Pentafluoropyridine functionalized novel heteroatom-doped with hierarchical porous 3D cross-linked graphene for supercapacitor applications

Keyphrases

• Supercapacitor Application 100%
• Co-doped Graphene 100%
• Aqueous Electrolyte 100%
• Hierarchical Porous 100%
• 3D Cross-linked 100%
• Heteroatom Doping 100%
• Cross-linked Graphene 100%
• Pentafluoropyridine 100%
• Diffusion Coefficient 50%
• Performance Improvement 50%
• High Specific Surface Area 50%
• Electrochemical Reactions 50%
• Reduced Graphene Oxide 50%
• Synthetic Approaches 50%
• High Power 50%
• Electrochemical Properties 50%
• Doped Graphene Oxide 50%
• Anode Material 50%
• Energy Value 50%
• Electrochemical Impedance Spectroscopy 50%
• Power Energy 50%
• Calculation Results 50%
• Atomic Level 50%
• Capacitance Retention 50%
• Specific Capacitance 50%
• Electrolyte 50%
• Eco-friendly 50%
• Density Functional Calculations 50%
• Facile Synthesis 50%
• Well-balancing 50%
• Cathode Material 50%
• High Energy Density 50%
• Level Energies 50%
• Superior Rate Capability 50%
• Electrochemical Analysis 50%
• Kinetic Processes 50%
• Relaxation Time Constant 50%
• Energy Supply 50%
• Graphene-based Supercapacitor 50%
• Freeze-drying 50%
• Three-electrode 50%
• Heteroatom 50%
• Voltammetry 50%
• Specific Power 50%
• Fast Kinetics 50%
• Specific Energy 50%
• Energy Storage Performance 50%
• Galvanostatic Charging-discharging 50%
• Short Relaxation Time 50%
• Nitrogen Phosphorus 50%
• Ion Transport Phenomena 50%
• Coin Cell Supercapacitor 50%
• Hierarchical Pores 50%
• Atomic Replacement 50%
• Phytic Acid 50%
• Supercapacitor Device 50%

Material Science

• Graphene 100%
• Supercapacitors 100%
• Capacitance 50%
• Density 25%
• Diffusivity 25%
• Electrochemical Reaction 25%
• Reduced Graphene Oxide 25%
• Dielectric Spectroscopy 25%
• Electrochemical Property 25%
• Graphene Oxide 25%
• Anode Material 25%
• Voltammetry 25%
• Energy Density 25%
• Pore Structure 25%
• Cathode Material 25%
• Transport Phenomena 25%

Chemical Engineering

• Graphene 100%
• Hierarchical Porous 100%
• Diffusion 20%
• Heteroatom Doping 20%