Electroactive microorganisms markedly affect many environments in which they establish
outer-surface electrical contacts with other cells and minerals or reduce soluble extracellular …

Soil microbial community is the main indicator having a crucial role in the remediation of
polluted soils. These microbes can alter soil pH, organic matter in soils (SOM), soil physic …

Electroactive microorganisms (EAMs) are ubiquitous in nature and have attracted
considerable attention as they can be used for energy recovery and environmental …

High concentrations of non-essential heavy metals/metalloids (arsenic, cadmium, and lead)
in soils and irrigation water represent a threat to the environment, food safety, and human …

Iron is a micronutrient for nearly all life on Earth. It can be used as an electron donor and
electron acceptor by iron-oxidizing and iron-reducing microorganisms and is used in a …

The iron‑nitrogen (Fesingle bondN) cycle driven by microbes has great potential for treating
wastewater. Fe is a metal that is frequently present in the environment and one of the crucial …

Anaerobic ammonium-oxidizing (anammox) bacteria are one of the latest scientific
discoveries in the biogeochemical nitrogen cycle. These microorganisms are able to oxidize …

A growing number of bacteria are recognized to conduct electrons across their cell
envelope, and yet molecular details of the mechanisms supporting this process remain …

Electroactive microorganisms can exchange electrons with other cells or conductive
interfaces in their extracellular environment. This property opens the way to a broad range of …

The slow rate of extracellular electron transfer (EET) of electroactive microorganisms
remains a primary bottleneck that restricts the practical applications of bioelectrochemical …