Nano-sulfonated sepiolite for efficient biodiesel yield from waste oil: A versatile solid acid catalyst

Shiva Aghababaian, Mojtaba Beygzadeh, Maziar Dehghan, Farah-Sadat Halek, Mohammad Aminy
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Abstract

The present study investigates the applicability of inexpensive natural clay sepiolite as a solid support for preparing sulfonic acid functionalized nanocatalysts producing biodiesel as an alternative fuel. The nanocatalyst is characterized by standard analyses such as XRD, FT-IR, BET, and FE-SEM to evaluate its physical and chemical properties. To avoid soap formation in the transesterification process and to modify the functionality of a mineral-grade sepiolite, sulfonic acid (Sep-SO3H) has been used to enhance its activity and stability. The resulting heterogeneous catalyst is a nanosized solid acid that can handle edible waste oil as a low-value feedstock with high levels of impurities and acidity in the feedstock. The biodiesel production efficiency is determined by GC-mass spectrometry. Using 2 wt.% of the nanocatalyst resulted in a conversion of 94.7% of the waste cooking oil, demonstrating the high efficiency and promising potential of the materials and method, considering the nature of the feedstock and excellent recycling performance.

从废油中高效生产生物柴油的纳米磺化海泡石:一种多功能固体酸催化剂
本研究探讨了廉价的天然粘土海泡石作为固体载体制备磺酸功能化纳米催化剂的适用性,并将其作为替代燃料生产生物柴油。采用XRD, FT-IR, BET和FE-SEM等标准分析方法对纳米催化剂进行了表征,以评价其物理和化学性质。为了避免在酯交换过程中形成肥皂并改变矿物级海泡石的功能,使用磺酸(Sep-SO3H)来提高其活性和稳定性。所得到的多相催化剂是一种纳米级固体酸,可以处理可食用废油作为低价值的原料,原料中含有高水平的杂质和酸度。采用气相色谱质谱法测定生物柴油的生产效率。考虑到原料的性质和优异的回收性能,使用2 wt.%的纳米催化剂,废食用油的转化率为94.7%,证明了该材料和方法的高效率和有前途的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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