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兔子在水平、额状和矢状平面上的眼球稳定性。

Ocular stability in the horizontal, frontal and sagittal planes in the rabbit.

作者信息

Van der Steen J, Collewijn H

出版信息

Exp Brain Res. 1984;56(2):263-74. doi: 10.1007/BF00236282.

DOI:10.1007/BF00236282
PMID:6332740
Abstract

Eye and head movements in the horizontal, frontal and sagittal planes were recorded in the rabbit with a newly developed technique using dual scleral search coils in a rotating magnetic field. The compensatory eye movements elicited by passive sinusoidal oscillation deteriorated for frequencies below 0.1 Hz in the horizontal, but not in the frontal and sagittal planes. In the light gain was relatively independent of frequency in all planes and amounted to 0.82-0.69, 0.92-0.83 and 0.65-0.59 in the horizontal, frontal and sagittal plane, respectively. In freely moving animals, similar input-output relations were found. The stability of the retinal image thus proved to be inversely proportional to the amount of head movements associated with behavioural activity. Maximal retinal image velocities varied between 2-4 degree/s for a rabbit sitting quietly and 30-40 degrees/s during locomotor activity. Gaze displacements showed different characteristics in the various planes, possibly in relation with the structure of the retinal visual streak. Horizontal gaze changes were mainly effected by saccades. Gaze changes in the frontal plane were relatively rare and effected by non-saccadic, combined head and eye movements with temporary suppression of compensatory eye movements. Eye rotations in the sagittal plane, possibly functioning to adjust the direction of binocular vision vertically, were abundant and effected by large head movements in combination with a low gain of compensatory eye movements in this plane.

摘要

采用一种新开发的技术,即在旋转磁场中使用双巩膜搜索线圈,记录了兔子在水平、额状和矢状平面上的眼动和头部运动。被动正弦振荡引发的代偿性眼动在水平方向上频率低于0.1Hz时会变差,但在额状和矢状平面上不会。在光照下,所有平面上的增益相对与频率无关,在水平、额状和矢状平面上分别为0.82 - 0.69、0.92 - 0.83和0.65 - 0.59。在自由活动的动物中也发现了类似的输入 - 输出关系。因此,视网膜图像的稳定性被证明与与行为活动相关的头部运动量成反比。对于安静坐着的兔子,最大视网膜图像速度在2 - 4度/秒之间变化,而在运动活动期间为30 - 40度/秒。注视位移在各个平面上表现出不同的特征,这可能与视网膜视觉条纹的结构有关。水平注视变化主要由扫视引起。额状平面上的注视变化相对较少,由非扫视性的、头部和眼睛的联合运动引起,同时暂时抑制代偿性眼动。矢状平面上的眼球旋转可能起到垂直调整双眼视觉方向的作用,这种旋转很频繁,是由大幅度的头部运动以及该平面上代偿性眼动的低增益共同作用引起的。

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