Microbial biofilms are ubiquitous. In marine and freshwater ecosystems, microbe–mineral
interactions sustain biogeochemical cycles, while biofilms found on plants and animals can …

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

Surface chemistry is known to influence the formation, composition, and electroactivity of
electron-conducting biofilms. However, understanding of the evolution of microbial …

Microbial electrochemical systems are a fast emerging technology that use microorganisms
to harvest the chemical energy from bioorganic materials to produce electrical power. Due to …

Microbial electrochemical technologies (METs) are promising for sustainable applications.
Recently, electron storage during intermittent operation of electroactive biofilms (EABs) has …

The decrease in the electrochemical activity of multi‐species microbial anodes in
bioelectrochemical systems is the main bottleneck to overcome for bringing these …

Electromicrobiology is an emerging field investigating and exploiting the interaction of
microorganisms with insoluble electron donors or acceptors. Some of the most recently …

Electrogenicity, or bacterial electron transfer capacity, is an important application which
offers environmentally sustainable advances in the fields of biofuels, wastewater treatment …

To understand electron transport in electrochemically active biofilms, it is necessary to
elucidate the heterogeneous electron transport across the biofilm/electrode interface and in …

It is the ambition of many researchers to finally be able to close in on the fundamental,
coupled phenomena that occur during the formation and expression of electrocatalytic …