Nano‐reduced iron (NRI) is a promising uranium adsorbent due to its strong reducibility and
good selectivity, but it still faces the challenges of slow kinetics, limited and non‐renewable …

Electrochemically mediated Fe (II)/Fe (III) redox-coupled uranium extraction can efficiently
reduce the cell voltage of electrochemical uranium extraction (EUE). How to regulate the …

Uranium extraction from seawater provides an opportunity for sustainable fuel supply to
nuclear power plants. Herein, an adsorption–electrocatalysis strategy is demonstrated for …

The electro-driven extraction of uranium from fluorine-containing uranium wastewater is
anticipated to address the challenge of separating fluoro-uranium complexes in …

A new strategy combining iron-electrocoagulation and organic ligands (OGLs) cooperative
chelation was proposed to screen and precipitate low concentrations (0–18.52 μmol/L) of …

In total there is hundreds of times more uranium in sea water than on land, but extracting it
for use in nuclear power generation is challenging due to its low concentration (∼ 3 ppb) …

Recently, capacitive deionization has become a promising approach for uranium extraction
owing to its energy-efficiency and environmental benign. However, the adsorbed charged …

As a green and economical energy, nuclear power plays a significant role in the global
energy supply. Uranium extraction from seawater is a highly promising strategy to utilize …

Electrochemical uranium extraction from seawater is an attractive project for sustainable
nuclear industry, whereas the active sites of electrode materials require further promotion on …

Seawater contains uranium at a concentration of≈ 3.3 ppb, thus representing a rich and
sustainable nuclear fuel source. Herein, an adsorption–electrocatalytic platform is …