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Thermally activated carbon–nitrogen vacancies in double-shelled NiFe Prussian blue analogue nanocages for enhanced electrocatalytic oxygen evolution

Miaomiao Jiang, Xiaoming Fan, Shuai Cao, Zihan Wang, Zeheng Yang, Weixin Zhang

2021Journal of Materials Chemistry A56 citationsDOI

Abstract

Double-shelled NiFe PBAs nanocages with abundant CN vacancies have been fabricated through an ion-exchange reaction based on a nanoscale Kirkendall effect followed by mild thermal activation, which have an impressive OER activity with low overpotential and long-term stability.

Topics & Concepts

NanocagesPrussian blueKirkendall effectOverpotentialOxygen evolutionMaterials scienceThermal stabilityNitrogenCarbon fibersThermal treatmentChemical engineeringInorganic chemistryCatalysisChemistryMetallurgyElectrodeElectrochemistryPhysical chemistryComposite materialEngineeringBiochemistryOrganic chemistryComposite numberElectrocatalysts for Energy ConversionAdvanced battery technologies researchAdvancements in Battery Materials
Thermally activated carbon–nitrogen vacancies in double-shelled NiFe Prussian blue analogue nanocages for enhanced electrocatalytic oxygen evolution | Litcius