神经肌肉接头终板的静态电压波动机制及相应的去噪范例。

IF 2.2 4区 生物学 Q3 BIOPHYSICS
Jia-Zeng Wang, Pengkun Hu, Shu Ma
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引用次数: 0

摘要

神经肌肉接头(NMJ)具有精密的解剖结构,以确保信号传输的敏捷性和准确性。基于我们之前获得的热和电导诱导电压波动的表达式,本文从两个方面描述了电导诱导电压波动的内在机制:与两个系统规模因素(受体数量或膜面积)中任一因素有关的缩放规律;以及与密集参数(乙酰胆碱浓度)有关的 "跷跷板效应"。根据这些机制,从去噪的角度解释了 NMJ 解剖学的几个方面。最后,两种电压波动的功率谱都有其特定的缩放规律,在此基础上,我们解释了为什么终板噪声具有 "贝壳声 "这一术语所描述的低频特性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Mechanisms of stationary voltage fluctuation in the neuromuscular junction endplate and corresponding denoising paradigms

Mechanisms of stationary voltage fluctuation in the neuromuscular junction endplate and corresponding denoising paradigms

Mechanisms of stationary voltage fluctuation in the neuromuscular junction endplate and corresponding denoising paradigms

The neuromuscular junction (NMJ) has an elaborate anatomy to ensure agile and accurate signal transmission. Based on our formerly obtained expressions of the thermal and conductance induced voltage fluctuations, in this paper, the mechanisms underlying the conductance-induced voltage fluctuation are characterized from two aspects: the scaling laws with respect to either of the two system-size factors, the number of receptors or the membrane area; and the “seesaw effect" with respect to the intensive parameter, the concentration of acetylcholine. According to these mechanisms, several aspects of the NMJ anatomy are explained from a denoising perspective. Finally, the power spectra of the two types of voltage fluctuations are characterized by their specific scaling laws, based on which we explain why the endplate noise has the low-frequency property that is described by the term “seashell sound".

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来源期刊
European Biophysics Journal
European Biophysics Journal 生物-生物物理
CiteScore
4.30
自引率
0.00%
发文量
43
审稿时长
6-12 weeks
期刊介绍: The journal publishes papers in the field of biophysics, which is defined as the study of biological phenomena by using physical methods and concepts. Original papers, reviews and Biophysics letters are published. The primary goal of this journal is to advance the understanding of biological structure and function by application of the principles of physical science, and by presenting the work in a biophysical context. Papers employing a distinctively biophysical approach at all levels of biological organisation will be considered, as will both experimental and theoretical studies. The criteria for acceptance are scientific content, originality and relevance to biological systems of current interest and importance. Principal areas of interest include: - Structure and dynamics of biological macromolecules - Membrane biophysics and ion channels - Cell biophysics and organisation - Macromolecular assemblies - Biophysical methods and instrumentation - Advanced microscopics - System dynamics.
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