Title :
An advanced rehabilitation robotic system for augmenting healthcare
Author :
Hu, John ; Lim, Yi-Je ; Ding, Ye ; Paluska, Daniel ; Solochek, Aaron ; Laffery, David ; Bonato, Paolo ; Marchessault, Ronald
Author_Institution :
Hstar Technol. Co., Cambridge, MA, USA
fDate :
Aug. 30 2011-Sept. 3 2011
Abstract :
Emerging technologies such as rehabilitation robots (RehaBot) for retraining upper and lower limb functions have shown to carry tremendous potential to improve rehabilitation outcomes. Hstar Technologies is developing a revolutionary rehabilitation robot system enhancing healthcare quality for patients with neurological and muscular injuries or functional impairments. The design of RehaBot is a safe and robust system that can be run at a rehabilitation hospital under the direct monitoring and interactive supervision control and at a remote site via telepresence operation control. RehaBot has a wearable robotic structure design like exoskeleton, which employs a unique robotic actuation - Series Elastic Actuator. These electric actuators provide robotic structural compliance, safety, flexibility, and required strength for upper extremity dexterous manipulation rehabilitation training. RehaBot also features a novel non-treadmill paddle platform capable of haptics feedback locomotion rehabilitation training. In this paper, we concern mainly about the motor incomplete patient and rehabilitation applications.
Keywords :
dexterous manipulators; electric actuators; health care; injuries; medical robotics; patient care; patient monitoring; patient rehabilitation; telerobotics; RehaBot; direct monitoring; electric actuators; exoskeleton; haptic feedback locomotion rehabilitation training; healthcare; interactive supervision control; motor incomplete patient; muscular injuries; neurological injuries; nontreadmill paddle platform; rehabilitation application; rehabilitation hospital; rehabilitation robotic system; robotic structural compliance; robotic structural safety; robust system; series elastic actuator; telepresence operation control; upper extremity dexterous manipulation rehabilitation training; wearable robotic structure design; Foot; Joints; Legged locomotion; Robot sensing systems; Safety; Training; Equipment Design; Equipment Failure Analysis; Humans; Man-Machine Systems; Motion Therapy, Continuous Passive; Musculoskeletal Manipulations; Orthotic Devices; Rehabilitation; Reproducibility of Results; Robotics; Sensitivity and Specificity; Therapy, Computer-Assisted;
Conference_Titel :
Engineering in Medicine and Biology Society, EMBC, 2011 Annual International Conference of the IEEE
Conference_Location :
Boston, MA
Print_ISBN :
978-1-4244-4121-1
Electronic_ISBN :
1557-170X
DOI :
10.1109/IEMBS.2011.6090384