.contributor.authorAraújo, M. S. B. depor
dc.contributor.authorFernandes, C. S.por
dc.contributor.authorFerrás, Luís Jorge Limapor
dc.contributor.authorTukovic, Željkopor
dc.contributor.authorJasak, Hrvojepor
dc.contributor.authorNóbrega, J. M.por
dc.date.accessioned2016-01-08T11:36:15Z-
dc.date.issued2015-06-
dc.identifier.urihttps://hdl.handle.net/1822/39295-
dc.description.abstractThe usual high cost of commercial codes, and some technical limitations, clearly limits the employment of numerical modelling tools in both industry and academia. Consequently, the number of companies that use numerical code is limited and there a lot of effort put on the development and maintenance of in-house academic based codes. Having in mind the potential of using numerical modelling tools as a design aid, of both products and processes, different research teams have been contributing to the development of open source codes/libraries. In this framework, any individual can take advantage of the available code capabilities and/or implement additional features based on his specific needs. These type of codes are usually developed by large communities, which provide improvements and new features in their specific fields of research, thus increasing significantly the code development process. Among others, OpenFOAM® multi-physics computational library, developed by a very large and dynamic community, nowadays comprises several features usually only available in their commercial counterparts; e.g. dynamic meshes, large diversity of complex physical models, parallelization, multiphase models, to name just a few. This computational library is developed in C++ and makes use of most of all language capabilities to facilitate the implementation of new functionalities. Concerning the field of computational rheology, OpenFOAM® solvers were recently developed to deal with the most relevant differential viscoelastic rheological models, and stabilization techniques are currently being verified. This work describes the implementation of a new solver in OpenFOAM® library, able to cope with integral viscoelastic models based on the deformation field method. The implemented solver is verified through the comparison of the predicted results with analytical solutions, results published in the literature and by using the Method of Manufactured Solutions.por
dc.language.isoengpor
dc.rightsrestrictedAccesspor
dc.subjectViscoelastic flowspor
dc.subjectIntegral modelspor
dc.subjectOpenFOAMpor
dc.titleDevelopment of an integral viscoelastic flow solver in OpenFOAM®por
dc.typeconferenceAbstract-
dc.peerreviewedyespor
sdum.publicationstatuspublishedpor
oaire.citationConferenceDate7 - 11 Jun. 2015por
sdum.event.typeconferencepor
oaire.citationStartPage1por
oaire.citationEndPage1por
oaire.citationConferencePlaceJeju Island, Koreapor
oaire.citationTitle31st International Conference of the POLYMER PROCESSING SOCIETYpor
dc.subject.fosEngenharia e Tecnologia::Outras Engenharias e Tecnologiaspor
Appears in Collections:IPC - Resumos em actas de encontros científicos internacionais com arbitragem

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