表面响应法优化生物乙醇水解发酵过程

N. K. Sari, I. Purbasari, Jariyah
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引用次数: 1

摘要

木薯粉废液中的淀粉含量可采用固体NaOH化学水解工艺加工成葡萄糖,所得滤液葡萄糖可采用涡轮酵母发酵工艺加工成技术生物乙醇。本研究旨在利用Minitab软件对水解和发酵过程进行优化,以最大限度地生产技术葡萄糖和生物乙醇。在水解前,木薯粉废液经过预处理和过滤去除杂质。水解过程化学上使用固体氢氧化钠与废液木薯粉为5升,水解温度为±40℃。变量形式为固体NaOH 1 ~ 5mg,搅拌时间为15 ~ 60min,采用MS-20D型数字磁力搅拌器。发酵过程使用葡萄糖滤液500 ml,发酵温度±30°C,发酵pH±4.5,不同水平的涡轮酵母7至15 (% w/v),发酵时间3和7(天)。葡萄糖的最高浓度为18%,技术生物乙醇的最高浓度为21.9% v/v,响应面法与二阶多项式模型相似。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Bioethanol Optimization in Hydrolysis and Fermentation Process with Surface Response Method
The starch content in the liquid waste of tapioca flour can be processed into glucose by chemical hydrolysis process with solid NaOH, and filtrate glucose obtained can be processed into technical bioethanol with fermentation process using turbo yeast. This study aims to produce maximum technical glucose and bioethanol with optimization in hydrolysis and fermentation processes using Minitab software with Surface Response. Before the hydrolysis process, tapioca flour’s liquid waste underwent a pretreatment and filtration process to remove impurities. The hydrolysis process chemically uses solid NaOH with liquid waste tapioca flour as 5 liters and hydrolysis temperature ± 40°C. Variables in the form of solid NaOH 1 to 5 mg, and stirring time 15 to 60 minutes using digital magnetic stirrer type MS-20D. The fermentation process uses a volume of glucose filtrate 500 ml, fermentation temperature ± 30°C, and fermentation pH ±4.5, variable levels of turbo yeast 7 to 15 (% w/v) and fermentation time of 3 and 7 (days). The maximum levels obtained for glucose are 18%, and technical bioethanol is 21.9 %v/v, with the Response Surface method showing similarities to the second-order polynomial model.
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