Numerous bacteria owe extracellular electron transport (EET) ability, and the rate
enhancement of EET is critical for the emerging sensor technology to detect metabolically …

Microbial biofilms are significant ecosystems where the existence of redox gradients drive
electron transfer often via soluble electron mediators. This study describes the use of two …

Electron transport in biological and inorganic systems is mediated through distinct
mechanisms and pathways. Their fundamental mismatch in structural and thermodynamic …

Electroactive microorganisms possess the unique ability to transfer electrons to or from solid
phase electron conductors, eg, electrodes or minerals, through various physiological …

The extracellular electron transfer (EET) that connects the intracellular metabolism of
electroactive microorganisms to external electron donors/acceptors, is the foundation to …

Microbial electrochemistry has from the onset been recognized for its sensing potential due
to the microbial ability to enhance signals through metabolic cascades, its relative selectivity …

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

Electroactive bacteria can exchange electrons with their external environment. Envisioned
applications for electroactive bacteria can be power production, bioproduction …

The biological electron transport process beyond the insulating lipid bilayer membrane of a
microbe, referred to as extracellular electron transport (EET), is mediated by a …

In this paper, we present a non-fluidic microsystem for the simultaneous visualization and
electrochemical evaluation of confined, growing bacteria on solid media. Using a completely …