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Industrially promising NiCoP nanorod arrays tailored with trace W and Mo atoms for boosting large-current-density overall water splitting

Xin Guo, Menggang Li, Lin He, Shuo Geng, Fenyang Tian, Ying Song, Weiwei Yang, Yongsheng Yu

2021Nanoscale53 citationsDOI

Abstract

and an excellent long-term stability within 50 h, better than most of the state-of-the-art bifunctional electrocatalysts yet reported. Our results highlight the significance of trace-doping engineering in industrial water electrolysis.

Topics & Concepts

NanorodTRACE (psycholinguistics)Boosting (machine learning)Materials scienceCurrent (fluid)Current densityElectrocatalystNanotechnologyWater splittingCatalysisComputer scienceElectrochemistryChemistryPhysicsElectrodePhysical chemistryThermodynamicsPhotocatalysisMachine learningLinguisticsQuantum mechanicsBiochemistryPhilosophyElectrocatalysts for Energy ConversionAdvanced battery technologies researchCO2 Reduction Techniques and Catalysts
Industrially promising NiCoP nanorod arrays tailored with trace W and Mo atoms for boosting large-current-density overall water splitting | Litcius