Aero- and hydrodynamics have helped us understand how animals fly and swim and develop aerial and aquatic vehicles and robots that move through air and water rapidly, agilely, and efficiently. By contrast, we know surprisingly little about how terrestrial animals move so well in natural terrain, and even the best robots still struggle in complex terrain such as earthquake rubble, cluttered buildings, forest floor, and Martian rocks, an ability required for important applications like search and rescue, structural examination, environmental monitoring, and planetary exploration.
In our lab, we are developing new experimental tools and theoretical models to create the new field of terradynamics that describe complex locomotor-terrain interaction (analogous to fluid-structure interaction), and using terradynamics to better understand animal locomotion and advance robot locomotion in complex terrain.
Analogous to aero- and hydrodynamics, creating terradynamics is an interdisciplinary undertaking at the interface of biology, robotics, and physics. Our group has people with diverse backgrounds in (but not limited to) engineering, mechanics, physics, biology, applied math, and computer science, where each individual has his/her own research domain, but also benefits from the interdisciplinary environment.
We are always looking for motivated and passionate people to join us. If you have interests / background / skills in any of the following, you may find a good fit with our lab.
- Energy Landscapes
- Comparative Biomechanics
- Sensorimotor Control
- Organismal Biology
- Multi-body Dynamics Simulation
- Computer Vision (applied to movement analysis)
- Biological physics
- Statistical mechanics
- Contact Mechanics
- Dynamical Systems
- Stochastic Modeling
- Data-driven Modeling