转录组
生理学
运动员
生物
能源消耗
车轮运转
体力活动
内分泌学
生物信息学
内科学
医学
物理医学与康复
物理疗法
遗传学
基因表达
基因
作者
Laura van Rosmalen,Jiaoyue Zhu,Geraldine Maier,Erica G. Gacasan,Terry Lin,Elena A. Zhemchuzhnikova,Vince Rothenberg,Swithin S. Razu,Shaunak Deota,Ramesh K. Ramasamy,R.L. Sah,Andrew D. McCulloch,Roelof A. Hut,Satchidananda Panda
标识
DOI:10.1016/j.cmet.2024.08.001
摘要
Highlights•We mimic behavior and physiology of REDs in mice using the "exercise-for-food" paradigm•REDs affects extracellular matrix organization in multiple tissues•In females, reproductive organs and muscles are largely affected by energy deficiency•In males, kidneys are largely affected by energy deficiencySummaryInsufficient energy intake to meet energy expenditure demands of physical activity can result in systemic neuroendocrine and metabolic abnormalities in activity-dependent anorexia and relative energy deficiency in sport (REDs). REDs affects >40% of athletes, yet the lack of underlying molecular changes has been a hurdle to have a better understanding of REDs and its treatment. To assess the molecular changes in response to energy deficiency, we implemented the "exercise-for-food" paradigm, in which food reward size is determined by wheel-running activity. By using this paradigm, we replicated several aspects of REDs in female and male mice with high physical activity and gradually reduced food intake, which results in weight loss, compromised bone health, organ-specific mass changes, and altered rest-activity patterns. By integrating transcriptomics of 19 different organs, we provide a comprehensive dataset that will guide future understanding of REDs and may provide important implications for metabolic health and (athletic) performance.Graphical abstract
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