Design of High-Performance Wearable Energy and Sensor Electronics from Fiber Materials

Engineering

• Performance 100%
• Design 100%
• Energy Engineering 100%
• Fiber 100%
• Active Material 66%
• Two Dimensional 16%
• Dimensionality 11%
• Wearable Electronics 5%
• Electrochemical Capacitor 5%
• Energy Storage 5%
• One Dimensional 5%
• Flexible Electronics 5%
• Energy Harvesting 5%
• Triboelectric Nanogenerators 5%
• Electrical Conductivity 5%
• Effective Approach 5%
• Tensile Strain 5%
• Compressive Strain 5%
• Hydrophilic 5%
• Functional Performance 5%
• Mechanical Energy 5%
• Simple Approach 5%
• Electroless Plating 5%
• Dip Coating 5%
• Textile Substrate 5%
• Sensor Device 5%
• Development 5%
• Properties 5%
• Demonstrates 5%
• Substrates 5%
• Stability 5%
• Practical Application 5%
• High Porosity 5%
• Large Surface 5%

Material Science

• Fiber 100%
• Material 100%
• Sensor 100%
• Electronics 100%
• Coated Material 55%
• Electrode 50%
• Reduced Graphene Oxide 11%
• Carbon Nanotubes 11%
• Void Fraction 5%
• Surface Area 5%
• Conductivity 5%
• Graphene 5%
• Devices 5%
• Textile 5%
• Coating 5%
• Paper 5%
• Strain 5%
• Electrical Conductivity 5%
• Slurry 5%

Chemistry

• Sensor 100%
• Energy 100%
• Fiber 100%
• Nickel 50%
• Carbon Nanotube 11%
• Porosity 11%
• Graphene Oxide 11%
• Procedure 11%
• Flexibility 11%
• Energy Storage 5%
• Graphene 5%
• Surface Area 5%
• Supercapacitors 5%
• Electroless Deposition 5%
• Structure 5%
• Application 5%
• Potential 5%
• Group 5%
• Strain 5%
• Suspension 5%
• Wearable Sensor 5%