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Graphdiyne (C<sub><i>n</i></sub>H<sub>2<i>n</i>−2</sub>) coupled with ZnCo-MOF double S-scheme heterojunction forms an efficient electron transport layer and its characterization<i>via in situ</i>XPS

Linqing Zhang, Xuanpu Wang, Youji Li, Zhiliang Jin

2023Catalysis Science & Technology16 citationsDOI

Abstract

The catalyst constructs double S-scheme heterojunctions. The excellent electrical conductivity of GDY and the synergistic effect of S-scheme heterojunctions promote the charge transfer and significantly improve the photocatalytic hydrogen evolution activity of GDY.

Topics & Concepts

HeterojunctionPhotocatalysisCatalysisCharacterization (materials science)ConductivityCharge (physics)Electron transferElectron transport chainScheme (mathematics)HydrogenMaterials scienceElectronLayer (electronics)Chemical engineeringChemistryChemical physicsNanotechnologyOptoelectronicsPhysical chemistryPhysicsOrganic chemistryMathematical analysisQuantum mechanicsMathematicsEngineeringBiochemistryAdvanced Photocatalysis Techniques2D Materials and ApplicationsMXene and MAX Phase Materials
Graphdiyne (C<sub><i>n</i></sub>H<sub>2<i>n</i>−2</sub>) coupled with ZnCo-MOF double S-scheme heterojunction forms an efficient electron transport layer and its characterization<i>via in situ</i>XPS | Litcius