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Examining the relationship between genetic polymorphisms (BDKRB2, GNB3, HIF1A, MCT1, NOS3) and endurance athlete status.检测与耐力运动员身份相关的基因多态性(BDKRB2、GNB3、HIF1A、MCT1、NOS3)之间的关系。
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基因组学可能是理解耐力训练支柱的关键。

Genomics May Be the Key to Understanding Endurance Training Pillars.

作者信息

Bottura Ricardo Muller, Dentillo Daniel Blasioli

机构信息

Academy-Health, Science and Performance, São Paulo 01549-020, Brazil.

Department of Neuroscience, Rehabilitation, Ophthalmology, Genetics, and Maternal-Infant Sciences (DINOGMI), Università degli Studi di Genova, 16132 Genoa, Italy.

出版信息

Genes (Basel). 2025 Mar 13;16(3):338. doi: 10.3390/genes16030338.

DOI:10.3390/genes16030338
PMID:40149489
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11942075/
Abstract

Endurance performance is primarily determined by three key physiological pillars: maximal oxygen uptake (VOmax), anaerobic threshold, and economy of movement. Recent research has suggested physiological resilience as a potential fourth dimension, referring to an athlete's ability to sustain performance despite accumulating fatigue. While the role of genetic factors in endurance has been widely studied, their influence on these pillars, particularly on fatigue resistance and long-term adaptation, remains an area of growing interest. This narrative review explores the genomic basis of endurance performance, analyzing genetic contributions to oxygen transport, metabolic efficiency, muscle composition, and recovery. Additionally, it discusses how genetic variability may modulate an athlete's response to training, including aspects of physiological adaptation, injury susceptibility, sleep, and nutrition. The review highlights physiological resilience in the context of endurance sports, discussing its connection to neuromuscular and metabolic regulation. By integrating genetic insights with established physiological principles, this review provides a comprehensive perspective on endurance adaptation. Future research directions are outlined to enhance our understanding of the genetic underpinnings of endurance, with implications for personalized training and performance optimization.

摘要

耐力表现主要由三个关键生理支柱决定

最大摄氧量(VOmax)、无氧阈值和运动经济性。最近的研究表明,生理恢复力是一个潜在的第四维度,指运动员在累积疲劳的情况下仍能维持表现的能力。虽然遗传因素在耐力方面的作用已得到广泛研究,但它们对这些支柱的影响,尤其是对疲劳抵抗和长期适应的影响,仍然是一个日益受到关注的领域。本叙述性综述探讨了耐力表现的基因组基础,分析了遗传因素对氧气运输、代谢效率、肌肉组成和恢复的贡献。此外,还讨论了基因变异如何调节运动员对训练的反应,包括生理适应、受伤易感性、睡眠和营养等方面。该综述强调了耐力运动中的生理恢复力,讨论了其与神经肌肉和代谢调节的联系。通过将遗传见解与既定的生理原理相结合,本综述提供了关于耐力适应的全面观点。概述了未来的研究方向,以加强我们对耐力遗传基础的理解,这对个性化训练和表现优化具有重要意义。