H Jeevan Rao, Singh S, Janaki Ramulu P, Santos Thiago F, Santos Caroliny M, M R Sanjay, Suyambulingam Indran, Siengchin Suchart
Amity Institute of Aerospace Engineering, Amity University Uttar Pradesh, Sector 125, Noida, Uttar Pradesh, India.
Department of Mechanical Engineering & Centre of Excellence for Advanced Manufacturing Engineering, School of Mechanical, Chemical and Materials Engineering, ASTU, Adama, Ethiopia.
Heliyon. 2024 Feb 22;10(5):e26706. doi: 10.1016/j.heliyon.2024.e26706. eCollection 2024 Mar 15.
For the first time, the current work has carried out a chemical treatment of a novel ligno-cellulose fiber that is extracted from the bark of an unexplored plant of Careya arborea. Careya arborea (CA), a flowering tree known for its green berries, thrives in the Indian subcontinent and Afghanistan. This research was focused on extracting fibers from the bark of the Cary tree for the first time to corroborate the influence of chemical treatment on its different characteristics. These CA fibers have a high proportion of cellulose, consisting of 71.17 wt percent, together with 27.86 wt percent of hemicellulose, and a reduced density of 1140 kg/m, making them a suitable candidate for creating lightweight applications in a variety of industries. Chemical treatment has done on the cay fiber with the concentrations of NaOH 5 (wt%), 10 (wt%), and 15 (wt%) solution mixture to improve their characteristics. Estimated the difference between Chemically processed and non-processed Cary fibers and corroborated in results. We performed a number of experiments, including FTIR, XRD, SEM, EDAX, AFM, and TGA, to fully comprehend the changing properties. Chemical testing showed that cellulose changed from its non-crystalline state to cellulose, proving that the treatment was successful in changing the fibre structure. Additionally, the thermo-gravimetric examination showed higher thermal stability 248 °C-325 °C and a rise in the crystallinity index, indicating the treated fibers' improved potential for high-temperature applications. The treated Cary fibers exhibited excellent surface properties, promising improved adhesion, mechanical performance, offering lightweight and sustainable solutions for diverse applications.
当前的工作首次对一种新型木质纤维素纤维进行了化学处理,这种纤维是从一种未被探索的植物——阿比西尼亚木棉(Careya arborea)的树皮中提取的。阿比西尼亚木棉(CA)是一种以绿色浆果闻名的开花树,在印度次大陆和阿富汗生长繁茂。这项研究首次聚焦于从阿比西尼亚木棉树的树皮中提取纤维,以证实化学处理对其不同特性的影响。这些CA纤维含有高比例的纤维素,占71.17重量百分比,还有27.86重量百分比的半纤维素,密度为1140千克/立方米,这使其成为在各种行业中制造轻质应用的合适候选材料。已用浓度为5(重量%)、10(重量%)和15(重量%)的氢氧化钠溶液混合物对CA纤维进行化学处理,以改善其特性。估计了化学处理过的和未处理的阿比西尼亚木棉纤维之间的差异,并在结果中得到了证实。我们进行了多项实验,包括傅里叶变换红外光谱(FTIR)、X射线衍射(XRD)、扫描电子显微镜(SEM)、能谱分析(EDAX)、原子力显微镜(AFM)和热重分析(TGA),以全面了解其变化的特性。化学测试表明,纤维素从非晶态转变为结晶态,证明处理成功改变了纤维结构。此外,热重分析显示热稳定性提高到248℃ - 325℃,结晶度指数上升,表明处理过的纤维在高温应用方面有更好的潜力。处理过的阿比西尼亚木棉纤维表现出优异的表面性能,有望改善附着力和机械性能,为各种应用提供轻质且可持续的解决方案。