Alteration in Foot Strike Pattern While Running with Elastic Insoles: Case Study on the Effects of Long-term Training

R. Fujihara, Kohei Kozasa, Hiroaki Hirai, H. Krebs
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Abstract

Motor adaptation is a form of motor learning that involves changes in the control of movements that occur as a consequence of optimization in repeated task exposure or practice. A good example of this can be found in human running. It is thought that humans run in accordance with the presence or absence and shape of shoes. Three foot strike patterns exist in running, classified according to which portion of the sole first connects with the ground: RFS (rear-foot-strike; heel connection), MFS (mid-foot-strike, simultaneous heel and toe connections), and FFS (fore-foot-strike; toe, or ball connection). RFS is often seen in runners wearing shoes, whereas FFS is commonly seen during routine barefoot running. This study examined how humans adapt to assistive footwear (environmental exposure)s throughout approximately one month of running training. We found that the shape and stiffness of a modified insole affected the foot, functioning as a spring during running. As training continued, the subject adapted to the structure of the footwear by altering his foot strike pattern while reducing his heart rate. The foot strike pattern changed from heel contact to contact from the side of the toe or arch, and the pattern of the ground reaction force changed from that of RFS to that of FFS or MFS. These results indicate that the change in foot compliance while landing and during grounding affects the foot strike pattern to improve the efficiency and capability of running through long-term training.
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穿弹性鞋垫跑步时足部打击模式的改变:长期训练影响的个案研究
运动适应是运动学习的一种形式,涉及在重复任务暴露或练习中优化运动控制的结果。人类跑步就是一个很好的例子。人们认为,人类的跑步是根据鞋子的存在与否和形状来决定的。跑步中有三种脚着地方式,根据脚底首先与地面接触的部分进行分类:后脚着地;MFS(中足着地,脚跟和脚趾同时连接)和FFS(前足着地;脚趾,或球连接)。RFS常见于穿鞋跑步者,而FFS常见于常规赤脚跑步者。这项研究考察了人类在大约一个月的跑步训练中如何适应辅助鞋(环境暴露)。我们发现改良鞋垫的形状和硬度会影响脚,在跑步过程中起到弹簧的作用。随着训练的继续,受试者通过改变脚的击打模式来适应鞋子的结构,同时降低心率。足部触地模式由足跟接触转变为趾侧或足弓接触,地面反力模式由足跟接触转变为足侧或足弓接触。这些结果表明,通过长期训练,在落地和落地过程中足部顺应性的改变会影响足部击球方式,从而提高跑步效率和能力。
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