Abstract
Crypt fission is an in vivo tissue deformation process that is involved in both intestinal homeostasis and colorectal tumourigenesis. Despite its importance, the mechanics underlying crypt fission are currently poorly understood. Recent experimental development of organoids, organ-like buds cultured from crypt stem cells in vitro, has shown promise in shedding light on crypt fission. Drawing inspiration from observations of organoid growth and fission in vivo, we develop a computational model of a deformable epithelial tissue layer. Results from in silico experiments show the stiffness of cells and the proportions of cell subpopulations affect the nature of deformation in the epithelial layer. In particular, we find that increasing the proportion of stiffer cells in the layer increases the likelihood of crypt fission occurring. This is in agreement with and helps explain recent experimental work.
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Acknowledgements
Axel A. Almet, Barry D. Hughes and Kerry A. Landman were supported by the Australian Research Council (DP110100795). Axel A. Almet and James M. Osborne were funded by a University of Melbourne ECR Grant.
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Almet, A.A., Hughes, B.D., Landman, K.A. et al. A Multicellular Model of Intestinal Crypt Buckling and Fission. Bull Math Biol 80, 335–359 (2018). https://doi.org/10.1007/s11538-017-0377-z
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DOI: https://doi.org/10.1007/s11538-017-0377-z