首页> 外文OA文献 >Physical training for loaded marching performance among British Army recruits
【2h】

Physical training for loaded marching performance among British Army recruits

机译:英国陆军新兵加载行进表现的体能训练

摘要

Study 1 quantified the validity and repeatability of an automated on-line (ON) gas analysis system during sub-maximal loaded marching (LM) against that of the Douglas Bag (DB) approach. The 95% ratio Limits of Agreement (LoA) revealed the ON system systematically overestimated V02 by -16% (1.16 (x/-i-1.19). The Bland and Altman plots revealed DB repeatability was almost two-fold better than ON (-9% vs. -15%), thus the DB approach should be used subsequently to measure human expired gases. Study 2 investigated the difference between an LM maximal oxygen uptake protocol (LMp) versus a standard running protocol (Rp). The LMp V02max was lower than Rp (48.6 ± 4.3 ml·kg-I·min-I vs. 51.3 ± 4.0 ml·kg-I·min-I, P=0.001). Thus, the quantification of sub-maximal LM exercise intensity will be underestimated by -5% if derived from a running tiOzmax protocol. Study 3 investigated the repeatability of accepted and potential determinants of Loaded Marching Performance (LMP). The LoA revealed the repeatability of Loaded Marching Economy (LME) (0.98 (x/-i-1.09», V02max (1.01 (xl-i-1.07», upper body dynamic strength (1.01 (x/-i- 1.11», and anthropometric measures (1.00 (x/-i- 1.02» to (1.00 (x/-i- 1.07» was reasonable, but dynamic leg strength (1.06 (x/-i-1.14» and isometric strength (1.00 (x/-i-1.12» to (0.99 (x/-i-1.l6» were large. Study 4 established the determinants of 2.4 km LMP from a test battery performed at the beginning of British Army infantry training. The best mathematical model of LMP included the independent variables of LME (r=0.65), 2.4 km run time (r=0.42), and peak static lift strength (r=0.48). This explained 65% of the variation in LMP, and had a prediction error of ± 51 s. Mathematically, LME and 2.4 km run time exerted the greatest influence on LMP, whereas the influence of static lift strength on LMP was small. Study 5 investigated the physical and physiological responses of the established determinants of LMP during 24 weeks of British Army infantry training. Loaded marching performance improved 7.0% (900 s to 837 s, P=0.001), LME 9.6% (2.28 I·min- I to 2.06 I·min- I , P ...
机译:研究1量化了自动最大程度加载行进(LM)相对于Douglas Bag(DB)方法的自动化在线(ON)气体分析系统的有效性和可重复性。 95%的比率协议极限(LoA)显示ON系统被系统高估了V02 -16%(1.16(x / -i-1.19)。Bland和Altman图显示DB的可重复性几乎是ON(-)的两倍。分别为9%和-15%),因此应随后使用DB方法测量人类排出的气体研究2研究了LM最大摄氧方案(LMp)与标准运行方案(Rp)之间的差异。低于Rp(48.6±4.3 ml·kg-I·min-I与51.3±4.0 ml·kg-I·min-I,P = 0.001),因此,亚最大LM运动强度的量化为如果从运行中的tiOzmax协议得出,则被低估了-5%。研究3研究了行进性能(LMP)的公认和潜在决定因素的可重复性。LoA显示了行进经济(LME)的可重复性(0.98(x / -i -1.09»,V02max(1.01(xl-i-1.07»,上身动态强度(1.01(x / -i-1.11»和人体测量值(1.00(x / -i- 1.02»至(1 .00(x / -i-1.07»是合理的,但动态腿部力量(1.06(x / -i-1.14»和等距强度(1.00(x / -i-1.12»至(0.99(x / -i-1) .l6»很大。研究4从英军步兵训练开始时进行的一次测试中确定了2.4 km LMP的决定因素。最佳的LMP数学模型包括LME的自变量(r = 0.65),2.4 km的运行时间(r = 0.42)和峰值静态举升强度(r = 0.48)。这解释了LMP变化的65%,预测误差为±51 s。在数学上,LME和2.4 km的运行时间对LMP的影响最大,而静态举升强度对LMP的影响很小。研究5调查了英国陆军步兵训练24周内已确定的LMP决定因素的生理和生理反应。加载的行进性能提高了7.0%(900 s至837 s,P = 0.001),LME 9.6%(2.28 I·min- I至2.06 I·min- I,P ...

著录项

  • 作者

    Brown Pieter E H;

  • 作者单位
  • 年度 2009
  • 总页数
  • 原文格式 PDF
  • 正文语种 English
  • 中图分类

相似文献

  • 外文文献
  • 中文文献
  • 专利

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号