聚乳酸聚合物基质 (Pla) 生物复合材料与植物纤维用于制造 3D 打印丝:综述

Victor Hugo M. Almeida, Raildo M. Jesus, G. M. Santana, Thaís B. Pereira
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摘要

全球对聚合物产品的需求不断攀升,随之而来的处理难题需要技术和可持续的解决方案。本综述介绍了三维打印设备所用材料开发的最新进展,重点是新型生物复合材料。本研究深入探讨了由聚乳酸及其与其他聚合物的混合物组成的生物复合材料,并以植物纤维为增强材料,特别关注了过去五年中开展的研究。研究总结了与原材料的物理、化学和加工特性有关的信息,这些特性是制造生物复合材料长丝和印刷部件所必需的。对拉伸和弯曲强度方面的最佳结果进行了介绍和讨论,指明了未来的研究途径和理想目标。研究结果表明,与纯聚乳酸相比,植物纤维的加入会导致机械强度的降低;但是,当植物纤维的粒径较小,加入量低于 10%时,其性能会得到改善。此外,纤维的物理和/或化学预处理以及纤维素纤维的分离也是提高机械强度的关键策略。值得注意的是,添加剂的加入带来了广阔的前景,而印刷参数的改进则是提高印刷部件拉伸和弯曲强度的关键。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Polylactic Acid Polymer Matrix (Pla) Biocomposites with Plant Fibers for Manufacturing 3D Printing Filaments: A Review
The escalating global demand for polymer products and the consequent disposal challenge necessitate technological and sustainable solutions. Recent advances in the development of materials used in 3D printing equipment are described in this review, with a focus on new biocomposite materials. The investigation delves into biocomposites comprising PLA and its blends with other polymers, reinforced by plant fibers, with a particular focus on research conducted over the last five years. The information related to the raw materials’ physical, chemical, and processing properties necessary for creating biocomposite filament and printed parts were summarized. The best results in terms of tensile and flexural strength were presented and discussed, signposting future research avenues and desirable objectives. The findings elucidate that the inclusion of plant fibers led to a reduction in mechanical strength relative to pure PLA; however, when smaller particle sizes of plant fibers were added in volumes below 10%, it resulted in improved performance. Moreover, physical and/or chemical pretreatment of fibers, along with the isolation of cellulose fibrils, emerged as pivotal strategies for bolstering mechanical strengths. Noteworthy are the promising prospects presented by the incorporation of additives, while the refinement of printing parameters is key to improving the tensile and flexural strength of printed components.
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