The lithium-mediated nitrogen reduction reaction (LiNRR) produces ammonia in ambient
conditions. This electrochemical pathway is dependent on a catalytic solid–electrolyte …

The electrochemical synthesis of chemicals and fuel feedstocks has been demonstrated to
be a sustainable and" green" alternative to traditional chemical engineering, where oxygen …

The regulation of atomic and electronic structures of active sites plays an important role in
the rational design of oxygen evolution reaction (OER) catalysts toward electrocatalytic …

Ammonia is an essential raw ingredient for fertilizers, a carbon-free hydrogen carrier, and an
alternative fuel. The natural process of producing ammonia cannot meet the rapidly growing …

Electrocatalytic urea synthesis via coupling N2 and CO2 provides an effective route to
mitigate energy crisis and close carbon footprint. However, the difficulty on breaking N≡ N is …

Ammonia (NH3) is a globally important commodity for fertilizer production, but its synthesis
by the Haber-Bosch process causes substantial emissions of carbon dioxide. Alternative …

The electrochemical method of combining N2 and H2O to produce ammonia (ie, the
electrochemical nitrogen reduction reaction [E‐NRR]) continues to draw attention as it is …

Green ammonia (NH3), made by using renewable electricity to split nearly limitless nitrogen
(N2) molecules, is a vital platform molecule and an ideal fuel to drive the sustainable …

Electrochemical conversion is emerging as a powerful and promising method to produce a
wide range of high-value chemicals on account of mild operation conditions, controllable …

Electrochemical reduction of gaseous feeds such as CO2, CO, and N2 holds promise for
sustainable energy and chemical production. Practical application of this technology is …