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Synthesis and optimization of chitosan supported magnetic carbon bio-nanocomposites and bio-oil production by solvothermal carbonization co-precipitation for advanced energy applications

机译:壳聚糖负载磁性碳生物纳米复合材料的合成与优化通过溶剂热碳化共沉淀用于先进能源应用

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Synthesis of hybrid nanomaterials in the lab-scale frequently involves complex processing and often is not able to be adopted in the industry without major enhancements for its commercial production. This research is focused on a convenient route for the fabrication of chitosan-supported magnetically recoverable carbon bio-nanocomposites by functionalizing magnetic nanoparticles on chitosan and renewable carbon material using solvothermal carbonization co-precipitation (STCC). This process can be adopted in large-scale synthesis with minimum enhancements. The nanocomposites produced using STCC offered excellent features including porous and ultrafine nanostructure, stable mechanical, and chemical properties. From the analysis of variance (ANOVA), the temperature has been found to be the most influential factor for both magnetic nanocomposite and bio-oil yield. The highest porosity for nanocomposites was observed with water-based synthesis at 260 degrees C at 194.62 m(2)/g. However, water/ethanol (50:50) at 260 degrees C yielded 6.67% and 8.01% more bio-oil and having 5.35% and 3.49% higher heating value as compared to that of bio-oil produced using water and ethanol. (C) 2021 Elsevier Ltd. All rights reserved.
机译:实验室规模中的杂化纳米材料的合成经常涉及复杂的加工,并且通常不能在业界中采用,而不会对其商业生产的重大增强。该研究专注于通过在壳聚糖和可再生碳材料上官能化磁性纳米颗粒(STCC)在壳聚糖和可再生碳材料上官能化磁性纳米颗粒制备壳聚糖负载的磁性可回收碳生物纳米复合材料的方便途径。该过程可以在大规模合成中采用最小增强功能。使用STC的纳米复合材料提供了优异的特征,包括多孔和超细纳米结构,稳定的机械和化学性质。从方差分析(ANOVA),已发现温度是磁性纳米复合材料和生物油产率最有影响力的因素。在194.62m(2)/ g的260℃下,在260摄氏度下观察到纳米复合材料的最高孔隙率。然而,与使用水和乙醇产生的生物油相比,260℃下的水/乙醇(50:50)产生6.67%和8.01%,加热值较高为5.35%和3.49%。 (c)2021 elestvier有限公司保留所有权利。

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