利用废弃香蕉树轴纤维生产纤维素纳米晶体,作为制造有用的仿生复合材料的增强材料

Md. Mahmudur Rahman , Md. Elius Hosen Pk , Md. Waliullah , Md. Ismail Hossain , Mohd. Maniruzzaman , Bijoy Chandra Ghos
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引用次数: 0

摘要

利用次生植物的废弃生物质生产氯化萘至关重要,可减轻对原生植物的额外压力,因为原生植物在许多领域都有其他有利应用。而收获香蕉(M. oranta)可食用部分后无用的香蕉轴可能是一种非常有益的新材料。同时,还可采用几种众所周知的方法,即水洗、冲洗、碱处理、亚氯酸盐漂白和酸水解,以获得高质量的 CNC。为了更好地了解其结构特性/纯度,对所有阶段的样品都采用了几种最先进的技术进行表征,即傅立叶变换红外-原子吸收光谱(FTIR-ATR)、热重分析(TGA)、外表面可见光(FESEM)、X射线衍射(XRD)、紫外-可见-近红外(UV-vis-NIR)、DLS和ZETA电位分析。然而,所获得的结果表明,这些 CNC 具有广泛的活性边缘,在 700 °C 以下具有更大的热改善作用,结晶度高,约为 81.07±0.15%(JCPDS-ICDD 卡号 (00-056-1718)),具有蜂窝状多孔微结构,具有良好的球形形状,平均尺寸约为 50 nm。此外,新制备的 CNC 不含任何杂质和着色材料,并显示出较高的负电荷表面,约为 -45 mV。因此,由于这些突出特点,香蕉茎秆碳纳米管具有较高的产率(约为 82.05±0.06%),可作为有前途的增强材料,用于制造有用的仿生复合材料,以取代化石基有害合成材料,并应用于各种领域。
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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Production of cellulose nanocrystals from the waste banana (M. oranta) tree rachis fiber as a reinforcement to fabricate useful bionanocomposite
It is crucial to produce CNCs from the waste biomass of secondary plants to reduce the extra pressure on primary plants which have other advantageous applications in many sectors. Whereas the useless banana (M. oranta) rachis after harvesting its edible part could be a very new and beneficial one. Meanwhile, several well-known methods could be conducted, namely water retting, scouring, alkali treatment, chlorite bleaching, and acid hydrolysis, to yield high-quality CNCs. The samples of all stages were characterized by several state-of-the-art techniques, namely FTIR-ATR, TGA, FESEM, XRD, UV–vis-NIR, DLS, and zeta potential analysis, for a better understanding of their structural properties/purity. However, obtained results recommended that the CNCs have shown extensive active edges, greater thermal improvement up to 700 °C, high crystallinity around 81.07±0.15% with JCPDS-ICDD card number (00-056-1718), a honeycomb-like porous microstructure, and promising spherical shapes along with an average size around 50 nm. Additionally, the newly produced CNCs were free from all impurities and coloring materials and revealed a higher negatively charged surface around -45 mV. Therefore, due to these outstanding features, banana rachis CNCs with a high yield (around 82.05±0.06%) would be beneficially used as promising reinforcement to fabricate useful bionanocomposite for various applications to replace fossil-based hazardous synthetic materials.
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