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一个冰球赛季对能量能力及相关功能的影响。

Effect of a season of ice hockey on energy capacities and associated functions.

作者信息

Green H J, Houston M E

出版信息

Med Sci Sports. 1975 Winter;7(4):299-303.

PMID:1235154
Abstract

Two elite junior ice hockey teams with players ranging in age between 16 and 20 years were measured on an extensive battery of laboratory tests at the beginning and end of a season in order to determine adaptive changes in the energy supply systems and associated functions. Pre- to post-season changes in maximal aerobic power showed a significant increase of 3% (p less than .05) only when expressed in 1/min (4.30 vs 4.43). Additionally, when measurements were made on selected determinants of oxygen transport, no change was found in ventilation as reflected in VC (5.60 vs 5.52 /min), FEV1.0 (4.37 vs 4.44 l/min), MBC (185.1 vs 186.4 l/min) and maximum exercise VE (128.0 vs 128.1 l/min, STPD) or in the cardiovascular system as reflected in hematocrit (45.3 vs 44.4%), hemoglobin (16.4 vs 16.2 g%) and maximum exercise HR (192 vs 191 beats/min). On the other hand, indicates of change in the anaerobic energy supply systems were found. Maximal anaerobic capacity improved by 16.3% (p less than 0.05) when measured in terms of run time (64.3 vs 74.8 secs) and maximal anaerobic power by 4.7% (p less than 0.05) when expressed in m/sec (1.69 vs 1.77). Although comparable percentage increases were noted when peak lactate concentration and power (kgm/sec) were used as criterion measures for these tests respectively, statistical significance was not found. When the results were analyzed by position essentially the same changes were found.

摘要

两支精英青少年冰球队,队员年龄在16至20岁之间,在一个赛季开始和结束时接受了一系列广泛的实验室测试,以确定能量供应系统及相关功能的适应性变化。季前到季后,最大有氧功率的变化仅在以1/分钟表示时(4.30对4.43)显示出显著增加3%(p小于0.05)。此外,在对氧气运输的选定决定因素进行测量时,肺活量(VC,5.60对5.52/分钟)、第一秒用力呼气量(FEV1.0,4.37对4.44升/分钟)、最大通气量(MBC,185.1对186.4升/分钟)和最大运动每分钟通气量(VE,128.0对128.1升/分钟,标准温度和压力干燥)所反映的通气情况以及血细胞比容(45.3对44.4%)、血红蛋白(16.4对16.2克%)和最大运动心率(192对191次/分钟)所反映的心血管系统均未发现变化。另一方面,发现了无氧能量供应系统的变化迹象。以跑步时间衡量时,最大无氧能力提高了16.3%(p小于0.05)(64.3对74.8秒),以米/秒表示时,最大无氧功率提高了4.7%(p小于0.05)(1.69对1.77)。尽管分别将血乳酸峰值浓度和功率(千克米/秒)用作这些测试的标准指标时观察到了类似的百分比增加,但未发现统计学显著性。按位置分析结果时,发现了基本相同的变化。

相似文献

1
Effect of a season of ice hockey on energy capacities and associated functions.一个冰球赛季对能量能力及相关功能的影响。
Med Sci Sports. 1975 Winter;7(4):299-303.
2
Strength and endurance differences between elite and junior elite ice hockey players. The importance of allometric scaling.精英与青少年精英冰球运动员之间的力量和耐力差异。异速生长缩放的重要性。
Int J Sports Med. 2005 Sep;26(7):537-41. doi: 10.1055/s-2004-821328.
3
The cardiopulmonary capacities of young hockey players: age 10.10岁年轻曲棍球运动员的心肺功能
Med Sci Sports. 1976 Spring;8(1):23-5.
4
Reliability and reproducibility of maximal oxygen uptake measurement in children.儿童最大摄氧量测量的可靠性与可重复性
Med Sci Sports. 1977 Summer;9(2):104-8.
5
Laboratory and on-ice test comparisons of anaerobic power of ice hockey players.冰球运动员无氧能力的实验室测试与冰上测试比较
Can J Appl Sport Sci. 1986 Dec;11(4):218-24.
6
Physiological responses of international female lacrosse players to pre-season conditioning.国际女子曲棍球运动员对季前训练的生理反应。
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7
Comparsions among VO2 max values for hockey players and runners.曲棍球运动员和跑步者的最大摄氧量值比较。 (原句中Comparsions拼写错误,正确拼写为Comparisons)
Can J Appl Sport Sci. 1979 Mar;4(1):18-21.
8
Respiratory and cardiovascular aspects of intermittent exercise with regard to ice hockey.
Can J Appl Sport Sci. 1979 Mar;4(1):22-8.
9
Physiological profiles of the Canadian Olympic Hockey Team (1980).加拿大奥运曲棍球队(1980年)的生理特征。
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10
Characteristics of the elite minor hockey player.精英少年曲棍球运动员的特点。
Can J Appl Sport Sci. 1979 Jun;4(2):123-5.

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Physiological and muscle enzyme adaptations to two different intensities of swim training.生理和肌肉酶对两种不同强度游泳训练的适应性
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Physiology of ice hockey.冰球生理学
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Blood lactate concentration following intermittent and continuous cycling tests of anaerobic capacity.无氧能力间歇性和持续性自行车测试后的血乳酸浓度
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8
Influence of growth and athletic training on heart and lung functions.
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9
The response of endurance-adapted adults to intense anaerobic training.耐力适应型成年人对高强度无氧训练的反应。
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The response of oxygen consumption, body temperature, blood substrates and serum enzymes to intermittent heavy work performed over twenty-four hours.耗氧量、体温、血液底物及血清酶对24小时内进行的间歇性繁重工作的反应。
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