Common Reactions of Furfural to scalable processes of Residual Biomass

Alejandra Rodríguez Montaña, Maria H. Brijaldo, Leidy Rache, Ludmila P. C. Silva, Laura M. Esteves
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引用次数: 15

Abstract

Energy and the environment will always play key roles in society. The climate emergency cannot be ruled out to enable the transition for a clean energy future. Currently, non-renewable energy resources are declining, therefore is important to continuously explore renewable resources. Biomass is a renewable resource that can be applied to reduce climate changes and to accomplhish emission policies. Cellulose is the most abundant type of biomass worldwide, which can be transformed into biofuels and potential building block platform molecules (e.g furfural) throughout biological or chemical methods. Furfural can be synthetized from cellulose using hydrolysis and dehydration reactions. Furfural has a furan ring and carbonyl functional group which makes it an important intermediary to produce higher value-added molecules at  industrial level. These molecules include gasoline, diesel and jet fuel. However, furfural can also be transformed by hydrogenation, oxidation, decarboxylation and condensation reactions. The selective hydrogenation of furfural produces furfuryl alcohol, an important industrial compound, which is widely employed in the production of resins, fibers, and is considered an essential product for pharmaceutical applications. On the other hand, the oxidation of furfural produces furoic acid which is appliedin the agrochemical industry, where it is commonly transformed to furoyl chloride which is finally  used in the production of drugs and insecticides. The oxidation and reduction of furfural can carry out through heterogeneous and homogeneous catalysis, and biocatalysis.  Selectivity is an important issue in furfural hydrogenation and oxidation reactions since different products can be obtained by using monometallic or bimetallic catalysts and/or different catalyst supports. In biocatalysis approach, different enzymes, complete cells, tools of modern biotechnology, DNA sequencing, regulation of metabolic networks, overexpression of genes that encode enzymes of interest and optimization of the cellular properties of the microorganism are used. Herein, a review on the current status of furfuryl alcohol and furoic acid production from furfural by heterogeneous catalysis and biocatalysis has been studied. The stability, selectivity and activity of catalystsalong with the different furfural oxidation and reduction conditions have been pointed out. Additionally, the main enzymes, microorganisms and mechanism involved in the furfural degradation process have also been discussed.
糠醛对残余生物质可扩展工艺的常见反应
能源和环境将永远在社会中发挥关键作用。为了实现向清洁能源未来的过渡,不能排除气候紧急情况。目前,不可再生能源资源在不断减少,因此不断开发可再生资源是非常重要的。生物质是一种可再生资源,可用于减少气候变化和实现排放政策。纤维素是世界上最丰富的生物质类型,它可以通过生物或化学方法转化为生物燃料和潜在的构建块平台分子(如糠醛)。糠醛可以通过水解和脱水反应由纤维素合成。糠醛具有呋喃环和羰基官能团,是工业生产高附加值分子的重要中间体。这些分子包括汽油、柴油和喷气燃料。然而,糠醛也可以通过加氢、氧化、脱羧和缩合反应转化。糠醛选择性加氢生成糠醇,这是一种重要的工业化合物,广泛应用于树脂、纤维的生产,被认为是医药应用的重要产品。另一方面,糠醛氧化产生糠酸,应用于农化工业,糠酸通常转化为氟酰氯,最终用于生产药物和杀虫剂。糠醛的氧化还原可以通过多相催化和均相催化以及生物催化进行。选择性是糠醛加氢和氧化反应中的一个重要问题,因为使用单金属或双金属催化剂和/或不同的催化剂载体可以得到不同的产物。在生物催化方法中,使用了不同的酶、完整的细胞、现代生物技术工具、DNA测序、代谢网络的调节、编码感兴趣的酶的基因的过表达和微生物细胞特性的优化。本文综述了糠醛多相催化和生物催化制备糠醇和糠酸的研究现状。指出了不同糠醛氧化还原条件下催化剂的稳定性、选择性和活性。此外,还讨论了糠醛降解过程中涉及的主要酶、微生物和机理。
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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