Improved cathode for high efficient microbial-catalyzed reduction in microbial electrosynthesis cells

Microbial electrosynthesis cells (MECs) are devices wherein microorganisms can electrochemically interact with electrodes, directly donating or accepting electrons from electrode surfaces. Here, we developed a novel cathode by using nickel nanowires anchored to graphite for the improvement of microb...

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Published inPhysical chemistry chemical physics : PCCP Vol. 15; no. 34; pp. 1429 - 14294
Main Authors Nie, Huarong, Zhang, Tian, Cui, Mengmeng, Lu, Haiyun, Lovley, Derek R, Russell, Thomas P
Format Journal Article
LanguageEnglish
Published Cambridge Royal Society of Chemistry 14.09.2013
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Abstract Microbial electrosynthesis cells (MECs) are devices wherein microorganisms can electrochemically interact with electrodes, directly donating or accepting electrons from electrode surfaces. Here, we developed a novel cathode by using nickel nanowires anchored to graphite for the improvement of microbial-catalyzed reduction in MEC cathode chamber. This porous nickel-nanowire-network-coated graphite electrode increased the interfacial area and interfacial interactions between the cathode surface and the microbial biofilm. A 2.3 fold increase in bio-reduction rate over the untreated graphite was observed. Around 282 mM day −1 m −2 of acetate resulting from the bio-reduction of carbon dioxide by Sporomusa was produced with 82 ± 14% of the electrons consumed being recovered in acetate. A novel cathode, nickel nanowire coated graphite, was developed to increase reduction rate of CO 2 in microbial electrosynthesis cells.
AbstractList Microbial electrosynthesis cells (MECs) are devices wherein microorganisms can electrochemically interact with electrodes, directly donating or accepting electrons from electrode surfaces. Here, we developed a novel cathode by using nickel nanowires anchored to graphite for the improvement of microbial-catalyzed reduction in MEC cathode chamber. This porous nickel-nanowire-network-coated graphite electrode increased the interfacial area and interfacial interactions between the cathode surface and the microbial biofilm. A 2.3 fold increase in bio-reduction rate over the untreated graphite was observed. Around 282 mM day super(-1) m super(-2) of acetate resulting from the bio-reduction of carbon dioxide by Sporomusawas produced with 82 plus or minus 14% of the electrons consumed being recovered in acetate.
Microbial electrosynthesis cells (MECs) are devices wherein microorganisms can electrochemically interact with electrodes, directly donating or accepting electrons from electrode surfaces. Here, we developed a novel cathode by using nickel nanowires anchored to graphite for the improvement of microbial-catalyzed reduction in MEC cathode chamber. This porous nickel-nanowire-network-coated graphite electrode increased the interfacial area and interfacial interactions between the cathode surface and the microbial biofilm. A 2.3 fold increase in bio-reduction rate over the untreated graphite was observed. Around 282 mM day(-1) m(-2) of acetate resulting from the bio-reduction of carbon dioxide by Sporomusa was produced with 82 ± 14% of the electrons consumed being recovered in acetate.
Microbial electrosynthesis cells (MECs) are devices wherein microorganisms can electrochemically interact with electrodes, directly donating or accepting electrons from electrode surfaces. Here, we developed a novel cathode by using nickel nanowires anchored to graphite for the improvement of microbial-catalyzed reduction in MEC cathode chamber. This porous nickel-nanowire-network-coated graphite electrode increased the interfacial area and interfacial interactions between the cathode surface and the microbial biofilm. A 2.3 fold increase in bio-reduction rate over the untreated graphite was observed. Around 282 mM day −1 m −2 of acetate resulting from the bio-reduction of carbon dioxide by Sporomusa was produced with 82 ± 14% of the electrons consumed being recovered in acetate. A novel cathode, nickel nanowire coated graphite, was developed to increase reduction rate of CO 2 in microbial electrosynthesis cells.
Author Nie, Huarong
Lu, Haiyun
Cui, Mengmeng
Lovley, Derek R
Russell, Thomas P
Zhang, Tian
AuthorAffiliation Department of Polymer Science and Engineering
University of Massachusetts
Department of Microbiology
AuthorAffiliation_xml – name: Department of Microbiology
– name: University of Massachusetts
– name: Department of Polymer Science and Engineering
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  surname: Lovley
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  givenname: Thomas P
  surname: Russell
  fullname: Russell, Thomas P
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Snippet Microbial electrosynthesis cells (MECs) are devices wherein microorganisms can electrochemically interact with electrodes, directly donating or accepting...
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SubjectTerms Acetates
Biocatalysis
Bioelectric Energy Sources - microbiology
Biofilms
Carbon Dioxide - chemistry
Catalysis
Cathodes
Chemistry
Electrochemical Techniques
Electrodes
Exact sciences and technology
General and physical chemistry
Graphite
Microorganisms
Nanowires
Nanowires - chemistry
Nanowires - ultrastructure
Nickel
Nickel - chemistry
Oxidation-Reduction
Reduction
Theory of reactions, general kinetics. Catalysis. Nomenclature, chemical documentation, computer chemistry
Veillonellaceae - physiology
Title Improved cathode for high efficient microbial-catalyzed reduction in microbial electrosynthesis cells
URI https://www.ncbi.nlm.nih.gov/pubmed/23881181
https://search.proquest.com/docview/1418366899
https://search.proquest.com/docview/1429902922
https://search.proquest.com/docview/1700997436
Volume 15
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