Enhancing visible-light-driven water splitting of ZnO nanorods by dual synergistic effects of plasmonic Au nanoparticles and Cu dopants

Engineering & Materials Science

• Plasmonic nanoparticles 100%
• Gold nanoparticles 80%
• Nanorods 75%
• Doping (additives) 56%
• Water 27%
• Photocurrents 21%
• Energy gap 16%
• Solar energy 13%
• Surface plasmon resonance 11%
• Light absorption 10%
• Optoelectronic devices 8%
• Energy conversion 7%
• Semiconductor materials 6%
• Catalysts 6%
• Renewable energy resources 5%
• Lighting 5%
• Fabrication 5%
• Costs 2%

Chemical Compounds

• Doping Material 44%
• Nanorod 43%
• Nanoparticle 25%
• Photocurrent 13%
• Band Gap 10%
• Light Red 8%
• Solar Energy 7%
• Absorptivity 7%
• Surface Plasmon Resonance 6%
• Optoelectronics 6%
• Illumination 6%
• Fuel 5%
• Semiconductor 5%
• Purity 3%
• Energy 3%
• Catalyst 3%
• Time 2%
• Surface 2%

Physics & Astronomy

• water splitting 64%
• nanoparticles 34%
• photocurrents 13%
• chemical fuels 12%
• solar energy conversion 9%
• renewable energy 9%
• solar energy 8%
• surface plasmon resonance 7%
• optoelectronic devices 7%
• catalysts 6%
• optical absorption 6%
• illumination 5%
• costs 5%
• fabrication 4%
• shift 4%
• performance 3%