Engineering low-valence Moδ+ (0<δ<4) sites on MoS2 surface: Accelerating Fe3+/Fe2+ cycle, maximizing H2O2 activation efficiency, and extending applicable pH range in photo-Fenton reaction

Yang Yang, Wenqing Zhen, Tingting Zhao, Maoquan Wu, Shouchun Ma, Liyan Zhao, Jie Wu, Li Liu, Jiaxu Zhang, Tongjie Yao

2023Journal of Cleaner Production35 citationsDOI

Topics & Concepts

CatalysisValence (chemistry)ChemistryDegradation (telecommunications)LimitingChemical engineeringOrganic chemistryMechanical engineeringEngineeringComputer scienceTelecommunicationsAdvanced Photocatalysis TechniquesAdvanced oxidation water treatmentElectrocatalysts for Energy Conversion

Engineering low-valence Moδ+ (0&lt;δ&lt;4) sites on MoS2 surface: Accelerating Fe3+/Fe2+ cycle, maximizing H2O2 activation efficiency, and extending applicable pH range in photo-Fenton reaction

Topics & Concepts

Engineering low-valence Moδ+ (0<δ<4) sites on MoS2 surface: Accelerating Fe3+/Fe2+ cycle, maximizing H2O2 activation efficiency, and extending applicable pH range in photo-Fenton reaction