Extended Phase-Field Method (XPFM) - Data corresponding to publication: "An enriched phase-field method for the efficient simulation of fracture processes" by Loehnert et al. (2023)

Contributing person
datacite.contributor.Researcher

Christian Krüger

Contributing person
datacite.contributor.Supervisor

Stefan Loehnert

References to related material
datacite.relatedItem.IsSupplementTo

https://doi.org/10.1007/s00466-023-02285-z

Type of the data
datacite.resourceTypeGeneral

Dataset

Type of the data
datacite.resourceTypeGeneral

Image

Total size of the dataset
datacite.size

1368138

Author
dc.contributor.author

Curosu, Verena

Upload date
dc.date.accessioned

2024-04-22T12:32:32Z

Publication date
dc.date.available

2024-04-22T12:32:32Z

Data of data creation
dc.date.created

2022

Publication date
dc.date.issued

2024-04-22

Abstract of the dataset
dc.description.abstract

This dataset contains the numerical values corresponding to the graphs within the scientific (open-access) contribution "An enriched phase-field method for the efficient simulation of fracture processes" by Loehnert et al. (2023) (https://doi.org/10.1007/s00466-023-02285-z). Abstract of Paper: The efficient simulation of complex fracture processes is still a challenging task. In this contribution, an enriched phase-field method for the simulation of 2D fracture processes is presented. It has the potential to drastically reduce computational cost compared to the classical phase-field method (PFM). The method is based on the combination of a phase-field approach with an ansatz transformation for the simulation of fracture processes and an enrichment technique for the displacement field as it is used in the extended finite element method (XFEM) or generalised finite element method (GFEM). This combination allows for the application of significantly coarser meshes than it is possible in PFM while still obtaining accurate solutions. In contrast to classical XFEM / GFEM, the presented method does not require level set techniques or explicit representations of crack geometries, considerably simplifying the simulation of crack initiation, propagation, and coalescence. The efficiency and accuracy of this new method is shown in 2D simulations.

Public reference to this page
dc.identifier.uri

https://opara.zih.tu-dresden.de//handle/123456789/595

Public reference to this page
dc.identifier.uri

https://doi.org/10.25532/OPARA-460

Publisher
dc.publisher

Technische Universität Dresden

Licence
dc.rights

Attribution-NonCommercial 4.0 Internationalen

URI of the licence text
dc.rights.uri

http://creativecommons.org/licenses/by-nc/4.0/

Specification of the discipline(s)
dc.subject.classification

4::45::410::410-05

Title of the dataset
dc.title

Extended Phase-Field Method (XPFM) - Data corresponding to publication: "An enriched phase-field method for the efficient simulation of fracture processes" by Loehnert et al. (2023)

Software
opara.descriptionSoftware.ResourceProduction

Finite Element Analysis Program (FEAP)

Software
opara.descriptionSoftware.ResourceProduction

Mathematica 13 (AceGen)

Software
opara.descriptionSoftware.ResourceProduction

Matlab

Public project website(s)
opara.project.publicReference

sfbtrr280.de

Project title
opara.project.title

Extended Phase-Field Method (XPFM) - SFB TRR 280-TP-C05
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Folder containing the figure (graph), the corresponding data and a ReadMe file for each figure in question of the publication "An enriched phase-field method for the efficient simulation of fracture processes" (2023) Loehnert et al.
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