Biodiesel fuel. Part III. Quantum chemical research and simulation of the process

S. V. Mazanov, F. Gumerov, A. Kourdioukov, A. R. Gabitova, R. A. Usmanov, L. K. Safiullina, Z. Zaripov, Y. Shapovalov
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Abstract

THE PURPOSE. The purpose of this work was to use the associated paradigm for a correct quantum-chemical description of non-catalytic and catalytic supercritical fluid processes of transesterification of triglycerides with alcohols and hydrolysis of triglycerides and to model a one-stage process for obtaining biodiesel fuel, carried out under supercritical fluid conditions with its subsequent scaling to the commercial level.METHODS. The Gaussian09 software product was used to describe quantum chemical studies. The process modeling was carried out using the ASPEN Plus® v2006 software product. The behavior of thermodynamic systems at high temperatures and pressures is modeled using "RK ASPEN EOS". For modeling processes carried out at low pressures, mathematical models UNIQUAC and UNIFAC-LL were used. The scaling of the process was carried out in the VMGSim program.RESULTS. The third part of the review focuses on the quantum-chemical modeling of the transesterification reaction carried out under supercritical fluid conditions. It is shown that taking into account the associative paradigm makes it possible to obtain calculated reaction rate constants that agree in order with the experimental values. And also an analysis was carried out and the results of modeling the process of obtaining biodiesel fuel and scaling it to a commercial level, with a capacity of up to 9000 tons / year, were presented.CONCLUSION. The conducted analysis showed that biodiesel fuel can be a competitive fuel in our and the world market.
生物柴油燃料。第三部分。量子化学过程的研究与模拟
的目的。这项工作的目的是使用相关的范例对甘油三酯与醇酯交换和甘油三酯水解的非催化和催化超临界流体过程进行正确的量子化学描述,并模拟在超临界流体条件下获得生物柴油燃料的单阶段过程,随后将其扩展到商业水平。Gaussian09软件产品被用来描述量子化学研究。利用ASPEN Plus®v2006软件产品进行了工艺建模。热力学系统在高温高压下的行为用“RK ASPEN EOS”模型模拟。对于在低压下进行的过程建模,使用了UNIQUAC和unifacl数学模型。在VMGSim程序中进行了该过程的缩放。第三部分综述了超临界流体条件下酯交换反应的量子化学模拟。结果表明,考虑联想范式可以得到与实验值一致的计算反应速率常数。并对生物柴油燃料的制备过程进行了模型化分析,并给出了规模化生产的结果,达到了9000吨/年的产能。分析表明,生物柴油燃料在国内外市场上具有一定的竞争力。
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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