Elaboration and Characterization of Composite Materials Reinforced by Papaya Trunk Fibers (Carica papaya) and Particles of the Hulls of the Kernels of the Winged Fruits (Canarium schweinfurthii) with Polyester Matrix

Ze Eric Parfait, N. Marcel, Nnomo Elobi Didine, Nfor Clins Wiryikfu, Betene Ebanda Fabien, Ngahiyi Abbé Claude Valery, A. Ateba
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引用次数: 3

Abstract

In this work we determine the physical and mechanical properties of local composites reinforced with papaya trunk fibers (FTP) on one hand and particles of the hulls of the kernels of the garlic (PCNFA) in the other hand. The samples are produced according to BSI 2782 standards; by combining fibers and untreated to polyester matrix following the contact molding method. We notice that the long fibers of papaya trunks improve the tensile/compression characteristics of composites by 45.44% compared to pure polyester; while the short fibers improve the flexural strength of composites by 62.30% compared to pure polyester. Furthermore, adding fibers decreases the density of the final composite material and the rate of water absorption increases with the size of the fibers. As regards composite materials with particle reinforcement from the cores of the winged fruits, the particle size (fine ≤ 800 μm and large ≤ 1.6 mm) has no influence on the Young’s modulus and on the rate of water absorption. On the other hand, fine particles improve the flexural strength of composite materials by 53.08% compared to pure polyester; fine particles increase the density by 19% compared to the density of pure polyester.
番木瓜干纤维与有翅果果皮颗粒聚酯增强复合材料的制备与表征
在这项工作中,我们测定了局部复合材料的物理力学性能,一方面是木瓜干纤维(FTP),另一方面是大蒜仁壳颗粒(PCNFA)。样品按BSI 2782标准生产;通过将纤维与未经处理的聚酯基体结合后进行接触成型的方法。我们注意到,与纯聚酯相比,木瓜树干的长纤维提高了复合材料的拉伸/压缩特性45.44%;与纯聚酯相比,短纤维可使复合材料的抗弯强度提高62.30%。此外,纤维的加入降低了最终复合材料的密度,吸水率随纤维尺寸的增加而增加。对于翅果芯颗粒增强的复合材料,颗粒尺寸(细≤800 μm,大≤1.6 mm)对杨氏模量和吸水率没有影响。另一方面,与纯聚酯相比,细颗粒可使复合材料的抗弯强度提高53.08%;与纯聚酯相比,细颗粒的密度增加了19%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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