Nitrogen-doped graphitic hierarchically porous carbon nanofibers obtained: Via bimetallic-coordination organic framework modification and their application in supercapacitors

Keyphrases

• Nitrogen Doping 100%
• Organic Frameworks 100%
• Supercapacitor 100%
• Bimetallic Coordination 100%
• Hierarchical Carbon Nanocages 100%
• Framework Revision 100%
• N-doping 80%
• High Capacitance 40%
• Capacitance 20%
• Metal Coordination 20%
• Energy Density 20%
• High Current Density 20%
• Nitrogen Content 20%
• N Content 20%
• High Power Density 20%
• Pyrolysis 20%
• Graphitization Degree 20%
• High Specific Surface Area 20%
• Specific Surface Area 20%
• Retention Capacity 20%
• Pyrolysis Temperature 20%
• Polyacrylonitrile 20%
• Electrospinning 20%
• Zn Metal 20%
• Organic Electrolyte 20%
• Capacitance Retention 20%
• Acid Wash 20%
• Metal-organic Frameworks (MOFs) 20%
• High-performance Supercapacitors 20%
• Binder-free Electrode 20%
• Wash Process 20%
• Nanofiber Materials 20%
• Content-specific 20%

Material Science

• Supercapacitors 100%
• Porous Carbon 100%
• Carbon Nanofiber 100%
• Capacitance 60%
• Density 40%
• Electrospinning 20%
• Composite Material 20%
• Supercapacitors Performance 20%
• Metal-Organic Framework 20%
• Energy Density 20%

Chemical Engineering

• Hierarchically Porous 100%
• Carbon Nanofibre 100%
• Pyrolysis 20%
• Metal-Organic Frameworks 20%
• Polyacrylonitrile 20%
• Pyrolysis Temperature 20%