Ecological restoration of wetland plants has emerged as an environmentally-friendly and
less carbon footprint method for treating secondary effluent wastewater. Root iron plaque …

The persistent bioavailability of toxic metal (oids)(TM) is undeniably the leading source of
serious environmental problems. Through the transfer of these contaminants into food …

In the natural environment, the interactions of different types of nanoparticles (NPs) may alter
their toxicity, thus masking their true environmental effects. This study investigated the …

Iron plaque on aquatic plant roots are ubiquitous and sequester metals in wetland soils;
however, the mechanisms of metal sequestration are unresolved. Thus, characterizing the …

The comprehensive effect of exogenous pollutants on the dispersal and abundance of
antibiotic-resistance genes (ARGs) in the phycosphere, bacterial community and algae …

Dissimilatory metal reducing bacteria (DMRB) catalyze the reduction of Fe (III) to Fe (II) in
anoxic soils, sediments, and groundwater. Two-line ferrihydrite is a bioavailable Fe (III) …

Toxic metal (loid) contamination of soil and sediment poses long term risk to soil and human
health through plant–human or plant–animal–human food chain pathways. Iron plaque (IP) …

Iron biominerals can form in neutral pH microaerophilic environments where microbes both
catalyze iron oxidation and create polymers that localize mineral precipitation. In order to …

The biogeochemical controls on metal behaviour in aqueous environments involve complex
linkages of biological, principally bacterially driven, and geochemical processes, which …

To examine the mechanisms of carbon mobilization and biodegradation during permafrost
thawing and to establish a link between organic carbon (OC) and other chemical and …