The core of primary microbial electrochemical technologies (METs) is the ability of the
electroactive microorganisms to interact with electrodes via extracellular electron transfer …

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 …

Instead of requiring metal catalysts, MFCs utilize bacteria that oxidize organic matter and
either transfer electrons to the anode or take electrons from the cathode. These devices are …

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

Microbial electrochemistry is the study and application of interactions between living
microbial cells and electrodes (ie electron conductors, capacitive materials). For a long time …

Electroactivity appears to be a phylogenetically diverse trait independent of cell wall
classification, with both Gram-negative and Gram-positive electricigens reported. While …

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; …

In nature, different bacteria have evolved strategies to transfer electrons far beyond the cell
surface. This electron transfer enables the use of these bacteria in bioelectrochemical …

Electromicrobiology is an emerging field investigating and exploiting the interaction of
microorganisms with insoluble electron donors or acceptors. Some of the most recently …

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