In situ construction of g-C₃N₄/g-C₃N₄ metal-free heterojunction for enhanced visible light photocatalysi

Keyphrases

• Banded Structure 5%
• Charge Carrier Lifetime 5%
• Charge Recombination 5%
• Charge Separation 5%
• Composite Precursor 10%
• Conduction Band Offset 5%
• Copyright 5%
• Earth-abundant 5%
• Effective Charge Separation 10%
• Efficient Charge Transfer 10%
• EIS Measurements 5%
• Enhanced Photocatalytic Activity 5%
• Environmentally Benign 5%
• Fast Charging 5%
• Graphitic Carbon Nitride (g-CN) 100%
• Green Precursor 5%
• Heterojunction 100%
• Heterojunction Interface 5%
• High-resolution Transmission Electron Microscopy (HRTEM) 5%
• Hole Transport 5%
• In Situ 5%
• In Situ Construction 100%
• In Situ Techniques 5%
• Isotype Heterojunction 15%
• Low Efficiency 5%
• Metal-free 100%
• Molecular Composites 10%
• NO Removal 5%
• Photocatalyst 5%
• Photocatalytic Performance 5%
• Photocurrent Measurements 5%
• Photogenerated Electron Transfer 5%
• Photogenerated Holes 5%
• Physical Mixture 5%
• PL Measurements 5%
• Potential Difference 5%
• Prolonged Lifetime 5%
• Rational Design 5%
• Synthesis Methods 5%
• Thermal Conditions 5%
• Thiourea 21%
• Urea 21%
• Valence Band Offset 5%
• Valence Band XPS 5%
• Visible Light 100%
• Visible Light Irradiation 5%
• Visible Light Photocatalytic Activity 5%
• Visible-light Photocatalyst 5%

Material Science

• Band Offset 20%
• Charge Carrier 10%
• Electron Transfer 10%
• Heterojunction 100%
• High-Resolution Transmission Electron Microscopy 10%
• Photocatalysts 20%
• X-Ray Diffraction 10%