Gibson Oliver R, James Carl A, Mee Jessica A, Willmott Ashley G B, Turner Gareth, Hayes Mark, Maxwell Neil S
Centre for Human Performance, Exercise and Rehabilitation (CHPER), Division of Sport, Health and Exercise Sciences, Brunel University London, Uxbridge, UK.
Institut Sukan Negara (National Sports Institute), Kuala Lumpur, Malaysia.
Temperature (Austin). 2019 Oct 12;7(1):3-36. doi: 10.1080/23328940.2019.1666624. eCollection 2020.
International competition inevitably presents logistical challenges for athletes. Events such as the Tokyo 2020 Olympic Games require further consideration given historical climate data suggest athletes will experience significant heat stress. Given the expected climate, athletes face major challenges to health and performance. With this in mind, heat alleviation strategies should be a fundamental consideration. This review provides a focused perspective of the relevant literature describing how practitioners can structure male and female athlete preparations for performance in hot, humid conditions. Whilst scientific literature commonly describes experimental work, with a primary focus on maximizing magnitudes of adaptive responses, this may sacrifice ecological validity, particularly for athletes whom must balance logistical considerations aligned with integrating environmental preparation around training, tapering and travel plans. Additionally, opportunities for sophisticated interventions may not be possible in the constrained environment of the athlete village or event arenas. This review therefore takes knowledge gained from robust experimental work, interprets it and provides direction on how practitioners/coaches can optimize their athletes' heat alleviation strategies. This review identifies two distinct heat alleviation themes that should be considered to form an individualized strategy for the athlete to enhance thermoregulatory/performance physiology. First, chronic heat alleviation techniques are outlined, these describe interventions such as heat acclimation, which are implemented pre, during and post-training to prepare for the increased heat stress. Second, acute heat alleviation techniques that are implemented immediately prior to, and sometimes during the event are discussed. : CWI: Cold water immersion; HA: Heat acclimation; HR: Heart rate; HSP: Heat shock protein; HWI: Hot water immersion; LTHA: Long-term heat acclimation; MTHA: Medium-term heat acclimation; ODHA: Once-daily heat acclimation; RH: Relative humidity; RPE: Rating of perceived exertion; STHA: Short-term heat acclimation; T: Core temperature; TDHA: Twice-daily heat acclimation; TS: Thermal sensation; T: Skin temperature; V̇O: Maximal oxygen uptake; WGBT: Wet bulb globe temperature.
国际比赛不可避免地给运动员带来后勤方面的挑战。鉴于历史气候数据表明运动员将面临巨大的热应激,像2020年东京奥运会这样的赛事需要进一步考虑。考虑到预期的气候,运动员在健康和表现上面临重大挑战。有鉴于此,热缓解策略应成为基本考量因素。本综述提供了一个聚焦的视角,审视相关文献中描述从业者如何为男性和女性运动员在炎热潮湿条件下的表现进行准备的内容。虽然科学文献通常描述的是实验工作,主要侧重于使适应性反应的程度最大化,但这可能会牺牲生态效度,特别是对于那些必须在后勤考量与围绕训练、减量和旅行计划整合环境准备之间取得平衡的运动员来说。此外,在运动员村或赛事场馆等受限环境中,可能无法进行复杂的干预措施。因此,本综述借鉴了可靠实验工作中获得的知识,对其进行解读,并就从业者/教练如何优化运动员的热缓解策略提供指导。本综述确定了两个不同的热缓解主题,应加以考虑以形成针对运动员的个性化策略,以增强体温调节/表现生理学。首先,概述了慢性热缓解技术,这些技术描述了诸如热适应等干预措施,在训练前、训练期间和训练后实施,以应对增加的热应激。其次,讨论了在赛事即将开始前以及有时在赛事期间立即实施的急性热缓解技术。:CWI:冷水浸泡;HA:热适应;HR:心率;HSP:热休克蛋白;HWI:热水浸泡;LTHA:长期热适应;MTHA:中期热适应;ODHA:每日一次热适应;RH:相对湿度;RPE:主观用力程度分级;STHA:短期热适应;T:核心温度;TDHA:每日两次热适应;TS:热感觉;T:皮肤温度;V̇O:最大摄氧量;WGBT:湿球黑球温度