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团队运动中碳水化合物的摄入:当前的知识和未来的研究领域。

Carbohydrate ingestion during team games exercise: current knowledge and areas for future investigation.

机构信息

Institute of Sport, Physical Education and Health Studies, University of Edinburgh, Edinburgh, UK.

出版信息

Sports Med. 2011 Jul 1;41(7):559-85. doi: 10.2165/11589150-000000000-00000.

DOI:10.2165/11589150-000000000-00000
PMID:21688869
Abstract

There is a growing body of research on the influence of ingesting carbohydrate-electrolyte solutions immediately prior to and during prolonged intermittent, high-intensity exercise (team games exercise) designed to replicate field-based team games. This review presents the current body of knowledge in this area, and identifies avenues of further research. Almost all early work supported the ingestion of carbohydrate-electrolyte solutions during prolonged intermittent exercise, but was subject to methodological limitations. A key concern was the use of exercise protocols characterized by prolonged periods at the same exercise intensity, the lack of maximal- or high-intensity work components and long periods of seated recovery, which failed to replicate the activity pattern or physiological demand of team games exercise. The advent of protocols specifically designed to replicate the demands of field-based team games enabled a more externally valid assessment of the influence of carbohydrate ingestion during this form of exercise. Once again, the research overwhelmingly supports carbohydrate ingestion immediately prior to and during team games exercise for improving time to exhaustion during intermittent running. While the external validity of exhaustive exercise at fixed prescribed intensities as an assessment of exercise capacity during team games may appear questionable, these assessments should perhaps not be viewed as exhaustive exercise tests per se, but as indicators of the ability to maintain high-intensity exercise, which is a recognized marker of performance and fatigue during field-based team games. Possible mechanisms of exercise capacity enhancement include sparing of muscle glycogen, glycogen resynthesis during low-intensity exercise periods and attenuated effort perception during exercise. Most research fails to show improvements in sprint performance during team games exercise with carbohydrate ingestion, perhaps due to the lack of influence of carbohydrate on sprint performance when endogenous muscle glycogen concentration remains above a critical threshold of ∼200  mmol/kg dry weight. Despite the increasing number of publications in this area, few studies have attempted to drive the research base forward by investigating potential modulators of carbohydrate efficacy during team games exercise, preventing the formulation of optimal carbohydrate intake guidelines. Potential modulators may be different from those during prolonged steady-state exercise due to the constantly changing exercise intensity and frequency, duration and intensity of rest intervals, potential for team games exercise to slow the rate of gastric emptying and the restricted access to carbohydrate-electrolyte solutions during many team games. This review highlights fluid volume, carbohydrate concentration, carbohydrate composition and solution osmolality; the glycaemic index of pre-exercise meals; fluid and carbohydrate ingestion patterns; fluid temperature; carbohydrate mouthwashes; carbohydrate supplementation in different ambient temperatures; and investigation of all of these areas in different subject populations as important avenues for future research to enable a more comprehensive understanding of carbohydrate ingestion during team games exercise.

摘要

目前越来越多的研究关注在进行间歇性、高强度的长时间运动(团队运动)前和运动期间摄入碳水化合物-电解质溶液对身体的影响,这些运动旨在模拟基于场地的团队运动。本综述介绍了该领域目前的知识体系,并确定了进一步研究的方向。几乎所有早期的研究都支持在长时间的间歇性运动中摄入碳水化合物-电解质溶液,但这些研究都受到了方法学上的限制。一个关键问题是使用长时间处于同一运动强度的运动方案,缺乏最大或高强度的运动成分和长时间的坐姿恢复,这无法复制团队运动的活动模式或生理需求。专门设计的方案的出现,旨在复制基于场地的团队运动的需求,使得对这种运动形式下碳水化合物摄入的影响进行更具外部有效性的评估成为可能。同样,研究结果压倒性地支持在团队运动前和运动期间摄入碳水化合物,以提高间歇性跑步的力竭时间。虽然在固定规定强度下进行的耗竭性运动作为团队运动期间运动能力的评估,其外部有效性可能存在疑问,但这些评估本身不应被视为耗竭性运动测试,而应被视为维持高强度运动能力的指标,这是基于场地的团队运动中表现和疲劳的公认标志物。运动能力增强的可能机制包括肌肉糖原的节省、低强度运动期间的糖原再合成以及运动期间的努力感知减弱。大多数研究未能显示在团队运动中摄入碳水化合物可以提高冲刺表现,这可能是由于当内源性肌肉糖原浓度保持在临界阈值(约 200mmol/kg 干重)以上时,碳水化合物对冲刺表现的影响不大。尽管在这个领域的出版物数量不断增加,但很少有研究试图通过调查团队运动期间碳水化合物效力的潜在调节剂来推动研究基础的发展,这使得无法制定最佳碳水化合物摄入指南。由于运动强度和频率不断变化、休息间隔的持续时间和强度、团队运动可能会减缓胃排空速度以及在许多团队运动中限制了对碳水化合物-电解质溶液的摄入,潜在调节剂可能与长时间稳态运动中的调节剂不同。本综述强调了液体量、碳水化合物浓度、碳水化合物组成和溶液渗透压;运动前餐的血糖指数;液体和碳水化合物摄入模式;液体温度;口腔碳水化合物漱口液;不同环境温度下的碳水化合物补充;以及在不同人群中研究所有这些领域,这些都是未来研究的重要途径,可以更全面地了解团队运动中碳水化合物的摄入。

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