A facile one-step strategy for in-situ fabrication of WO₃-BiVO₄ nanoarrays for solar-driven photoelectrochemical water splitting applications

Keyphrases

• Band Gap Energy 50%
• Bismuth 50%
• BiVO4 100%
• Crystalline Nature 50%
• Cyclic Voltammetry 50%
• Diffuse Reflectance Spectroscopy 50%
• Elemental Composition 50%
• Elemental Mapping 50%
• Energy Dispersive X-ray Analysis 50%
• Field Emission Scanning Electron Microscopy (FE-SEM) 50%
• Hydrothermally 50%
• In Situ Fabrication 100%
• Irradiation Source 50%
• Linear Sweep Voltammetry 50%
• Low Temperature 50%
• Nanoarrays 100%
• Nanorods 50%
• One-step Method 100%
• Optical Properties 50%
• Oxidation Potential 50%
• Photocurrent 50%
• Photocurrent Response 50%
• Photoelectrochemical Studies 50%
• Photoelectrochemical Water Splitting 100%
• Raman Analysis 50%
• Reaction Time 50%
• Reduction Potential 50%
• Solar Irradiation 50%
• Solar-driven 100%
• Spectroscopic Analysis 50%
• Step Strategy 50%
• Tungsten 50%
• UV-VIS Spectroscopy 50%
• UV-visible 50%
• Vanadium 50%
• Water Splitting Reaction 50%
• X-ray Crystallography 50%
• XRD Analysis 50%

Material Science

• Bismuth 50%
• Crystalline Material 50%
• Cyclic Voltammetry 50%
• Energy Dispersive X Ray Analysis 50%
• Field Emission Scanning Electron Microscopy 50%
• Metal Oxide 50%
• Nanorod 50%
• Optical Property 50%
• Oxidation Reaction 50%
• Photoelectrochemical Water Splitting 100%
• Tungsten 50%
• Vanadium 50%
• Voltammetry 50%
• X-Ray Diffraction 50%