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跑步和冲刺过程中踝关节的动态角刚度

Dynamic Angular Stiffness of the Ankle Joint during Running and Sprinting.

作者信息

Stefanyshyn Darren J, Nigg Benno M

出版信息

J Appl Biomech. 1998 Aug;14(3):292-299. doi: 10.1123/jab.14.3.292.

Abstract

The purpose of this study was to compare the moment-angle relationship of the ankle joint during running and sprinting to determine how the dynamic angular stiffness is influenced by different activities. For both running and sprinting, the results indicated that the ankle joint produced an exclusively extensor moment, absorbing energy during the first half of the stance phase and producing energy during the second half. The biphasic nature of the joint absorbing energy followed by the joint producing energy, while continually creating an extensor moment, was similar to a spring being compressed and allowed to extend. The dynamic stiffness of the ankle joint was 5.68 N · m/° for running and 7.38 N · m/° for sprinting. It appeared that the stiffness of the ankle joint was not a specialized characteristic of each individual but rather a specialized characteristic of the activity or demand placed upon it.

摘要

本研究的目的是比较跑步和短跑过程中踝关节的力矩-角度关系,以确定不同活动如何影响动态角刚度。对于跑步和短跑,结果表明踝关节仅产生伸肌力矩,在支撑期的前半段吸收能量,后半段产生能量。关节吸收能量后再产生能量的双相特性,同时持续产生伸肌力矩,类似于弹簧被压缩后再伸展。跑步时踝关节的动态刚度为5.68 N·m/°,短跑时为7.38 N·m/°。踝关节的刚度似乎不是个体的特定特征,而是其所承受活动或需求的特定特征。

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