Hull Court
Department of Neurobiology, Duke University, Durham, North Carolina 27710
Cold Spring Harb Protoc. 2017 May 1;2017(5):2017/5/pdb.top095281. doi: 10.1101/pdb.top095281.
Inhibitory interneurons play a key role in sculpting the information processed by neural circuits. Despite the wide range of physiologically and morphologically distinct types of interneurons that have been identified, common principles have emerged that have shed light on how synaptic inhibition operates, both mechanistically and functionally, across cell types and circuits. This introduction summarizes how electrophysiological approaches have been used to illuminate these key principles, including basic interneuron circuit motifs, the functional properties of inhibitory synapses, and the main roles for synaptic inhibition in regulating neural circuit function. It also highlights how some key electrophysiological methods and experiments have advanced our understanding of inhibitory synapse function.
抑制性中间神经元在塑造神经回路处理的信息方面发挥着关键作用。尽管已经鉴定出了生理和形态上多种多样的不同类型的中间神经元,但一些共同的原则已经浮现出来,这些原则揭示了突触抑制在细胞类型和回路中如何在机制和功能上发挥作用。本引言总结了电生理方法如何被用于阐明这些关键原则,包括基本的中间神经元回路模式、抑制性突触的功能特性,以及突触抑制在调节神经回路功能中的主要作用。它还强调了一些关键的电生理方法和实验如何推进了我们对抑制性突触功能的理解。