The optimization of tetrahydrofuran as a co-solvent on biodiesel production from rubber seeds using response surface methodology

Iwan Ridwan, Herawati Budiastuti, Retno Indarti, Ninik Lintang Edi Wahyuni, Hasna Mutiara Safitri, Rama Luthfi Ramadhan
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Abstract

The present work aims to investigate the impact of tetrahydrofuran as a co-solvent on biodiesel production from rubber seeds to accelerate the transesterification reaction with a high biodiesel yield. We extracted the oil from rubber seeds before being reacted with methanol to synthesize biodiesel. It reveals that the composition of rubber seed oil was palmitic acid of 9.71 %, stearic acid of 13.09 %, oleic acid of 19.23 %, linoleic acid of 37.49 %, and linolenic acid of 20.47 %. The esterification process was examined to diminish the FFA content from 5.00 % to 1.99 %. The transesterification process was then examined to convert the triglycerides of rubber seed oil into biodiesel. The process variables in the transesterification were defined by Box Behnken Design, and the optimum condition was evaluated by response surface methodology. We found that the optimum condition was at temperature of 52 °C, reaction time of 30 min, and mass ratio of tetrahydrofuran to methanol of 1.4:1 to achieve a biodiesel yield of 97 %. The result suggests that the addition of tetrahydrofuran as a co-solvent accelerated the transesterification reaction of rubber seed oil with an excellent biodiesel yield.

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响应面法优化四氢呋喃助溶剂在橡胶种子生物柴油生产中的应用
本工作旨在研究四氢呋喃作为助溶剂对橡胶种子生产生物柴油的影响,以加速酯交换反应,获得高生物柴油产率。我们从橡胶种子中提取油,然后与甲醇反应合成生物柴油。结果表明,橡胶籽油的组成为棕榈酸9.71%,硬脂酸13.09%,油酸19.23%,亚油酸37.49%,亚麻酸20.47%。通过酯化工艺将FFA含量从5.00%降低到1.99%。然后通过酯交换工艺将橡胶籽油中的甘油三酯转化为生物柴油。采用Box-Behnken设计确定了酯交换反应的工艺变量,并采用响应面法评价了最佳工艺条件。我们发现,最佳条件是温度为52°C,反应时间为30min,四氢呋喃与甲醇的质量比为1.4:1,生物柴油的产率为97%。结果表明,四氢呋喃作为助溶剂的加入加速了橡胶籽油的酯交换反应,生物柴油收率较高。
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来源期刊
Materials Science for Energy Technologies
Materials Science for Energy Technologies Materials Science-Materials Science (miscellaneous)
CiteScore
16.50
自引率
0.00%
发文量
41
审稿时长
39 days
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