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[高级醇的微生物绿色制造]

[Microbial green manufacturing of higher alcohols].

作者信息

Ma Xiaoyan, Wang Xueqin, Ma Lianjie, Huo Yi-Xin

机构信息

Key Laboratory of Molecular Medicine and Biotherapy, School of Life Sciences, Beijing Institute of Technology, Beijing 100081, China.

出版信息

Sheng Wu Gong Cheng Xue Bao. 2021 May 25;37(5):1721-1736. doi: 10.13345/j.cjb.200700.

DOI:10.13345/j.cjb.200700
PMID:34085451
Abstract

Higher alcohols that contain more than two carbon atoms have better fuel properties than ethanol, making them important supplements and alternatives to fossil fuels. Using microbes to produce higher alcohols from renewable biomass can alleviate the current energy and environmental crises, and has become a major future direction for green biomanufacturing. Since natural microbes can only produce a few higher alcohols in small amounts, it is necessary to reconstruct the synthetic pathways for higher alcohols in model industrial strains through metabolic engineering and synthetic biology to overcome the metabolic bottlenecks. A series of milestones have been accomplished in past decades. The authors of this review have witnessed the entire journey of this field from its first success to the leaping development. On the 30th anniversary of the founding of the discipline of metabolic engineering, this review dates back to the great milestones in achieving heterologous production of higher alcohols in non-native strains. The design and optimization of high alcohol biosynthetic pathways, the expansion of feedstock, the engineering of host strains and the industrialization process are summarized. This review aims to draw further attention to microbial synthesis of higher alcohols, inspire the development of novel techniques and strategies of metabolic engineering, and promote the innovation and upgrade of China's biofuel industry.

摘要

含有两个以上碳原子的高级醇比乙醇具有更好的燃料特性,使其成为化石燃料的重要补充和替代品。利用微生物从可再生生物质中生产高级醇可以缓解当前的能源和环境危机,并已成为未来绿色生物制造的一个主要方向。由于天然微生物只能少量产生几种高级醇,因此有必要通过代谢工程和合成生物学在典型工业菌株中重建高级醇的合成途径,以克服代谢瓶颈。在过去几十年中已经取得了一系列里程碑式的成果。这篇综述的作者见证了该领域从首次成功到飞跃发展的全过程。在代谢工程学科成立30周年之际,本综述回顾了在非天然菌株中实现高级醇异源生产的重大里程碑。总结了高醇生物合成途径的设计与优化、原料拓展、宿主菌株工程改造及工业化进程。本综述旨在进一步引起对微生物合成高级醇的关注,激发代谢工程新技术和新策略的发展,推动我国生物燃料产业的创新升级。

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[Microbial green manufacturing of higher alcohols].[高级醇的微生物绿色制造]
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