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

Microbial electrochemical technologies (METs) are applications or processes that utilize the
electrochemical interaction of microbes and electrodes (Schroder et al., 2015). It has been …

Electron transfer between microorganisms and an electrode—even across long distances—
enables the former to live by coupling to an electronic circuit. Such a system integrates …

More and more microbes are discovered that are capable of extracellular electron transfer, a
process in which they use external electrodes as electron donors or acceptors for metabolic …

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 …

Broad application of microbial fuel cells will require substantial increases in current density.
A better understanding of the microbiology of these systems may help. Recent studies have …

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

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

Microbial electrocatalysis relies on microorganisms as catalysts for reactions occurring at
electrodes. Microbial fuel cells and microbial electrolysis cells are well known in this context; …

A vast array of microorganisms from all three domains of life can produce electrical current
and transfer electrons to the anodes of different types of bioelectrochemical systems. These …