The extracellular appendages of bacteria (flagella) that transfer electrons to electrodes are
called bacterial nanowires. This study focuses on the isolation and separation of nanowires …

It was recently discovered that Shewanella oneidensis MR-1, a dissimilatory metal-reducing
bacterium, can grow electrically conductive extracellular appendages. Such bacterial …

Bacteria, ranging from oxygenic photosynthetic cyanobacteria to heterotrophic sulfate
reducing bacteria, produce electrically-conductive appendages referred to as bacterial …

The discovery that Geobacter sulfurreducens can produce protein filaments with metallic‐
like conductivity, known as microbial nanowires, that facilitate long‐range electron transport …

Electrically conductive protein nanowires appear to be widespread in the microbial world
and are a revolutionary “green” material for the fabrication of electronic devices. Electrically …

The study of electrical transport in biomolecular materials is critical to our fundamental
understanding of physiology and to the development of practical bioelectronics applications …

The recent discovery of electrically conductive bacterial appendages has significant
physiological, ecological, and biotechnological implications, but the mechanism of electron …

Highlights•Metal-like conductivity of nanowires is a novel concept in bio-electron
transport.•Microbial nanowires play a role in multiple forms of extracellular electron …

Microbial nanowires are electrically conductive extracellular appendages with nanometer
diameters that transport electrons over micrometer distances. The term was first used to …

Aeromonas hydrophila is a facultative anaerobe which, under conditions of oxygen
depletion, uses Fe (III) as electron acceptor. A. hydrophila produces pili during growth with …