利用肌电控制的植入式上肢神经假体

K. Kilgore, P. H. Peckham, F. Montague, R. Hart, A. Bryden, Michael W. Keith, H. Hoyen, N. Bhadra
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引用次数: 18

摘要

神经假体使用电刺激瘫痪的肌肉来产生控制肢体的运动。1997年,第一代用于上肢功能的植入式神经假体成功地进行了多中心临床试验,并获得了FDA的批准。我们现在已经开发出了第二代植入式神经假肢系统。这些系统为颈椎水平脊髓损伤患者提供抓握释放、前臂旋前和肘部伸展的控制。该先进系统的主要特点是能够将数据传输到体外,允许使用植入的控制传感器,从而最大限度地减少所需的外部组件。第二代神经假体的临床研究已经开始,它由十二个刺激电极、两个肌电信号记录电极、一个植入的刺激-遥测装置和一个外部控制单元和发送/接收线圈组成。该系统现已应用于三名C5/C6脊髓损伤患者,其中一名患者双侧植入。这三个受试者的结果表明,在附近肌肉受到电刺激的情况下,可以记录随意肌的肌电信号。肌电信号既可用于离散控制信号,也可用于比例控制信号。迄今为止的结果是有希望的,所有的受试者都表现出使用植入的神经假体改善了功能
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Implanted Upper Extremity Neuroprosthesis Utilizing Myoelectric Control
Neuroprostheses use electrical stimulation of paralyzed muscles to produce controlled limb movement. A first generation implanted neuroprosthesis for upper extremity function underwent a successful multi-center clinical trial and received FDA approval in 1997. We have now developed a family of second generation implanted neuroprosthetic systems. These systems provide control of grasp-release, forearm pronation, and elbow extension for individuals with cervical level spinal cord injury. The key feature of the advanced system is the capability to transmit data out of the body, allowing the use of implanted control sensors, thus minimizing the required external components. Clinical studies have been initiated with a second generation neuroprosthesis that consists of twelve stimulating electrodes, two myoelectric signal recording electrodes, an implanted stimulator-telemeter device and an external control unit and transmit/receive coil. This system has now been implemented in three C5/C6 spinal cord injured individuals, including one subject with bilateral implants. The results from these three subjects demonstrate that myoelectric signals can be recorded from voluntary muscles in the presence of electrical stimulation of nearby muscles. Myoelectric signals can be used for both discrete and proportional control signals. The results to date are promising, and all subjects have demonstrated improved function using the implanted neuroprosthesis
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