IEEE Transactions on Robotics and Automation · 2000 · 211 citations · 23 references
EngineeringMechanical EngineeringRobotics EngineeringRobot ControlRobot DynamicsRoboticsBioinspired LocomotionBipedal LocomotionLegged LocomotionLegged Robot ControlLegged RoboticsLocomotor ControlBioinspired Locomotion ControlBrachiationController-based LocomotionLocomotionLocomotion ModelingLocomotor DynamicsRobotic LocomotionSwing-up Control
We report on our empirical studies of a new controller for a two-link brachiating robot. Motivated by the pendulum-like motion of an ape's brachiation, we encode this task as the output of a "target dynamical system". Numerical simulations indicate that the resulting controller solves a number of brachiation problems that we term the "ladder", "swing-up", and "rope" problems. Preliminary analysis provides some explanation for this success. The proposed controller is implemented on a physical system in our laboratory. The robot achieves behaviors including "swing locomotion" and "swing up" and is capable of continuous locomotion over several rungs of a ladder. We discuss a number of formal questions whose answers will be required to gain a full understanding of the strengths and weaknesses of this approach.
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Introduction to Numerical Analysis.
Carl-Erik Fröberg, Josef Stoer, Roland Bulirsch · Mathematics of Computation · 1981 · 5.5K citations
Marc H. Raibert, Ernest R. Tello · IEEE Expert · 1986 · 2.7K citations
The swing up control problem for the Acrobot
Mark W. Spong · IEEE Control Systems · 1995 · 950 citations
Engineering, Mechanical Engineering, Robotics Engineering +17