Biogenic transformation of Fe minerals, associated with extracellular electron transfer (EET),
allows microorganisms to exploit high-potential refractory electron acceptors for energy …

Electron exchange reactions between microbial cells and solid materials, referred to as
extracellular electron transfer (EET), have attracted attention in the fields of microbial …

Approximately four billion years ago, the first microorganisms to thrive on earth were
anaerobic chemoautotrophic thermophiles, a specific group of extremophiles that survive …

Bioelectrochemical systems (BES) are emerging as a suite of versatile sustainable
technologies to produce electricity and added-value compounds from renewable and …

Exoelectrogens are able to transfer electrons extracellularly, enabling them to respire on
insoluble terminal electron acceptors. Extensively studied exoelectrogens, such as …

Microbial extracellular respiration is an important energy metabolism on earth, which is
significant for the elemental biogeochemical cycle. Herein, extracellular Fe (III) and …

Ardenticatena maritima strain 110S is a filamentous bacterium isolated from an iron-rich
coastal hydrothermal field, and it is a unique isolate capable of dissimilatory iron or nitrate …

Despite their importance in iron redox cycles and bioenergy production, the underlying
physiological, genetic, and biochemical mechanisms of extracellular electron transfer by …

Utilization of hyperthermophilic electro-active microorganisms in microbial electrolysis cells
(MECs) that are used for hydrogen production from organic wastes offers significant …

Microbial extracellular electron transfer (EET) is essential in many natural and engineering
processes. Compared with the versatile EET pathways of Gram-negative bacteria, the EET …