Biomechanical Properties of Multi-Swing and Single-Swing Rope Skipping Actions

Q4 Biochemistry, Genetics and Molecular Biology
Yiran Tian
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引用次数: 1

Abstract

Rope skipping is popular as it is easy to learn; thus, it has developed into a competitive sport. The research on the biomechanical properties of rope skipping can effectively improve training efficiency and reduce injury probability. This paper briefly introduced the characteristics of single-swing and multi-swing techniques in competitive rope skipping, selected ten second-grade athletes as the subjects to test the single-swing and triple-swing rope skipping, and tested the biomechanical properties in the process of rope skipping. The results showed that the variation range of the lower limb joint angle in the triple-swing rope skipping was larger than that in the single-swing rope skipping in the stage of thrusting against the ground and the hanging stage and smaller in the buffering stage. The maximum ground reaction force, the maximum vertical displacement, the vertical velocity at the moment of leaving the ground, and the vertical velocity at the moment of landing in triple-swing rope skipping were significantly higher than those in the process of single-swing rope skipping. In conclusion, to ensure the success of the triple-swing rope skipping, the lower limbs need to exert a larger acting force on the ground to obtain larger counter-acting force to extend the hanging time and ensure three circles.
多转身和单转身跳绳动作的生物力学特性
跳绳很受欢迎,因为它很容易学;因此,它已经发展成为一项竞技运动。对跳绳运动的生物力学特性进行研究,可以有效地提高训练效率,降低损伤概率。本文简要介绍了竞技跳绳的单摆和多摆技术特点,选取10名二级运动员作为实验对象进行单摆和三摆跳绳测试,并对跳绳过程中的生物力学性能进行了测试。结果表明:三荡跳绳在蹬地阶段和悬吊阶段下肢关节角的变化幅度大于单荡跳绳,在缓冲阶段下肢关节角的变化幅度较小;三荡跳绳的最大地面反力、最大垂直位移、离地瞬间的垂直速度、落地瞬间的垂直速度均显著高于单荡跳绳。综上所述,为了保证三荡跳绳的成功,需要下肢对地面施加更大的作用力,以获得更大的反作用力,延长悬挂时间,保证三圈。
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来源期刊
Molecular & Cellular Biomechanics
Molecular & Cellular Biomechanics CELL BIOLOGYENGINEERING, BIOMEDICAL&-ENGINEERING, BIOMEDICAL
CiteScore
1.70
自引率
0.00%
发文量
21
期刊介绍: The field of biomechanics concerns with motion, deformation, and forces in biological systems. With the explosive progress in molecular biology, genomic engineering, bioimaging, and nanotechnology, there will be an ever-increasing generation of knowledge and information concerning the mechanobiology of genes, proteins, cells, tissues, and organs. Such information will bring new diagnostic tools, new therapeutic approaches, and new knowledge on ourselves and our interactions with our environment. It becomes apparent that biomechanics focusing on molecules, cells as well as tissues and organs is an important aspect of modern biomedical sciences. The aims of this journal are to facilitate the studies of the mechanics of biomolecules (including proteins, genes, cytoskeletons, etc.), cells (and their interactions with extracellular matrix), tissues and organs, the development of relevant advanced mathematical methods, and the discovery of biological secrets. As science concerns only with relative truth, we seek ideas that are state-of-the-art, which may be controversial, but stimulate and promote new ideas, new techniques, and new applications.
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