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

Engineering & Materials Science

• Reactive oxygen species 100%
• Photocatalysis 88%
• Plasmonics 82%
• Nitrides 67%
• Tungsten 60%
• Chemical activation 50%
• Infrared radiation 48%
• Infrared absorption 35%
• Photocatalysts 34%
• Hydroxylation 20%
• Nitridation 17%
• Density functional theory 16%
• Electronic structure 16%
• Esterification 15%
• Scavenging 15%
• Paramagnetic resonance 15%
• Ammonia 11%
• Irradiation 11%
• Solar energy 10%
• Wavelength 9%
• Energy utilization 7%
• Degradation 7%

Chemical Compounds

• Nitride 54%
• Photocatalysis 53%
• Reactive Oxygen Metabolite 52%
• Tungsten 51%
• Deesterification 40%
• Simulation 35%
• Solar Energy 30%
• EPR Spectroscopy 24%
• Electron Spin 23%
• Electronic State 20%
• Wavelength 19%
• Density Functional Theory 17%
• Application 8%

Medicine & Life Sciences

• Solar Energy 51%
• Density Functional Theory 49%
• Reactive Oxygen Species 45%
• Esterification 37%
• Electron Spin Resonance Spectroscopy 36%
• Hydroxylation 32%
• Ammonia 31%
• Observation 20%