Biowaste-derived electrode and electrolyte materials for flexible supercapacitors

INIS

• carbon 100%
• cellulose 100%
• nanocrystals 100%
• porous materials 100%
• electrolytes 100%
• electrodes 100%
• supercapacitors 100%
• hydrogels 75%
• performance 50%
• capacitance 50%
• devices 50%
• energy storage 50%
• bones 50%
• durability 25%
• applications 25%
• renewable energy sources 25%
• deformation 25%
• residues 25%
• strains 25%
• electrochemistry 25%
• bending 25%
• cross-linking 25%
• pressure range mega pa 25%
• retention 25%
• wavelengths 25%
• symmetry 25%
• animals 25%
• energy density 25%
• display devices 25%
• compression strength 25%
• rolling 25%
• power density 25%
• ionic conductivity 25%
• aluminium ions 25%

Keyphrases

• Cellulose Nanocrystals 100%
• Flexible Supercapacitor 100%
• Electrode Materials 100%
• Biowaste 100%
• Electrolyte Materials 100%
• Hydrogel Electrolyte 50%
• Porous Carbon 50%
• Porous Carbon Electrode 50%
• Renewable Energy Storage 25%
• Electrochemical Performance 25%
• High Performance 25%
• Specific Capacitance 25%
• Power Density 25%
• Capacitance Retention 25%
• High Energy Density 25%
• Bending Cycle 25%
• Energy Storage Devices 25%
• Compression Strength 25%
• Energy Storage Applications 25%
• Flexible Devices 25%
• Mechanical Durability 25%
• Clean Technology 25%
• High Optical Transmittance 25%
• Physical Crosslinking 25%
• Al3+ 25%
• Brewery Residue 25%
• Aluminum Ion 25%
• Exceptional Powers 25%
• Transparent Hydrogel 25%
• Flexible Symmetric Supercapacitor 25%
• Animal Bones 25%
• Ultrahigh Ionic Conductivity 25%
• Material Sourcing 25%

Material Science

• Hydrogel Electrolyte 50%
• Symmetric Supercapacitor 25%