Shoe-floor friction is predicted by high-frequency material properties and small-scale floor topographical features

IF 2.7 Q2 ERGONOMICS
K. Beschorner, Henry Ing, V. Chadha, Anna B. Randolph, Ky Reifler, T. Jacobs
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引用次数: 0

Abstract

The prevalence of falling accidents, and the variation in friction performance across shoes (Iraqi, et al., 2020) suggest an opportunity to reduce slips through improved outsole design. A salient source of friction in the presence of liquid contaminants is hysteresis friction, which occurs due to energy loss in the shoe material. This energy loss occurs from cyclic loading caused by the shoe sliding against periodic topographical features of the floor surface. Mechanics models of hysteresis friction suggest that the small-scale topography features of the floor and the high-frequency material response of the shoe are relevant to friction (Heinrich, et al., 2000).
根据高频材料特性和小规模地面地形特征预测鞋地面摩擦
摔倒事故的发生率以及鞋子摩擦性能的变化(Iraqi等,2020)表明,通过改进大底设计可以减少打滑。在液体污染物存在的情况下,摩擦的一个显著来源是迟滞摩擦,这是由于鞋材料中的能量损失而发生的。这种能量损失是由鞋对地板表面周期性地形特征滑动引起的循环载荷造成的。迟滞摩擦的力学模型表明,地板的小尺度地形特征和鞋的高频材料响应与摩擦有关(Heinrich等,2000)。
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来源期刊
Footwear Science
Footwear Science ERGONOMICS-
CiteScore
2.70
自引率
10.00%
发文量
16
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