Low-crystalline transition metal oxide/hydroxide on MWCNT by Fenton-reaction-inspired green synthesis for lithium ion battery and OER electrocatalysis

Keyphrases

• Amorphous-to-crystalline Transition 100%
• Anode Material 25%
• Carbon Materials 25%
• Carbon Nanotubes 25%
• Chemical Energy 25%
• Cobalt 25%
• Conductive Substrate 25%
• Crystalline Oxides 25%
• Effective Strategies 25%
• Electrocatalytic Activity 25%
• Electrochemical Energy Conversion 25%
• Electrochemical Energy Storage Technologies 25%
• Energy Conversion Technologies 25%
• Environmental Concern 25%
• Fenton Reaction 100%
• Generic Approach 25%
• Graphene 25%
• Green Chemistry 25%
• Green Synthesis 100%
• Hazardous Substances 50%
• High Capacity 25%
• High Electrochemical Performance 25%
• High Energy Consumption 25%
• High Energy Efficiency 25%
• High Surface Area 25%
• Intrinsic Conductivity 25%
• Iron Oxide 25%
• Layered Double Hydroxide 25%
• Lithium-ion Battery 100%
• Low-crystalline 100%
• Manganese 25%
• Metal Oxide-hydroxide 100%
• Multi-walled Carbon Nanotubes (MWCNTs) 100%
• MWCNT Composite 50%
• Nanosize 25%
• NiFe-LDH 25%
• OER Electrocatalysis 100%
• Oxide Hydroxide 25%
• Pollution Prevention 25%
• Superior Cycle Performance 25%
• Superior Rate Performance 25%
• Synthesis Methods 25%
• Thin Film Coating 25%
• Three Principles 25%
• Transition Metal Oxides 100%
• Ultrahigh Stability 25%
• Versatile Applications 25%

Material Science

• Anode Material 25%
• Carbon Nanotube 25%
• Cobalt 25%
• Crystalline Material 100%
• Electrocatalysis 100%
• Fenton 100%
• Graphene 25%
• Layered Double Hydroxides 50%
• Lithium Ion Battery 100%
• Manganese 25%
• Oxide Compound 25%
• Transition Metal 25%
• Transition Metal Oxide 100%

Chemical Engineering

• Carbon Nanotube 20%
• Fenton Reaction 100%
• Graphene 20%
• Transition Metal 100%