2017 · 24 citations · 17 references
Fp7 Biomot ProjectEngineeringBioroboticsWearable TechnologyBiomedical EngineeringRehabilitation RoboticsKinesiologySoft RoboticsBiomechanicsSymbiotic Human-robot InteractionBio-inspired RoboticsLegged RobotKinematicsRehabilitation EngineeringGait RehabilitationExoskeletonSmart Wearable RobotRoboticsBiomimetic ActuatorRehabilitationVariable Stiffness ActuatorBipedal LocomotionWearable RoboticsBioinspired RoboticsMedicineActuators
This paper presents design of a novel modular lower-limb gait exoskeleton built within the FP7 BioMot project. Exoskeleton employs a variable stiffness actuator in all 6 joints, a directional-flexibility structure and a novel physical humanrobot interfacing, which allows it to deliver the required output while minimally constraining user's gait by providing passive degrees of freedom. Due to modularity, the exoskeleton can be used as a full lower-limb orthosis, a single-joint orthosis in any of the three joints, and a two-joint orthosis in a combination of any of the two joints. By employing a simple torque control strategy, the exoskeleton can be used to deliver user-specific assistance, both in gait rehabilitation and in assisting people suffering musculoskeletal impairments. The result of the presented BioMot efforts is a low-footprint exoskeleton with powerful compliant actuators, simple, yet effective torque controller and easily adjustable flexible structure.
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Ronald Van Ham, Bram Vanderborght, Michaël Van Damme et al. · Robotics and Autonomous Systems · 2007 · 368 citations
Robot Kinematics, Rehabilitation Robotics, Bipedal Locomotion +13