Graphene-based in-planar supercapacitors by a novel laser-scribing, in-situ reduction and transfer-printed method on flexible substrates

Keyphrases

• Flexible Substrate 100%
• Graphene-based Materials 100%
• Reduced Graphene Oxide 100%
• In Situ Reduction 100%
• Laser Scribing 100%
• Planar Supercapacitors 100%
• Conductive Fabric 66%
• Symmetric Supercapacitor 66%
• High Cost 33%
• Capacitance 33%
• Energy Density 33%
• Energy Storage 33%
• Coplanar 33%
• Power Density 33%
• Electrodeposition 33%
• Microfabrication 33%
• Interdigitated Electrodes 33%
• Current Collector 33%
• All-solid-state 33%
• Lithography 33%
• High Capacitance 33%
• Rate Capability 33%
• Wearable Energy Storage Devices 33%
• Areal Capacitance 33%
• Low Contact Resistance 33%
• Portable Energy Storage 33%
• On-demand Patterning 33%
• Graphene Oxide Layer 33%
• Complex Processing 33%
• Interdigitated Architecture 33%
• Ni Metal 33%
• Spontaneous Deposition 33%
• Integrated Electrode 33%

Engineering

• Electrochemical Capacitor 100%
• Graphene 100%
• Situ Reduction 100%
• Flexible Substrate 100%
• Reduced Graphene Oxide 100%
• Conductive Fabric 66%
• Energy Storage 66%
• Power Density 33%
• Supercapacitor 33%
• Rate Capability 33%
• Current Collector 33%
• Scan Rate 33%
• Oxide Layer 33%
• Lithography 33%
• Microfabrication 33%
• Tape 33%
• Energy Density 33%

Material Science

• Supercapacitors 100%
• Reduced Graphene Oxide 100%
• Capacitance 100%
• Graphene 100%
• Symmetric Supercapacitor 66%
• Contact Resistance 33%
• Electrodeposition 33%
• Microfabrication 33%
• Lithography 33%
• Density 33%
• Energy Density 33%
• Tape 33%