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Defect- and Geometry-Controlled Fermi-Level Dynamics in TiO
2
Mohammad Safikhani-Mahmoudi
, Nuray Basaran
, Bugrahan Guner
, Tugce Hacaloglu
,
Omur E. Dagdeviren
École de technologie supérieure
Mechanical Engineering Department
PolymerETS
École de technologie supérieure
Yale University
Research output
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Contribution to journal
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Journal Article
›
peer-review
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Dive into the research topics of 'Defect- and Geometry-Controlled Fermi-Level Dynamics in TiO
2
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Keyphrases
Carrier Transport
33%
Charge Distribution
33%
Defect-mediated
33%
Dynamic Evolution
33%
Fermi Level
100%
Fermi Level Engineering
33%
Fermi Level Shift
33%
Front Surface
33%
Gold Nanoparticles
33%
High Energy
33%
Illumination Geometry
33%
Irradiation
33%
Level Dynamics
100%
Level Kinetics
33%
Low Energy
33%
Model Samples
33%
Nanoparticle Decoration
33%
Optoelectronic Applications
33%
Oxides
33%
Photocatalysis Applications
33%
Photoinduced
33%
Photon Energy
66%
Redox Activity
33%
Rutile
100%
Sampled-data Systems
33%
Scanning Kelvin Probe Force Microscopy (SKPFM)
33%
Schottky Barrier
33%
Sensing Applications
33%
Surface Fermi Level
33%
Surface Modification
33%
Surface Oxygen Vacancy
33%
Surface Recovery
33%
TiO2 Crystals
33%
Transient Response
33%
Two-photon
33%
Ultraviolet Irradiation
100%
We-map
33%
Physics
Charge Distribution
100%
Energetics
100%
Fermi Surface
100%
Gold Nanoparticles
100%
Optoelectronics
100%
Oxide
100%
Oxygen Vacancy
100%
Photon Decoupling
100%
Single Crystal
100%
Transient Response
100%
Transportation
100%
Chemistry
Charge Distribution
16%
Chemical Kinetics Characteristics
16%
Energetics
16%
Fermi Level
100%
formation
33%
Gold Nanoparticle
16%
Illumination
33%
Kelvin Probe Force Microscopy
16%
Optoelectronics
16%
Oxide
16%
Oxygen Vacancy
16%
Photocatalysis
16%
Schottky Contact
16%
Single Crystalline Solid
16%
Surface Modification
16%
Surface Oxygen
16%
Titanium Dioxide
100%
Ultraviolet Irradiation
50%