Enteric nervous system in exercise physiology: a microbiota-neural interface.

Hui-Ling Chen, Jia-Ting Huang, Jian-Jun Guo, Li-Shun Wang
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Abstract

Exercise responses vary widely among individuals, yet the biological basis of this variability remains poorly understood. Microbiota-derived metabolites operate on timescales of hours to days, making them insufficient to explain rapid gastrointestinal and performance changes that emerge within minutes of exercise. We propose that the enteric nervous system (ENS) fills this regulatory gap by integrating mechanical, immune, and microbial signals in real time. We review evidence that the ENS modulates gut motility, barrier function, and microbial ecology during exercise, engages in bidirectional crosstalk with the microbiota, and relays gut-derived signals to muscle and brain via neural and humoral routes. We further introduce the concept of neuro-enteric phenotypes to account for inter-individual differences in exercise tolerance and adaptation.

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运动生理学中的肠神经系统:微生物群-神经界面。
运动反应在个体之间差异很大,但这种差异的生物学基础仍然知之甚少。微生物衍生的代谢物在数小时到数天的时间尺度上起作用,这使得它们不足以解释在运动几分钟内出现的快速胃肠道和性能变化。我们建议肠神经系统(ENS)通过实时整合机械、免疫和微生物信号来填补这一调节空白。我们回顾了ENS在运动过程中调节肠道运动、屏障功能和微生物生态的证据,与微生物群进行双向串话,并通过神经和体液途径将肠道来源的信号传递给肌肉和大脑。我们进一步引入神经肠表型的概念来解释运动耐量和适应的个体间差异。
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