ABSTRACT The Gram-negative Shewanella bacterial genus currently includes about 70
species of mostly aquatic γ-proteobacteria, which were isolated around the globe in a …

A growing number of bacteria are recognized to conduct electrons across their cell
envelope, and yet molecular details of the mechanisms supporting this process remain …

Exogenous electron mediators (EMs) can facilitate extracellular electron transfer (EET) via
electron shuttling processes, but it is still unclear whether and how biofilm formation is …

Microbial nanowires are fascinating biological structures that allow bacteria to transport
electrons over micrometers for reduction of extracellular substrates. It was recently …

Microbes employ a remarkably intricate electron transport system to extract energy from the
environment. The respiratory cascade of bacteria culminates in the terminal transfer of …

Extracellular electron transfer (EET) allows microorganisms to gain energy by linking
intracellular reactions to external surfaces ranging from natural minerals to the electrodes of …

Coexistence of microaerophilic Fe (II)-oxidizers and anaerobic Fe (III)-reducers in
environments with fluctuating redox conditions is a prime example of mutualism, in which …

Electromicrobiology is the field of prokaryotes that can interact with charged electrodes, and
use them as electron donors/acceptors. This is done via a method known as extracellular …

A growing number of bacterial species are known to move electrons across their cell
envelopes. Naturally this occurs in support of energy conservation and carbon-fixation. For …

The field of MFC technology has endured immense development during the past couple of
decades. During this period, electrically connected microbial communities (e-communities) …