Author
Listed:
- Jun Feng
(Auburn University
Auburn University)
- Jie Zhang
(Auburn University
Auburn University)
- Yuechao Ma
(Auburn University
Auburn University)
- Yiming Feng
(Virginia Tech)
- Shangjun Wang
(Auburn University
Auburn University)
- Na Guo
(Auburn University
Auburn University)
- Haijiao Wang
(Auburn University
Auburn University)
- Pixiang Wang
(Auburn University
Auburn University)
- Pablo Jiménez-Bonilla
(Auburn University
Auburn University
National University (UNA))
- Yanyan Gu
(Auburn University
Auburn University)
- Junping Zhou
(Auburn University
Auburn University)
- Zhong-Tian Zhang
(Auburn University
Auburn University)
- Mingfeng Cao
(Iowa State University
Iowa State University)
- Di Jiang
(University of Science and Technology of China)
- Shuning Wang
(Microbial Technology Institute, Shandong University)
- Xian-Wei Liu
(University of Science and Technology of China)
- Zengyi Shao
(Iowa State University
Iowa State University)
- Ilya Borovok
(Tel Aviv University, Ramat Aviv)
- Haibo Huang
(Virginia Tech)
- Yi Wang
(Auburn University
Auburn University)
Abstract
Bioproduction of renewable chemicals is considered as an urgent solution for fossil energy crisis. However, despite tremendous efforts, it is still challenging to generate microbial strains that can produce target biochemical to high levels. Here, we report an example of biosynthesis of high-value and easy-recoverable derivatives built upon natural microbial pathways, leading to improvement in bioproduction efficiency. By leveraging pathways in solventogenic clostridia for co-producing acyl-CoAs, acids and alcohols as precursors, through rational screening for host strains and enzymes, systematic metabolic engineering-including elimination of putative prophages, we develop strains that can produce 20.3 g/L butyl acetate and 1.6 g/L butyl butyrate. Techno-economic analysis results suggest the economic competitiveness of our developed bioprocess. Our principles of selecting the most appropriate host for specific bioproduction and engineering microbial chassis to produce high-value and easy-separable end products may be applicable to other bioprocesses.
Suggested Citation
Jun Feng & Jie Zhang & Yuechao Ma & Yiming Feng & Shangjun Wang & Na Guo & Haijiao Wang & Pixiang Wang & Pablo Jiménez-Bonilla & Yanyan Gu & Junping Zhou & Zhong-Tian Zhang & Mingfeng Cao & Di Jiang &, 2021.
"Renewable fatty acid ester production in Clostridium,"
Nature Communications, Nature, vol. 12(1), pages 1-13, December.
Handle:
RePEc:nat:natcom:v:12:y:2021:i:1:d:10.1038_s41467-021-24038-3
DOI: 10.1038/s41467-021-24038-3
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