Title
Mathematical modelling of cancer cell invasion of tissue
Abstract
Cancer cell invasion of tissue is a complex biological process during which cell migration through the extracellular matrix, facilitated by the secretion of degradative enzymes, is a central process. Cells can deform their cytoplasm to produce pseudopodia, anchor these pseudopodia to neighbouring spatial locations in the tissue and detach earlier bonds, to enable them to move and therefore migrate in a specified direction. Genetic mutations, chemoattractant gradients or a lack of nutrients in their current location can stimulate cell motility and cause them to migrate. When cancer cells migrate they degrade the surrounding extracellular matrix, thereby invading new territory. In this paper we propose a hybrid discrete-continuum two-scale model to study the early growth of solid tumours and their ability to degrade and migrate into the surrounding extracellular matrix. The cancer cells are modelled as discrete individual entities which interact with each other via a potential function, while the spatio-temporal dynamics of the other variables in the model (extracellular matrix, matrix degrading enzymes and degraded stroma) are governed by partial differential equations.
Year
DOI
Venue
2008
10.1016/j.mcm.2007.02.034
Mathematical and Computer Modelling
Keywords
Field
DocType
cell migration,hybrid model,matrix degrading enzyme,cancer cell invasion,chemoattractant gradient,matrix degradation,central process,complex biological process,extracellular matrix,discrete-continuum,mathematical modelling,cancer invasion,cell motility,hybrid discrete-continuum two-scale model,cancer cell,partial differential equation,genetics,biological process,enzyme
Cancer cell,Pseudopodia,Secretion,Mathematical analysis,Cell migration,Cytoplasm,Cadherin,Cell biology,Artificial intelligence,Extracellular matrix,Mathematics,Motility
Journal
Volume
Issue
ISSN
47
5-6
Mathematical and Computer Modelling
Citations 
PageRank 
References 
16
2.12
2
Authors
3
Name
Order
Citations
PageRank
Ignacio Ramis-Conde1162.45
Mark A. J. Chaplain2293.77
Alexander R. A. Anderson33610.26