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Description
(Text)
Complex oxides have a wide variety of modern applications nanoelectronics, thermoelectronics, photo- and electrochemistry, as battery materials, catalysts and for energy conversion and storage. In a clear and accessible waythe text provides an overview of all important materials classes, such as superconductors, manganites, (multi-) ferroics, discusses nanoscale and interface properties and important synthesis and characterization methods.
(Table of content)
Table of Contents
Preface
Introduction to correlated electron oxide materials
- Basic principles of oxide materials physics
- Theoretical concepts
Material classes
- Ferroics
- Manganites
- Superconductors
- Semiconducting and metallic oxides (MIT systems, electrochromes, ...)
- Other oxides
Nanoscale properties
- Effects of reduced dimension (2D, 1D, 0D)
- Surfaces and interfaces
- Nanowires and nanodots
- Defects (Kröger-Vink, energy scales, mobility and diffusion, ...)
Synthesis methods
- Bulk single crystals (Bridgeman, flux growth etc., ...)
- Thin films (PLD, MBE, CVD)
- Nanostructures (VLS growth, other chemical methods)
- Electrolytic anodizing
- Other methods (sol-gel, spray pyrolysis, other ceramics processing ...)
Important experimental characterization methods
- Optical spectroscopy (Raman, SHG, MOKE, UV-VIS-IR, THz, PL, time-resolved techniques, ...)
- Neutron spectroscopy / SQUID magnetometry
- Electron microscopy and spectroscopy
- Scanning probe methods
- Transport measurements
- Calorimetry
- X-ray spectroscopy and photoemission (XAS, XMCD, PEEM, ARPES, XANES, ... etc.)
Applications
- Nanoelectronics / Spintronics (Resistive switching memory, tunnel junctions (TMR), ...)
- Optoelectronics
- Thermoelectrics
- (Photo-) Electrochemistry
- Ionic conductors (battery materials, ...)
- Catalysts
- Energy storage / conversion
Outlook and open questions
- Current hot topics (new oxypnictides, oxide topological insulators, tailored
interfaces with novel properties, polar metals, quantum ferroics ...)
- Fabrication challenges (oxide material purity, doping, ...)
- Concluding remarks
(Author portrait)
Jan Seidel, University of New South Wales, Sydney, Australia.
(Author portrait)