Agro-Waste from Gladiolus hybrida Plants: Effects of Alkaline Processing on a New Natural Cellulosic Fiber Derived for Polymer Composites

Mohammad Abul Hasan Shibly*, Md. Hasin Arman, Md. Abdus Sabur and Mohammad Amir Hossain Bhuiyan, 
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Abstract

This study investigates the potentiality of Gladiolus hybrida leaf fibers (GHLFs) as an eco-friendly reinforcing substance for polymer-based composites. Novel natural fibers were harvested from Gladiolus hybrida leaves (GHL) and treated with NaOH alkali (T-GHLF) to assess their influence on physical, strength, molecular, and heat-related properties. Initially, the obtained fibers had a diameter of 0.3084 mm, which reduced to 0.2524 mm following alkali treatment. Chemical investigation indicated that the cellulose content increased to 57.16 wt %, an enhancement of 11.38% over the untreated fibers, which had a cellulose content of 51.32 wt %. The degree of crystallinity percentage of the raw and processed fibers was 57.85% and 60.82%, respectively, without significant change in the cellulose phase. The thermogravimetric analysis indicated that T-GHLF exhibited improved thermal stability up to 257.77 °C, with the kinetic activation energy (Ea) measured at 81.56 kJ/mol. Fourier transform infrared spectroscopy (FTIR) has been employed to observe the distribution of different chemical groups on the fiber surface. Scanning electron microscopy (SEM) revealed that the fibers had a roughened surface. According to tensile testing of a single fiber, the Young’s modulus values for GHLFs and T-GHLFs were 2.08 and 2.21 GPa, respectively. These evidences suggested that GHLFs exhibited characteristics comparable to those of presently used natural fibers, positioning them as a strong contender to replace organic fibers in resin matrix composites. As a result, these novel natural resources may assist in achieving the Sustainable Development Goals of the United Nations through the sustainable utilization of agricultural waste in polymer matrix composites.

Abstract Image

来自剑兰杂交植物的农业废弃物:碱性处理对用于聚合物复合材料的新型天然纤维素纤维的影响
本研究探讨了格拉迪鲁杂交叶纤维(GHLFs)作为聚合物基复合材料的环保增强物质的潜力。研究人员从剑兰杂交叶(GHL)中提取新型天然纤维,并用 NaOH 碱处理(T-GHLF),以评估其对物理、强度、分子和热相关特性的影响。最初得到的纤维直径为 0.3084 毫米,碱处理后直径减小到 0.2524 毫米。化学调查表明,纤维素含量增至 57.16 wt %,比未经处理的纤维素含量 51.32 wt % 提高了 11.38%。原纤维和加工纤维的结晶度百分比分别为 57.85% 和 60.82%,纤维素相没有发生显著变化。热重分析表明,T-GHLF 具有更好的热稳定性,温度可达 257.77 ℃,测得的动能活化能(Ea)为 81.56 kJ/mol。傅立叶变换红外光谱(FTIR)用于观察纤维表面不同化学基团的分布。扫描电子显微镜(SEM)显示纤维表面粗糙。根据单根纤维的拉伸测试,GHLFs 和 T-GHLFs 的杨氏模量值分别为 2.08 和 2.21 GPa。这些证据表明,GHLFs 具有与目前使用的天然纤维相媲美的特性,是替代树脂基复合材料中有机纤维的有力竞争者。因此,通过在聚合物基复合材料中可持续地利用农业废弃物,这些新型自然资源可能有助于实现联合国的可持续发展目标。
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