Plasmonic Enhanced Reactive Oxygen Species Activation on Low-Work-Function Tungsten Nitride for Direct Near-Infrared Driven Photocatalysis

Keyphrases

• 3D Finite Element Model 25%
• Cubic Phase 25%
• De-esterification 25%
• Density Functional Theory 25%
• Electron Paramagnetic Resonance 25%
• Electronic Structure 25%
• Hydroxylation 25%
• Low Work Function 100%
• Molecular Activation 25%
• Nanocubes 75%
• Near-infrared 100%
• Near-infrared Absorption 50%
• Near-infrared Irradiation 25%
• Nitridation Process 25%
• Photocatalyses 100%
• Photocatalysis 100%
• Photocatalyst 25%
• Photocatalytic Degradation 25%
• Photocatalytic Efficiency 25%
• Photocatalytic Mechanism 25%
• Photocatalytic Properties 25%
• Photocatalytic Reaction 25%
• Photoelectronics 25%
• Plasmonics 100%
• Promising Strategies 25%
• Radical Scavenging 25%
• Reactive Oxygen Species 100%
• Resonance Measurement 25%
• Size Dependence 25%
• Solar Efficiency 25%
• Structure-dependent 25%
• Trapped Electrons 25%
• Tungsten Nitride 100%

Material Science

• Density 50%
• Finite Element Method 50%
• Nitride Compound 100%
• Nitriding 50%
• Photocatalysis 100%
• Photocatalysts 100%
• Tungsten 100%

Chemical Engineering

• Photocatalysis 100%
• Photocatalytic Degradation 50%
• Photocatalytic Efficiency 50%
• Photocatalytic Mechanism 50%