出生后神经发生中的神经递质信号传导:第一阶段

Jean-Claude Platel, Séverine Stamboulian, Ivy Nguyen, Angélique Bordey
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引用次数: 95

摘要

像肝脏或其他外周器官一样,成人大脑的两个区域通过一种称为神经发生的过程具有自我更新的能力。这为修复受损的大脑带来了巨大的希望,并刺激了识别控制神经发生的信号的研究。神经发生包括几个阶段,从命运决定到突触整合,通过增殖、迁移和成熟。虽然命运的决定主要取决于遗传特征,但其他阶段由基因和微环境信号之间的相互作用控制。在这里,我们提出神经递质是神经发生不同阶段的主要调节剂。为了支持这一观点,本文描述了选择性神经递质信号及其在最大神经源区——心室下区(SVZ)中的功能。特别地,我们强调神经母细胞和星形细胞样细胞之间的相互作用,分别释放γ -氨基丁酸(GABA)和谷氨酸。然而,我们也对神经发生中的神经递质知识提出了一些限制。神经递质在体内的功能在很大程度上仍未被探索。神经递质信号被认为是统一的,这与SVZ的细胞和分子镶嵌性质形成鲜明对比。神经递质是如何与其他保守的分子(如超音刺猬)结合在一起的,目前还不太清楚。为了调和这些差异,我们讨论了神经递质功能的特异性如何通过它们在不同细胞类型中的大量受体和细胞内通路以及它们与超音hedgehog基因的可能相互作用来提供。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Neurotransmitter signaling in postnatal neurogenesis: The first leg

Neurotransmitter signaling in postnatal neurogenesis: The first leg

Neurotransmitter signaling in postnatal neurogenesis: The first leg

Like the liver or other peripheral organs, two regions of the adult brain possess the ability of self-renewal through a process called neurogenesis. This raises tremendous hope for repairing the damaged brain, and it has stimulated research on identifying signals controlling neurogenesis. Neurogenesis involves several stages from fate determination to synaptic integration via proliferation, migration, and maturation. While fate determination primarily depends on a genetic signature, other stages are controlled by the interplay between genes and microenvironmental signals. Here, we propose that neurotransmitters are master regulators of the different stages of neurogenesis. In favor of this idea, a description of selective neurotransmitter signaling and their functions in the largest neurogenic zone, the subventricular zone (SVZ), is provided. In particular, we emphasize the interactions between neuroblasts and astrocyte-like cells that release gamma-aminobutyric acid (GABA) and glutamate, respectively. However, we also raise several limitations to our knowledge on neurotransmitters in neurogenesis. The function of neurotransmitters in vivo remains largely unexplored. Neurotransmitter signaling has been viewed as uniform, which dramatically contrasts with the cellular and molecular mosaic nature of the SVZ. How neurotransmitters are integrated with other well-conserved molecules, such as sonic hedgehog, is poorly understood. In an effort to reconcile these differences, we discuss how specificity of neurotransmitter functions can be provided through their multitude of receptors and intracellular pathways in different cell types and their possible interactions with sonic hedgehog.

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Brain Research Reviews
Brain Research Reviews 医学-神经科学
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