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HOME » PROGRAMS/ACTIVITIES » Annual Thematic Program
Organizers:
James Collins, Chair
Martin Golubitsky
Daniel Koditschek
Legged animals typically employ multiple gaits, i.e., phase-locked patterns of limb movements, for terrestrial locomotion. The control of animal locomotion involves a central pattern generator (CPG), which is an intraspinal network of neurons capable of producing rhythmic output. Over the past few decades, mathematicians and engineers have become increasingly interested in animal gaits and locomotor CPGs. This interest has largely been motivated by the need for developing control systems for multi-legged robots. Machines capable of legged locomotion are an attractive option, because they can be used to explore rough and uneven terrain, which is often inaccessible to wheeled vehicles. However, the control of such devices, and in particular the coordination of a large number of legs, poses a difficult technical problem. Engineers and mathematicians have increasingly turned to biology for inspiration, on the assumption that biological evolution has led to optimally-designed control mechanisms for legged locomotion. In this area, contemporary topics of interest include:
Click on the titles to find abstracts and/or links to presentation materials
| SCHEDULE for MONDAY, JUNE 1 | ||
|---|---|---|
| W. Miller, F. Dulles, J. Collins |
Welcome and Orientation | |
| CPG/Oscillators | ||
| Sten Grillner, Nobel Institute for Neurophysiology |
The Neuronal Network Underlying Locomotion in Lamprey - Intrinsic Function and Forebrain Control | |
| Philip Holmes, Princeton University |
Simple Models of Excitable Oscillators And CPGs | |
| P. S. Krishnaprasad, University of Maryland |
Oscillations and Motion On Lie Groups | |
| Panel Discussion, James Collins (Boston University), Chair |
CPG/Oscillators | |
| IMA Tea | ||
| SCHEDULE for TUESDAY, JUNE 2 | ||
| Symmetry/Bifurcation | ||
| Joel Burdick, California Institute of Technology |
Controllability and Trajectory Planning for Biomimetic Locomotion | |
| Ian Stewart, University of Warwick |
Legged Locomotion from the Symmetry Viewpoint | |
| Jill Whitall, University of Maryland-Baltimore |
Symmetry, Asymmetry, Bifurcations and Intention in Human Locomotion | |
| Panel Discussion, James Collins, Chair |
Symmetry/Bifurcation | |
| SCHEDULE for WEDNESDAY, JUNE 3 | ||
| Neuro-mechanical Issues | ||
| Martin Buehler, McGill University |
Robots with Simple Legs | |
| Fred Delcomyn, University of Illinois |
Hexapod walking: From Reality to Simulation | |
| Steve Epstein & Nancy Kopell, Boston University |
Resonance Tuning Revisited | |
| Panel Discussion, James Collins, Chair |
Neuro-mechanical Issues | |
| Workshop Dinner | ||
| SCHEDULE for THURSDAY, JUNE 4 | ||
| Mechanics | ||
| Robert Full, University of California-Berkeley |
Neuromechanics of Self-Stabilization and Maneuverability in Polypeds | |
| Andy Ruina & Arthur Kuo, Cornell Univ./Univ. of Michgan |
Passive Walking and Pendual: What Can You Do With Mechanics and Feedback, and Why Do You Need a Clock? | |
| Jerry Marsden, California Institute of Technology |
Lagrangian Reduction and the Falling Cat Theorem | |
| Panel Discussion, James Collins, Chair |
Mechanics | |
| SCHEDULE for FRIDAY, JUNE 5 | ||
| Control | ||
| Randall D. Beer, Case Western Reserve University |
Design, Evolution and Analysis of Biologically-Inspired Control Systems for Walking | |
| Trevor Drew, University of Montreal |
Supraspinal Control Mechanisms Responsible for the Regulation of Locomotion in the Cat | |
| Daniel Koditschek, University of Michigan |
Workshop Summary | |
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