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短跑不同模式速度耐力训练的能量代谢特征
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  • 英文篇名:Energy Metabolsim Characteristics in Different Modes of Sprint Speed Endurance Training
  • 作者:姜自立 ; 黎涌明 ; 李庆
  • 英文作者:JIANG Zili;LI Yongming;LI Qing;China Institute of Sport Science;Shanghai University of Sport;Tsinghua University;
  • 关键词:短跑 ; 速度耐力 ; 训练模式 ; 能量代谢
  • 英文关键词:sprint;;speed endurance;;training mode;;energy metabolism
  • 中文刊名:TYKX
  • 英文刊名:China Sport Science
  • 机构:国家体育总局体育科学研究所;上海体育学院;清华大学体育部;
  • 出版日期:2019-05-15
  • 出版单位:体育科学
  • 年:2019
  • 期:v.39
  • 基金:国家体育总局体育科学研究所基本科研业务费资助项目(基本18-48);; 清华大学自主科研计划重点项目资助(2015THZWZD04)
  • 语种:中文;
  • 页:TYKX201905005
  • 页数:10
  • CN:05
  • ISSN:11-1295/G8
  • 分类号:53-62
摘要
目的:探究不同模式速度耐力训练的能量代谢特征。方法:对14名训练有素的男子短跑运动员(年龄18.57±2.56岁,身高181.00±5.16cm,体重68.00±6.45kg,训练年限6.35±2.92岁,200m最好成绩22.19±1.06 s)在HV-1、HV-2、HI-1和HI-2 4种模式速度耐力训练中的血乳酸和摄氧量进行采集,运用基于运动中摄氧量(VO2)、血乳酸(BLA)和运动后过量氧耗(EPOC)快速部分的计算方法对上述4种模式速度耐力训练的能量代谢特征进行对比分析。结果:HV-1、HV-2、HI-1和HI-24种模式速度耐力训练的磷酸原供能分别为217.35±43.78 kJ、206.15±25.49 kJ、117.10±18.79 kJ和120.31±19.10 kJ,糖酵解供能分别为77.13±8.88 kJ、99.74±16.64 kJ、81.75±8.23 kJ和95.47±8.46 kJ,有氧氧化供能为155.62±27.16 kJ、172.05±37.12 kJ、56.04±14.17 kJ和55.62±15.52kJ。结论:短跑不同模式速度耐力训练的能量代谢特征不同,分组方式是影响无氧糖酵解系统参与供能比例的关键因素,双组模式(HV-2和HI-2)发展运动员速度耐力的效果明显优于单组模式(HV-1和HI-1),建议在一般准备期以HV-2模式为主发展运动员的速度耐力,在专项准备期以HI-2模式为主发展运动员的速度耐力。
        Objective: To compare the energy metabolism characteristics in different modes of sprint speed endurance training. Methods: The blood lactate(BLA) and energy metabolism levels of 14 well-trained sprinters(age: 18.57 ± 2.56 yrs, height: 181.00±5.16 cm, weight: 68.00±6.45 kg, training yrs: 6.35±2.92 yrs, 200 m PB: 22.19±1.06 sec) in the four SET modes(i.e., HV-1, HV-2, HI-1 and HI-2) were obtained and analyzed with a portable blood lactate analyzer and a portable gas analyzer, respectively. The sprinters' energy supply profiles in these four SET modes were calculated and compared according to their oxygen uptake(VO2), BLA and the fast component of the excess post-exercise oxygen consumption(EPOC). Results: The energy supply from the ATP-CP system in HV-1, HV-2, HI-1 and HI-2 modes were 217.35±43.78 k J, 206.15±25.49 kJ, 117.10±18.79 kJ and 120.31±19.10 kJ, respectively. The energy supply form the glycolytic system in HV-1, HV-2, HI-1 and HI-2 modes were 77.13±8.88 kJ, 99.74±16.64 kJ, 81.75±8.23 kJ and 95.47±8.46 kJ, respectively. The energy supply from the aerobic system in HV-1, HV-2, HI-1 and HI-2 modes were 155.62±27.16 kJ, 172.05±37.12 kJ, 56.04±14.17 kJ and 55.62±15.52 kJ, respectively. Conclusion: Different speed endurance training modes have different energy metabolism characteristics, the grouping pattern was a key factor affecting the proportion of anaerobic glycolytic systems involved in energy supply, double-set modes(HV-2 and HI-2) were more effective than single-set modes(HV-1 and HI-1) in enhancing athletes' speed endurance. The athletes were recommended to develop their speed endurance mainly by performing HV-2 mode during the general preparation phase, and the HI-2 mode can be used to develop their speed endurance during the special preparation phase.
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