Tuning Nanofillers in In Situ Prepared Polyimide Nanocomposites for High-Temperature Capacitive Energy Storage

Keyphrases

• In Situ 100%
• High Temperature 100%
• Dielectric Polymer 100%
• Nanofillers 100%
• Capacitive Energy Storage 100%
• Dielectric Constant 66%
• Aluminum Oxide 66%
• Band Gap 66%
• Elevated Temperature 66%
• HfO2 66%
• High Performance 33%
• Rutile 33%
• System Demand 33%
• Dominant Role 33%
• High Electric Field 33%
• Ambient Temperature 33%
• Charge-discharge 33%
• Discharged Energy Density 33%
• Capacitors 33%
• Design Principles 33%
• Polymer Composites 33%
• Polymer Nanocomposites 33%
• Dielectric Composites 33%
• Polyimide 33%
• Field Temperature 33%
• Breakdown Strength 33%
• Electronic System 33%
• Electrical System 33%
• Design Paradigms 33%
• Polyimide Composites 33%
• Electrical Energy Storage 33%
• In Situ Polymerization 33%
• Polymer-based 33%
• Inorganic Filler 33%
• Efficient Operation 33%
• Inorganic Nanofiller 33%
• Boron Nitride Nanosheets 33%
• Capacitive Performance 33%
• Large Band Gap 33%

Material Science

• Polyimide 100%
• Nanocomposite 100%
• Dielectric Material 100%
• Permittivity 40%
• Al2O3 40%
• Polymer Composite 40%
• Composite Material 40%
• Energy Density 20%
• Capacitor 20%
• Polymer Nanocomposites 20%
• Polymerization 20%
• Nanosheet 20%
• Boron Nitride 20%
• Titanium Dioxide 20%
• Design Principle 20%
• Electrical Energy Storage 20%