Introducing an electronic interface into Escherichia coli will allow its enormous synthetic
biology toolkit to be leveraged in bioelectrochemical applications. While E. coli expressing …

Bioelectrochemical systems rely on microorganisms to link complex oxidation/reduction
reactions to electrodes. For example, in Shewanella oneidensis strain MR-1, an electron …

Extracellular electron transfer is a process by which bacterial cells can exchange electrons
with a redox-active material located outside of the cell. In Shewanella oneidensis, this …

Microbial electrosynthesis is an emerging technology with the potential to simultaneously
store renewably generated energy, fix carbon dioxide, and produce high-value organic …

Microbial electrode catalysis such as microbial fuel cells or electrosynthesis involves
electron exchange with the electrodes located at the cell exterior; ie, extracellular electron …

Multiheme cytochromes function as extracellular electron transfer (EET) conduits that extend
the metabolic reach of microorganisms to external solid surfaces. These conduits are also …

Bacteria utilize electron conduction in their communities to drive their metabolism, which has
led to the development of various environmental technologies, such as electrochemical …

Microorganisms regulate the redox state of different biomolecules to precisely control
biological processes. These processes can be modulated by electrochemically coupling …

Research on the biocathode-based bioelectrochemical system (BES) has attracted
extensive attention because of its ability to increase the electricity-driven production of high …

The slow rate of extracellular electron transfer (EET) of electroactive microorganisms
remains a primary bottleneck that restricts the practical applications of bioelectrochemical …