Novel microporous manganese phosphonate-derived metal oxides as prospective cathode materials for superior flexible asymmetric micro-supercapacitor device

Keyphrases

• Cathode Material 100%
• Metal Oxide 100%
• Asymmetric Supercapacitor 100%
• Specific Capacitance 100%
• Supercapacitor Device 100%
• Manganese Phosphonates 100%
• Energy Density 66%
• Power Density 66%
• Heteroatom Doping 66%
• High Surface Area 33%
• Electrochemical Performance 33%
• Two-electrode 33%
• Doped Manganese Oxide 33%
• Electrode Materials 33%
• Synergistic Effect 33%
• Capacitance 33%
• Current Energy 33%
• Three-electrode 33%
• High-performance Supercapacitors 33%
• Pyrolysis 33%
• Template-free 33%
• Capacitance Value 33%
• Supercapacitor Application 33%
• Energy Demand 33%
• Density Value 33%
• Hydrothermal Conditions 33%
• Material Structure 33%
• Organic-inorganic Hybrid Materials 33%
• Electrode Assembly 33%
• Areal Capacitance 33%
• Micro-supercapacitors 33%
• Renewable Energy Storage 33%
• Hollow Structure 33%
• Asymmetric Device 33%
• Globular Morphology 33%

Material Science

• Cathode Material 100%
• Metal Oxide 100%
• Capacitance 100%
• Manganese 100%
• Supercapacitors 100%
• Density 40%
• Energy Density 40%
• Manganese Oxide 20%
• Organic-Inorganic Hybrid Material 20%