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在协调头部和眼睛运动以获取视觉目标过程中的前庭眼功能。

Vestibulo-ocular function during co-ordinated head and eye movements to acquire visual targets.

作者信息

Barnes G R

出版信息

J Physiol. 1979 Feb;287:127-47. doi: 10.1113/jphysiol.1979.sp012650.

DOI:10.1113/jphysiol.1979.sp012650
PMID:311828
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1281486/
Abstract
  1. Experiments have been conducted on human subjects in an attempt to establish the role of the vestibulo-ocular reflex in the co-ordination of head and eye movements during visual target acquisition. 2. When the subject moved head and eyes to acquire visual targets in the horizontal plane, the eye movement consisted of an initial saccade in the direction of head movement followed by a slower return towards orbital centre which compensated for remaining head movement. 3. When the head was moved either voluntarily or passively in the dark the pattern of eye movement was very similar to that seen during target acquisition. 4. The mean latency between the start of head acceleration and the onset of the saccadic eye movement was greater in the dark (108 msec, S.D. 85 msec) than for the visually induced responses (14 msec, S.D. 59 msec), in which eye movement often preceded head movement when moving to small ( less than 45 degrees) target offset angles. 5. In all experimental conditions gaze displacement at the end of the initial saccade was normally related in a predictive manner to final head position, but when fixating visual targets offset by more than 60 degrees from the central position there were often large errors, 22% of responses undershooting the target by more than 15 degrees. 6. A highly significant (P less than 0.001) linear relationship was found between gaze displacement and head velocity under all experimental conditions. During target acquisition head velocity was normally positively correlated with amplitude of target offset. The large errors in gaze displacement in response to the larger target offsets occurred at levels of head velocity lower than normally associated with such target offsets. 7. The results have led to the suggestion of a dual mode of control for head-eye co-ordination. In one mode, normally associated with small target offsets (less than 45 degrees), control is mediated by retinal error information. In the other mode, associated with larger target offsets, gaze displacement is generated as an automatic response to head turning. 8. The observation of similar relationships between head and eye movement during passive head turning implicates the vestibulo-ocular reflex in the secondary mode of control, and provides support for the hypothesis that the role of the vestibular saccade is to induce a rapid offset of the eyes in the direction of head movement, thus facilitating rapid search and target location.
摘要
  1. 已在人体受试者上进行了实验,试图确定前庭眼反射在视觉目标获取过程中头部和眼球运动协调中的作用。2. 当受试者在水平面内移动头部和眼睛以获取视觉目标时,眼球运动包括在头部运动方向上的初始扫视,随后是向眼眶中心的较慢返回,以补偿剩余的头部运动。3. 当头部在黑暗中主动或被动移动时,眼球运动模式与目标获取期间观察到的模式非常相似。4. 头部加速开始与扫视性眼球运动开始之间的平均潜伏期在黑暗中(108毫秒,标准差85毫秒)比视觉诱发反应(14毫秒,标准差59毫秒)更长,在向小(小于45度)目标偏移角度移动时,眼球运动通常先于头部运动。5. 在所有实验条件下,初始扫视结束时的注视位移通常以预测方式与最终头部位置相关,但当注视偏离中心位置超过60度的视觉目标时,经常会出现大的误差,22%的反应使目标下冲超过15度。6. 在所有实验条件下,发现注视位移与头部速度之间存在高度显著(P小于0.001)的线性关系。在目标获取期间,头部速度通常与目标偏移幅度呈正相关。响应较大目标偏移时注视位移的大误差发生在低于通常与此类目标偏移相关的头部速度水平。7. 这些结果提示了一种用于头部-眼球协调的双模式控制。在一种模式下,通常与小目标偏移(小于45度)相关,控制由视网膜误差信息介导。在另一种模式下,与较大目标偏移相关,注视位移作为对头部转动的自动反应而产生。8. 在被动头部转动期间观察到头部和眼球运动之间的类似关系,这意味着前庭眼反射参与了第二种控制模式,并为前庭扫视的作用是使眼球在头部运动方向上快速偏移从而促进快速搜索和目标定位这一假设提供了支持。
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/92ca/1281486/f773e4da9bd1/jphysiol00753-0136-a.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/92ca/1281486/f773e4da9bd1/jphysiol00753-0136-a.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/92ca/1281486/f773e4da9bd1/jphysiol00753-0136-a.jpg

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