Disentangling Structural and Electronic Contributions to Photogenerated Mobile Charge Carrier Yield and Transport in Fe₂O₃Polymorphs

Keyphrases

• Charge Carriers 100%
• Electronic Configuration 100%
• Electronic Contribution 100%
• Mobile Charge 100%
• Structural Contribution 100%
• Photogenerated 100%
• Iron Oxide 66%
• Polymorph 66%
• Fe3+ 66%
• Mobile Carrier 66%
• Ligand-field State 66%
• CRISTAL 66%
• Solar Water Splitting 33%
• Non-productive 33%
• α-Fe2O3 Film 33%
• Computational Methods 33%
• Electronic Structure 33%
• Influence Factors 33%
• Metal Oxide 33%
• Crystal Symmetry 33%
• Wavelength Dependence 33%
• Loss Mechanism 33%
• Photoelectrode 33%
• Fe2O3 Thin Films 33%
• Hole Transport 33%
• Carrier Generation 33%
• Relative Influence 33%
• Optical Measurement 33%
• Depth-dependent 33%
• Charge Carrier Transport 33%
• Photoelectrochemical Immunosensor 33%
• Charge Transfer Transition 33%
• Ultrafast Relaxation 33%
• Large Hole 33%
• Carrier Diffusion Length 33%
• Spectral Profile 33%
• Charge Carrier Generation 33%
• Photoconversion Efficiency 33%
• Ligand-to-metal Charge Transfer 33%
• Relaxation Pathways 33%
• Structure Configuration 33%
• Epitaxial Thin Films 33%
• Electronic Crystal 33%
• Charge Collection Probability 33%
• Thin Film Photoanode 33%
• Transport Length 33%

Material Science

• Charge Carrier 100%
• Energy Levels 80%
• Crystal Structure 60%
• Thin Films 40%
• Film 20%
• Water Splitting 20%
• Metal Oxide 20%
• Iron Oxide 20%
• Carrier Transport 20%
• Crystal Symmetry 20%