Introducing a redox-active ferrocenyl moiety onto a polythiophene derivative towards high-performance flexible all-solid-state symmetric supercapacitors

Keyphrases

• High Performance 100%
• Ferrocenyl 100%
• Redox-active 100%
• Flexible All-solid-state 100%
• Polythiophene Derivatives 100%
• Metallopolymers 100%
• All-solid-state Asymmetric Supercapacitor 100%
• Electrode Materials 66%
• Conducting Polymer 66%
• Carbonaceous Electrode 66%
• Preparation Method 33%
• Carbon Fiber 33%
• Design Strategy 33%
• High Surface Area 33%
• Metal-organic Compounds 33%
• Morphological Study 33%
• Cycling Performance 33%
• Current Collector 33%
• Maximum Power Density 33%
• Micrometer Scale 33%
• Supercapacitor Application 33%
• Mechanical Stability 33%
• Open Top 33%
• Maximum Energy Density 33%
• Compound Polymer 33%
• Supercapacitor Electrode 33%
• Binder-free 33%
• Flexible Solid-state Supercapacitor 33%
• Electrode Preparation 33%
• Pseudocapacitor Electrode 33%
• Porous Carbon Materials 33%
• Capacitor Electrode 33%
• Electric Double Layer Capacitor 33%
• Binder-free Supercapacitor 33%
• High Areal Specific Capacitance 33%
• Symmetric Device 33%
• Polymer Growth 33%
• Composite Formation 33%
• Redox-active Metals 33%
• Cauliflower-like 33%
• Ultrahigh Capacitance 33%
• Symmetric Supercapacitor Device 33%
• Potentiostatic Electropolymerization 33%
• Metal-organic Materials 33%

Material Science

• Supercapacitors 100%
• Polythiophene 100%
• Symmetric Supercapacitor 100%
• Capacitance 100%
• Composite Material 50%
• Capacitor 50%
• Mechanical Stability 50%
• Carbon Fiber 50%
• Electropolymerization 50%
• Density 50%
• Energy Density 50%
• Morphology 50%

Chemical Engineering

• Electropolymerization 100%
• Carbon Fiber 100%
• Maximum Power Density 100%