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青蛙顶盖投射神经元的形态与位置:辣根过氧化物酶和钴填充法研究

Morphology and location of tectal projection neurons in frogs: a study with HRP and cobalt-filling.

作者信息

Lázár G, Tóth P, Csank G, Kicliter E

出版信息

J Comp Neurol. 1983 Mar 20;215(1):108-20. doi: 10.1002/cne.902150109.

DOI:10.1002/cne.902150109
PMID:6602154
Abstract

Tectal projection neurons were labeled by retrograde transport of horseradish peroxidase (HRP) or cobaltic-lysine. The tracer substances were delivered iontophoretically or by pressure injection or diffusion into various regions of the brain or spinal cord. Histochemical procedures allowed identification of labeled cells projecting to the injected regions. Many neurons were filled with cobaltic-lysine, resulting in a Golgi-like staining. After cobalt injections in the diencephalon most of the labeled cells, identified as small piriform neurons, were located in layer 8 of the tectum. Two types of small piriform neurons were distinguished. Type 1 neurons have flat dendritic arborizations confined to lamina D, while the dendrites of type 2 cells may span all of the superficial tectal strata. In smaller numbers large piriform, pyramidal, and ganglionic cells of the periventricular tectal layers were labeled after diencephalic injections. Rhombencephalic cobalt and HRP injections labeled cells whose axons form the tectobulbospinal tract. The neurons most frequently labeled were large ganglionic cells. Ipsilaterally, the majority of their somata were located in layer 7, and their dendrites arborized mainly in lamina F. Contralaterally, labeled ganglionic cell somata occupied the top of layer 6, and most of their dendritic end-branches entered lamina B. The possible functional significance of this anatomical arrangement is discussed. After tectal cobalt injections the topography of the tectoisthmic projection and the terminals of tectal efferent fibers in the diencephalon and brainstem were observed. It is concluded that the organization of frog tectofugal pathways is very similar to that of mammals.

摘要

顶盖投射神经元通过辣根过氧化物酶(HRP)或钴赖氨酸的逆行运输进行标记。示踪物质通过离子电泳、压力注射或扩散的方式递送至脑或脊髓的各个区域。组织化学方法可识别投射至注射区域的标记细胞。许多神经元充满了钴赖氨酸,呈现出类似高尔基染色的效果。在间脑注射钴后,大多数被鉴定为小梨状神经元的标记细胞位于顶盖的第8层。区分出了两种类型的小梨状神经元。1型神经元具有局限于D层的扁平树突分支,而2型细胞的树突可能跨越顶盖所有浅层。间脑注射后,数量较少的大型梨状、锥体状和室周顶盖层的神经节细胞被标记。后脑注射钴和HRP标记了其轴突形成顶盖-延髓-脊髓束的细胞。最常被标记的神经元是大型神经节细胞。在同侧,它们的大多数胞体位于第7层,树突主要在F层分支。在对侧,标记的神经节细胞胞体占据第6层顶部,其大多数树突终末分支进入B层。讨论了这种解剖学排列可能的功能意义。在顶盖注射钴后,观察了顶盖-峡核投射的拓扑结构以及顶盖传出纤维在间脑和脑干中的终末。得出结论,青蛙顶盖传出通路的组织与哺乳动物非常相似。

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