Department of Neurosurgery, University Hospital Hradec Kralove, Charles University, Faculty of Medicine in Hradec Kralove, Czech Republic.
Institute of Experimental Medicine, Czech Academy of Sciences, Prague, Czech Republic.
Neuroscientist. 2022 Apr;28(2):163-179. doi: 10.1177/1073858420966276. Epub 2020 Oct 22.
Evidence from preclinical and clinical research suggest that neuromodulation technologies can facilitate the sublesional spinal networks, isolated from supraspinal commands after spinal cord injury (SCI), by reestablishing the levels of excitability and enabling descending motor signals via residual connections. Herein, we evaluate available evidence that sublesional and supralesional spinal circuits could form a after SCI. We further discuss evidence of translesional network reorganization after SCI in the presence of sensory inputs during motor training. In this review, we evaluate potential mechanisms that underlie translesional circuitry reorganization during neuromodulation and rehabilitation in order to enable motor functions after SCI. We discuss the potential of neuromodulation technologies to engage various components that comprise the translesional network, their functional recovery after SCI, and the implications of the concept of translesional network in development of future neuromodulation, rehabilitation, and neuroprosthetics technologies.
来自临床前和临床研究的证据表明,神经调节技术可以通过重新建立兴奋性水平并通过残余连接使下行运动信号化,从而促进脊髓损伤(SCI)后与上位脊髓命令隔离的亚损伤脊髓网络。在此,我们评估了现有的证据,即 SCI 后亚损伤和超损伤脊髓回路可以形成一个新的连接。我们还讨论了在运动训练期间存在感觉输入时 SCI 后经损伤网络重组的证据。在本综述中,我们评估了神经调节和康复过程中经损伤电路重组的潜在机制,以实现 SCI 后的运动功能。我们讨论了神经调节技术使包括经损伤网络在内的各种组成部分参与的潜力,它们在 SCI 后的功能恢复,以及经损伤网络概念在未来神经调节、康复和神经假体技术发展中的意义。