碱性Na+/K+催化转化蓖麻和芝麻生物柴油优化研究

A. O. Mustapha, K. Akanji, Adebola Akala, Ebenezer Daramola, M. Ajala, Fatima Ajao, M. Abdullahi, Salihu Adisa
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引用次数: 1

摘要

为了优化精制蓖麻生物柴油(RCB)和精制芝麻生物柴油(RSB),考察了催化剂(NaOH和KOH)、催化剂浓度(0.3 ~ 1.5)、转速(500 ~ 750 rpm)和时间(20 ~ 60 min)等条件对精制蓖麻生物柴油(RCB)和精制芝麻生物柴油(RSB)的影响。RCB和RSB的物理化学性质采用美国材料测试标准(ASTM)批准的酸、过氧化物、碘和皂化方案进行测量;密度,运动粘度和折射率值。采用Box-Behnken设计响应面法(RSM)进行优化。优化结果为催化剂浓度(0.300 ~ 0.435%)、转速(500.000 ~ 643.242 rpm)、时间(20.000 ~ 31.386 min)。收益率范围为81.062% ~ 102.648%,理想收益率范围为0.812 ~ 0.980%。与ASTM D 6751相比,这些产量更高,在常规生物柴油生产中需要46 - 55%的范围。使用KOH时,RSB的收率为102.649%,而使用NaOH时,RCB的收率为92.017%。KOH催化剂下RCB的最佳收率为89.461%,NaOH催化剂下RSB的最佳收率为81.062%。催化剂的用量和性质是影响生物柴油优化的最重要因素
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Castor (Ricinus communis) and Sesame (Sesamum indicum) Biodiesel Optimization by Alkaline Na+/K+ Catalytic Conversion.
For the optimization of refined castor biodiesel (RCB) and refined sesame biodiesel (RSB), the impacts of specified conditions such as catalysts (NaOH and KOH), catalyst concentration (0.3–1.5), speed (500–750 rpm), and time (20–60 min) were investigated. The physicochemical properties of the RCB and RSB were measured using the American Standard for Testing Materials (ASTM) approved protocols for acid, peroxide, iodine, and saponification; density, kinematic viscosity, and refractive index values. Box–Behnken Design's Response Surface Methodology (RSM) was used for optimization. The results for four optimization methods were catalyst concentration (0.300–0.435 percent), speed (500.000–643.242 rpm), and time (20.000–31.386 min). The yield ranged from 81.062 to 102.648 percent, with a desirability range of 0.812 to 0.980 %. These yields were higher when compared to ASTM D 6751 which required a range of 46–55 % in regular biodiesel production. The RSB achieved a maximum yield of 102.649 % while using KOH, compared to 92.017 % in the RCB when using NaOH. The optimum yield of RCB using the KOH catalyst (89.461%) was higher to that of RSB using the NaOH catalyst (81.062%). The catalyst dosage and its nature, were the most essential factor during biodiesel optimization
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