Exoelectrogenic microorganisms (EEMs) catalyzed the conversion of chemical energy to
electrical energy via extracellular electron transfer (EET) mechanisms, which underlay …

Electroactive microorganisms acting as microbial electrocatalysts have intrinsic metabolisms
that mediate a redox potential difference between solid electrodes and microbes, leading to …

The excessive consumption of fossil fuels causes massive emission of CO2, leading to
climate deterioration and environmental pollution. The development of substitutes and …

Extracellular electron transfer pathways allow certain bacteria to transfer energy between
intracellular chemical energy stores and extracellular solids through redox reactions …

Highly efficient extracellular electron transfer (EET) of electroactive bacteria is essential for
economically viability of a diverse array of bioelectrochemical systems (BES) in …

Microbial electrochemical systems are able to harvest electricity or synthesize valuable
chemicals from organic matters while simultaneously cleaning environmentally hazardous …

Electrochemically active bacteria can transport their metabolically generated electrons to
anodes, or accept electrons from cathodes to synthesize high‐value chemicals and fuels, via …

Electroactive microorganisms (EAMs) are ubiquitous in nature and have attracted
considerable attention as they can be used for energy recovery and environmental …

Microbial electrochemical technologies provide sustainable wastewater treatment and
energy production. Despite significant improvements in the power output of microbial fuel …

In microbial electrochemical systems, microorganisms catalyze chemical reactions
converting chemical energy present in organic and inorganic molecules into electrical …