Asymmetric response of ferroelectric/metal oxide heterojunctions for catalysis arising from interfacial chemistry

Keyphrases

• Asymmetric Response 100%
• Anatase 100%
• Interfacial Chemistry 100%
• Ferroelectric Metal 100%
• Oxygen Evolution Reaction 100%
• Metal Oxide Heterojunction 100%
• TiO2 Nanolayer 100%
• Rutile 66%
• Heterojunction 66%
• Charged Species 66%
• Interface Chemistry 66%
• Free Energy Profile 66%
• Free Surface 66%
• Surface Reconstruction 66%
• Catalytic Reaction 66%
• Negative Polarization 66%
• Positive Polarization 66%
• Metal Oxide 33%
• Negatively Charged 33%
• Positively Charged 33%
• Heterostructure 33%
• Density Functional Theory 33%
• Barium Titanate 33%
• Surface Chemistry 33%
• Design Rules 33%
• Finite-size Effects 33%
• Catalytic Properties 33%
• Interface Dipole 33%
• Surface Interface 33%
• Interface Design 33%
• Surface Material 33%
• Surface Electronic Structure 33%
• Gibbs Free Energy 33%
• Rumpling 33%
• Interfacial Bonding 33%
• Adsorbate-adsorbate Interactions 33%
• Selective Enhancement 33%
• Surface Dipole 33%
• Complex Interactions 33%
• Oxide-free 33%
• Surface Adsorbates 33%
• Reaction Profile 33%
• Surface Catalysis 33%
• Unbalance Response 33%
• Metal Oxide Catalyst 33%
• Surface Properties Modification 33%

Material Science

• Catalysis 100%
• Metal Oxide 100%
• Ferroelectric Material 100%
• Heterojunction 100%
• Titanium Dioxide 100%
• Monolayers 80%
• Oxygen Evolution 60%
• Adsorbate 40%
• Surface Reconstruction 40%
• Density 20%
• Electronic Structure 20%
• Barium Titanate 20%
• Surface Property 20%
• Ferroelectricity 20%