Integration of Biological Synthesis & Chemical Catalysis: Bio-based Plasticizer trans-Aconitates

Hongbin Hou , Xuenian Huang , Zhiqiang Du , Jian Guo , Min Wang , Guangqiang Xu , Ce Geng , Yunpeng Zhang , Qinggang Wang , Xuefeng Lu
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引用次数: 1

Abstract

Plasticizers are essential to reduce processing difficulties and improve plastic properties. However, petroleum-based phthalate plasticizers, which are mostly used at present, urgently require alternatives due to their confirmed and serious health risks. In this study, the green mass production of trans-aconitic acid was achieved via synthetic biotechnology and microbial fermentation, which was further expanded to multiple application scenarios using chemical esterification, resulting in trans-aconitate plasticizers that are biosafe and environmentally friendly and have high plasticizing efficiency and long-term stability. Different plasticizers with various core structures and alkyl chains were studied to determine their properties as polyvinyl chloride (PVC) plasticizers, and tributyl trans-aconitate displayed the best comprehensive performance with up to 1.24 plasticizing efficiency. The possible PVC plasticization mechanism with synergistic solvent, support, and shielding effects was discussed and summarized. Tributyl trans-aconitate has significant potential to replace traditional PVC plasticizers in general merchandise, food packaging, medicinal materials, and other products, further promoting the development of the high-quality plastic industry with greener technology and safer applications.

生物合成与化学催化的整合:生物基增塑剂反式附子
增塑剂对于减少加工难度和改善塑性性能至关重要。然而,目前主要使用的石油基邻苯二甲酸酯增塑剂,由于其已被证实存在严重的健康风险,迫切需要替代品。本研究通过合成生物技术和微生物发酵实现了反式乌头酸的绿色批量生产,并利用化学酯化进一步扩展到多个应用场景,生产出生物安全、环保、塑化效率高、长期稳定的反式乌头酸酯增塑剂。研究了具有不同核心结构和烷基链的不同增塑剂,确定了它们作为聚氯乙烯(PVC)增塑剂的性能,其中反式乌头酸三丁酯表现出最佳的综合性能,增塑效率高达1.24。讨论并总结了溶剂、载体和屏蔽协同作用下PVC塑化的可能机理。反式乌头酸三丁酯在日用百货、食品包装、药材等产品中具有取代传统PVC增塑剂的巨大潜力,以更环保的技术和更安全的应用进一步推动了高质量塑料行业的发展。
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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