Marine Science Center |
Joseph Ayers Marine Science Center Northeastern University East Point, Nahant, MA 01908 (781) 581-7370 lobster@neu.edu |
Joel Davis Office of Naval Research 800 North Quincy Street, Ballston Tower One Arlington, VA 22217-5660 (703) 696-4744 davisjl@onr.navy.mil |
Alan Rudolph DARPA/DSO 3701 North Fairfax Drive Arlington, VA 22203-1714 (703) 696-2240 arudolph@darpa.mil< |
Animals have evolved to occupy every environment where one might wish to operate a robot, save outer space. In most cases animal performance transcends the efficiency and agility possible with current engineering solutions. Until recently, there were few examples of actuators that might permit the linear actuation characteristic of animal systems. Moreover advances in transducers and MEMs technology now permit sensors which code environmental information in the same fashion as animal sensors. Combined with new methods of computational network modeling, these advances have permitted development of a new class of truly biomimetic robots. Swimming robots achieve propulsion by whole body undulations or tail flapping. Walking robots use multiple jointed legs to mediate locomotion. Inroads are even being made in flying robots which locomote by flapping wings.
These robotic systems represent the forefront of neurotechnology that implements engineering solutions through the application of biological control and transducer principles. This neurotechnology affords the opportunity to produce truly reactive autonomous robots. Studies of animal behavior have extended these capabilities to reactive navigation and investigation. The integration of these higher order animal control schemes with biomimetic sensors and actuators may revolutionize robotics.
Neurotechnology for Biomimetic
Robots
Joseph Ayers, Joel Davis and Alan
Rudolph [eds]
Biomimetic Sensors Nick McGruer (NU) Paul Zavracky (Microoptical Corp): Biomimetic MEMs Sensors Reid Harrison (CalTech) Fly-Inspired VLSI Vision Sensors John Kauer (Tufts): Electronic Noses Nicolas Franceschini (CNRS Marseilles): Optical flow Sensors Oliver Landolt (Cal Tech) Moving Eye Sensors Biomimetic Actuators Jan Witting & Koray Safak(NU): SMA Actuators Roy Kornbluh (SRI) Electroactive Polymer Artificial Muscle Bob Horning (Honeywell) Electrostatic MEMs Actuators Michael Goldfarb (Vanderbilt) Piezoelectric actuators Biomimetic Control Architectures David Barrett (IS Robotics): Evolved Control Architectures Simon Giszter (MCPH)Biomechanical primitives and hierarchy Joseph Ayers (NU): A Conservative Biomimietic Control Architecture Vehicles Undulatory and Swimming Robots Gavin Miller (SnakeRobots.com) Snake Robots Cricket Wilbur (NU), Scott Currie (UCR), Bill Vorus (UNO): Anguillform Propulsion Jamie Anderson (Draper Labs): Robotic Tuna Motomu Nakashima (Tokyo Institute of Technology) Robotic Dolphin Naomi Kato (Tokai University) Pectoral fin controllers Ambulatory Robots Dan Koditschek(U. Mich.), Bob Full (UC Berkeley): Computational Neuromechanics Holk Cruse (Bielefeld): Insect Based Robots Roger Quinn/Roy Ritzmann (Case Western) Robotic Cockroach Frank Kirchner (GMD: Bonn): Robot Scorpion Flying Robots: Gernot Wendler (Köln): Computer Control of an Insect Flight Motor Ron Fearing (UC Berkeley)A Micromechanical Flying Insect Robert Michelson (Georgia Tech) Entomopter Autonomous Behavior Ralf Möller (U. Zurich) Visual Homing Barbara Webb (Stirling University): Cricket based phonotaxic robot Frank Grasso (MBL): Chemosensory tracking Mark Willis (U. Ariz.) Odor Guided Navigation Owen Holland (Bristol): Predatory Robots Michael Dickinson (UC Berkeley)Sensory control and aerodynamics of maneuverability and target search Srini Srinivasan (Canberra): Visual Control of Bee Navigation and Homing |
Controlled Biological Systems Program |
Office of Naval Research |