Nanocatalyst-Assisted Fine Tailoring of Pore Structure in Holey-Graphene for Enhanced Performance in Energy Storage

Keyphrases

• 4-fold 8%
• Annealing Process 8%
• Areal Capacitance 8%
• Capacitance 8%
• Charge Transport 8%
• Complete Control 8%
• Copper Nanocatalyst 8%
• Costing Methods 8%
• Diffusion Coefficient 8%
• Electrochemical Energy Storage Applications 8%
• Electrochemically Exfoliated Graphene 33%
• Electrode Mass 8%
• Electrolyte 8%
• Energy Density 8%
• Energy Storage 100%
• Energy Storage Applications 8%
• Energy Storage Devices 8%
• Existing Issues 8%
• Graphene Applications 8%
• Graphene Electrodes 25%
• Graphene Flakes 8%
• Graphene-based Materials 8%
• Gravimetric Energy Density 8%
• High Areal Capacitance 8%
• High Cycling Stability 8%
• High Energy Storage 8%
• High Mass Loading 8%
• High Volumetric Capacitance 8%
• Ion Transport 33%
• Ionic Resistance 8%
• Mass Effect 8%
• N-doped Graphene 100%
• Nanocatalyst 100%
• Nanoporous 8%
• Order of Magnitude 16%
• Packing Density 8%
• Performance Enhancement 100%
• Pore Architecture 16%
• Pore Density 16%
• Pore Structure 100%
• Porosity 16%
• Power Density 8%
• Power Energy 8%
• Rationally Designed 8%
• Supercapacitive Performance 8%
• Technological Fields 8%
• Transport Efficiency 25%
• Ultra-high 8%
• Volumetric Energy Density 8%
• Water Energy 8%
• Water Filtration 8%

Material Science

• Annealing 8%
• Capacitance 33%
• Density 33%
• Diffusivity 8%
• Energy Density 16%
• Graphene 58%
• High Mass Loading 8%
• Holey Graphene 100%
• Pore Structure 100%
• Supercapacitors Performance 8%