Metal Oxide-Based Thin Film Structures

<p>Section A Interface formation: Theoretical aspect in epitaxial growth mechanisms, structural features and defects formation<br>1. Epitaxy of 5d transition metal oxide thin films and heterostructures<br>2. Oxide superlattices by PLD: A practical guide<br>3. Oxide molecular beam epitaxy of complex oxide heterointerfaces<br>4. Electrochemical ionic interfaces</p> <p>Section B Experimental: Structural and compositional characterization techniques of metal oxides interfaces<br>5. In situ stress measurements of metal oxide thin films<br>6. Plume characterization in pulsed laser deposition of metal oxide thin films<br>7. Photoemission of buried metal oxide interfaces<br>8. Functional material properties of oxide thin films probed by atomic force microscopy on the nanoscale<br>9. Controlled atmosphere high-temperature scanning probe microscopy (CAHT-SPM)<br>10. Scanning SQUID measurements of oxide interfaces</p> <p>Section C Modeling and properties at the metal oxide interfaces<br>11. First-principle study of metal oxide thin films: Electronic and magnetic properties of confined d electrons<br>12. Computational study of energy materials<br>13. High-mobility two-dimensional electron gases at complex oxide interfaces<br>14. Strain and interfaces for metal oxide-based memristive devices</p> <p>Section D Applications of metal oxide interfaces<br>15. Metal oxide thin film-based low-temperature-operating solid oxide fuel cell by interface structure control<br>16. Ionic conductivity of metal oxides: An essential property for all-solid-state lithium-ion batteries<br>17. Nanoionics and interfaces for energy and information technologies<br>18. Future emerging technologies based on metal oxide interfaces<br>19. Ferroelectric and piezoelectric oxide nanostructured films for energy harvesting applications<br>20. Redox-based memristive metal-oxide devices</p>