Visible light photocatalytic degradation of tetracycline with porous Ag/graphite carbon nitride plasmonic composite: Degradation pathways and mechanism

Keyphrases

• Degradation Mechanism 100%
• Degradation Pathway 100%
• Porous Structure 100%
• H2PO4- 100%
• Graphite Carbon Nitride 100%
• Visible-light Photocatalytic Degradation 100%
• Porous Ag 100%
• Tetracycline Degradation 100%
• Plasmonic Composites 100%
• Composite Degradation 100%
• Active Species 50%
• Photocatalytic Performance 50%
• Anions 50%
• Visible Light 50%
• Catalytic Activity 50%
• Removal Efficiency 50%
• High Stability 50%
• Porous Surface 50%
• Surface Plasmon Resonance 50%
• Specific Surface Area 50%
• Silver Nanoparticles 50%
• Photocatalytic Removal 50%
• Enhanced Charge Separation 50%
• Visible Light Absorption 50%
• Antibiotic Degradation 50%
• G-C3N4 50%
• Photocatalytic Mechanism 50%
• Hindrance Effect 50%
• Ag Loading 50%
• Antibiotic Agents 50%
• Radical Quenching 50%
• Plasmonic Photocatalyst 50%
• Photoreduction Method 50%
• TC Degradation 50%
• Ag-g-C3N4 50%
• Thermal Exfoliation 50%
• Time Enhancement 50%
• O2 Radical 50%

Material Science

• Composite Material 100%
• Graphitic Carbon Nitride 100%
• Carbon Nitride 100%
• Photocatalysts 50%
• Catalyst Activity 50%
• Surface Plasmon Resonance 50%
• Silver Nanoparticle 50%

Chemical Engineering

• Nanoparticle 100%
• Carbon Nitride 100%
• Tetracycline 100%
• Photocatalytic Mechanism 100%
• Visible-light Photocatalytic Degradation 100%