剪切增稠流体填充泡沫耐冲击性影响因素研究

IF 1 4区 工程技术 Q3 MATERIALS SCIENCE, TEXTILES International Journal of Clothing Science and Technology Pub Date : 2024-04-30 DOI:10.1108/ijcst-02-2024-0031
Xue Nan, Xuan Chao Huang, Mengyao Huang, Xuefan Wang, Youping Zhu, Yayun Li, Shifei Shen, Ming Fu
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引用次数: 0

摘要

本研究通过落锤冲击试验评估了剪切增稠流体填充(STFs-填充)泡沫的抗冲击性。在不同的环境温度(-20-20 °C)和冲击能量(25-75 J)下,研究了不同厚度(4-14 mm)、密度(0.35-0.6 g/cm3)和硬度(40-50 洛氏硬度 C 级(HRC))的 STF 填充泡沫的最大残余冲击载荷和特定冲击能量吸收率。研究结果本研究得出以下结论:(1)冲击能量越高,材料的最大残余冲击力越大,能量吸收效率越高;(2)STF 填充泡沫的抗冲击性能可随环境温度的降低而提高,在 -10°C 时能量吸收率最高。(3) 当密度为 0.35 g/cm3、硬度为 45HC 和厚度为 10 mm 时,STF 填充泡沫基材具有最高的抗冲击性、最低的最大残余冲击力和最高的能量吸收系数。结果表明,温度的降低和硬度的增加可提高 STF 填充泡沫的抗冲击性。
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Study on the influencing factors of impact resistance of shear thickening fluids filled foam

Purpose

The present study assesses the impact resistance of the shear thickening fluids-filled (STFs-filled) foam through drop-hammer impact tests.

Design/methodology/approach

The maximum residual impact load and specific impact energy absorption rate of STF-filled foam are studied with varying thickness (4–14 mm), densities (0.35–0.6 g/cm3) and hardness (40–50 Rockwell Hardness C Scale (HRC)) under different ambient temperatures (−20−20 °C) and impact energies (25–75 J).

Findings

The following conclusions are obtained from this study: (1) the higher the impact energy, the greater the maximum residual impact force and energy absorption efficiency of the material; (2) the impact resistance of STF-filled foam can be improved with the decrease of ambient temperature, achieving the highest energy absorption rate at −10?. (3) STF-filled foam substrate has the highest impact resistance, the lowest maximum residual impact force and the highest energy absorption coefficient when the density is 0.35 g/cm3, the hardness is 45HC and the thickness is 10 mm.

Originality/value

This is the first paper to analyze the impact of both environmental factors and material properties on the impact resistance of STF-filled foam. The results show that the decrease in temperature and the increase in hardness can enhance the impact resistance of STF-filled foam.

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来源期刊
CiteScore
2.40
自引率
8.30%
发文量
51
审稿时长
10 months
期刊介绍: Addresses all aspects of the science and technology of clothing-objective measurement techniques, control of fibre and fabric, CAD systems, product testing, sewing, weaving and knitting, inspection systems, drape and finishing, etc. Academic and industrial research findings are published after a stringent review has taken place.
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