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人体眼球反旋:通过电磁巩膜线圈记录评估静态和动态特性

Human ocular counterroll: assessment of static and dynamic properties from electromagnetic scleral coil recordings.

作者信息

Collewijn H, Van der Steen J, Ferman L, Jansen T C

出版信息

Exp Brain Res. 1985;59(1):185-96. doi: 10.1007/BF00237678.

DOI:10.1007/BF00237678
PMID:4018196
Abstract

Static and dynamic components of ocular counterroll as well as cyclorotatory optokinetic nystagmus were measured with a scleral search coil technique. Static counterroll compensated for about 10% of head roll when the head was tilted to steady positions up to 20 deg from the upright position. The dynamic component of counterroll, which occurs only while the head is moving, is much larger. It consists of smooth compensatory cyclorotation opposite to the head rotation, interrupted frequently by saccades moving in the same direction as the head. During voluntary sinusoidal head roll, cyclorotation compensated from 40% to more than 70% of the head motion. In the range 0.16 to 1.33 Hz, gain increased with frequency and with the amount of visual information. The lowest values were found in darkness. The gain increased in the presence of a visual fixation point and a further rise was induced by a structured visual pattern. Resetting saccades were made more frequently in the dark than in the light. These saccades were somewhat slower than typical horizontal saccades. Cyclorotatory optokinetic nystagmus could be induced by a patterned disk rotating around the visual axis. It was highly variable even within a same subject and had in general a very low gain (mean value about 0.03 for stimulus velocities up to 30 deg/s). It is concluded that cyclorotational slip velocity on the retina is considerably reduced by counterroll during roll of the head, although the residual cyclorotation after the head has reached a steady position is very small.

摘要

采用巩膜搜索线圈技术测量了眼反向转动的静态和动态成分以及旋转性视动性眼球震颤。当头部从直立位置倾斜至稳定位置达20度时,静态反向转动可补偿约10%的头部侧倾。反向转动的动态成分仅在头部移动时出现,幅度要大得多。它由与头部旋转方向相反的平滑代偿性旋转组成,常被与头部同向的扫视运动打断。在主动正弦性头部侧倾过程中,旋转可补偿40%至70%以上的头部运动。在0.16至1.33Hz范围内,增益随频率和视觉信息量增加。在黑暗中增益最低。存在视觉注视点时增益增加,结构化视觉模式可进一步提高增益。复位扫视在黑暗中比在明亮环境中更频繁。这些扫视比典型的水平扫视稍慢。围绕视轴旋转的图案盘可诱发旋转性视动性眼球震颤。即使在同一受试者中,其变化也很大,通常增益很低(刺激速度达30度/秒时平均值约为0.03)。研究得出结论,尽管头部达到稳定位置后的残余旋转非常小,但在头部侧倾过程中,反向转动可显著降低视网膜上的旋转滑移速度。

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