Recent progress in metabolic engineering of microbial formate assimilation

Formate can be efficiently produced via electrochemical or photochemical catalytic conversion of CO 2 , and it can be directly used as an organic carbon source by microorganisms. In theory, formate can be used as the sole carbon source for the microbial production of high-value-added chemicals. Cons...

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Veröffentlicht in:Applied microbiology and biotechnology 2020-08, Vol.104 (16), p.6905-6917
Hauptverfasser: Mao, Wen, Yuan, Qianqian, Qi, Hongge, Wang, Zhiwen, Ma, Hongwu, Chen, Tao
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container_issue 16
container_start_page 6905
container_title Applied microbiology and biotechnology
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creator Mao, Wen
Yuan, Qianqian
Qi, Hongge
Wang, Zhiwen
Ma, Hongwu
Chen, Tao
description Formate can be efficiently produced via electrochemical or photochemical catalytic conversion of CO 2 , and it can be directly used as an organic carbon source by microorganisms. In theory, formate can be used as the sole carbon source for the microbial production of high-value-added chemicals. Consequently, the construction of efficient formate-assimilation pathways in microorganisms is essential for the utilization of cheap, renewable one-carbon compounds. This paper summarizes new methods of formate synthesis, as well as the natural formate utilization pathways of microorganisms with their advantages and disadvantages. Furthermore, it reviews recent progress in the design of utilization pathways for formate in microbial cells through metabolic engineering and synthetic biology. Besides, we also use the pathway-prediction algorithm comb-FBA to rationally design completely new one-carbon compounds utilization pathways. The pathway with the highest efficiency, named GAA, was corroborated by the in vitro experiments showing a carbon molar yield up to 88%. Finally, it discusses the main problems and challenges presently existing in the pathway design and strain improvement for microbial utilization of formate. Key points • Natural and artificial design pathways of formate-assimilation was summarized. • Recent progresses in different hosts and approaches of using one-carbon compounds was reviewed. • Metabolic engineering and synthetic biology methods to improve formate utilization were discussed.
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subjects Algorithms
Assimilation
Bacteria - metabolism
Biology
Biomedical and Life Sciences
Biotechnology
Carbon
Carbon - metabolism
Carbon compounds
Carbon dioxide
Carbon Dioxide - metabolism
Carbon sources
Catalytic converters
Design
Electrochemistry
Formates - metabolism
Life Sciences
Metabolic engineering
Metabolic Engineering - methods
Metabolic Engineering - trends
Metabolism
Microbial Genetics and Genomics
Microbiology
Microorganisms
Mini-Review
Organic carbon
Photochemicals
Synthetic Biology
Utilization
title Recent progress in metabolic engineering of microbial formate assimilation
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