A Coconut Leaf Sheath Derived Graphitized N-Doped Carbon Network for High-Performance Supercapacitors

Keyphrases

• Urea 100%
• Electrochemical Performance 100%
• Activated Carbon 100%
• Activation Temperature 100%
• Coconut Leaf Sheath 100%
• High-performance Supercapacitors 100%
• N-doped Carbon Network 100%
• Graphitization 100%
• Annealing 50%
• Carbon Nanotubes 50%
• Environmentally Friendly 50%
• Supercapacitor 50%
• Commercially Available 50%
• Leaf Sheath 50%
• Nitrogen Doping 50%
• Tree Leaves 50%
• Specific Capacitance 50%
• N2 Atmosphere 50%
• Activation Time 50%
• High Energy Storage 50%
• CO2 Atmosphere 50%
• Negative Electrode 50%
• Potential Window 50%
• High Electrochemical Performance 50%
• Physical Activation 50%
• Coconut Tree 50%
• Negative Electrode Material 50%
• Carbon Dioxide Atmosphere 50%
• Graphene Hydrogel 50%
• Energy Storage Properties 50%
• Non-hazardous 50%
• Graphene-carbon Nanotubes 50%
• Urea Solution 50%
• Nitrogen-doped Carbon Networks 50%
• High Specific Capacitance 50%

Chemistry

• Carbon Dioxide 100%
• Graphene 100%
• Activated Carbon 100%
• Supercapacitors Performance 100%
• Doping Material 50%
• Carbon Nanotube 50%
• electrode 50%
• Energy Storage 50%
• Nitrogen-Doped Carbon 50%
• Hydrogel 50%
• Supercapacitors 50%
• Electrode Material 50%

Material Science

• Urea 100%
• Nitrogen-Doped Carbon Material 100%
• Supercapacitors Performance 100%
• Carbon Dioxide 66%
• Graphene 66%
• Capacitance 66%
• Doping (Additives) 33%
• Hydrogel 33%
• Carbon Nanotube 33%
• Supercapacitors 33%