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Brain machine interface and limb reanimation technologies: Restoring function after spinal cord injury through development of a bypass system

机译:脑机接口和肢体复活技术:通过开发旁路系统恢复脊髓损伤后的功能

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Functional restoration of limb movement after traumatic spinal cord injury (SCI) remains the ultimate goal in SCI treatment and directs the focus of current research strategies. To date, most investigations in the treatment of SCI focus on repairing the injury site. Although offering some promise, these efforts have met with significant roadblocks because treatment measures that are successful in animal trials do not yield similar results in human trials. In contrast to biologic therapies, there are now emerging neural interface technologies, such as brain machine interface (BMI) and limb reanimation through electrical stimulators, to create a bypass around the site of the SCI. The BMI systems analyze brain signals to allow control of devices that are used to assist SCI patients. Such devices may include a computer, robotic arm, or exoskeleton. Limb reanimation technologies, which include functional electrical stimulation, epidural stimulation, and intraspinal microstimulation systems, activate neuronal pathways below the level of the SCI. We present a concise review of recent advances in the BMI and limb reanimation technologies that provides the foundation for the development of a bypass system to improve functional outcome after traumatic SCI. We also discuss challenges to the practical implementation of such a bypass system in both these developing fields.
机译:创伤性脊髓损伤(SCI)后肢体运动的功能恢复仍然是SCI治疗的最终目标,并成为当前研究策略的重点。迄今为止,大多数治疗脊髓损伤的研究都集中在修复损伤部位。尽管提供了一些希望,但这些努力遇到了重大障碍,因为在动物试验中成功的治疗措施在人体试验中未产生相似的结果。与生物疗法相反,现在出现了新兴的神经接口技术,例如脑机接口(BMI)和通过电刺激器恢复肢体,从而在SCI部位周围形成旁路。 BMI系统分析大脑信号,以控制用于协助SCI患者的设备。这样的设备可以包括计算机,机械臂或外骨骼。肢体复活技术(包括功能性电刺激,硬膜外刺激和脊柱内微刺激系统)激活低于SCI水平的神经元通路。我们对BMI和肢体复活技术的最新进展进行了简要回顾,这为开发旁路系统以改善创伤性SCI后的功能预后奠定了基础。我们还将讨论在这两个开发领域中如何实际实施这种旁路系统的挑战。

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