The oxygen evolution reaction (OER) is the primary challenge in renewable energy storage
technologies, specifically electrochemical water splitting for hydrogen generation. The …

Layered double hydroxides (LDHs) are promising catalysts for the oxygen evolution reaction
(OER) given their modular chemistry and ease of synthesis. Herein, we report a facile …

Interface engineering is a powerful strategy for modulating electronic structure and
enhancing intrinsic activity of electrocatalysts for water splitting. Here, we grow two …

Multifunctional electrocatalysts with high catalytic activity and selectivity are highly desirable
for environmentally benign and sustainable energy conversion and storage technologies …

The large overpotential required for oxygen evolution reaction (OER) is one of the major
factors limiting the efficiency of electrochemical water-electrolysis for hydrogen production …

The progress of inexpensive, high-efficiency, and steady oxygen evolution reaction (OER)
electrocatalysts is of great importance to promoting water splitting for green hydrogen …

The development of an earth-abundant, highly active, long-lasting electro-catalyst for the
oxygen evolution reaction (OER) with a novel and improved chemical composition and …

Ni–Fe-based electrode materials are promising candidates for the oxygen evolution reaction
(OER). The synergy between Fe and Ni atoms is crucial in modulating the electronic …

Amid the ongoing transition toward renewable fuels, the self‐supported layered double
hydroxides (LDHs) are envisioned as propitious electrocatalysts for reinvigorating the …

The traditional electrochemical water splitting is extremely restricted by the sluggish kinetics
of the anodic oxygen evolution reaction (OER). In this context, replacing OER with a more …