We present here a mechanics model for the force generation by actin polymerization. The possible adhesions between the actin filaments and the load surface, as well as the nucleation and capping of filament tips, are included in this model on top of the well-known elastic Brownian ratchet formulation. A closed form solution is provided from which the force-velocity relationship, summarizing the mechanics of polymerization, can be drawn. Model predictions on the velocity of moving beads driven by actin polymerization are consistent with experiment observations. This model also seems capable of explaining the enhanced actin-based motility of Listeria monocytogenes and beads by the presence of Vasodilator-stimulated phosphoprotein, as observed...
International audienceActin polymerization is the driving force for a large number of cellular proce...
AbstractAlthough actin-based motility drives cell crawling and intracellular locomotion of organelle...
AbstractCells move by a dynamical reorganization of their cytoskeleton, orchestrated by a cascade of...
AbstractThe motion of many intracellular pathogens is driven by the polymerization of actin filament...
We study force generation and actin filament dynamics using stochastic and deterministic methods. Fi...
AbstractWe developed a transient model for actin-based motility. Diffusion of actin monomers was inc...
Certain kinds of cellular movements are apparently driven by actin polymerization. Examples include ...
We present a simple and generic theoretical description of actin-based motility, where polymerizatio...
AbstractWe present the first numerical simulation of actin-driven propulsion by elastic filaments. S...
AbstractActin polymerization provides a major driving force for eukaryotic cell motility. Successive...
AbstractWe report numerical simulation results for the force-velocity relation for actin-polymerizat...
AbstractActin polymerization is the driving force for a large number of cellular processes. Formatio...
ABSTRACT We present the first numerical simulation of actin-driven propulsion by elastic filaments. ...
Actin polymerization is the primary mechanism for overcoming the large turgor pressure that opposes ...
The actin cytoskeleton drives many essential processes in vivo, using molecular motors and actin ass...
International audienceActin polymerization is the driving force for a large number of cellular proce...
AbstractAlthough actin-based motility drives cell crawling and intracellular locomotion of organelle...
AbstractCells move by a dynamical reorganization of their cytoskeleton, orchestrated by a cascade of...
AbstractThe motion of many intracellular pathogens is driven by the polymerization of actin filament...
We study force generation and actin filament dynamics using stochastic and deterministic methods. Fi...
AbstractWe developed a transient model for actin-based motility. Diffusion of actin monomers was inc...
Certain kinds of cellular movements are apparently driven by actin polymerization. Examples include ...
We present a simple and generic theoretical description of actin-based motility, where polymerizatio...
AbstractWe present the first numerical simulation of actin-driven propulsion by elastic filaments. S...
AbstractActin polymerization provides a major driving force for eukaryotic cell motility. Successive...
AbstractWe report numerical simulation results for the force-velocity relation for actin-polymerizat...
AbstractActin polymerization is the driving force for a large number of cellular processes. Formatio...
ABSTRACT We present the first numerical simulation of actin-driven propulsion by elastic filaments. ...
Actin polymerization is the primary mechanism for overcoming the large turgor pressure that opposes ...
The actin cytoskeleton drives many essential processes in vivo, using molecular motors and actin ass...
International audienceActin polymerization is the driving force for a large number of cellular proce...
AbstractAlthough actin-based motility drives cell crawling and intracellular locomotion of organelle...
AbstractCells move by a dynamical reorganization of their cytoskeleton, orchestrated by a cascade of...