兴奋性突触后电位
新皮层
神经科学
突触后电位
抑制性突触后电位
子类
生物
突触
皮质(解剖学)
视皮层
动力学(音乐)
兴奋性突触
心理学
受体
生物化学
抗体
免疫学
教育学
作者
Luke Campagnola,Stephanie C. Seeman,Thomas Chartrand,Lisa Kim,Alex Hoggarth,Clare Gamlin,Shinya Ito,Jessica Trinh,Pasha A. Davoudian,Cristina Radaelli,Mean-Hwan Kim,Travis A Hage,Thomas Braun,Lauren Alfiler,Júlia Andrade,Phillip Bohn,Rachel Dalley,Alex M. Henry,Sara Kebede,Alice Mukora
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2022-03-10
卷期号:375 (6585)
被引量:251
标识
DOI:10.1126/science.abj5861
摘要
We present a unique, extensive, and open synaptic physiology analysis platform and dataset. Through its application, we reveal principles that relate cell type to synaptic properties and intralaminar circuit organization in the mouse and human cortex. The dynamics of excitatory synapses align with the postsynaptic cell subclass, whereas inhibitory synapse dynamics partly align with presynaptic cell subclass but with considerable overlap. Synaptic properties are heterogeneous in most subclass-to-subclass connections. The two main axes of heterogeneity are strength and variability. Cell subclasses divide along the variability axis, whereas the strength axis accounts for substantial heterogeneity within the subclass. In the human cortex, excitatory-to-excitatory synaptic dynamics are distinct from those in the mouse cortex and vary with depth across layers 2 and 3.
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