Exploring effective electrocatalysts is a crucial requirement for boosting the efficiency of water splitting to obtain clean fuels. Here, a self-templating strategy is reported to synthesize Ni-Fe mixed diselenide cubic nanocages for the electrocatalytic oxygen evolution reaction (OER). The diselenide nanocages are derived from corresponding Prussian-blue analog nanocages, which are first obtained by treating the nanocube precursor with a site-selective ammonia etchant. The resulting Ni-Fe mixed diselenide nanocages perform as a superior OER electrocatalyst, which affords a current density of 10 mA cm-2 at a small overpotential of 240 mV; a high current density, mass activity, and turnover frequency of 100 mA cm-2 , 1000 A g-1 , and 0.58 s-...
The catalytic activity and reactivity of catalysts can be varied by adopting methods such as composi...
Abstract The electronic structure of active sites is critically important for electrochemical reacti...
The electronic structure of active sites is critically important for electrochemical reactions. Here...
Exploring low-cost, high-efficient and durable electrocatalysts to substitute for Ru, Ir-based noble...
In this communication, nickel diselenide (NiSe2) nanoparticles are synthesized by a facile and low-c...
Herein a facile synthesis methodology is reported that results in a unique 3D NiSe@Ni1−xFexSe2 core–...
Designing an effective, stabilized catalyst is a key challenge to water splitting for both electroca...
The development of active and stable electrocatalysts made from earth-abundant elements to accelerat...
Developing low cost, highly active, and stable bifunctional electrocatalysts for overall water split...
Exploring non-noble and high-efficiency electrocatalysts is critical to large-scale industrial appli...
Development of efficient and noble metal-free catalysts for oxygen evolution reaction (OER) is of gr...
Cost-effective and stable electrocatalysts with ultra-high current densities for electrochemical oxy...
Transition metal diselenides have been considered as one of the most promising earth-abundant electr...
Nickel Selenide samples were synthesized using an effective high-temperature solution-phase method. ...
Non-noble-metal-based chalcogenides are promising candidates for hydrogen evolution reaction (HER) b...
The catalytic activity and reactivity of catalysts can be varied by adopting methods such as composi...
Abstract The electronic structure of active sites is critically important for electrochemical reacti...
The electronic structure of active sites is critically important for electrochemical reactions. Here...
Exploring low-cost, high-efficient and durable electrocatalysts to substitute for Ru, Ir-based noble...
In this communication, nickel diselenide (NiSe2) nanoparticles are synthesized by a facile and low-c...
Herein a facile synthesis methodology is reported that results in a unique 3D NiSe@Ni1−xFexSe2 core–...
Designing an effective, stabilized catalyst is a key challenge to water splitting for both electroca...
The development of active and stable electrocatalysts made from earth-abundant elements to accelerat...
Developing low cost, highly active, and stable bifunctional electrocatalysts for overall water split...
Exploring non-noble and high-efficiency electrocatalysts is critical to large-scale industrial appli...
Development of efficient and noble metal-free catalysts for oxygen evolution reaction (OER) is of gr...
Cost-effective and stable electrocatalysts with ultra-high current densities for electrochemical oxy...
Transition metal diselenides have been considered as one of the most promising earth-abundant electr...
Nickel Selenide samples were synthesized using an effective high-temperature solution-phase method. ...
Non-noble-metal-based chalcogenides are promising candidates for hydrogen evolution reaction (HER) b...
The catalytic activity and reactivity of catalysts can be varied by adopting methods such as composi...
Abstract The electronic structure of active sites is critically important for electrochemical reacti...
The electronic structure of active sites is critically important for electrochemical reactions. Here...