Treadmill Running Model for Rodents as a Translational Approach Based on Human Physiological Responses.

Q3 Neuroscience
Masahiro Okamoto, Toshiaki Hata, Taichi Hiraga, Hideaki Soya
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引用次数: 0

Abstract

The concept of "Exercise is Medicine" highlights the preventive effects of physical activity on lifestyle-related diseases, dementia, and mental disorders. However, human studies face limitations in isolating exercise-specific effects due to uncontrolled variables such as diet and living conditions, as well as the constraint of non-invasive methodologies. Animal models offer a valuable alternative, allowing for strict control of experimental conditions and detailed assessment of physiological and neural responses to exercise. While voluntary wheel running has been commonly used, it lacks standardization in exercise intensity and type. To bridge this gap, we developed a treadmill-based rodent exercise model that enables precise control over exercise parameters, including intensity, duration, and distance. By incorporating physiological markers-such as blood lactate and oxygen consumption-commonly used in humans, we succeeded in evaluating rodent fitness and establishing exercise paradigms analogous to those used in human studies. Our findings demonstrate that even light-intensity exercise can significantly enhance brain activation and memory, which may be particularly relevant for aging or low-fitness populations. This approach enables the exploration of shared neurobiological mechanisms and supports the advancement of translational research, facilitating the development of tailored exercise interventions aimed at promoting cognitive health.

基于人类生理反应的啮齿动物跑步机模型的翻译方法。
“运动是医学”的概念强调了体育活动对与生活方式有关的疾病、痴呆和精神障碍的预防作用。然而,由于饮食和生活条件等不受控制的变量以及非侵入性方法的限制,人体研究在分离运动特异性效应方面面临局限性。动物模型提供了一种有价值的替代方法,可以严格控制实验条件,并详细评估对运动的生理和神经反应。轮式跑步虽然已被广泛使用,但在运动强度和运动类型上缺乏标准化。为了弥补这一差距,我们开发了一种基于跑步机的啮齿动物运动模型,可以精确控制运动参数,包括强度、持续时间和距离。通过结合人类常用的生理指标,如血乳酸和氧气消耗,我们成功地评估了啮齿动物的健康状况,并建立了类似于人类研究中使用的运动范式。我们的研究结果表明,即使是低强度的运动也能显著增强大脑活动和记忆力,这可能与老年人或低健康人群特别相关。这种方法能够探索共享的神经生物学机制,并支持转化研究的进步,促进旨在促进认知健康的量身定制的运动干预措施的发展。
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
Advances in neurobiology
Advances in neurobiology Neuroscience-Neurology
CiteScore
2.80
自引率
0.00%
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