4V-class Magnesium-ion pseudocapacitors fabricated using an in situ inverse-charging process

Keyphrases

• Alkali Ions 20%
• Behavior-based 20%
• Capacitance Value 20%
• Carbon Defects 20%
• Carbonyl Functional Group 20%
• Cell Configuration 20%
• Charge Carriers 20%
• Charging Process 100%
• Controlled Oxidation 20%
• Divalent 20%
• Electrochemical Double-layer Capacitance 20%
• Electrochemical Double-layer Capacitor 20%
• Electrochemical Oxidation Reaction 20%
• Electrochemical System 20%
• Electrolyte Systems 20%
• Energy Density 40%
• Full Cell 20%
• Glyme-based Electrolytes 20%
• High Capacitance 20%
• High Cycling Performance 20%
• High Performance 20%
• High Specific Capacitance 20%
• High Specific Energy Density 20%
• In Situ 100%
• In Situ Electrochemical Oxidation 20%
• Ion Charge 20%
• Lithium-ion Battery 20%
• Magnesium Ion 100%
• Mass Producible 20%
• Monovalent Ions 20%
• Multivalent 20%
• Na-ion Capacitor 20%
• Nanocarbon 60%
• Nanocarbon Electrodes 40%
• Oxidation Mechanism 20%
• Pseudocapacitance 20%
• Pseudocapacitive 60%
• Pseudocapacitor 100%
• Redox 20%
• Redox Activity 20%
• Strong Chemisorption 20%
• Systems-based 20%
• Wide Voltage Range 20%

Material Science

• Anode 60%
• Capacitance 60%
• Capacitor 40%
• Charge Carrier 20%
• Chemisorption 20%
• Electrochemical Double Layer 40%
• Energy Density 60%
• Lithium Ion Battery 20%
• Magnesium Ion 100%
• Oxidation Reaction 40%
• Surface (Surface Science) 40%

Chemical Engineering

• Chemisorption 100%
• Functional Group 100%