Applying catalysts for electrochemical energy conversion holds great promise for develo**
clean and sustainable energy sources. One of the main advantages of electrocatalysis is its …

Seawater electrolysis has potential for scalable hydrogen (H₂) production, yet anode
corrosion by chloride ions (Cl⁻) remains a critical challenge. Herein, we present an …

Seawater splitting is one of the desirable techniques for producing green hydrogen from the
vast natural resource. Several reports about designing and fabricating efficient …

Noble metal-based catalysts such as RuO2 and IrO2 are widely used in the catalysis of the
OER. However, because of their high price and poor stability, it is urgent to develop …

Seawater electrolysis taking advantage of coastal/offshore areas is acknowledged as a
potential way of large-scale producing H 2 to substitute traditional technology. However …

Constructing highly efficient electrocatalysts is vital to enhance oxygen evolution reaction
(OER) performance at industrially relevant current densities. Herein, three-phase coupled …

Direct seawater electrolysis technology shows great potential, but chloride ions corrode the
electrodes and cause competitive reactions, which limits its application. In recent years …

Applying catalysts for electrochemical energy conversion holds great promise for develo**
clean and sustainable energy sources. One of the main advantages of electrocatalysis is its …

Tetra metal nitrides (M4N; M= Cr, Fe, Co, Mn, Ni) are a promising spintronic material with an
anti-perovskite structure and fascinating magnetic characteristics due to a magneto-volume …

Electrocatalytic seawater splitting seems to be the most promising and urgent demand
strategy for clean hydrogen energy production. Utilizing low-cost electrocatalysts is pivotal in …