工艺参数对粘土催化稻壳水解的影响

Nkanyi Obidi Chukwuma, J. Nwabanne, C. F. Okey-Onyesolu, Nnabuike Christian Chukwujindu
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引用次数: 0

摘要

为了催化稻壳纤维素转化为还原糖,对粘土进行了热处理、盐酸处理和氢氧化钠处理。这项工作旨在利用粘土催化剂从稻壳中生产生物乙醇。采用近似分析和元素分析对稻壳进行了表征,以确定稻壳的成分。基于中心复合可旋转设计(CCRD)的响应面法(RSM)与设计专家软件对工艺条件进行了统计优化。用NaOH、热和HCl处理的粘土水解稻壳时,葡萄糖产率分别达到22.18%、20.58%和20.02%。用CCRD进行数值优化,碱处理粘土53.73 min产糖率为19.32%,酸处理粘土46.48 min产糖率为16.76%。根据这项研究的结果,与酸处理和热处理粘土相比,用碱性处理粘土水解稻壳可以产生最大的葡萄糖产量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effects of Process Parameters on Clay-Catalyzed Rice Husk Hydrolysis
In order to catalyse the transformation of the cellulose from rice husks into reducing sugars, clay was subjected to thermal treatment, HCl treatment, and NaOH treatment. This work aims to produce bioethanol from rice husk using a clay catalyst. Using proximate analysis and elemental analysis, rice husk was characterised in order to identify its composition. Response Surface Methodology (RSM), based on Central Composite Rotatable Design (CCRD), was used with design expert software to statistically optimise the process conditions. The maximum glucose yield of 22.18%, 20.58%, and 20.02% was realized when hydrolysis of rice husk was carried out with NaOH, thermal, and HCl treated clay, respectively. The numerical optimization with CCRD to maximize sugar yield gave 19.32% at 53.73 mins for alkaline treated clay and 16.76% at 46.48 mins for acid treated clay. Based on the findings of this research, alkaline treatment of clay for the hydrolysis of rice husk has demonstrated to produce the maximum glucose production when compared to acid and thermal treatment of clay.
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