Interplay of charge between bacteria and electrode has led to emergence of
bioelectrochemical systems which leads to applications such as production of electricity …

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

The production of biofuels and biochemicals is highly electron intensive. To divert
fermentative and respiratory pathways to the product of interest, additional electrons (ie …

Extracellular electron transfer (EET) in microbial cells is essential for certain
biotechnological applications and contributes to the biogeochemical cycling of elements and …

In anaerobic biota, reducing equivalents (electrons) are transferred between different
species of microbes [interspecies electron transfer (IET)], establishing the basis of …

Microbial electrochemistry technologies (METs) take advantage of the connection of
microorganisms with electrodes. In the classic case of a microbial anode, the maximization …

Powering microbes with electrical energy to produce valuable chemicals such as biofuels
has recently gained traction as a biosustainable strategy to reduce our dependence on oil …

Extracellular electron transfer (EET) denotes the process of microbial respiration with
electron transfer to extracellular acceptors and has been exploited in a range of microbial …

Engineering efficient, directional electronic communication between living and nonliving
systems has the potential to combine the unique characteristics of both materials for …

The market of biobased products obtainable via fermentation processes has steadily
increased over the past few years, driven by the need to create a decarbonized economy. To …