Biocomposite Innovation: Assessing Tensile and Flexural Performance with Maleated Natural Rubber Additives

W. Fatra, K. Anuar, Febri Dwi Oktriyono, Rivo Fernando, Z. Helwani, A. Rusyana, Said Zul Amraini
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Abstract

Fiberglass is the most common reinforcing fiber used in composites, with polymer matrices having high tensile strength and chemical resistance, including an excellent insulating property; however, they are non-degradable. Natural fiber reinforced polymer composites have advantageous properties such as lower density and price, when compared to synthetic composite products. In addition, hybrid composites may be obtained depending on various properties such as the fibers' length, structure, content and orientation, matrix bonding and arrangement. This study was carried out to determine the effect of adding Maleated Natural Rubber (MNR) from natural rubber as a coupling agent, in order to produce the highest tensile and flexural strength. The hand lay-up and vacuum bag methods with the Response Surface Method-Central Composite Design (RSM). -CCD) were used. The composite arrangement pattern was E-glass/OPEFB/E-glass, the volume fraction of OPEFB (oil palm empty fruit bunches):E-glass was 40:60, 50:50 and 60:40, the fraction volume of OPEFB + E-glass:matrix was 40:60, 50: 50, 60: 40 and the coupling agent were added by 9, 10 and 11% of the total epoxy resin used. Furthermore, the composite mold was made of glass with dimensions of 200mm x 50mm x 50mm. The results showed that the composite product obtained from both methods had a tensile strength value, which was influenced by the variable OPEFB fiber and epoxy resin. Meanwhile, the flexural strength was influenced by the OPEFB fiber and the quadratic factor of the epoxy-MNR resin.
生物复合材料创新:评估马来酸化天然橡胶添加剂的拉伸和挠曲性能
玻璃纤维是复合材料中最常用的增强纤维,其聚合物基体具有很高的抗拉强度和耐化学性,包括出色的绝缘性能;但它们不可降解。与合成复合材料产品相比,天然纤维增强聚合物复合材料具有密度低、价格便宜等优点。此外,根据纤维的长度、结构、含量和取向、基体粘合和排列等各种特性,还可以获得混合复合材料。本研究旨在确定添加天然橡胶马来酸化天然橡胶(MNR)作为偶联剂的效果,以产生最高的拉伸和弯曲强度。采用响应面法-中心复合设计(RSM)的手糊法和真空袋法。-CCD)的手糊法和真空袋法。复合材料的排列方式为 E-玻璃/OPEFB/E-玻璃,OPEFB(油棕空果枝):E-玻璃的体积分数为 40:60、50:50 和 60:40,OPEFB + E-玻璃:基体的体积分数为 40:60、50:50 和 60:40,偶联剂的添加量为环氧树脂总量的 9%、10% 和 11%。此外,复合材料模具由玻璃制成,尺寸为 200mm x 50mm x 50mm。结果表明,两种方法得到的复合材料产品的拉伸强度值受 OPEFB 纤维和环氧树脂变量的影响。同时,弯曲强度受 OPEFB 纤维和环氧-MNR 树脂二次因子的影响。
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