General, open-source vertex modeling in biological applications using Tissue Forge

Abstract Vertex models are a widespread approach for describing the biophysics and behaviors of multicellular systems, especially of epithelial tissues. Vertex models describe a wide variety of developmental scenarios and behaviors like cell rearrangement and tissue folding. Often, these models are...

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Main Authors: T. J. Sego, Tien Comlekoglu, Shayn M. Peirce, Douglas W. Desimone, James A. Glazier
Format: Article
Language:English
Published: Nature Portfolio 2023-10-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-023-45127-x
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author T. J. Sego
Tien Comlekoglu
Shayn M. Peirce
Douglas W. Desimone
James A. Glazier
author_facet T. J. Sego
Tien Comlekoglu
Shayn M. Peirce
Douglas W. Desimone
James A. Glazier
author_sort T. J. Sego
collection DOAJ
description Abstract Vertex models are a widespread approach for describing the biophysics and behaviors of multicellular systems, especially of epithelial tissues. Vertex models describe a wide variety of developmental scenarios and behaviors like cell rearrangement and tissue folding. Often, these models are implemented as single-use or closed-source software, which inhibits reproducibility and decreases accessibility for researchers with limited proficiency in software development and numerical methods. We developed a physics-based vertex model methodology in Tissue Forge, an open-source, particle-based modeling and simulation environment. Our methodology describes the properties and processes of vertex model objects on the basis of vertices, which allows integration of vertex modeling with the particle-based formalism of Tissue Forge, enabling an environment for developing mixed-method models of multicellular systems. Our methodology in Tissue Forge inherits all features provided by Tissue Forge, delivering open-source, extensible vertex modeling with interactive simulation, real-time simulation visualization and model sharing in the C, C++ and Python programming languages and a Jupyter Notebook. Demonstrations show a vertex model of cell sorting and a mixed-method model of cell migration combining vertex- and particle-based models. Our methodology provides accessible vertex modeling for a broad range of scientific disciplines, and we welcome community-developed contributions to our open-source software implementation.
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spelling doaj.art-cca8aa6c5fa04ead9d2aafdc8fad96912023-11-26T12:55:44ZengNature PortfolioScientific Reports2045-23222023-10-0113111710.1038/s41598-023-45127-xGeneral, open-source vertex modeling in biological applications using Tissue ForgeT. J. Sego0Tien Comlekoglu1Shayn M. Peirce2Douglas W. Desimone3James A. Glazier4Department of Medicine, University of FloridaDepartment of Biomedical Engineering, University of VirginiaDepartment of Biomedical Engineering, University of VirginiaDepartment of Cell Biology, University of VirginiaDepartment of Intelligent Engineering and Biocomplexity Institute, Indiana UniversityAbstract Vertex models are a widespread approach for describing the biophysics and behaviors of multicellular systems, especially of epithelial tissues. Vertex models describe a wide variety of developmental scenarios and behaviors like cell rearrangement and tissue folding. Often, these models are implemented as single-use or closed-source software, which inhibits reproducibility and decreases accessibility for researchers with limited proficiency in software development and numerical methods. We developed a physics-based vertex model methodology in Tissue Forge, an open-source, particle-based modeling and simulation environment. Our methodology describes the properties and processes of vertex model objects on the basis of vertices, which allows integration of vertex modeling with the particle-based formalism of Tissue Forge, enabling an environment for developing mixed-method models of multicellular systems. Our methodology in Tissue Forge inherits all features provided by Tissue Forge, delivering open-source, extensible vertex modeling with interactive simulation, real-time simulation visualization and model sharing in the C, C++ and Python programming languages and a Jupyter Notebook. Demonstrations show a vertex model of cell sorting and a mixed-method model of cell migration combining vertex- and particle-based models. Our methodology provides accessible vertex modeling for a broad range of scientific disciplines, and we welcome community-developed contributions to our open-source software implementation.https://doi.org/10.1038/s41598-023-45127-x
spellingShingle T. J. Sego
Tien Comlekoglu
Shayn M. Peirce
Douglas W. Desimone
James A. Glazier
General, open-source vertex modeling in biological applications using Tissue Forge
Scientific Reports
title General, open-source vertex modeling in biological applications using Tissue Forge
title_full General, open-source vertex modeling in biological applications using Tissue Forge
title_fullStr General, open-source vertex modeling in biological applications using Tissue Forge
title_full_unstemmed General, open-source vertex modeling in biological applications using Tissue Forge
title_short General, open-source vertex modeling in biological applications using Tissue Forge
title_sort general open source vertex modeling in biological applications using tissue forge
url https://doi.org/10.1038/s41598-023-45127-x
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