The influence of cell phenotype on collective cell invasion into the extracellular matrix

Understanding the interactions between cells and the extracellular matrix (ECM) during collective cell invasion is crucial for advancements in tissue engineering, cancer therapies, and regenerative medicine. This study focuses on the roles of contact guidance and ECM remodelling in directing cell behaviour, with a particular emphasis on exploring how differences in cell phenotype impact collective cell invasion. We present a computationally tractable two-dimensional hybrid model of collective cell migration within the ECM, where cells are modelled as individual entities and collagen fibres as a continuous tensorial field. Our model incorporates random motility, contact guidance, cell-cell adhesion, volume filling, and the dynamic remodelling of collagen fibres through cellular secretion and degradation. Through a comprehensive parameter sweep, we provide valuable insights into how differences in the cell phenotype, in terms of the ability of the cell to migrate, secrete, degrade, and respond to contact guidance cues from the ECM, impacts the characteristics of collective cell invasion.

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Publication Details

Journal
Bulletin of Mathematical Biology
Published
2025-12-26
DOI
https://doi.org/10.1007/s11538-025-01560-9
Primary Topic
Cellular Mechanics and Interactions
Type
article
Field-Weighted Citation Impact
0.00

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article

The influence of cell phenotype on collective cell invasion into the extracellular matrix

Sarah L. Waters, Ruth E. Baker, Yuan Yin
Bulletin of Mathematical Biology
Cellular Mechanics and Interactions
article

The influence of cell phenotype on collective cell invasion into the extracellular matrix

Sarah L. Waters, Ruth E. Baker, Yuan Yin
article en

Abstract

Understanding the interactions between cells and the extracellular matrix (ECM) during collective cell invasion is crucial for advancements in tissue engineering, cancer therapies, and regenerative medicine. This study focuses on the roles of contact guidance and ECM remodelling in directing cell behaviour, with a particular emphasis on exploring how differences in cell phenotype impact collective cell invasion. We present a computationally tractable two-dimensional hybrid model of collective cell migration within the ECM, where cells are modelled as individual entities and collagen fibres as a continuous tensorial field. Our model incorporates random motility, contact guidance, cell-cell adhesion, volume filling, and the dynamic remodelling of collagen fibres through cellular secretion and degradation. Through a comprehensive parameter sweep, we provide valuable insights into how differences in the cell phenotype, in terms of the ability of the cell to migrate, secrete, degrade, and respond to contact guidance cues from the ECM, impacts the characteristics of collective cell invasion.

Bulletin of Mathematical BiologyVol. 88(1)
University of Oxford (GB), Mathematical Institute of the Slovak Academy of Sciences (SK)
Engineering and Physical Sciences Research Council
Reduced inequalities
Openalex Percentile: Top 33%
Cellular Mechanics and Interactions
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