Integration of electroactive bacteria into electrodes combines strengths of intracellular
biochemistry with electrochemistry for energy conversion and chemical synthesis. However …

Oil will not suddenly run out, but it is a finite resource. We must develop energy-saving
technologies that can stretch oil reserves while we modify our energy-use patterns and …

Electricity can be an energy source for microbially catalyzed production of fuels and other
organic commodities from carbon dioxide. These electrobiocommodities (E-BCs) can be …

Microbial electrochemical systems (MESs) use microorganisms to covert the chemical
energy stored in biodegradable materials to direct electric current and chemicals. Compared …

Electroactivity appears to be a phylogenetically diverse trait independent of cell wall
classification, with both Gram-negative and Gram-positive electricigens reported. While …

Microbial electrochemical technologies provide sustainable wastewater treatment and
energy production. Despite significant improvements in the power output of microbial fuel …

Microbial electrosynthesis, an artificial form of photosynthesis, can efficiently convert carbon
dioxide into organic commodities; however, this process has only previously been …

Over the past decade, microbial electrochemical technologies, originally developed from an
interesting physiological phenomenon, have evolved from a rush of initiatives for …

Considerable research efforts into the promises of electrogenic bacteria and the commercial
opportunities they present are attempting to identify potential feasible applications …

Extracellular electron transfer in microorganisms has been applied for bioelectrochemical
synthesis utilizing microbes to catalyze anodic and/or cathodic biochemical reactions …