#6 · Systems biology
Adhesion and edge kinematics couple cytoskeletal mechanics to cell migration
The common thread is mechanical coupling between cytoskeletal force generation and cell-scale behaviour. In the glioblastoma study, a mechanical polarity descriptor and a catch/slip-bond model relate adhesion kinetics to directional stability of migration on ECM substrates. The hypotonic swelling preprint attributes a transient traction-force drop to a kinematically dominated regime in which cytoskeletal mechanics govern edge velocity. A third preprint applies a multiphysics finite-element framework to intestinal healing, coupling fibroblast reaction-diffusion, collagen remodeling and scar contraction to sutureless surgical strategy. What is new is the joint treatment of adhesion, edge kinematics and polarity as determinants of migratory behaviour. These items do not present one integrated model, so the coupling is inferred across studies rather than demonstrated within a single framework.
Published papers
Mechanical polarity links adhesion-regulated protrusions to directional stability in glioblastoma cell migration.
Mechanical polarity descriptor and catch/slip-bond model link adhesion kinetics to glioblastoma migration stability on ECM substrates.
Preprints
Kinematically-Dominated Regime Shapes Cell Traction Force Dynamics under Osmotic Shock
Biophysical model linking cytoskeletal mechanics to edge velocity explains transient traction-force drop during hypotonic swelling.
A mechanobiological computational framework of intestinal healing for sutureless surgical strategies
Multiphysics finite-element framework (FEniCS) modeling fibroblast reaction-diffusion, collagen remodeling, and scar contraction in GI healing to guide…
Topic history
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