Harvesting water wave energy by asymmetric screening of electrostatic charges on a nanostructured hydrophobic thin-film surface

Keyphrases

• Aligned Nanowires 50%
• All-in-one Design 50%
• Ambient Water 50%
• Charge Density 50%
• Contact Area 50%
• Contact Electrification 50%
• Direct Interaction 50%
• Electrical Output 50%
• Electrification 50%
• Electrode Array 50%
• Electrostatic Charge 100%
• Energy Demand 50%
• Energy Generation 50%
• Energy Harvesting 50%
• External Load 50%
• Falling Drop 50%
• Fluorinated Ethylene Propylene 50%
• Free Electrons 50%
• Harvesting Water 100%
• Interactions with Water 50%
• Liquid-solid 50%
• Mechanical Energy 50%
• Movable Component 50%
• Nanostructures 100%
• Offshore Area 50%
• Planar Sheets 50%
• Polymer Nanowires 50%
• Power Generation 50%
• Power Output 50%
• Power Solution 50%
• River Surface 50%
• Self-powered Electronics 50%
• Separate Components 50%
• Site Energy 50%
• Solid Contact 50%
• Solid-liquid Interface 50%
• Surface Charge 100%
• Surface Enhancement 50%
• Surface Modification 50%
• Surface Waves 50%
• Thin Film Surfaces 100%
• Water Bodies 50%
• Water Motion 50%
• Water Wave Energy 100%

Engineering

• Contact Area 25%
• Direct Interaction 25%
• Electrostatic Charge 100%
• Energy Harvesting 25%
• External Load 25%
• Film Surface 100%
• Fluorinated Ethylene Propylene 25%
• Free Electron 25%
• Hydrophobic 100%
• Mechanical Energy 25%
• Nanowires 50%
• Output Power 25%
• Power Generation 50%
• Self-Powered 25%
• Solid Contact 25%
• Thin Films 100%
• Wave Energy 100%

Material Science

• Contact Area 25%
• Density 25%
• Nanowire 50%
• Solid Interface 25%
• Solid Water 25%
• Surface Charge 25%
• Surface Treatment 25%
• Thin Films 100%