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植入式分布式神经假肢系统中的刺激和肌电记录模块的设计与测试。

Design and Testing of Stimulation and Myoelectric Recording Modules in an Implanted Distributed Neuroprosthetic System.

出版信息

IEEE Trans Biomed Circuits Syst. 2021 Apr;15(2):281-293. doi: 10.1109/TBCAS.2021.3066838. Epub 2021 May 25.

Abstract

Implantable motor neuroprostheses can restore functionality to individuals with neurological disabilities by electrically activating paralyzed muscles in coordinated patterns. The typical design of neuroprosthetic systems relies on a single multi-use device, but this limits the number of stimulus and sensor channels that can be practically implemented. To address this limitation, a modular neuroprosthesis, the "Networked Neuroprosthesis" (NNP), was developed. The NNP system is the first fully implanted modular neuroprosthesis that includes implantation of all power, signal processing, biopotential signal recording, and stimulating components. This paper describes the design of stimulation and recording modules, bench testing to verify stimulus outputs and appropriate filtering and recording, and validation that the components function properly while implemented in persons with spinal cord injury. The results of system testing demonstrated that the NNP was functional and capable of generating stimulus pulses and recording myoelectric, temperature, and accelerometer signals. Based on the successful design, manufacturing, and testing of the NNP System, multiple clinical applications are anticipated.

摘要

可植入式运动神经假体可以通过以协调的模式电激活瘫痪的肌肉,从而为患有神经功能障碍的个体恢复功能。神经假体系统的典型设计依赖于单个多用途设备,但这限制了实际可实现的刺激和传感器通道的数量。为了解决这一限制,开发了一种模块化神经假体,即“网络神经假体”(NNP)。NNP 系统是第一个完全植入式模块化神经假体,包括植入所有电源、信号处理、生物电势信号记录和刺激组件。本文描述了刺激和记录模块的设计、验证刺激输出和适当滤波和记录的台架测试,以及验证组件在脊髓损伤患者中正常运行的情况。系统测试的结果表明,NNP 是功能齐全的,能够产生刺激脉冲,并记录肌电、温度和加速度计信号。基于 NNP 系统的成功设计、制造和测试,预计将有多种临床应用。

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