TY - JOUR
T1 - Collective cell migration due to guidance-by-followers is robust to multiple stimuli
AU - Müller, Robert
AU - Boutillon, Arthur
AU - Jahn, Diego
AU - Starruß, Jörn
AU - David, Nicolas B.
AU - Brusch, Lutz
N1 - Publisher Copyright:
Copyright © 2023 Müller, Boutillon, Jahn, Starruß, David and Brusch.
PY - 2023/1/1
Y1 - 2023/1/1
N2 - Collective cell migration is an important process during biological development and tissue repair but may turn malignant during tumor invasion. Mathematical and computational models are essential to unravel the mechanisms of self-organization that underlie the emergence of collective migration from the interactions among individual cells. Recently, guidance-by-followers was identified as one such underlying mechanism of collective cell migration in the embryo of the zebrafish. This poses the question of how the guidance stimuli are integrated when multiple cells interact simultaneously. In this study, we extend a recent individual-based model by an integration step of the vectorial guidance stimuli and compare model predictions obtained for different variants of the mechanism (arithmetic mean of stimuli, dominance of stimulus with largest transmission interface, and dominance of most head-on stimulus). Simulations are carried out and quantified within the modeling and simulation framework Morpheus. Collective cell migration is found to be robust and qualitatively identical for all considered variants of stimulus integration. Moreover, this study highlights the role of individual-based modeling approaches for understanding collective phenomena at the population scale that emerge from cell-cell interactions.
AB - Collective cell migration is an important process during biological development and tissue repair but may turn malignant during tumor invasion. Mathematical and computational models are essential to unravel the mechanisms of self-organization that underlie the emergence of collective migration from the interactions among individual cells. Recently, guidance-by-followers was identified as one such underlying mechanism of collective cell migration in the embryo of the zebrafish. This poses the question of how the guidance stimuli are integrated when multiple cells interact simultaneously. In this study, we extend a recent individual-based model by an integration step of the vectorial guidance stimuli and compare model predictions obtained for different variants of the mechanism (arithmetic mean of stimuli, dominance of stimulus with largest transmission interface, and dominance of most head-on stimulus). Simulations are carried out and quantified within the modeling and simulation framework Morpheus. Collective cell migration is found to be robust and qualitatively identical for all considered variants of stimulus integration. Moreover, this study highlights the role of individual-based modeling approaches for understanding collective phenomena at the population scale that emerge from cell-cell interactions.
KW - Morpheus
KW - cell migration
KW - cellular Potts model
KW - collective phenomena
KW - guidance-by-followers
KW - individual-based model
KW - zebrafish
UR - https://www.scopus.com/pages/publications/85166025538
U2 - 10.3389/fams.2023.1163583
DO - 10.3389/fams.2023.1163583
M3 - Article
AN - SCOPUS:85166025538
SN - 2297-4687
VL - 9
JO - Frontiers in Applied Mathematics and Statistics
JF - Frontiers in Applied Mathematics and Statistics
M1 - 1163583
ER -