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首页> 外文期刊>International journal of fashion design, technology and education >Developing composite nanofibre fabrics using electrospinning, ultrasonic sewing, and laser cutting technologies
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Developing composite nanofibre fabrics using electrospinning, ultrasonic sewing, and laser cutting technologies

机译:使用静电纺丝,超声缝合和激光切割技术开发复合纳米纤维织物

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摘要

In this study, we combine Nylon 6 nanomembranes with tulle and organza fashion fabrics to construct a full-scale, flying kite. For the first time, this work demonstrates the processing of electrospun nanofabrics using laser cut and ultrasonic technologies. The composite fabrics were analysed for their morphological and mechanical properties. Micrographs show the nanofibres are about 129 nm in diameter and the fashion fabrics have yarn diameters greater than 40 μm. The nanofibres were at least 300 times smaller than the individual fibres in the fashion fabrics and successfully joined with non-puncturing ultrasonic seaming. The fracture strain of the nanomembrane-tulle composites increased 58-171% compared to the control samples due to nanofibre entanglements on the open weave structure of tulle. The ultrasonic sewn fabric regions endured 169% greater applied stress with the addition of the organza fabric and the seaming process compared to the nanomembrane-tulle composite. The burst strength of the composites compared to the controls did not change. The integration of these technologies allows us to manufacture nanofibres with everday textiles to fit many potential applications and uses. The provided supplementary video shows the assembly process and flying of the kite as proof-of-concept.
机译:在这项研究中,我们将尼龙6纳米膜与薄纱和透明硬纱时尚面料相结合,以构建出完整的飞行风筝。这项工作首次展示了使用激光切割和超声技术处理电纺纳米织物的过程。分析了复合织物的形态和机械性能。显微照片显示纳米纤维的直径约为129 nm,时尚面料的纱线直径大于40μm。纳米纤维比时尚织物中的单个纤维小至少300倍,并成功地与非穿刺的超声波接缝连接在一起。由于薄纱的开放编织结构上的纳米纤维缠结,与对照样品相比,纳米膜-薄纱复合材料的断裂应变增加了58-171%。与纳米膜-薄纱复合材料相比,添加了透明硬纱织物和接缝工艺的超声缝制织物区域承受的施加应力高169%。与对照相比,复合材料的破裂强度没有变化。这些技术的集成使我们能够用日常纺织品制造纳米纤维,以适应许多潜在的应用和用途。提供的补充视频显示了风筝的组装过程和飞行概念验证。

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