Microbial bioelectronics require interfacing microorganisms with electrodes. The resulting
abiotic/biotic platforms provide the basis of a range of technologies, including energy …

Electrochemically active bacteria can transport their metabolically generated electrons to
anodes, or accept electrons from cathodes to synthesize high‐value chemicals and fuels, via …

Understanding the mechanisms by which microorganisms transfer electrons to and from
electrodes is essential for the development of the many potential applications of …

An electrically active bacterium transports its metabolically generated electrons to insoluble
substrates such as electrodes via a process known as extracellular electron transport (EET) …

Employment of redox polymers as mediators is a promising concept to facilitate electron
transfer (ET) and improve operational performance of bioelectrochemical systems. Materials …

Although nanocrystalline Fe (III) oxides are abundant in natural minerals, few studies have
noticed their biological significance from the view point of semiconductive properties. To …

Geobacter sulfurreducens bacteria grow on biofilms and have the particular ability of using
polarized electrodes as the final electron acceptor of their respiratory chain. In these …

Microorganisms can acquire energy from the environment by extending their electron
transport chains to external solid electron donors or acceptors. This process, known as …

The electrical conductivity measured in Shewanella and Geobacter spp. is an intriguing
physical property that is the fundamental basis for possible extracellular electron transport …

Electrically conductive appendages from the anaerobic bacterium Geobacter
sulfurreducens, recently identified as extracellular cytochrome nanowires (ECNs), have …