A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion

Bladder cancer is a common type of cancer, and one with high recurrence rate and overall monitoring and treatment costs. It was developed and tested a three-dimensional agent-based computational model of the urothelium, a purpose-built Cellular Potts Model, to describe both a healthy urothelium and...

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Main Authors: Joao Carvalho, Valeria Lopes, Rui Travasso
Format: Article
Language:English
Published: Elsevier 2021-01-01
Series:Informatics in Medicine Unlocked
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2352914821002252
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spelling doaj-5cf7abb4bf294985b8918c7ecf4053492021-10-07T04:26:24ZengElsevierInformatics in Medicine Unlocked2352-91482021-01-0126100750A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasionJoao Carvalho0Valeria Lopes1Rui Travasso2Corresponding author.; Center of Physics of the University of Coimbra (CFisUC), Department of Physics, Coimbra, PortugalCenter of Physics of the University of Coimbra (CFisUC), Department of Physics, Coimbra, PortugalCenter of Physics of the University of Coimbra (CFisUC), Department of Physics, Coimbra, PortugalBladder cancer is a common type of cancer, and one with high recurrence rate and overall monitoring and treatment costs. It was developed and tested a three-dimensional agent-based computational model of the urothelium, a purpose-built Cellular Potts Model, to describe both a healthy urothelium and the initiation, development and invasion stages of a bladder cancer. This work is focused on the identification of the conditions in which tumor cells can cross, by mechanical means, the basement membrane and invade the bladder lamina propria. It is demonstrated how specific mechanical properties of the cancer cells, as their stiffness and adhesion to neighboring cells, heavily determine the probability of transition from a non-invasive to an invasive tumor. In particular, it is shown how an increased cellular adhesion of tumor cells to neighbor cells and/or extracellular fibers drives a collective migration, increasing the tumor growth rate and its invasion capacity. It is proposed that these physical characteristics should be considered as potential therapeutic targets to control the tumor growth and its progress to a more dangerous condition.http://www.sciencedirect.com/science/article/pii/S2352914821002252Bladder cancerCellular Potts ModelCollective invasionCell adhesionCell mechanicsCancer therapeutics
collection DOAJ
language English
format Article
sources DOAJ
author Joao Carvalho
Valeria Lopes
Rui Travasso
spellingShingle Joao Carvalho
Valeria Lopes
Rui Travasso
A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
Informatics in Medicine Unlocked
Bladder cancer
Cellular Potts Model
Collective invasion
Cell adhesion
Cell mechanics
Cancer therapeutics
author_facet Joao Carvalho
Valeria Lopes
Rui Travasso
author_sort Joao Carvalho
title A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
title_short A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
title_full A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
title_fullStr A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
title_full_unstemmed A three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
title_sort three dimensional computer model of urothelium and bladder cancer initiation, progress and collective invasion
publisher Elsevier
series Informatics in Medicine Unlocked
issn 2352-9148
publishDate 2021-01-01
description Bladder cancer is a common type of cancer, and one with high recurrence rate and overall monitoring and treatment costs. It was developed and tested a three-dimensional agent-based computational model of the urothelium, a purpose-built Cellular Potts Model, to describe both a healthy urothelium and the initiation, development and invasion stages of a bladder cancer. This work is focused on the identification of the conditions in which tumor cells can cross, by mechanical means, the basement membrane and invade the bladder lamina propria. It is demonstrated how specific mechanical properties of the cancer cells, as their stiffness and adhesion to neighboring cells, heavily determine the probability of transition from a non-invasive to an invasive tumor. In particular, it is shown how an increased cellular adhesion of tumor cells to neighbor cells and/or extracellular fibers drives a collective migration, increasing the tumor growth rate and its invasion capacity. It is proposed that these physical characteristics should be considered as potential therapeutic targets to control the tumor growth and its progress to a more dangerous condition.
topic Bladder cancer
Cellular Potts Model
Collective invasion
Cell adhesion
Cell mechanics
Cancer therapeutics
url http://www.sciencedirect.com/science/article/pii/S2352914821002252
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