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兔小脑绒球视觉信息的空间组织。II. 浦肯野细胞的复合和简单锋电位反应。

Spatial organization of visual messages of the rabbit's cerebellar flocculus. II. Complex and simple spike responses of Purkinje cells.

作者信息

Graf W, Simpson J I, Leonard C S

机构信息

Rockefeller University, New York 10021.

出版信息

J Neurophysiol. 1988 Dec;60(6):2091-121. doi: 10.1152/jn.1988.60.6.2091.

DOI:10.1152/jn.1988.60.6.2091
PMID:3236063
Abstract
  1. Complex and simple spike responses of Purkinje cells were recorded in the flocculus of anesthetized, paralyzed rabbits during rotating full-field visual stimuli produced by a three-axis planetarium projector. 2. On the basis of the spatial properties of their complex spike responses, floccular Purkinje cells could be placed into three distinct classes called Vertical Axis, Anterior (45 degrees) Axis and Posterior (135 degrees) Axis. The first two classes occurred in both monocular and binocular forms; the third class was encountered only in binocular form. For the binocular response forms, stimulation through one eye, called the dominant eye, elicited a stronger modulation of the complex spike firing rate than did stimulation of the other eye. The approximate orientation of that axis about which full-field rotation elicited the deepest modulation (the preferred axis) when presented to the dominant eye served as the class label. These classes are the same as those determined qualitatively for inferior olive neurons in the previous paper (47). The present study provides a quantitative description of their spatial tuning. 3. For Vertical Axis cells, the dominant eye was ipsilateral with respect to the flocculus recording site. The preferred axis was vertical and null (no-response) axes were in the horizontal plane. For the binocular response form of Vertical Axis cells (less than 10% of this class), the direction preferences for the two eyes were synergistic with respect to rotation about the vertical axis. 4. The dominant eye for the Anterior (45 degrees) Axis cells was contralateral, with the preferred axis oriented in the horizontal plane at approximately 45 degrees contralateral azimuth. The modulation depth showed a close to cosine relation with the angle between the preferred axis and the stimulus rotation axis. The average orientation (n = 10) for the dominant eye preferred axis, determined by the best-fit sinusoid, was 47 degrees contralateral azimuth. The preferred axis orientation for the ipsilateral (nondominant) eye in the binocular response forms was between 45 and 90 degrees azimuth in the horizontal plane. A null axis for each eye was at approximately 90 degrees to the preferred axis. 5. The Posterior (135 degrees) Axis cells were encountered only in binocular response forms. The dominant eye was ipsilateral, with the preferred axis oriented at approximately 135 degrees ipsilateral azimuth close to the horizontal plane. The modulation depth showed a close to cosine relation with the angle between the preferred axis and the stimulus rotation axis.(ABSTRACT TRUNCATED AT 400 WORDS)
摘要
  1. 在由三轴天象仪投影仪产生的旋转全视野视觉刺激期间,记录了麻醉、麻痹兔绒球中小脑浦肯野细胞的复杂和简单锋电位反应。2. 根据其复杂锋电位反应的空间特性,绒球浦肯野细胞可分为三个不同的类别,称为垂直轴、前(45度)轴和后(135度)轴。前两类有单眼和双眼两种形式;第三类仅见于双眼形式。对于双眼反应形式,通过一只眼睛(称为优势眼)的刺激比另一只眼睛的刺激引起更强的复杂锋电位发放率调制。当呈现给优势眼时,全视野旋转引起最深调制的轴(首选轴)的大致方向用作类别标签。这些类别与前一篇论文(47)中对下橄榄核神经元定性确定的类别相同。本研究提供了它们空间调谐的定量描述。3. 对于垂直轴细胞,优势眼与绒球记录部位同侧。首选轴是垂直的,零反应轴在水平面内。对于垂直轴细胞的双眼反应形式(该类别的不到10%),两只眼睛对围绕垂直轴旋转的方向偏好是协同的。4. 前(45度)轴细胞的优势眼是对侧的,首选轴在水平面内大约向对侧方位45度方向。调制深度与首选轴和刺激旋转轴之间的夹角呈近似余弦关系。通过最佳拟合正弦曲线确定的优势眼首选轴的平均方向(n = 10)为对侧方位47度。在双眼反应形式中,同侧(非优势)眼的首选轴方向在水平面内方位45度至90度之间。每只眼睛的零反应轴与首选轴大约成90度。5. 后(135度)轴细胞仅见于双眼反应形式。优势眼是同侧的,首选轴在接近水平面的同侧方位大约135度方向。调制深度与首选轴和刺激旋转轴之间的夹角呈近似余弦关系。(摘要截于400字)

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