纺织学报 ›› 2020, Vol. 41 ›› Issue (08): 32-38.doi: 10.13475/j.fzxb.20190803007
武鲜艳1,2,3, 申屠宝卿1(), 马倩4, 金利民5, 张威6, 谢胜2
WU Xianyan1,2,3, SHENTU Baoqing1(), MA Qian4, JIN Limin5, ZHANG Wei6, XIE Sheng2
摘要:
为深入研究抗冲击三维正交机织物的破坏机制,通过有限元建模分析,以三维正交机织物为靶体,在纱线尺度细观结构模型上计算其在不同初始速度球形弹体冲击下的渐进破坏过程。对不同初始速度下球形弹体的速度和加速度变化历程、各纱线系统吸能比例、材料渐进破坏过程以及最终破坏形态等进行分析。结果表明:平直排列的纱线系统在吸收与耗散球形弹体冲击能量的过程中发挥重要作用,可使能量以很快的应力波速扩展到三维正交机织物靶体的大面积区域,并提高吸能效果;球形弹体初始速度为100 m/s时,经、纬、Z纱系统可分别吸收总能量的39.6%、48.37%、12.03%,经、纬纱系统为三维正交机织物靶体抵抗冲击力过程中的主要承力部位;通过增加纱线层数、织物体积及织造密度等可提高三维正交机织物材料的抗冲击性能。
中图分类号:
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