Fdm 3D打印木纤维增强建筑复合材料

E. Estakhrianhaghighi, A. Mirabolghasemi, Y. Zhang, L. Lessard, H. Akbarzadeh
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引用次数: 1

摘要

作为纤维素的可再生来源,木屑在本研究中被转化为增强用于熔融沉积模型(FDM)的生物基热塑性长丝。提出了在聚乳酸(PLA)聚合物中添加木纤维制备木纤维增强PLA长丝的新工艺方法,用于3D打印高性能复合材料。用生产的长丝对狗骨样品进行3D打印,以评估其弹性和断裂性能以及内部微观结构,其中含有不同重量的木纤维。实验结果表明,与纯PLA样品相比,最佳木纤维含量的复合材料的刚度和极限强度增加,密度降低。此外,随着人们对轻质蜂窝固体的兴趣日益浓厚,木纤维增强PLA长丝被用于3D打印具有优化微结构的蜂窝材料。研究表明,使用木纤维增强复合材料进行FDM 3D打印先进材料是一种很有前途的方法,不仅可以扩展生物聚合物的材料性能,还可以提供一种新型的轻质和可持续结构材料。3D打印蜂窝的实验结果,与设计蜂窝的详细计算分析结果相比较,得出设计的木质纤维PLA复合材料的结构蜂窝固体比传统的PLA六边形蜂窝具有更高的刚度和极限强度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fdm 3D Printed Wood-Fiber Reinforced Architected Composites
As a renewable source of cellulose, wood chips are transformed in this study to reinforce bio-based thermoplastic filaments for fused deposition modelling (FDM). A new processing method is developed for adding wood-fibers to polylactic acid (PLA) polymers to produce wood-fiber reinforced PLA filaments in order to 3D print high-performance composites. Dogbone samples are 3D printed with the produced filaments to evaluate their elastic and fracture properties as well as internal microstructure, with various weight fractions of wood-fiber. The experimental results demonstrate increased stiffness and ultimate strength and reduced density for composites with optimum wood-fiber content, compared to the pure PLA specimens. Furthermore, following the growing interest in lightweight cellular solids, wood-fiber reinforced PLA filaments are used to 3D print cellular materials with optimized microarchitectures. It was demonstrated that using wood-fiber reinforced composites for FDM 3D printing of advanced materials is a promising approach to not only extend the material properties of biopolymers but also to offer a new class of lightweight and sustainable structural materials. The experimental results on as-built 3D printed cells, compared with the results of a detailed computational analysis on as-designed cells, elicit that the designed architected cellular solids made of wood-fiber PLA composites can exhibit a considerably higher stiffness and ultimate strength than the conventional PLA hexagonal honeycombs.
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