Our group is interested in the emergent behavior of soft and biological materials that are driven out of equilibrium by an external drive, internal activity or quenched disorder. We use theory and computation to investigate the rich dynamics of a broad range of systems, from vibrated granular matter to bacterial suspensions, the cell cytoskeleton and living tissues. Our work makes complementary use of bottom-up modeling and top-down phenomenology to highlight the role of physical interactions relative to genetically and biochemically- regulated signaling in controlling the large scale structural organization and the mechanical properties of these complex systems.
- Active hydrodynamics of self-propelled particles
- Collective cell motion
- Jamming and glassy dynamics of active systems
- Models of contractility and stiffening of the cell cytoskeleton
- Dynamics of motor-driven cytoskeletal networks
- Mechanics of cells and cell colonies on compliant substrates
- Swimmers and rotors in viscous fluids