Influence of Water Absorption on Mechanical and Morphological Behaviour of Roystonea-Regia/Banana Hybrid Polyester Composites

Anand Hassan Rajamudi Gowda, Govardhan Goud, Karthik Sathynarayana, Madhu Puttegowda
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Abstract

This study investigated the properties of hybrid composites made from Roystonea-Regia and banana fibers for potential applications in industries requiring lightweight, environmentally favorable, and mechanically strong materials. The analysis of density and void fraction revealed that the addition of banana fibers increased the composite's density, despite the fact that the actual density was slightly lower than the theoretical density due to confined gases during fabrication. The results of tensile tests revealed that water absorption negatively affected tensile strength, whereas alkali treatment and hybridization enhanced performance. The composition of 10 wt % Roystonea-Regia and 5 wt % banana had the highest tensile strength of 64.76MPa, which was attributable to the hydrophilicity and hydration content of the banana fiber. Further flexural and impact experiments confirmed that the influence of water absorption of composites showed a decrement in mechanical properties. The highest impact strength of 45.28 J/m and flexural strength of 75.6MPa were noted for 10 wt % Roystonea-Regia and 5 wt % banana. In addition, Scanning Electron Microscopy (SEM) analysis revealed that alkali treatment improved fiber-matrix interface bonding and roughened fiber surfaces, thereby enhancing the composites' overall performance. The study provides precious insights into the potential of Roystonea-Regia and banana hybrid composites for industrial applications as lightweight, environmentally friendly, and mechanically robust materials.
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吸水率对Roystonea-Regia/Banana杂化聚酯复合材料力学和形态行为的影响
本研究研究了由roystone - regia和香蕉纤维制成的混合复合材料的性能,该复合材料在需要轻质、环保和机械强度材料的行业中具有潜在的应用前景。密度和空隙率分析表明,香蕉纤维的加入增加了复合材料的密度,尽管由于制造过程中密闭气体的影响,实际密度略低于理论密度。拉伸试验结果表明,吸水对拉伸强度有不利影响,而碱处理和杂交处理提高了拉伸强度。10 wt % Roystonea-Regia和5 wt %香蕉的抗拉强度最高,为64.76MPa,这是由于香蕉纤维的亲水性和水化含量所致。进一步的弯曲和冲击实验证实,复合材料吸水率的影响表现为力学性能的下降。10 wt % Roystonea-Regia和5 wt % banana的冲击强度最高,为45.28 J/m,弯曲强度最高,为75.6MPa。此外,扫描电镜(SEM)分析表明,碱处理改善了纤维-基体界面结合,使纤维表面变得粗糙,从而提高了复合材料的整体性能。这项研究为roystone - regia和香蕉混合复合材料作为轻质、环保和机械坚固的工业应用材料的潜力提供了宝贵的见解。
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来源期刊
Applied Science and Engineering Progress
Applied Science and Engineering Progress Engineering-Engineering (all)
CiteScore
4.70
自引率
0.00%
发文量
56
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