Mouse models for metabolic health research: molecular mechanism of exercise effects on health improvement through adipose tissue remodelling.

IF 4.7 2区 医学 Q1 NEUROSCIENCES
Hye Jin Kim, Youn Ju Kim, Je Kyung Seong
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引用次数: 0

Abstract

Exercise provides health benefits to multiple metabolic tissues through complex biological pathways and interactions between organs. However, investigating these complex mechanisms in humans is still limited, making mouse models extremely useful for exploring exercise-induced changes in whole-body metabolism and health. In this review, we focus on gaining a broader understanding of the metabolic phenotypes and molecular mechanisms induced by exercise in mouse models. We first discuss the differences in adaptations induced by aerobic and resistance exercise, and compare voluntary wheel running and forced treadmill exercise, the two main methods of aerobic exercise research in mice, to show the similarities and differences between the same aerobic exercise but different methods, and their impact on experimental outcomes. The effects of exercise on metabolic phenotypes, including alleviation of obesity and metabolic disorders, and the mechanisms involved in adipose tissue remodelling and browning are explored, as well as the role of the gut microbiota in mediating the physiological responses and metabolic effects of exercise. Understanding these molecular mechanisms and methodological aspects of exercise experiments in mouse models can serve as a valuable template for the design of future basic research in exercise physiology and will provide a strong scientific evidence base for optimizing the design of exercise intervention programmes for metabolic health.

小鼠代谢健康模型研究:通过脂肪组织重塑运动对健康改善的分子机制
运动通过复杂的生物途径和器官之间的相互作用为多种代谢组织提供健康益处。然而,对人类这些复杂机制的研究仍然有限,这使得小鼠模型对于探索运动引起的全身代谢和健康变化非常有用。在这篇综述中,我们的重点是在小鼠模型中获得对运动诱导的代谢表型和分子机制的更广泛理解。我们首先讨论了有氧运动和阻力运动诱导的适应性差异,并比较了小鼠有氧运动研究的两种主要方法——自主轮跑和强制跑步机运动,以显示相同有氧运动但不同方法之间的异同,以及它们对实验结果的影响。本文探讨了运动对代谢表型的影响,包括减轻肥胖和代谢紊乱,脂肪组织重塑和褐变的机制,以及肠道微生物群在调节运动的生理反应和代谢效应中的作用。了解小鼠模型运动实验的这些分子机制和方法学方面可以为未来运动生理学基础研究的设计提供有价值的模板,并将为优化代谢健康运动干预方案的设计提供强有力的科学证据基础。
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 Physiology-London
Journal of Physiology-London 医学-神经科学
CiteScore
9.70
自引率
7.30%
发文量
817
审稿时长
2 months
期刊介绍: The Journal of Physiology publishes full-length original Research Papers and Techniques for Physiology, which are short papers aimed at disseminating new techniques for physiological research. Articles solicited by the Editorial Board include Perspectives, Symposium Reports and Topical Reviews, which highlight areas of special physiological interest. CrossTalk articles are short editorial-style invited articles framing a debate between experts in the field on controversial topics. Letters to the Editor and Journal Club articles are also published. All categories of papers are subjected to peer reivew. The Journal of Physiology welcomes submitted research papers in all areas of physiology. Authors should present original work that illustrates new physiological principles or mechanisms. Papers on work at the molecular level, at the level of the cell membrane, single cells, tissues or organs and on systems physiology are all acceptable. Theoretical papers and papers that use computational models to further our understanding of physiological processes will be considered if based on experimentally derived data and if the hypothesis advanced is directly amenable to experimental testing. While emphasis is on human and mammalian physiology, work on lower vertebrate or invertebrate preparations may be suitable if it furthers the understanding of the functioning of other organisms including mammals.
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