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MES research paper focusing on electrode, bacteria

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Abstract

This review explores electron transfer kinetics from an electron donor to the anode in electrically conductive biofilm anodes. Intracellular electron transfer (IET) from the donor to the anode is well described with the Monod equation. In comparison, mechanisms of extracellular electron transfer (EET) conduction are unclear yet, complicating EET kinetics. However, in biofilm anodes where potential gradient to saturated current density is less than ∼300 mV, Ohmic conduction successfully describe conductive EET mainly with biofilm conductivity (K bio ) and biofilm thickness (L f ). High K bio essential for production of high current density is found in Geobacter pure or enriched biofilm anodes, but other exoelectrogens could make biofilms electrically conductive. IET is rate-limiting for current density in conductive biofilms, and biofilm density of active exoelectrogens and L f are operating parameters that can be optimized further to improve current density.

Keywords

AnodeBiofilmElectron transferGeobacterCurrent densityElectrical conductor

Identifiers

PubMed
29478785
Journal
Bioresource Technology
Year
2018