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鲎虫(Bosc)(甲壳纲,鳃足亚纲)幼体发育过程中神经系统的形成:一项免疫组织化学研究。

The formation of the nervous system during larval development in Triops cancriformis (Bosc) (crustacea, Branchiopoda): An immunohistochemical survey.

作者信息

Fritsch Martin, Richter Stefan

机构信息

Institut für Biowissenschaften, Allgemeine und Spezielle Zoologie, Universität Rostock, Rostock, Germany.

出版信息

J Morphol. 2010 Dec;271(12):1457-81. doi: 10.1002/jmor.10892.

DOI:10.1002/jmor.10892
PMID:20938985
Abstract

We provide data of the development of thenervous system during the first five larval stages of Triops cancriformis. We use immunohistochemical labeling (against acetylated α-tubulin, serotonin, histamine, and FMRFamide), confocal laser scanning microscopy analysis, and 3D-reconstruction. The development of the nervous system corresponds with the general anamorphic development in T. cancriformis. In larval stage I (L I), all brain parts (proto-, deuto-, and tritocerebrum), the circumoral connectives, and the mandibular neuromere are already present. Also, the frontal filaments and the developing nauplius eye are already present. However, until stage L III, the nauplius eye only consists of three cups. Throughout larval development, the protocerebral network differentiates into distinct subdivisions. In the postnaupliar region, additional neuromeres and their commissures emerge in an anteroposterior gradient. The larval nervous system in L V consists of a differentiated protocerebrum including a central body, a nauplius eye comprising four cups, a circumoral nerve ring, mandibular- and postnaupliar neuromeres up to the seventh thoracic segment, each featuring an anterior and a posterior commissure, and two parallel connectives. The presence of a protocerebral bridge is questionable. The distribution of neurotransmitters in L I is restricted to the naupliar nervous system. Over the course of the five stages of development, neurotransmitter distribution also follows an anteroposterior gradient. Each neuromere is equipped with two ganglia innervating the locomotional appendages and possesses a specific neurotransmitter distribution pattern. We suggest a correlation between neurotransmitter expression and locomotion.

摘要

我们提供了三刺鲎幼虫前五个阶段神经系统发育的数据。我们使用免疫组织化学标记(针对乙酰化α-微管蛋白、5-羟色胺、组胺和弗罗因德酰胺)、共聚焦激光扫描显微镜分析和三维重建。神经系统的发育与三刺鲎的一般不完全变态发育相对应。在幼虫第一阶段(L I),所有脑区(前脑、中脑和后脑)、围口神经索和下颌神经节已经存在。此外,额丝和发育中的无节幼体眼也已存在。然而,直到L III阶段,无节幼体眼仅由三个杯状体组成。在整个幼虫发育过程中,前脑网络分化为不同的亚区域。在无节幼体后期区域,额外的神经节及其连合以前后梯度出现。L V期的幼虫神经系统由一个分化的前脑组成,包括一个中央体,一个由四个杯状体组成的无节幼体眼,一个围口神经环,下颌和无节幼体后期神经节直至第七胸节,每个神经节都有一个前连合和一个后连合,以及两条平行的神经索。前脑桥的存在存在疑问。L I期神经递质的分布仅限于无节幼体神经系统。在五个发育阶段中,神经递质的分布也遵循前后梯度。每个神经节都配备有两个支配运动附肢的神经节,并具有特定的神经递质分布模式。我们认为神经递质表达与运动之间存在相关性。

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