The extracellular electron transfer (EET) between microorganisms and electrodes forms the
basis for microbial electrochemical technology (MET), which recently have advanced as a …

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

ABSTRACT A strain of Geobacter sulfurreducens, an organism capable of respiring solid
extracellular substrates, lacking four of five outer membrane cytochrome complexes …

Electroactive microorganisms can exchange electrons with other cells or conductive
interfaces in their extracellular environment. This property opens the way to a broad range of …

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

With the higher requirements of energy conservation and carbon emission reduction,
wastewater treatment process is facing unprecedented challenges. Microbial …

Microbial metabolism coupled with extracellular electron transfer (EET) plays a crucial role
in redox cycling of major elements in natural environments. The EET capabilities of …

Extracellular electron transfer has, in one decade, emerged from an environmental
phenomenon to an industrial process driver. On the one hand, electron transfer towards …

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

An electrically active bacterium transports its metabolically generated electrons to insoluble
substrates such as electrodes via a process known as extracellular electron transport (EET) …