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Design and validation of exoskeleton actuated by soft modules towards neurorehabilitation - vision-based control for precise reaching motion of upper limb

机译:软模块致神经康复的外骨骼的设计和验证-基于视觉的控制,以实现上肢的精确运动

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摘要

We demonstrated the design, production, and functional properties of the Exoskeleton Actuated by the Soft Modules (EAsoftM). Integrating the 3D printed exoskeleton with passive joints to compensate gravity and with active joints to rotate the shoulder and elbow joints resulted in ultra-light system that could assist planar reaching motion by using the vision-based control law. The EAsoftM can support the reaching motion with compliance realised by the soft materials and pneumatic actuation. In addition, the vision-based control law has been proposed for the precise control over the target reaching motion within the millimeter scale. ud%udAiming at rehabilitation exercise for individuals, typically soft actuators have been developed for relatively small motions, such as grasping motion, and one of the challenges has been to extend their use for a wider range reaching motion. The proposed EAsoftM presented one possible solution for this challenge by transmitting the torque effectively along the anatomically aligned with a human body exoskeleton.ud%udThe proposed integrated systems will be an ideal solution for neurorehabilitation where affordable wearable and portable systems are required to be customised for individuals with specific motor impairments.
机译:我们演示了由软模块(EAsoftM)驱动的外骨骼的设计,生产和功能特性。将3D打印外骨骼与被动关节集成在一起以补偿重力,并与主动关节集成以旋转肩关节和肘关节,从而产生了超轻型系统,该系统可以通过使用基于视觉的控制定律来辅助平面到达运动。 EAsoftM可以通过软质材料和气动促动实现顺应性,从而支持伸手运动。另外,已经提出了基于视觉的控制定律,以精确控制目标到达毫米级以内的运动。 ud% ud针对个人的康复运动,通常已经开发出软致动器来执行相对较小的动作,例如抓握动作,而挑战之一就是将其使用范围扩大到更广泛的动作范围。拟议中的EAsoftM通过沿着与人体外骨骼在解剖学上对准的方向有效地传递扭矩来提供了针对此挑战的一种可能的解决方案。拟议中的集成系统将是神经康复的理想解决方案,在这种情况下,需要价格合理的可穿戴和便携式系统。为具有特定运动障碍的人士量身定制。

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