Neuronal and network resonance in the external globus pallidus.

IF 2.1 3区 医学 Q3 NEUROSCIENCES
Journal of neurophysiology Pub Date : 2025-08-01 Epub Date: 2025-07-28 DOI:10.1152/jn.00270.2025
Erick Olivares, Charles J Wilson
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引用次数: 0

Abstract

The external globus pallidus (GPe) is a connectional hub in the basal ganglia, receiving from and transmitting synaptic signals to all the other structures. The GPe is composed of a set of interconnected GABAergic projection neurons that fire spontaneously and respond to synaptic inputs by small changes in the timing of the next action potential. This style of synaptic integration produces spiking resonance, a preferential entrainment of spiking to input frequency components close to the cell's own firing rate. GPe neurons differ widely in firing rate, and also differ widely in frequency tuning. If the neurons were not interconnected, the GPe composite output would transmit a broad spectrum of input signals, with each cell transmitting signal components in its preferred frequency range. However, we have found that the sparse mutual inhibition among GPe neurons produces a collective resonance in the local network, not present in the response of any single neuron. Using a computer simulation of a 1,000-neuron subset of the GPe with connectivity based on experimental studies, we describe the emergence of a network resonance depending on the transmission delays in the local network. Our findings show that the resonant network response of the GPe does not require changes in the firing rates of individual neurons. Network resonance arises from coherence among neurons at a specific frequency determined by the delay caused by axonal conduction time and synaptic delay for monosynaptic interactions. Network resonance amplifies the collective response to input frequency components at and near this frequency.NEW & NOTEWORTHY Spiking resonance causes spontaneously firing neurons to preferentially encode information about frequency components of their input that are close to the cell's own rate. In the globus pallidus, transmission delays in the local collateral connections can produce an additional resonance in the collective output of neurons sharing a common input.

外苍白球的神经元和网络共振。
外苍白球(GPe)是基底神经节的连接中枢,接收突触信号并将其传递到所有其他结构。GPe由一组相互连接的gaba能投射神经元组成,这些神经元自发放电,并通过下一个动作电位时间的微小变化对突触输入作出反应。这种类型的突触整合产生了尖峰共振,这是一种优先的尖峰带向接近细胞自身放电速率的输入频率成分。GPe神经元在放电速率上存在很大差异,因此在频率调谐上也存在很大差异。如果神经元没有相互连接,GPe复合输出将传输广谱的输入信号,每个细胞在其偏好的频率范围内传输信号成分。然而,我们发现GPe神经元之间的稀疏相互抑制在局部网络中产生集体共振,而不存在于任何单个神经元的响应中。利用基于实验研究的连接GPe的1000个神经元子集的计算机模拟,我们描述了依赖于本地网络传输延迟的网络共振的出现。我们的研究结果表明,GPe的共振网络反应不需要改变单个神经元的放电速率。网络共振产生于特定频率下神经元间的一致性,该频率由轴突传导时间和单突触相互作用的突触延迟所决定。网络共振放大了在该频率及附近的输入频率分量的集体响应。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Journal of neurophysiology
Journal of neurophysiology 医学-神经科学
CiteScore
4.80
自引率
8.00%
发文量
255
审稿时长
2-3 weeks
期刊介绍: The Journal of Neurophysiology publishes original articles on the function of the nervous system. All levels of function are included, from the membrane and cell to systems and behavior. Experimental approaches include molecular neurobiology, cell culture and slice preparations, membrane physiology, developmental neurobiology, functional neuroanatomy, neurochemistry, neuropharmacology, systems electrophysiology, imaging and mapping techniques, and behavioral analysis. Experimental preparations may be invertebrate or vertebrate species, including humans. Theoretical studies are acceptable if they are tied closely to the interpretation of experimental data and elucidate principles of broad interest.
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