Structural reconstruction of nanomaterials offers a fantastic way to regulate the electronic structure of active sites and promote their catalytic activities. However, how to properly facilitate surface reconstruction to overcome large overpotential that stimulate the surface reconstruction has remained elusive. Herein, we adopt a facile approach to activate surface reconstruction on Ni(OH)(2) by incorporating F anions to achieve electro-derived structural oxidation process and further boost its oxygen evolution reaction (OER) activity. Ex situ Raman and X-ray photoemission spectroscopy studies indicate that F ions incorporation facilitated surface reconstruction and promotes the original Ni(OH)(2) transformed into a mesoporous and amorphou...
The active site for electrocatalytic water oxidation on the highly active iron(Fe)-doped β-nickel o...
The active site for electrocatalytic water oxidation on the highly active iron(Fe)-doped β-nickel o...
Nickel-based oxides are highly active, cost-effective materials for the oxygen evolution reaction in...
Structural reconstruction of nanomaterials offers a fantastic way to regulate the electronic structu...
Discovering highly active and stable electrocatalysts for the oxygen evolution reaction (OER) is cri...
The Ni₃S₂ bulk phase supports efficient oxygen reduction reaction (ORR) catalysis in pH neutral aque...
Tuning the local environment of nanomaterial-based catalysts has emerged as an effective approach to...
Tuning the local environment of nanomaterial-based catalysts has emerged as an effective approach to...
Abstract Tuning the local environment of nanomaterial-based catalysts has emerged as an effective ap...
Abstract Tuning the local environment of nanomaterial-based catalysts has emerged as an effective ap...
NiO<sub><i>x</i></sub> has long been studied both as a battery cathode material and electrocatalyst ...
Designing earth-abundant electrocatalysts that are highly active, low-cost, and stable for the oxyge...
The development of an efficient and low-cost electrocatalyst for oxygen evolution reaction (OER) is ...
Because the reconstruction of catalysts is generally observed during oxidation reactions, understand...
The exploration of an efficient electrocatalyst for the oxygen evolution reaction (OER) is urgently ...
The active site for electrocatalytic water oxidation on the highly active iron(Fe)-doped β-nickel o...
The active site for electrocatalytic water oxidation on the highly active iron(Fe)-doped β-nickel o...
Nickel-based oxides are highly active, cost-effective materials for the oxygen evolution reaction in...
Structural reconstruction of nanomaterials offers a fantastic way to regulate the electronic structu...
Discovering highly active and stable electrocatalysts for the oxygen evolution reaction (OER) is cri...
The Ni₃S₂ bulk phase supports efficient oxygen reduction reaction (ORR) catalysis in pH neutral aque...
Tuning the local environment of nanomaterial-based catalysts has emerged as an effective approach to...
Tuning the local environment of nanomaterial-based catalysts has emerged as an effective approach to...
Abstract Tuning the local environment of nanomaterial-based catalysts has emerged as an effective ap...
Abstract Tuning the local environment of nanomaterial-based catalysts has emerged as an effective ap...
NiO<sub><i>x</i></sub> has long been studied both as a battery cathode material and electrocatalyst ...
Designing earth-abundant electrocatalysts that are highly active, low-cost, and stable for the oxyge...
The development of an efficient and low-cost electrocatalyst for oxygen evolution reaction (OER) is ...
Because the reconstruction of catalysts is generally observed during oxidation reactions, understand...
The exploration of an efficient electrocatalyst for the oxygen evolution reaction (OER) is urgently ...
The active site for electrocatalytic water oxidation on the highly active iron(Fe)-doped β-nickel o...
The active site for electrocatalytic water oxidation on the highly active iron(Fe)-doped β-nickel o...
Nickel-based oxides are highly active, cost-effective materials for the oxygen evolution reaction in...