We study model self-propelled crawlers which derive their propulsive capabilities from the tangential resistance to motion offered by the environment. Two types of relationships between tangential forces and slip velocities are considered: a linear, Newtonian one and a non-linear one of Bingham-type. Different behaviors result from the two different rheologies. These differences and their implications in terms of motility performance are discussed. Our aim is to develop new tools and insight for future studies of cell motility by crawling
We present experimental and numerical results for a model crawler which is able to extract net posit...
Many cells exploit the bending or rotation of flagellar filaments in order to self-propel in viscous...
A living cell actively generates traction forces on its environment with its actin cytoskeleton. The...
We study model self-propelled crawlers which derive their propulsive capabilities from the tangentia...
We study one-dimensional crawlers, namely, model mechanical systems that exploit cyclic shape change...
We study model locomotors on a substrate, which derive their propulsive capabilities from the tangen...
We study model one-dimensional crawlers, namely, model mechanical systems that can achieve self-prop...
In this paper we study crawling locomotion based on directional frictional interactions, namely, fri...
We formulate and solve the locomotion problem for a bio-inspired crawler consisting of two active el...
This study encompasses the passive interdependence of body material (internal damping, stiffness, an...
The gaits of undulating animals arise from a complex interaction of their central nervous system, mu...
Mechanics, kinematics, and energetics of crawling and burrowing by limbless organisms using hydrosta...
International audienceWe develop a quantitative model of mechanical repolarization in a contraction-...
AbstractWith a simple and versatile microcantilever-based force measurement technique, we have probe...
Nonlinear rheological properties are often relevant in understanding the response of a material to i...
We present experimental and numerical results for a model crawler which is able to extract net posit...
Many cells exploit the bending or rotation of flagellar filaments in order to self-propel in viscous...
A living cell actively generates traction forces on its environment with its actin cytoskeleton. The...
We study model self-propelled crawlers which derive their propulsive capabilities from the tangentia...
We study one-dimensional crawlers, namely, model mechanical systems that exploit cyclic shape change...
We study model locomotors on a substrate, which derive their propulsive capabilities from the tangen...
We study model one-dimensional crawlers, namely, model mechanical systems that can achieve self-prop...
In this paper we study crawling locomotion based on directional frictional interactions, namely, fri...
We formulate and solve the locomotion problem for a bio-inspired crawler consisting of two active el...
This study encompasses the passive interdependence of body material (internal damping, stiffness, an...
The gaits of undulating animals arise from a complex interaction of their central nervous system, mu...
Mechanics, kinematics, and energetics of crawling and burrowing by limbless organisms using hydrosta...
International audienceWe develop a quantitative model of mechanical repolarization in a contraction-...
AbstractWith a simple and versatile microcantilever-based force measurement technique, we have probe...
Nonlinear rheological properties are often relevant in understanding the response of a material to i...
We present experimental and numerical results for a model crawler which is able to extract net posit...
Many cells exploit the bending or rotation of flagellar filaments in order to self-propel in viscous...
A living cell actively generates traction forces on its environment with its actin cytoskeleton. The...