2010 · 111 citations · 18 references
EngineeringMechatronics EngineeringRobotics EngineeringBiomechanicsMotor ControlRoboticsBipedal LocomotionHuman LocomotionLegged LocomotionLegged RoboticsLocomotion BiomechanicsMusculoskeletal BiomechanicsDynamic LocomotionGround Reaction ForcesLocomotionMuscle ActivationMuscle Activation AnalysisMuscle Activation ModelingMuscle Activation PatternsMusculoskeletal Modeling
The essential component of legged locomotion is control of the ground reaction force. To understand the role of the musculoskeletal body in dynamic locomotion, we investigate bipedal running using a musculoskeletal “Athlete Robot”. The configuration of the muscles in the robot is compatible with the human. The spring-like property of the human lower leg during running is modeled as an elastic blade foot based on findings from biomechanics. The motor command of the robot is represented by time series data of muscle activation. The muscle activation patterns are determined from numerical calculation using a model of the musculoskeletal leg based on the measurement of muscle activity and kinetic data of the human movements. In the simulation results, the robot runs 8 steps with a speed of 3 m/s. We also demonstrate that the real bipedal robot is able to run for several steps.
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Marc H. Raibert, Ernest R. Tello · IEEE Expert · 1986 · 2.7K citations
Gill A. Pratt, Matthew M. Williamson · 2002 · 2.2K citations
Engineering, Mechanical Engineering, Robotics Engineering +17
BigDog, the Rough-Terrain Quadruped Robot
Marc H. Raibert, Kevin Blankespoor, Gabriel M. Nelson et al. · IFAC Proceedings Volumes · 2008 · 1.5K citations
Storage of elastic strain energy in muscle and other tissues
R. McN. Alexander, H. C. Bennet‐Clark · Nature · 1977 · 854 citations
Motor Patterns in Human Walking and Running
Germana Cappellini, Yuri P. Ivanenko, R. E. Poppele et al. · Journal of Neurophysiology · 2006 · 794 citations