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Optimal manufacturing and mechanical characterization of high performance biocomposites reinforced by sisal fibers

机译:剑麻纤维增强的高性能生物复合材料的优化制造和力学性能

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The increasing interest about eco-sustainable materials in the industrial production (automotive, civil construction, packaging), has led to the increase of the research works dealing with biocomposites. However, until now the most attention has been devoted to the development of short fiber biocomposites for non-structural applications, whereas only a few works have considered high performance biocomposites for structural applications. Consequently, the development of structural biocomposites from robust natural fibers, as sisal fibers, is a result expected from the scientific community, but not yet achieved. In order to give a contribution to the implementation of high performance biocomposites constituted by a green matrix reinforced by sisal fibers, the present work proposes a manufacturing process that allows to obtain good quality unidirectional biocomposites with fiber volume fraction up to 70%. In detail, it uses unidirectional "stitched" fabrics, properly obtained in laboratory from optimized fibers, and a curing under a proper pressure cycle. The comparison with independent data reported in literature, has evidenced how the proposed biocomposites exhibit mechanical properties higher than most of biocomposites described in literature, so that they can advantageously substitute not only materials as steel, aluminum and glass fiber reinforced plastics, but also other biocomposites reinforced by more expensive fibers.
机译:生态可持续材料在工业生产(汽车,民用建筑,包装)中的兴趣日益浓厚,导致从事生物复合材料研究工作的增加。然而,迄今为止,最关注的是用于非结构应用的短纤维生物复合材料的开发,而只有很少的工作考虑了用于结构应用的高性能生物复合材料。因此,科学界期望从健壮的天然纤维如剑麻纤维开发结构生物复合材料,但尚未实现。为了对由剑麻纤维增强的绿色基质构成的高性能生物复合材料的实施做出贡献,本工作提出了一种制造工艺,该工艺可以获得纤维体积分数高达70%的高质量单向生物复合材料。详细地说,它使用在实验室中从优化纤维中适当获得的单向“缝制”织物,并在适当的压力循环下进行固化。与文献中报道的独立数据的比较已经证明,所提出的生物复合材料如何表现出比文献中描述的大多数生物复合材料更高的机械性能,因此它们不仅可以有利地替代钢,铝和玻璃纤维增​​强塑料等材料,而且还可以替代其他生物复合材料由更昂贵的纤维增强。

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