The Dickinson Lab

The research in the lab focuses on the study of insect flight behavior. Even though such everyday phenomenon is more likely to elicit annoyance than wonder, careful inspection reveals wonderful links between fundamental physical and biological processes: neuronal signaling within brains, the dynamics of unsteady fluid flow, the structural mechanics of composite materials, and the behavior of complex nonlinear systems. The aim of our research is to elucidate the means by which flies accomplish their aerodynamic feats. A rigorous mechanistic description of flight requires an integration of biology, engineering, fluid mechanics, and control theory. The long term goal, however, is not simply to understand the material basis of insect flight, but to develop its study into a model that can provide insight to the behavior and robustness of complex systems in general.

Peter Weir's work on polarization vision was featured in ScienceDaily and PhysOrg, great job!

Congrats to Dr. Andrew Straw on his new position as Research Fellow at the Research Institute of Molecular Pathology [strawlab]

Congrats to Alice Robie (PhD '10) on her new position as Post-doctoral Scholar at HHMI's Janelia Farm Research Campus in Dr. Kristin Branson's group.

Current projects

  • We developed a technique for performing whole-cell patch-clamp recordings from genetically identified neurons in behaving Drosophila.

    Learn more
  • By using a fly-sized robot programmed to interact with a real fly within a large behavioral arena, we investigate the fly's motion detection mechanisms.

    Learn more
  • To measure the forces and moments produced by a flapping insect, we have constructed a dynamically scaled robotic wing operatin inside a 3x1x1 cubic meter tow tank.

    Learn more
  • To study flight behavior in a more controlled way than is possible in free flight, we have constructed a series of tethered flight simulators.

    Learn more
  • The red and green squares provide strong visual contrast to flies released within. Despite this, in the near-infrared (850 nm), the transmits almost equal amounts of light in both color regions, and allows flies to be tracked in 3D as they fly.

    Learn more
  • We equipped a wind tunnel with real-time tracking and virtual reality display technology in order to study flight behavior in 'virtual open-loop'.

    Learn more