2019 · 18 citations · 13 references
EngineeringRehabilitation MedicineRobotics EngineeringRehabilitationRehabilitation EngineeringRoboticsForce SensingForce SensorsPhysical RehabilitationRehabilitation BiomechanicsRehabilitation RoboticsRobotic RehabilitationContact Force EstimationForce EstimationForce-torque SensingHuman-robot Physical InteractionPhysical Human-robot Interaction SafetyRehabilitation RobotsResistorsRobotic Force Sensing
Rehabilitation robots can provide high intensity and dosage training or assist patients in activities of daily living and decrease physical strain on clinicians. However, the physical human robot interaction poses a major safety issue, as the close physical contact between user and robot can lead to injuries. Moreover, the magnitude of forces as well as best practices for measuring them, are widely unknown. Therefore, a measurement setup was developed to assess normal and tangential forces that occur in the contact area between an arm and a splint. Force sensitive resistors and a force / torque sensor were combined with two different splint shapes. Initial experiments indicated that the setup gives some insight into magnitudes and distribution of normal forces on the splint-forearm-interface. Experiment results show a dependency of force distributions on the splint shape and sensor locations. Based on these outcomes, we proposed an improved setup for subsequent investigations.
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Real-Time Strap Pressure Sensor System for Powered Exoskeletons
Jesús Tamez-Duque, Rebeca Cobian-Ugalde, Atilla Kilicarslan et al. · Sensors · 2015 · 77 citations · Full text
Engineering, Rehabilitation Medicine, Robotics Engineering +17
Measuring human–robot interaction on wearable robots: A distributed approach
Tommaso Lenzi, Nicola Vitiello, Stefano Rossi et al. · Mechatronics · 2011 · 72 citations
Gautam P. Sadarangani, Xianta Jiang, Lisa Simpson et al. · Frontiers in Bioengineering and Biotechnology · 2017 · 58 citations · Full text