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本文引用的文献

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Feedforward compensation for novel dynamics depends on force field orientation but is similar for the left and right arms.对新动态的前馈补偿取决于力场方向,但左右臂相似。
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A Representation of Effort in Decision-Making and Motor Control.决策与运动控制中努力的一种表现形式。
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Modulation of Saccade Vigor during Value-Based Decision Making.基于价值的决策过程中扫视活力的调节。
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Corticomotoneuronal cells are "functionally tuned".皮质脊髓运动神经元细胞是“功能调谐的”。
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Intermanual transfer characteristics of dynamic learning: direction, coordinate frame, and consolidation of interlimb generalization.动态学习的双手间转移特征:方向、坐标框架以及肢体间泛化的巩固
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Gaze holding deficits discriminate early from late onset cerebellar degeneration.凝视保持缺陷可区分早发性和晚发性小脑变性。
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Local population synchrony and the encoding of eye position in the primate neural integrator.灵长类动物神经整合器中局部群体同步性与眼位编码
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Brainstem nucleus MdV mediates skilled forelimb motor tasks.中脑核团 MdV 介导熟练的前肢运动任务。
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用于控制运动与保持静止的不同神经回路。

Distinct neural circuits for control of movement vs. holding still.

作者信息

Shadmehr Reza

机构信息

Laboratory for Computational Motor Control, Department of Biomedical Engineering, Johns Hopkins School of Medicine, Baltimore, Maryland

出版信息

J Neurophysiol. 2017 Apr 1;117(4):1431-1460. doi: 10.1152/jn.00840.2016. Epub 2017 Jan 4.

DOI:10.1152/jn.00840.2016
PMID:28053244
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5376603/
Abstract

In generating a point-to-point movement, the brain does more than produce the transient commands needed to move the body part; it also produces the sustained commands that are needed to hold the body part at its destination. In the oculomotor system, these functions are mapped onto two distinct circuits: a premotor circuit that specializes in generating the transient activity that displaces the eyes and a "neural integrator" that transforms that transient input into sustained activity that holds the eyes. Different parts of the cerebellum adaptively control the motor commands during these two phases: the oculomotor vermis participates in fine tuning the transient neural signals that move the eyes, monitoring the activity of the premotor circuit via efference copy, whereas the flocculus participates in controlling the sustained neural signals that hold the eyes, monitoring the activity of the neural integrator. Here, I review the oculomotor literature and then ask whether this separation of control between moving and holding is a design principle that may be shared with other modalities of movement. To answer this question, I consider neurophysiological and psychophysical data in various species during control of head movements, arm movements, and locomotion, focusing on the brain stem, motor cortex, and hippocampus, respectively. The review of the data raises the possibility that across modalities of motor control, circuits that are responsible for producing commands that change the sensory state of a body part are distinct from those that produce commands that maintain that sensory state.

摘要

在产生点对点运动时,大脑所做的不仅仅是产生移动身体部位所需的瞬时指令;它还会产生将身体部位保持在目标位置所需的持续指令。在动眼神经系统中,这些功能映射到两个不同的回路:一个是专门产生使眼睛移位的瞬时活动的运动前回路,另一个是将该瞬时输入转换为保持眼睛位置的持续活动的“神经积分器”。小脑的不同部分在这两个阶段自适应地控制运动指令:动眼蚓部参与微调移动眼睛的瞬时神经信号,通过传出副本监测运动前回路的活动,而绒球参与控制保持眼睛位置的持续神经信号,监测神经积分器的活动。在这里,我回顾了动眼神经文献,然后探讨移动和保持之间的这种控制分离是否是一种可能与其他运动方式共享的设计原则。为了回答这个问题,我分别关注脑干、运动皮层和海马体,考虑了各种物种在控制头部运动、手臂运动和 locomotion 时的神经生理学和心理物理学数据。对这些数据的回顾提出了一种可能性,即在各种运动控制方式中,负责产生改变身体部位感觉状态的指令的回路与产生维持该感觉状态的指令的回路是不同的。