Dual-template synthesis of ordered mesoporous carbon/Fe₂O₃ nanowires: high porosity and structural stability for supercapacitors

Keyphrases

• Supercapacitor 100%
• Iron Oxide 100%
• Nanowires 100%
• Structural Stability 100%
• High Porosity 100%
• Ordered Mesoporous Carbon 100%
• Dual Template Synthesis 100%
• Carbon Nanowires 60%
• Mesostructure 40%
• Soft Template 40%
• Impregnation 40%
• Oxides 40%
• Pore Surface 40%
• High Pore Volume 40%
• Templated Carbon 40%
• Metal Oxide Loading 40%
• Morphological Structure 20%
• Stable Structure 20%
• Pore Volume 20%
• Specific Capacitance 20%
• High-performance Supercapacitors 20%
• Promising Strategies 20%
• Anodized Aluminum Oxide 20%
• Template Approach 20%
• Electrode Performance 20%
• Small Pore 20%
• Mesoporous Structure 20%
• Electrochemical Energy Storage 20%
• Electrochemical Energy Conversion 20%
• Host Material 20%
• Cycling Stability 20%
• Ionic Mobility 20%
• Metal Oxide Electrode 20%
• Electrochemical Capacitance 20%
• Superior Rate Capability 20%
• Hard Template 20%
• Heterogeneous Composite 20%
• Fe2O3 Nanoparticles 20%
• Ordered Mesoporous Silica 20%
• Surfactant Micelles 20%
• Silica Scaffold 20%
• Dual Template 20%
• Metal Oxide Composite 20%
• Load Capacitance 20%
• Ordered Mesoporous Alumina 20%
• Hard Template Method 20%
• Loading Amount 20%
• Triblock Copolymer F127 20%

Material Science

• Nanowire 100%
• Supercapacitors 100%
• Ordered Mesoporous Carbon 100%
• Template-Directed Synthesis 100%
• Metal Oxide 60%
• Pore Volume 60%
• Oxide Compound 40%
• Aluminum Oxide 40%
• Capacitance 40%
• Nanoparticle 20%
• Surface Active Agent 20%
• High Energy Density 20%
• Micelle 20%
• Copolymer 20%
• Ordered Mesoporous Silica 20%