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运动序列的本体感觉协调:速度和位置信息的作用。

Proprioceptive coordination of movement sequences: role of velocity and position information.

作者信息

Cordo P, Carlton L, Bevan L, Carlton M, Kerr G K

机构信息

Robert S. Dow Neurological Sciences Institute, Good Samaritan Hospital and Medical Center, Portland, Oregon 97209.

出版信息

J Neurophysiol. 1994 May;71(5):1848-61. doi: 10.1152/jn.1994.71.5.1848.

DOI:10.1152/jn.1994.71.5.1848
PMID:8064352
Abstract
  1. Recent studies have shown that the CNS uses proprioceptive information to coordinate multijoint movement sequences; proprioceptive input related to the kinematics of one joint rotation in a movement sequence can be used to trigger a subsequent joint rotation. In this paper we adopt a broad definition of "proprioception," which includes all somatosensory information related to joint posture and kinematics. This paper addresses how the CNS uses proprioceptive information related to the velocity and position of joints to coordinate multijoint movement sequences. 2. Normal human subjects sat at an experimental apparatus and performed a movement sequence with the right arm without visual feedback. The apparatus passively rotated the right elbow horizontally in the extension direction with either a constant velocity trajectory or an unpredictable velocity trajectory. The subjects' task was to open briskly the right hand when the elbow passed through a prescribed target position, similar to backhand throwing in the horizontal plane. The randomization of elbow velocities and the absence of visual information was used to discourage subjects from using any information other than proprioceptive input to perform the task. 3. Our results indicate that the CNS is able to extract the necessary kinematic information from proprioceptive input to trigger the hand opening at the correct elbow position. We estimated the minimal sensory conduction and processing delay to be 150 ms, and on the basis of this estimate, we predicted the expected performance with different degrees of reduced proprioceptive information. These predictions were compared with the subjects' actual performances, revealing that the CNS was using proprioceptive input related to joint velocity in this motor task. To determine whether position information was also being used, we examined the subjects' performances with unpredictable velocity trajectories. The results from experiments with unpredictable velocity trajectories indicate that the CNS extracts proprioceptive information related to both the velocity and the angular position of the joint to trigger the hand movement in this movement sequence. 4. To determine the generality of proprioceptive triggering in movement sequences, we estimated the minimal movement duration with which proprioceptive information can be used as well as the amount of learning required to use proprioceptive input to perform the task. The temporal limits for proprioceptive processing in this movement task were established by determining the minimal movement time during which the task could be performed.(ABSTRACT TRUNCATED AT 400 WORDS)
摘要
  1. 最近的研究表明,中枢神经系统利用本体感觉信息来协调多关节运动序列;与运动序列中一个关节旋转运动学相关的本体感觉输入可用于触发后续的关节旋转。在本文中,我们采用“本体感觉”的广义定义,其包括与关节姿势和运动学相关的所有躯体感觉信息。本文探讨中枢神经系统如何利用与关节速度和位置相关的本体感觉信息来协调多关节运动序列。2. 正常人类受试者坐在实验仪器前,在没有视觉反馈的情况下用右臂执行一个运动序列。该仪器以恒定速度轨迹或不可预测的速度轨迹在伸展方向上被动地水平旋转右肘。受试者的任务是当肘部经过规定的目标位置时迅速张开右手,类似于在水平面内的反手投掷。肘部速度的随机化以及视觉信息的缺失是为了阻止受试者使用除本体感觉输入之外的任何信息来执行任务。3. 我们的结果表明,中枢神经系统能够从本体感觉输入中提取必要的运动学信息,以在正确的肘部位置触发手部张开。我们估计最小感觉传导和处理延迟为150毫秒,并基于此估计预测了不同程度的本体感觉信息减少时的预期表现。将这些预测与受试者的实际表现进行比较,揭示出中枢神经系统在这个运动任务中使用了与关节速度相关的本体感觉输入。为了确定是否也使用了位置信息,我们检查了受试者在不可预测速度轨迹下的表现。不可预测速度轨迹实验的结果表明,中枢神经系统提取与关节速度和角位置相关的本体感觉信息,以在这个运动序列中触发手部运动。4. 为了确定运动序列中本体感觉触发的普遍性,我们估计了可使用本体感觉信息的最小运动持续时间以及使用本体感觉输入执行任务所需的学习量。通过确定执行该任务所需的最小运动时间,确定了这个运动任务中本体感觉处理的时间限制。(摘要截选至400字)

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