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家鸡(原鸡)外侧膝状核中神经元的反应特性

Response properties of units in the lateral geniculate nucleus of the domestic chick (Gallus domesticus).

作者信息

Pateromichelakis S

出版信息

Brain Res. 1979 May 11;167(2):281-96. doi: 10.1016/0006-8993(79)90823-0.

DOI:10.1016/0006-8993(79)90823-0
PMID:445130
Abstract

One hundred and four visual units of the (ventral) lateral geniculate nucleus (GL) of chicks (Gallus domesticus) were studied with extracellular microelectrodes. Most were extremely responsive to moving targets even at low speeds (0.1 degrees/sec). They were classified as follows. (1) movement-sensitive units with uniform, restricted receptive fields (47%). (2) Movement-sensitive units with small receptive fields possessing regions responding to differing modes of stimulation ('center-periphery units'). (3) Movement-sensitive neurons with uniform, wide receptive fields, larger than 75 degrees x 65 degrees (15%). (4) Movement-insensitive cells, responsive only to illumination changes (7%). (5) Units with indeterminate receptive fields, a poor visual response or a poor response to movement (14%). The firing of neurons in classes I-III was mostly an accurate function of target speed; half of them also provided accurate monitoring of the beginning, course and termination of target movement (tonic units). In view of the above, the high proportion of directionally selective cells (31%) and the large size of many of its receptive fields, the GL is considered as a candidate structure for optomotor integration but the evidence is otherwise scant. There is, however, an apparent contribution to its unit properties from both retinal ganglion cells and neurons from different tectal layers. Whatever its role, it is unlikely to be the functional homologue to the mammalian ventral lateral geniculate as the unit properties of two structures differ substantially.

摘要

用细胞外微电极对家鸡(Gallus domesticus)(腹侧)外侧膝状核(GL)的104个视觉单位进行了研究。即使在低速(0.1度/秒)时,大多数单位对移动目标也有极强的反应。它们分类如下:(1)具有均匀、受限感受野的运动敏感单位(47%);(2)具有小感受野且包含对不同刺激模式有反应区域的运动敏感单位(“中心-周边单位”);(3)具有均匀、宽感受野(大于75度×65度)的运动敏感神经元(15%);(4)仅对光照变化有反应的运动不敏感细胞(7%);(5)感受野不确定、视觉反应差或对运动反应差的单位(14%)。I-III类神经元的放电大多是目标速度的精确函数;其中一半还能精确监测目标运动的起始、过程和终止(紧张性单位)。鉴于上述情况,考虑到方向选择性细胞的高比例(31%)及其许多感受野的大尺寸,外侧膝状核被认为是视动整合的候选结构,但证据并不充分。然而,视网膜神经节细胞和不同顶盖层的神经元对其单位特性显然都有贡献。无论其作用如何,由于这两种结构的单位特性有很大差异,它不太可能是哺乳动物腹侧外侧膝状体的功能同源物。

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