One-step transformation of MnO₂ into MnO_{2-: X}@carbon nanostructures for high-performance supercapacitors using structure-guided combustion waves

Keyphrases

• Structure-guided 100%
• High-performance Supercapacitors 100%
• Manganese Dioxide 100%
• Combustion Waves 100%
• One-step Transformation 100%
• Carbon Nanostructures 100%
• Hausmannite 75%
• Mn2O3 75%
• Carbon Coating 50%
• Manganese Oxide 50%
• MnO@C 50%
• Electrical Conductivity 25%
• Diverse Applications 25%
• Physicochemical Properties 25%
• Supercapacitor 25%
• High Cost 25%
• Oxide Layer 25%
• Metal Oxide 25%
• Incomplete Combustion 25%
• Enhanced Stability 25%
• Specific Capacitance 25%
• Large-scale Fabrication 25%
• Ar Atmosphere 25%
• Direct Fabrication 25%
• Metal-organic Materials 25%
• Supercapacitor Electrode 25%
• Electrochemical Applications 25%
• Complex Procedure 25%
• Reversible Redox Reaction 25%
• Core-shell Nanostructure 25%
• Reduced State 25%
• Charge-discharge Performance 25%
• Metal Oxide Materials 25%
• Micro-nano Structure 25%
• Carbon Layer 25%
• Chemical Fuels 25%
• Carbon Coating Layer 25%
• Longest Processing Time 25%
• Percolation Network 25%
• Oxygen Release 25%
• Nanostructured Metal Oxides 25%
• Reduced Metal Oxide 25%
• Carbonaceous Fuel 25%
• Cycling Operation 25%
• Material Coating 25%

Engineering

• One Step 100%
• Electrochemical Capacitor 100%
• Carbon Nanostructure 100%
• Processing Time 50%
• Core-Shell 50%
• Nanomaterial 50%
• Oxide Layer 50%
• Organic Material 50%
• Physicochemical Property 50%
• Layer Coating 50%
• Incomplete Combustion 50%
• Supercapacitor 50%
• Scan Rate 50%
• Carbon Layer 50%
• Ar Atmosphere 50%
• Percolation Network 50%
• Electrical Conductivity 50%

Material Science

• Supercapacitors Performance 100%
• Nanostructure 100%
• Detonation 100%
• Metal Oxide 75%
• Supercapacitors 50%
• Manganese Oxide 50%
• Electrical Conductivity 25%
• Capacitance 25%
• Percolation 25%
• Redox Process 25%