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Barrett, John W. ; Garcke, Harald ; Nürnberg, Robert

Phase Field Models Versus Parametric Front Tracking Methods: Are They Accurate and Computationally Efficient?

Barrett, John W., Garcke, Harald und Nürnberg, Robert (2014) Phase Field Models Versus Parametric Front Tracking Methods: Are They Accurate and Computationally Efficient? Communications in Computational Physics (CiCP) 15, S. 506-555.

Veröffentlichungsdatum dieses Volltextes: 30 Sep 2016 08:27
Artikel
DOI zum Zitieren dieses Dokuments: 10.5283/epub.34614


Zusammenfassung

We critically compare the practicality and accuracy of numerical approximations of phase field models and sharp interface models of solidification. Here we focus on Stefan problems, and their quasi-static variants, with applications to crystal growth. New approaches with a high mesh quality for the parametric approximations of the resulting free boundary problems and new stable discretizations of ...

We critically compare the practicality and accuracy of numerical approximations of phase field models and sharp interface models of solidification. Here we focus on Stefan problems, and their quasi-static variants, with applications to crystal growth. New approaches with a high mesh quality for the parametric approximations of the resulting free boundary problems and new stable discretizations of the anisotropic phase field system are taken into account in a comparison involving benchmark problems based on exact solutions of the free boundary problem.



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Details

DokumentenartArtikel
Titel eines Journals oder einer ZeitschriftCommunications in Computational Physics (CiCP)
Verlag:GLOBAL SCIENCE PRESS
Ort der Veröffentlichung:WANCHAI
Band:15
Seitenbereich:S. 506-555
Datum2014
InstitutionenMathematik > Prof. Dr. Harald Garcke
Identifikationsnummer
WertTyp
10.4208/cicp.190313.010813aDOI
Stichwörter / KeywordsGEOMETRIC EVOLUTION-EQUATIONS; FINITE-ELEMENT APPROXIMATION; CAHN-HILLIARD EQUATION; MULLINS-SEKERKA PROBLEM; SHARP INTERFACE LIMITS; CRYSTAL-GROWTH; DENDRITIC SOLIDIFICATION; NUMERICAL-SIMULATION; PARABOLIC EQUATIONS; 3 DIMENSIONS; Phase field models; parametric sharp interface methods; Stefan problem; anisotropy; solidification; crystal growth; numerical simulations; benchmark problems
Dewey-Dezimal-Klassifikation500 Naturwissenschaften und Mathematik > 510 Mathematik
StatusVeröffentlicht
BegutachtetJa, diese Version wurde begutachtet
An der Universität Regensburg entstandenJa
URN der UB Regensburgurn:nbn:de:bvb:355-epub-346145
Dokumenten-ID34614

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