脊椎动物轴向运动回路的发展、功能组织和进化。

IF 4 3区 生物学 Q1 DEVELOPMENTAL BIOLOGY
Kristen P D'Elia, Jeremy S Dasen
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引用次数: 26

摘要

神经控制与身体中轴相关的肌肉是大多数动物神经系统的一个古老而重要的功能。在整个脊椎动物进化过程中,致力于控制轴肌的运动回路在运动系统中的作用发生了重大变化。在大多数鱼类中,轴向回路对协调运动所需的肌肉激活序列至关重要,并在姿势纠正中发挥重要作用。在四足动物中,轴向回路进化出了陆地生命所必需的独特功能,包括保持脊柱对齐和呼吸。尽管轴向神经回路在运动行为中扮演着不同的角色,但人们对其组装背后的遗传程序知之甚少。在这篇综述中,我们描述了最近的研究,这些研究揭示了轴向运动电路的发展,并比较和对比了水生和陆地脊椎动物物种中用于连接这些神经网络的策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Development, functional organization, and evolution of vertebrate axial motor circuits.

Development, functional organization, and evolution of vertebrate axial motor circuits.

Development, functional organization, and evolution of vertebrate axial motor circuits.

Development, functional organization, and evolution of vertebrate axial motor circuits.

Neuronal control of muscles associated with the central body axis is an ancient and essential function of the nervous systems of most animal species. Throughout the course of vertebrate evolution, motor circuits dedicated to control of axial muscle have undergone significant changes in their roles within the motor system. In most fish species, axial circuits are critical for coordinating muscle activation sequences essential for locomotion and play important roles in postural correction. In tetrapods, axial circuits have evolved unique functions essential to terrestrial life, including maintaining spinal alignment and breathing. Despite the diverse roles of axial neural circuits in motor behaviors, the genetic programs underlying their assembly are poorly understood. In this review, we describe recent studies that have shed light on the development of axial motor circuits and compare and contrast the strategies used to wire these neural networks in aquatic and terrestrial vertebrate species.

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来源期刊
Neural Development
Neural Development 生物-发育生物学
CiteScore
6.60
自引率
0.00%
发文量
11
审稿时长
>12 weeks
期刊介绍: Neural Development is a peer-reviewed open access, online journal, which features studies that use molecular, cellular, physiological or behavioral methods to provide novel insights into the mechanisms that underlie the formation of the nervous system. Neural Development aims to discover how the nervous system arises and acquires the abilities to sense the world and control adaptive motor output. The field includes analysis of how progenitor cells form a nervous system during embryogenesis, and how the initially formed neural circuits are shaped by experience during early postnatal life. Some studies use well-established, genetically accessible model systems, but valuable insights are also obtained from less traditional models that provide behavioral or evolutionary insights.
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