电穿孔
内质网
舱室(船)
细胞生物学
神经可塑性
光遗传学
细胞内
神经科学
化学
钙
体内
钙显像
生物物理学
胞浆
感受野
索马
生物神经网络
生物
生物化学
基因
遗传学
有机化学
酶
地质学
海洋学
作者
Justin K. O’Hare,Kevin C. Gonzalez,Stephanie Herrlinger,Yusuke Hirabayashi,Victoria L. Hewitt,Heike Blockus,Miklos Szoboszlay,Sebi V. Rolotti,Tristan Geiller,Adrian Negrean,Vikas Chelur,Franck Polleux,Attila Losonczy
出处
期刊:Science
[American Association for the Advancement of Science (AAAS)]
日期:2022-03-17
卷期号:375 (6586): eabm1670-eabm1670
被引量:119
标识
DOI:10.1126/science.abm1670
摘要
Dendritic calcium signaling is central to neural plasticity mechanisms that allow animals to adapt to the environment. Intracellular calcium release (ICR) from the endoplasmic reticulum has long been thought to shape these mechanisms. However, ICR has not been investigated in mammalian neurons in vivo. We combined electroporation of single CA1 pyramidal neurons, simultaneous imaging of dendritic and somatic activity during spatial navigation, optogenetic place field induction, and acute genetic augmentation of ICR cytosolic impact to reveal that ICR supports the establishment of dendritic feature selectivity and shapes integrative properties determining output-level receptive fields. This role for ICR was more prominent in apical than in basal dendrites. Thus, ICR cooperates with circuit-level architecture in vivo to promote the emergence of behaviorally relevant plasticity in a compartment-specific manner.
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