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雪貂视网膜神经节细胞层中神经元的出生日期。

Birthdates of neurons in the retinal ganglion cell layer of the ferret.

作者信息

Reese B E, Thompson W F, Peduzzi J D

机构信息

Neuroscience Research Institute, University of California at Santa Barbara 93106-5060.

出版信息

J Comp Neurol. 1994 Mar 22;341(4):464-75. doi: 10.1002/cne.903410404.

DOI:10.1002/cne.903410404
PMID:8201024
Abstract

The present study determined the temporal and spatial patterns of genesis for neurons of different sizes in the retinal ganglion cell layer of the ferret. Fetal ferrets were exposed to tritiated thymidine on embryonic days E-22 through E-36. One to 3 months after birth, they were perfused and their retinae dissected, and autoradiographs were prepared from resin-embedded sections throughout the entire flattened retinal ganglion cell layer. Soma size differences in conjunction with separate retrograde labeling and calbindin immunocytochemical studies were used as criteria for identifying different retinal ganglion cell subtypes in juvenile and adult ferrets. Neurons of different sizes in the ganglion cell layer were generated at different stages during development. Medium sized cells were generated primarily between E-22 and E-26; the largest cells were generated between E-24 and E-29; small cells were generated between E-26 and E-32; and very small cells were generated between E-29 and E-36. The former three groups were interpreted to be three subtypes of retinal ganglion cells, while the latter group was interpreted to be displaced amacrine cells. This temporal order of the genesis of ganglion cell classes is consistent with the spatial ordering of their fibers in the mature optic chiasm and tract, and it is consistent with the developmental change in decussation pattern recently shown in the optic pathway of embryonic ferrets. The spatial pattern of genesis suggests that ganglion cells of a particular class are added to the ganglion cell layer in a centroperipheral fashion initiated in the dorsocentral retina nasal to the area centralis. No evidence was found for a wave of ganglion cell addition that proceeded in a spiralling pattern around the area centralis, as has been reported in the cat.

摘要

本研究确定了雪貂视网膜神经节细胞层中不同大小神经元的发生时间和空间模式。将胎龄雪貂在胚胎第E-22天至E-36天期间暴露于氚标记胸腺嘧啶核苷。出生后1至3个月,对它们进行灌注并解剖视网膜,从整个扁平视网膜神经节细胞层的树脂包埋切片制备放射自显影片。结合单独的逆行标记和钙结合蛋白免疫细胞化学研究,将体细胞大小差异用作识别幼年和成年雪貂中不同视网膜神经节细胞亚型的标准。神经节细胞层中不同大小的神经元在发育的不同阶段产生。中等大小的细胞主要在E-22至E-26之间产生;最大的细胞在E-24至E-29之间产生;小细胞在E-26至E-32之间产生;非常小细胞在E-29至E-36之间产生。前三组被解释为视网膜神经节细胞的三种亚型,而后一组被解释为移位无长突细胞。神经节细胞类别的这种发生时间顺序与它们的纤维在成熟视交叉和视束中的空间排列一致,并与最近在胚胎雪貂视路中显示的交叉模式的发育变化一致。发生的空间模式表明,特定类别的神经节细胞以从视网膜中央凹鼻侧的背中央视网膜开始的向心-外周方式添加到神经节细胞层。未发现有证据表明神经节细胞的添加是以围绕中央凹呈螺旋状的方式进行的,如在猫中所报道的那样。

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