Advances in cathode designs and reactor configurations of microbial electrosynthesis systems to facilitate gas electro-fermentation

[Display omitted] •MES integration with gas fermentation is promising to sustain bioproduction.•Various cathode materials and their performances in MES are reviewed.•Different aspects of effective cathode and reactor design are explored.•Strategies are offered for future research on gas electro-ferm...

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Published inBioresource technology Vol. 354; p. 127178
Main Authors Bajracharya, Suman, Krige, Adolf, Matsakas, Leonidas, Rova, Ulrika, Christakopoulos, Paul
Format Journal Article
LanguageEnglish
Published England Elsevier Ltd 01.06.2022
Subjects
acetates
Biochemical Process Engineering
biofilm
Biofuels
Biokemisk processteknik
biomass
bioplastics
butanol
butyrates
carbon dioxide
Carbon Dioxide - chemistry
Cathode-design
cathodes
CO utilization
CO2 utilization
Electrodes
electrosynthesis
ethanol
Fermentation
Gas Electro-fermentation
Gases
hexanoic acid
mass transfer
Microbial Electrosynthesis
reducing agents
renewable electricity
Syngas
Cathode-design
Microbial Electrosynthesis
CO2 utilization
Gas Electro-fermentation
Syngas
CO utilization
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Abstract [Display omitted] •MES integration with gas fermentation is promising to sustain bioproduction.•Various cathode materials and their performances in MES are reviewed.•Different aspects of effective cathode and reactor design are explored.•Strategies are offered for future research on gas electro-fermentation in MES. In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO2 and CO) when H2 or other reductants are available. Microbial electrosynthesis (MES) enables CO2 reduction by generating H2 or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas–liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO2-based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.
AbstractList In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO2 and CO) when H2 or other reductants are available. Microbial electrosynthesis (MES) enables CO2 reduction by generating H2 or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas-liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO2-based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO2 and CO) when H2 or other reductants are available. Microbial electrosynthesis (MES) enables CO2 reduction by generating H2 or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas-liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO2-based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.
In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO₂ and CO) when H₂ or other reductants are available. Microbial electrosynthesis (MES) enables CO₂ reduction by generating H₂ or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas–liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO₂-based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.
[Display omitted] •MES integration with gas fermentation is promising to sustain bioproduction.•Various cathode materials and their performances in MES are reviewed.•Different aspects of effective cathode and reactor design are explored.•Strategies are offered for future research on gas electro-fermentation in MES. In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO2 and CO) when H2 or other reductants are available. Microbial electrosynthesis (MES) enables CO2 reduction by generating H2 or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas–liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO2-based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.
In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO2 and CO) when H2 or other reductants are available. Microbial electrosynthesis (MES) enables CO2 reduction by generating H2 or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas-liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO2-based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.
In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO and CO) when H or other reductants are available. Microbial electrosynthesis (MES) enables CO reduction by generating H or reducing equivalents with the sole input of renewable electricity. A combined approach as gas electro-fermentation is attractive for the sustainable production of biofuels and biochemicals utilizing C1 gases. Various platform compounds such as acetate, butyrate, caproate, ethanol, butanol and bioplastics can be produced. However, technological challenges pertaining to the microbe-material interactions such as poor gas-liquid mass transfer, low biomass and biofilm coverage on cathode, low productivities still exist. We are presenting a review on latest developments in MES focusing on the configuration and design of cathodes that can address the challenges and support the gas electro-fermentation. Overall, the opportunities for advancing CO and CO -based biochemicals and biofuels production in MES with suitable cathode/reactor design are prospected.
ArticleNumber 127178
Author Krige, Adolf
Bajracharya, Suman
Matsakas, Leonidas
Christakopoulos, Paul
Rova, Ulrika
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  givenname: Adolf
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  surname: Rova
  fullname: Rova, Ulrika
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  givenname: Paul
  surname: Christakopoulos
  fullname: Christakopoulos, Paul
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Keywords Cathode-design
Microbial Electrosynthesis
CO2 utilization
Gas Electro-fermentation
Syngas
CO utilization
Language English
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Snippet [Display omitted] •MES integration with gas fermentation is promising to sustain bioproduction.•Various cathode materials and their performances in MES are...
In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO and CO) when H or other reductants are available. Microbial...
In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO2 and CO) when H2 or other reductants are available. Microbial...
In gas fermentation, a range of chemolithoautotrophs fix single-carbon (C1) gases (CO₂ and CO) when H₂ or other reductants are available. Microbial...
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StartPage 127178
SubjectTerms acetates
Biochemical Process Engineering
biofilm
Biofuels
Biokemisk processteknik
biomass
bioplastics
butanol
butyrates
carbon dioxide
Carbon Dioxide - chemistry
Cathode-design
cathodes
CO utilization
CO2 utilization
Electrodes
electrosynthesis
ethanol
Fermentation
Gas Electro-fermentation
Gases
hexanoic acid
mass transfer
Microbial Electrosynthesis
reducing agents
renewable electricity
Syngas
Title Advances in cathode designs and reactor configurations of microbial electrosynthesis systems to facilitate gas electro-fermentation
URI https://dx.doi.org/10.1016/j.biortech.2022.127178
https://www.ncbi.nlm.nih.gov/pubmed/35436538
https://www.proquest.com/docview/2652583734
https://www.proquest.com/docview/2661032712
https://urn.kb.se/resolve?urn=urn:nbn:se:ltu:diva-90331
Volume 354
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