Enhancing Water-Splitting Efficiency Using a Zn/Sn-Doped PN Photoelectrode of Pseudocubic α-Fe₂O₃ Nanoparticles

Keyphrases

• Absorption Separation 33%
• Carrier Diffusion Length 33%
• Charge Separation 33%
• Chemically Stable 33%
• Fe2O3 Nanocrystals 33%
• Fe2O3 Nanoparticles 100%
• FTO Gene 33%
• Hematite Photoelectrodes 33%
• Hydrothermal Route 33%
• Internal Electric Field 33%
• Iron Oxide 100%
• Junction Structure 33%
• Light Absorption 33%
• Low Energy Gap 33%
• N-type Semiconductor 33%
• P-n Junction 100%
• P-type 33%
• P-type Semiconductor 33%
• Photoanode 33%
• Photocatalytic Activity 33%
• Photocatalytic Efficiency 33%
• Photocurrent 33%
• Photoelectrode 100%
• Polyhedral 33%
• Pseudo-cubic 100%
• Semiconductor Materials 66%
• Sn Doping 100%
• Solar Energy 33%
• Spatial Charge Separation 33%
• Water Splitting 100%
• Water-splitting Process 33%
• Zn-Sn 100%
• α-Fe2O3 Photoanode 33%

Material Science

• Hematite 50%
• Nanoparticle 100%
• Semiconductor Material Types 100%
• Water Splitting 100%