Microbial metabolism has the potential to alter the solubility of a broad range of priority
radionuclides, including uranium, other actinides and fission products. Of notable interest …

The extensive application of radioactive element uranium (U) and its compounds in the
nuclear industry has significantly increased the risk of exposure to the environment …

In uranium bioremediation, the response of different biological groups towards uranium are
critical. Understanding the metal–microbe interactions would provide adequate knowledge …

The environmental impact of uranium released during nuclear power production and related
mining activity is an issue of great concern. Innovative environmental-friendly water …

In many environments, toxic compounds restrict which microorganisms persist. However, in
complex mixtures of inhibitory compounds, it is challenging to determine which specific …

It is crucial to determine the controls on the kinetics of U (VI) bioreduction in order to
understand and model the fate and mobility of U in groundwater systems and also to …

It has become increasingly apparent that the environmental microorganisms residing in
uranium (U) enriched sites offer the possibility of understanding the biological mechanisms …

Deinococcus radiodurans and Escherichia coli expressing either PhoN, a periplasmic acid
phosphatase, or PhoK, an extracellular alkaline phosphatase, were evaluated for uranium …

The ability to predict the success of the microbial reduction of soluble U (VI) to highly
insoluble U (IV) as an in situ bioremediation strategy is complicated by the wide range of …

Many wetlands around the world act as sinks for pollutants, in particular for trace elements.
In comparison to terrestrial environments, wetlands are still far less studied. A collaborative …