Ojsadmin, Adrianto Ahmad, Idral Amri, Wida Sri Wani
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引用次数: 0
摘要
印度尼西亚是一个人口不断增长的国家,导致对能源的需求也在增加。生物乙醇作为一种日益减少的燃料被广泛应用于交通运输。棕榈果纤维由于其高的木质纤维素含量,有足够的潜力发展成为一种替代能源,即生物乙醇。本研究的目的是确定水解过程中硫酸的组成,确定所产生的生物乙醇的初始糖组成,并确定水解和分离发酵(SHF)法形成生物乙醇的最佳加工时间。本研究的阶段是在100℃下,用1M、2M和3M的H2SO4水解棕榈果纤维3小时。发酵过程按时间进行,分别为24小时、48小时、72小时、96小时和120小时。结果表明,在3M水解过程中,H2SO4的最佳浓度为87.83 gr/L。发酵过程中获得的最佳发酵时间为96 h,生物乙醇浓度为31.57 g / l,初始浓度越大,发酵时间越长,最佳发酵时间下获得的生物乙醇越多。
Pengaruh Pretreatment pada Fermentasi Bioetanol Generasi Kedua dari Serat Buah Kelapa Sawit
Indonesia is a country with a growing human population, causing the need of energy also increases. Bioethanol has been widely used in transportation as a fuel that is increasingly reduced. Palm fruit fiber has a high enough potential to be developed into an alternative energy source, namely bioethanol because of its high lignocellulosic content. The purpose of this study was to determine the composition of sulfuric acid in the hydrolysis process, determine the initial sugar composition of the bioethanol produced, and determine the optimal processing time for the formation of bioethanol in the Hydrolysis and Separate Fermentation (SHF) method. The stages in this study were the hydrolysis of palm fruit fiber using H2SO4 with variations of 1M, 2M, and 3M for 3 hours at 100 oC. The fermentation process is carried out with variations in time for 24 hours, 48 hours, 72 hours, 96 hours and 120 hours. The results showed that in the hydrolysis process the optimum H2SO4 concentration of 3M produced a sugar concentration of 87.83 gr/L. The fermentation process obtained an optimal fermentation time of 96 hours with a bioethanol concentration of 31.57 g / L. The greater the initial concentration and the longer time fermentation, the more bioethanol is obtained at optimal times.