Engineering an electroactive Escherichia coli for the microbial electrosynthesis of succinate from glucose and CO2

Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO.sub.2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products. In this research, an elect...

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Published inMicrobial cell factories Vol. 18; no. 1; pp. 15 - 14
Main Authors Wu, Zaiqiang, Wang, Junsong, Liu, Jun, Wang, Yan, Bi, Changhao, Zhang, Xueli
Format Journal Article
LanguageEnglish
Published London BioMed Central Ltd 28.01.2019
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Abstract Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO.sub.2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products. In this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO.sub.3.sup.+, which produced a succinate yield of 1.10 mol/mol glucose--a 1.6-fold improvement over the parent strain T110. The strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction.
AbstractList Abstract Background Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products. Results In this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO3 +, which produced a succinate yield of 1.10 mol/mol glucose—a 1.6-fold improvement over the parent strain T110. Conclusions The strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction.
Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products.BACKGROUNDElectrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products.In this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO3+, which produced a succinate yield of 1.10 mol/mol glucose-a 1.6-fold improvement over the parent strain T110.RESULTSIn this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO3+, which produced a succinate yield of 1.10 mol/mol glucose-a 1.6-fold improvement over the parent strain T110.The strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction.CONCLUSIONSThe strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction.
Background Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO.sub.2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products. Results In this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO.sub.3.sup.+, which produced a succinate yield of 1.10 mol/mol glucose--a 1.6-fold improvement over the parent strain T110. Conclusions The strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction. Keywords: Microbial electrosynthesis, Bioelectrochemical systems, Succinate, CO.sub.2 fixation
Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO.sub.2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products. In this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO.sub.3.sup.+, which produced a succinate yield of 1.10 mol/mol glucose--a 1.6-fold improvement over the parent strain T110. The strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction.
Background Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2. Previous microbial electrosynthesis (MES) research mainly utilized naturally electroactive microbes to generate non-specific products. Results In this research, an electroactive succinate-producing cell factory was engineered in E. coli T110(pMtrABC, pFccA-CymA) by expressing mtrABC, fccA and cymA from Shewanella oneidensis MR-1, which can utilize electricity to reduce fumarate. The electroactive T110 strain was further improved by incorporating a carbon concentration mechanism (CCM). This strain was fermented in an MES system with neutral red as the electron carrier and supplemented with HCO3+, which produced a succinate yield of 1.10 mol/mol glucose—a 1.6-fold improvement over the parent strain T110. Conclusions The strain T110(pMtrABC, pFccA-CymA, pBTCA) is to our best knowledge the first electroactive microbial cell factory engineered to directly utilize electricity for the production of a specific product. Due to the versatility of the E. coli platform, this pioneering research opens the possibility of engineering various other cell factories to utilize electricity for bioproduction.
ArticleNumber 15
Audience Academic
Author Wang, Junsong
Zhang, Xueli
Wu, Zaiqiang
Liu, Jun
Bi, Changhao
Wang, Yan
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  surname: Zhang
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Snippet Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO.sub.2. Previous microbial...
Background Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO.sub.2. Previous...
Background Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2. Previous...
Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2. Previous microbial...
Abstract Background Electrochemical energy is a key factor of biosynthesis, and is necessary for the reduction or assimilation of substrates such as CO2....
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StartPage 15
SubjectTerms Bacteria
Bioelectrochemical systems
Biosynthesis
Carbon dioxide
CO2 fixation
Cytochrome
E coli
Electricity
Electrochemistry
Electrons
Energy
Escherichia coli
Factories
Fermentation
Fermented food
Genes
Glucose
Industrial engineering
Manufacturing engineering
Metabolism
Microbial electrosynthesis
Microorganisms
Physiological aspects
Plasmids
Proteins
Substrates
Succinate
Succinic acid
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Title Engineering an electroactive Escherichia coli for the microbial electrosynthesis of succinate from glucose and CO2
URI https://www.proquest.com/docview/2183608111
https://www.proquest.com/docview/2179426092
https://pubmed.ncbi.nlm.nih.gov/PMC6348651
https://doaj.org/article/b1c9dbe392c942618bd9a6d33d726ed9
Volume 18
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