Introduction of the electron transfer complex MtrCAB from Shewanella oneidensis MR-1 into
a heterologous host provides a modular and molecularly defined route for electrons to be …

Introducing extracellular electron transfer pathways into heterologous organisms offers the
opportunity to explore fundamental biogeochemical processes and to biologically alter …

Some bacteria and archaea have evolved the means to use extracellular electron donors
and acceptors for energy metabolism, a phenomenon broadly known as extracellular …

Electroactive bacteria produce or consume electrical current by moving electrons to and
from extracellular acceptors and donors. This specialized process, known as extracellular …

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

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

Genetic circuits that encode extracellular electron transfer (EET) pathways allow the
intracellular state of Escherichia coli to be electronically monitored and controlled. However …

Extracellular electron transfer (EET) pathways, such as those in the bacterium Shewanella
oneidensis, interface cellular metabolism with a variety of redox-driven applications …

In limiting oxygen as an electron acceptor, the dissimilatory metal-reducing bacterium
Shewanella oneidensis MR-1 rapidly forms nanowires, extensions of its outer membrane …

The low efficiency of extracellular electron transfer (EET) is a major bottleneck for
Shewanella oneidensis MR-1 acting as an electroactive biocatalyst in bioelectrochemical …