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2
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3
Neural dynamics underlying birdsong practice and performance.鸟类鸣叫练习和表现的神经动力学基础。
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Molecular networks of the FOXP2 transcription factor in the brain.大脑中 FOXP2 转录因子的分子网络。
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Autism-linked gene FoxP1 selectively regulates the cultural transmission of learned vocalizations.与自闭症相关的基因FoxP1选择性地调节习得发声的文化传播。
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8
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鸣禽发育过程中基底神经节鸣唱回路中棘状神经元结构的变化及其受miR-9的调控

Change of Spiny Neuron Structure in the Basal Ganglia Song Circuit and Its Regulation by miR-9 during Song Development.

作者信息

Jarrell Hannah, Akhtar Ansab, Horowitz Max, Huang Zhi, Shi Zhimin, Fang ZhiDe, Li XiaoChing

机构信息

Neuroscience Center of Excellence, School of Medicine, Louisiana State University Health Sciences Center, New Orleans, Louisiana 70112.

Biostatistics & Data Science Program, School of Public Health, Louisiana State University Health Sciences Center, New Orleans, Louisiana 70112.

出版信息

J Neurosci. 2025 Jul 16;45(29):e2276232025. doi: 10.1523/JNEUROSCI.2276-23.2025.

DOI:10.1523/JNEUROSCI.2276-23.2025
PMID:40514244
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC12268974/
Abstract

Juvenile zebra finches learn to sing by imitating conspecific songs of adults during a sensitive period early in life. Area X is a basal ganglia nucleus of the song control circuit specialized for song-related sensory-motor learning during song development. The structural plasticity and the molecular mechanisms regulating neuronal structure in Area X during song development and maturation are unclear. In this study, we examined the structure of spiny neurons, the main neuron type in Area X, at key stages of song development in male zebra finches. We report that dendritic arbor of spiny neurons expands during the sensitive period for song learning, and this initial growth is followed by pruning of dendrites and spines accompanied by changes in spine morphology as the song circuit matures. Previously, we showed that overexpression of miR-9 in Area X impairs song learning and performance and alters the expression of many genes that have important roles in neuronal structure and function (Shi et al., 2018). As an extension of that study, we report here that overexpression of miR-9 in spiny neurons in juvenile zebra finches reduces dendritic arbor complexity and spine density in a developmental stage-specific manner. We also show that miR-9 regulates the structural maintenance of spiny neurons in adulthood. Together, these findings reveal dynamic microstructural changes in the song circuit during the sensitive period of song development and provide evidence that miR-9 regulates neuronal structure during song development and maintenance.

摘要

幼年斑胸草雀在生命早期的一个敏感期通过模仿成年同类的歌声来学习唱歌。X区是歌曲控制回路中的一个基底神经节核,专门用于在歌曲发育过程中与歌曲相关的感觉运动学习。在歌曲发育和成熟过程中,X区的结构可塑性以及调节神经元结构的分子机制尚不清楚。在本研究中,我们在雄性斑胸草雀歌曲发育的关键阶段检查了X区主要神经元类型——棘状神经元的结构。我们报告称,棘状神经元的树突分支在歌曲学习的敏感期内会扩展,并且在歌曲回路成熟时,这种最初的生长会伴随着树突和棘突的修剪以及棘突形态的变化。此前,我们发现X区中miR-9的过表达会损害歌曲学习和表现,并改变许多在神经元结构和功能中起重要作用的基因的表达(Shi等人,2018年)。作为该研究的延伸,我们在此报告,幼年斑胸草雀棘状神经元中miR-9的过表达会以发育阶段特异性的方式降低树突分支复杂性和棘突密度。我们还表明,miR-9在成年期调节棘状神经元的结构维持。总之,这些发现揭示了歌曲发育敏感期内歌曲回路的动态微观结构变化,并提供了证据表明miR-9在歌曲发育和维持过程中调节神经元结构。