首页> 外文会议>Asia Pacific conference on biomechanics;International conference on biomedical engineering;ICBME;APBiomech;World congress of biomechanics;WCB 2010 >The Factor Structure of General Motor Fitness and Karate Specific Biomechanical Tests: Application of Confirmatory Factor Analysis
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The Factor Structure of General Motor Fitness and Karate Specific Biomechanical Tests: Application of Confirmatory Factor Analysis

机译:普通运动适应性和空手道特定生物力学测试的因子结构:验证性因子分析的应用

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Multivariate approaches to predicting and understanding performance in sport are frequently recommended, however rarely implemented, to identify more comprehensively, those factor that are associated with high performance athletes and how such factors interact. The aim of this research was to understand the relationship of motor fitness and karate specific biomechanical tests utilised in karate as a model for talent identification based on confirmatory factor analysis. Twenty four karate athletes volunteered, 12 were classified as high performance athletes with black belt or higher and 12 were classified as non-high performance athletes, below green belt and these ability levels served as a classification variable. General motor fitness tests as Margaria power test, standing long jump, isometric grip strength, sit-reach flexibility, arm crank, peak aerobic power and anaerobic Wingate power test for peak power, time to peak power, mean power and power/weight were measured to reflect tests of power, force, ROM and speed. Karate specific motor fitness tests, as designed by a panel of experts (Delphi method), were tests of karate agility, power punch, speed punch, speed reaction time, balance and lower limb bilateral-abductor flexibility (angular displacement). The confirmatory factor analysis derived a four factor solution, which explained 72.1% of common variance. Tests loaded with factor 1 were predominantly tests of upper and lower body power production and were Margaria power test, arm crank, Wingate power test for peak power, time to peak power, mean power, power punch and speed punch (absolute loadings .536-.863). Tests that loaded with factor 2 (absolute loadings .570-.892) were sit-reach flexibility, bilateral-abductor flexibility, arm crank and karate specific balance. Factor 3 (absolute loadings .519-.924) loaded with standing long jump, peak aerobic power, Wingate peak power and Wingate power/weight. Factor 4 (absolute loadings .509-.882) was associated with Margaria power test, isometric grip strength with high loadings for karate agility and speed reaction time a punching ability and factor complexity was displayed.
机译:经常建议在运动中预测和理解和理解性能的多变量方法很少实施,以更全面地确定,这些因素与高性能运动员相关,以及这些因素如何互动。本研究的目的是了解在空手道中使用的电动机健身和空手道特异性生物力学测试的关系,作为基于确认因子分析的人才识别模型。二十四位空手道运动员自愿服务,12名被归类为高性能运动员,黑带或更高,12名被归类为非高性能运动员,低于绿皮带,这些能力水平归功于分类变量。通用电机适合测试作为玛格丽亚电力测试,延长跳跃,等距握力,坐达伸缩,臂曲柄,峰值有氧功率和腹股沟电压试验,达到峰值功率,测量时间为峰值功率,平均功率和功率/重量反映电力,力,ROM和速度的测试。由专家面板(Delphi方法)设计的空手道特定的电动机健身试验是空手道敏捷,电力冲头,速度冲孔,速度反应时间,平衡和下肢双侧 - 诱导型(角位移)的测试。验证因子分析衍生了四种因子解决方案,该解决方案解释了72.1%的常见方差。因子1加载的测试主要是上下电力生产的测试,玛格丽亚功率试验,臂曲柄,峰值电源的电动功率测试,峰值功率,均值电源,电源冲压和速度冲孔(绝对装载.536- .863)。用因子2加载的测试(绝对装载量570-.892)是Sit-Reak柔韧性,双侧绑定器柔韧性,手臂曲柄和空手道特定的平衡。因子3(绝对载荷.519-.924)装载长跳跃,峰值好氧功率,WinGate峰值电源和有翼功率/重量。因子4(绝对载荷.509-.882)与Margaria功率测试有关,展示了空手道敏捷性和速度反应时间高负荷的等距抓取强度,并显示了冲压能力和因子复杂性。

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