We discuss several continuum cell-cell adhesion models based on the underlying microscopic assumptions. We propose an improvement on these models leading to sharp fronts and intermingling invasion fronts between different cell type populations. The model is based on basic principles of localized repulsion and nonlocal attraction due to adhesion forces at the microscopic level. The new model is able to capture both qualitatively and quantitatively experiments by Katsunuma et al. (2016) [J. Cell Biol. 212(5), pp. 561–575]. We also review some of the applications of these models in other areas of tissue growth in developmental biology. We finally explore the resulting qualitative behavior due to cell-cell repulsion
Cell adhesion refers to the ability of cells to make enduring and dynamic attachments to extracellul...
Proliferation of individual cells is one of the hallmarks of living systems, and collectively the ce...
Cell sorting, whereby a heterogeneous cell mixture segregates and forms distinct homogeneous tissues...
We discuss several continuum cell-cell adhesion models based on the underlying microscopic assump-ti...
Cells adhere to each other through the binding of cell adhesion molecules at the cell surface. This ...
Cells adhere to each other through the binding of cell adhesion molecules at the cell surface. This ...
This thesis extends an existing cell population modelling framework to investigate two different hyp...
Studying the biophysical interactions between cells is crucial to understanding how normal tissue de...
The actions of cell adhesion molecules, in particular, cadherins during embryonic development and mo...
International audienceWe present a phenomenological model intended to describe at the protein popula...
The actions of cell adhesion molecules, in particular, cadherins during embryonic development and mo...
Cell-cell adhesion is essential for biological development: cells migrate to their target sites, whe...
In both normal tissue and disease states, cells interact with one another, and other tissue componen...
Cell–cell adhesion is essential for biological development: cells migrate to their target sites, whe...
The process of cell-sorting is essential for development and maintenance of tissues. With the Diffe...
Cell adhesion refers to the ability of cells to make enduring and dynamic attachments to extracellul...
Proliferation of individual cells is one of the hallmarks of living systems, and collectively the ce...
Cell sorting, whereby a heterogeneous cell mixture segregates and forms distinct homogeneous tissues...
We discuss several continuum cell-cell adhesion models based on the underlying microscopic assump-ti...
Cells adhere to each other through the binding of cell adhesion molecules at the cell surface. This ...
Cells adhere to each other through the binding of cell adhesion molecules at the cell surface. This ...
This thesis extends an existing cell population modelling framework to investigate two different hyp...
Studying the biophysical interactions between cells is crucial to understanding how normal tissue de...
The actions of cell adhesion molecules, in particular, cadherins during embryonic development and mo...
International audienceWe present a phenomenological model intended to describe at the protein popula...
The actions of cell adhesion molecules, in particular, cadherins during embryonic development and mo...
Cell-cell adhesion is essential for biological development: cells migrate to their target sites, whe...
In both normal tissue and disease states, cells interact with one another, and other tissue componen...
Cell–cell adhesion is essential for biological development: cells migrate to their target sites, whe...
The process of cell-sorting is essential for development and maintenance of tissues. With the Diffe...
Cell adhesion refers to the ability of cells to make enduring and dynamic attachments to extracellul...
Proliferation of individual cells is one of the hallmarks of living systems, and collectively the ce...
Cell sorting, whereby a heterogeneous cell mixture segregates and forms distinct homogeneous tissues...