Tuning the oxygen electrocatalytic performance of metal-doped graphitic carbon nitride for the development of zinc-air battery

Keyphrases

• Alkaline Electrolyte 100%
• Electrocatalytic Performance 100%
• Metal-doped 100%
• Zinc-air Battery 100%
• Metal-air Battery 100%
• Doped Graphitic Carbon Nitride 100%
• Thermal Annealing 50%
• Morphological Changes 50%
• Synergistic Effect 50%
• Fuel Cell 50%
• Graphitic Carbon Nitride (g-CN) 50%
• G-C3N4 50%
• Oxygen Reduction 50%
• Synthetic Approaches 50%
• Power Density 50%
• Electrocatalytic Activity 50%
• Bifunctional 50%
• Electrocatalyst 50%
• Metal Nanoparticles 50%
• Highly Durable 50%
• Highly Active 50%
• Ni-Co 50%
• Cycling Stability 50%
• Enhanced Activity 50%
• Supramolecular Aggregates 50%
• Active Nitrogen 50%
• Surface Engineering 50%
• FEniCS 50%
• Nitrogen Doping 50%
• Mesoporous Carbon 50%
• Bifunctional Activity 50%
• Acidic Electrolyte 50%
• Electron Pathway 50%
• Non-precious Metal Catalyst 50%
• Cathode Catalyst 50%
• Post-synthetic 50%
• Nitrogen-doped Carbon Layer 50%
• N-doped Mesoporous Carbon 50%
• Charge-discharge Cycling 50%
• Bifunctional Oxygen Electrocatalyst 50%
• Synthetic Surface 50%
• Non-precious 50%
• Electrolyte Shift 50%
• Zinc-air 50%
• Graphitic Mesoporous Carbon 50%
• Induced Transformation 50%
• Potential Gap 50%
• Rechargeable Zinc-air Battery 50%
• Bifunctional Electrocatalytic Activity 50%

Chemistry

• Dioxygen 100%
• Zinc-Air Battery 100%
• Graphitic Carbon Nitride 100%
• Catalyst 100%
• Meso Porosity 75%
• Nitrogen 75%
• Electrocatalytic Activity 50%
• Alkaline Electrolyte 50%
• Electrocatalysis 25%
• Metal Nanoparticle 25%
• Electrocatalyst 25%
• Nitrogen-Doped Carbon 25%
• Fuel Cell 25%
• Transition Metal 25%

Material Science

• Graphitic Carbon Nitride 100%
• Catalyst 100%
• Zinc air batteries 100%
• Alkaline Electrolyte 50%
• Cathode 25%
• Density 25%
• Morphology 25%
• Electrocatalysis 25%
• Metal Nanoparticle 25%
• Transition Metal 25%
• Surface Engineering 25%
• Electrocatalysts 25%