Electroactive microorganisms possess the unique ability to transfer electrons to or from solid
phase electron conductors, eg, electrodes or minerals, through various physiological …

The growing interest on sustainable biotechnological processes for the production of energy
and industrial relevant organic compounds have increased the discovery of electroactive …

Enterococcus faecalis cells are known to have ferric reductase activity and the ability to
transfer electrons generated in metabolism to the external environment. We have isolated …

Extracellular electron transfer (EET) in microbial cells is essential for certain
biotechnological applications and contributes to the biogeochemical cycling of elements and …

Microbes have been shown to naturally form veritable electric grids in which different
species acting as electron donors and others acting as electron acceptors cooperate. The …

Redox mediator plays an important role in extracellular electron transfer (EET) in many
environments wherein microbial electrocatalysis occurs actively. Because of the block of cell …

Microbial electrochemical techniques describe a variety of emerging technologies that use
electrode–bacteria interactions for biotechnology applications including the production of …

Bioelectrochemical systems and devices [1] such as microbial fuel cells (MFCs)[2] are under
intense investigation for their potential use as energy sources and serve as useful platforms …

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

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