Schaechter Judith D
MGH/MIT/HMS, Athinoula A. Martinos Center for Biomedical Imaging, 13th Street, Building 149, Room 2301, Charlestown, MA 02129, USA.
Prog Neurobiol. 2004 May;73(1):61-72. doi: 10.1016/j.pneurobio.2004.04.001.
This review intends to begin to build a bridge between our understanding of the effect of motor rehabilitation and brain plasticity on recovery after hemiparetic stroke. It discusses the impact of intensive post-stroke motor rehabilitation on motor recovery. This is followed by an overview of our current understanding, based on human brain mapping technologies, of brain plasticity underlying spontaneous recovery after hemiparetic stroke. These discussions lead to a descriptive review of human brain mapping studies that have begun to provide an understanding of the neural basis of rehabilitation-induced gains in motor function after stroke. Finally, it speculates on how a solid understanding of the neural underpinnings of spontaneous and rehabilitation-induced motor recovery will permit brain mapping technologies to be applied toward optimizing post-stroke motor rehabilitation.
本综述旨在开始搭建一座桥梁,以增进我们对运动康复和脑可塑性对偏瘫性中风后恢复的影响的理解。它讨论了中风后强化运动康复对运动恢复的影响。接下来,基于人脑图谱技术,概述我们目前对偏瘫性中风后自发恢复背后的脑可塑性的理解。这些讨论引出了对人脑图谱研究的描述性综述,这些研究已开始让我们了解中风后康复诱导的运动功能改善的神经基础。最后,推测对自发和康复诱导的运动恢复的神经基础的深入理解将如何使脑图谱技术应用于优化中风后的运动康复。
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