Redox transitions of uranium [from U(VI) to U(IV)] in low-temperature sediments govern the
mobility of uranium in the environment and the accumulation of uranium in ore bodies, and …

Highly active catalysts for the oxygen evolution reaction (OER) are required for the development
of photoelectrochemical devices that generate hydrogen efficiently from water using …

▪ Abstract Manganese(IV) oxides produced through microbial activity, ie, biogenic Mn
oxides or Mn biooxides, are believed to be the most abundant and highly reactive Mn oxide …

We have measured U(VI) adsorption on hematite using EXAFS spectroscopy and electrophoresis
under conditions relevant to surface waters and aquifers (0.01 to 10 μM dissolved …

Bacterial Mn(II) oxidization by spores of Bacillus, sp. strain SG-1 has been systematically
probed over the time scale 0.22 to 77 days under in-situ conditions and at differing Mn(II) …

Although minor in abundance in Earth’s crust (U, 2–4 ppm; Th, 10–15 ppm) and in seawater
(U, 0.003 ppm; Th, 0.0007 ppm), light actinides (Th, Pa, U, Np, Pu, Am, and Cm) are …

Evaluating societal risks posed by uranium contamination from waste management facilities,
mining sites, and heavy industry requires knowledge about uranium transport in …

Bacterial oxidation of Mn(II) to Mn(IV) is believed to drive the oxidative segment of the global
biogeochemical Mn cycle and regulates the concentration of dissolved Mn(II) in the oceanic …

The microbial catalysis of Mn(II) oxidation is believed to be a dominant source of abundant
sorption- and redox-active Mn oxides in marine, freshwater, and subsurface aquatic …

A promising remediation approach to mitigate subsurface uranium contamination is the
stimulation of indigenous bacteria to reduce mobile U(VI) to sparingly soluble U(IV). The product …