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灵长类动物顶岛叶前庭皮质单个神经元的反应。

Responses of single neurons in the parietoinsular vestibular cortex of primates.

作者信息

Akbarian S, Berndl K, Grüsser O J, Guldin W, Pause M, Schreiter U

机构信息

Department of Physiology, Freie Universität, Berlin, West Germany.

出版信息

Ann N Y Acad Sci. 1988;545:187-202. doi: 10.1111/j.1749-6632.1988.tb19564.x.

DOI:10.1111/j.1749-6632.1988.tb19564.x
PMID:3149165
Abstract
  1. Neurons activated by stimulation of the horizontal and/or vertical vestibular semicircular canals were recorded in the parietoinsular vestibular cortex in four awake Java monkeys (Macaca fascicularis) and three squirrel monkeys (Saimiri sciureus). Steady tilt in darkness or during illumination of a vertically striped cylinder or of the normal laboratory surroundings did not lead to a significant change in PIVC neuron activity. Thus vestibular input to this cortical region seems to be restricted to signals originating in the semicircular canal receptors. 2. Vestibular stimulation in the three main experimental planes (roll, yaw, and pitch) and in planes in between provided clear evidence that optimum activation can be found in planes that do not coincide with the planes of the semicircular canals but are distributed over all possible spatial planes through the head. 3. Definite evidence of clustering in subdivisions of PIVC of neurons responding to the same optimum rotation plane was obtained in squirrel monkeys and is also suggested to exist in PIVC of Java monkeys. 4. Nearly all neurons responding to vestibular stimulation were also activated by visual large-field movement (optokinetic stimulation). Responses to optokinetic stimuli were always at optimum when the direction of the movement pattern corresponded to the optimum vestibular plane. Two classes of visual-vestibular interaction were found: Synergistic neurons were those PIVC cells with the strongest response to visual movement stimulation in the opposite direction to that leading to a maximum response to vestibular stimulation. Antagonistic neurons had a response maximum when the visual stimulus was moved in the direction of optimum vestibular stimulation. 5. Most PIVC neurons responded to stimulation of the deep mechanoreceptors in the neck region. This input from the neck receptors was tested quantitatively only in the horizontal plane (trunk rotation with the head fixed in space or head rotation with the trunk fixed in space). It interacted with vestibular signals at the PIVC neurons either in an antagonistic or a synergistic manner, the latter meaning activation during rotation of the head in the same direction as that leading to activation induced by semicircular canal stimulation. 6. In addition to the direction-specific vestibular, visual, and neck receptor inputs, a rather complex somatosensory input to PIVC neurons exists, including responses to stimulation of mechanoreceptors of the skin, the muscles, and the joint receptors of legs and arms. Total body vibration also led to activation of some of the neurons.(ABSTRACT TRUNCATED AT 400 WORDS)
摘要
  1. 在4只清醒的爪哇猴(食蟹猴)和3只松鼠猴中,记录了刺激水平和/或垂直前庭半规管时在顶岛前庭皮质中激活的神经元。在黑暗中、垂直条纹圆柱体照明期间或正常实验室环境照明期间的稳定倾斜,并未导致顶岛前庭皮质(PIVC)神经元活动发生显著变化。因此,该皮质区域的前庭输入似乎仅限于源自半规管感受器的信号。2. 在三个主要实验平面(横滚、偏航和俯仰)以及其间的平面进行前庭刺激,提供了明确的证据,表明在与半规管平面不一致但分布于头部所有可能空间平面的平面中可发现最佳激活。3. 在松鼠猴中获得了PIVC亚区中对相同最佳旋转平面有反应的神经元聚集的明确证据,并且也提示在爪哇猴的PIVC中存在这种情况。4. 几乎所有对前庭刺激有反应的神经元也会被视觉大视野运动(视动刺激)激活。当运动模式的方向与最佳前庭平面相对应时,对视动刺激的反应始终处于最佳状态。发现了两类视觉 - 前庭相互作用:协同神经元是那些对视觉运动刺激反应最强的PIVC细胞,其方向与导致对前庭刺激最大反应的方向相反。拮抗神经元在视觉刺激沿最佳前庭刺激方向移动时反应最大。5. 大多数PIVC神经元对颈部区域的深部机械感受器刺激有反应。仅在水平面(头部固定在空间中时躯干旋转或躯干固定在空间中时头部旋转)对来自颈部感受器的这种输入进行了定量测试。它在前庭岛叶皮质神经元处与前庭信号以拮抗或协同方式相互作用,后者意味着在头部旋转方向与半规管刺激诱导激活的方向相同时激活。6. 除了方向特异性的前庭、视觉和颈部感受器输入外,PIVC神经元还存在相当复杂的体感输入,包括对皮肤、肌肉以及腿部和手臂关节感受器刺激的反应。全身振动也会导致一些神经元的激活。(摘要截取自400字)

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