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Structure engineering of MoO<sub>3</sub> breaks the scaling relationship and achieves high electrocatalytic oxygen evolution activity in acidic conditions

Shuhua Wang, Zebin Ren, Shiqiang Yu, Baibiao Huang, Ying Dai, Wei Wei

2023Journal of Materials Chemistry A12 citationsDOI

Abstract

Alkali-metal modification and transition-metal doping are effective strategies to dislodge the inertia of MoO 3 and obtain greatly reduced OER overpotentials.

Topics & Concepts

Oxygen evolutionScalingTransition metalAlkali metalDopingInertiaOxygenMaterials scienceMetalChemical physicsInorganic chemistryChemistryChemical engineeringCatalysisPhysical chemistryMetallurgyPhysicsOptoelectronicsElectrodeElectrochemistryMathematicsOrganic chemistryGeometryEngineeringClassical mechanicsElectrocatalysts for Energy ConversionElectrochemical Analysis and ApplicationsAdvanced battery technologies research
Structure engineering of MoO<sub>3</sub> breaks the scaling relationship and achieves high electrocatalytic oxygen evolution activity in acidic conditions | Litcius