Construction of an interpenetrating manganese residue-derived FeC2O4/CuC2O4 composite with enhanced charge transfer in photo-Fenton reactions via mechanical activation pre-anchoring strategy

Zhong, Chuanyi; Cai, Xiunan; Liu, Yiping; Zhang, Yanjuan; Gan, Tao; Hu, Huayu; Huang, Zuqiang

doi:10.1016/j.jclepro.2023.140504

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Construction of an interpenetrating manganese residue-derived FeC2O4/CuC2O4 composite with enhanced charge transfer in photo-Fenton reactions via mechanical activation pre-anchoring strategy

Cited by 2 publications

References 60 publications

S vacancies and heterojunction modulated MoS2/C@Fe3O4 towards improved full-spectrum photo-Fenton catalysis: Enhanced interfacial charge transfer and NIR absorption

S vacancies and heterojunction modulated MoS2/C@Fe3O4 towards improved full-spectrum photo-Fenton catalysis: Enhanced interfacial charge transfer and NIR absorption

Controllable Construction of a Si–O–Fe Bridged Interpenetrating Fec2o4/Amorphous Sio2 Composites Derived from Copper Smelting Slag for Efficient Photocatalytic Degradation of Antibiotics

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