Vermeeren Benjamin, Van Praet Sofie, Arts Wouter, Narmon Thomas, Zhang Yingtuan, Zhou Cheng, Steenackers Hans P, Sels Bert F
Center for Sustainable Catalysis and Engineering (CSCE), KU Leuven, Belgium.
Centre of Microbial and Plant Genetics (CMPG), KU Leuven, Belgium.
Chem Soc Rev. 2024 Dec 9;53(24):11804-11849. doi: 10.1039/d4cs00244j.
Aliphatic amines encompass a diverse group of amines that include alkylamines, alkyl polyamines, alkanolamines and aliphatic heterocyclic amines. Their structural diversity and distinctive characteristics position them as indispensable components across multiple industrial domains, ranging from chemistry and technology to agriculture and medicine. Currently, the industrial production of aliphatic amines is facing pressing sustainability, health and safety issues which all arise due to the strong dependency on fossil feedstock. Interestingly, these issues can be fundamentally resolved by shifting toward biomass as the feedstock. In this regard, cellulose and hemicellulose, the carbohydrate fraction of lignocellulose, emerge as promising feedstock for the production of aliphatic amines as they are available in abundance, safe to use and their aliphatic backbone is susceptible to chemical transformations. Consequently, the academic interest in bio-based aliphatic amines the catalytic reductive amination of (hemi)cellulose-derived substrates has systematically increased over the past years. From an industrial perspective, however, the production of bio-based aliphatic amines will only be the middle part of a larger, ideally circular, value chain. This value chain additionally includes, as the first part, the refinery of the biomass feedstock to suitable substrates and, as the final part, the implementation of these aliphatic amines in various applications. Each part of the bio-based aliphatic amine value chain will be covered in this Review. Applying a holistic perspective enables one to acknowledge the requirements and limitations of each part and to efficiently spot and potentially bridge knowledge gaps between the different parts.
脂肪族胺包括多种胺类,其中有烷基胺、烷基多胺、链烷醇胺和脂肪族杂环胺。它们的结构多样性和独特特性使其成为多个工业领域不可或缺的组成部分,涵盖化学、技术、农业和医药等领域。目前,脂肪族胺的工业生产正面临紧迫的可持续性、健康和安全问题,这些问题均源于对化石原料的严重依赖。有趣的是,通过转向以生物质为原料,这些问题可从根本上得到解决。在这方面,纤维素和半纤维素作为木质纤维素的碳水化合物部分,成为生产脂肪族胺的有前景的原料,因为它们储量丰富、使用安全,且其脂肪族主链易于进行化学转化。因此,在过去几年中,学术界对基于生物的脂肪族胺(即(半)纤维素衍生底物的催化还原胺化)的兴趣系统性地增加了。然而,从工业角度来看,基于生物的脂肪族胺的生产只是一个更大的、理想情况下为循环的价值链的中间部分。这个价值链还包括,作为第一部分,将生物质原料精炼成合适的底物,以及作为最后一部分,将这些脂肪族胺应用于各种用途。本综述将涵盖基于生物的脂肪族胺价值链的各个部分。采用整体视角能够认识到每个部分的要求和局限性,并有效地发现和潜在地弥合不同部分之间的知识差距。