Extracellular electron transfer (EET) is the physiological process that enables the reduction
or oxidation of molecules and minerals beyond the surface of a microbial cell. The first …

Many species of bacteria can couple anaerobic growth to the respiratory reduction of
insoluble minerals containing Fe (III) or Mn (III/IV). It has been suggested that in Shewanella …

The Geobacteraceae group of bacteria possesses a natural ability to link cytoplasmic
metabolism with redox chemistry at their external surface. Although this capability likely …

Members of the genus Shewanella are ubiquitous Gram-negative bacteria and have the
unique property of being able to utilize solid-state metal oxides for respiration when soluble …

Exoelectrogens are distinct from other bacteria owing to their unique extracellular electron
transfer (EET) abilities that allow for anaerobic respiration with various external redox-active …

Shewanella oneidensis is the best understood model organism for the study of dissimilatory
iron reduction. This review focuses on the current state of our knowledge regarding this …

As key components of the electron transfer (ET) pathways used for dissimilatory reduction of
solid iron [Fe (III)](hydr) oxides, outer membrane multihaem c‐type cytochromes MtrC and …

Abstract The genus Shewanella contains Gram negative γ-proteobacteria capable of
reducing a wide range of substrates, including insoluble metals and carbon electrodes. The …

Electron exchange reactions between microbial cells and solid materials, referred to as
extracellular electron transfer (EET), have attracted attention in the fields of microbial …

Extracellular electron transfer (EET) could enable electron uptake into microbial metabolism
for the synthesis of complex, energy dense organic molecules from CO2 and renewable …