Lithium niobate-based heterostructures : synthesis, properties and electron phenomena /

Bibliographic Details
Main Author: Sumets, Maxim (Author)
Format: eBook
Language:English
Published: Bristol [England] (Temple Circus, Temple Way, Bristol BS1 6HG, UK) : IOP Publishing, [2018]
Series:IOP (Series). Release 5.
IOP expanding physics.
Subjects:
Online Access:Connect to the full text of this electronic book
Table of Contents:
  • 1. Thin films of lithium niobate : potential applications, synthesis methods, structure and properties
  • 1.1. The structure and main properties of bulk lithium niobate
  • 1.2. Application of thin LiNbO3 films
  • 1.3. Fabrication methods of thin LiNbO3 films
  • 1.4. Fundamentals of RFMS method, an ion-beam sputtering method and their critical parameters
  • 1.5. Electrical properties and charge transport phenomena in LiNbO3-based heterostructures
  • 2. Synthesis, structure and surface morphology of LiNbO3 films
  • 2.1. Technological regimes of the synthesis of thin LiNbO3 films by radiofrequency magnetron sputtering and ion-beam sputtering methods
  • 2.2. Composition, structure and surface morphology of LiNbO3 films
  • 2.3. Influence of the synthesis regimes and subsequent annealing on composition and structural properties of LiNbO3 films
  • 3. Electron phenomena in LiNbO3-based heterostructures
  • 3.1. Basic electrical properties of LiNbO3 thin films in Si-LiNbO3 heterosystems
  • 3.2. Conduction mechanisms in (001)Si-LiNbO3 heterostructures
  • 3.3. Band diagram of the Si-LiNbO3 heterostructures
  • 3.4. Impedance spectroscopy and ac conductivity of thin LiNbO3 films
  • 4. Effect of sputtering conditions and thermal annealing on electron phenomena in the Si-LiNbO3 heterostructures
  • 4.1. Effect of the spatial plasma inhomogeneity, composition and relative target-substrate position on electrical properties of Si-LiNbO3 heterostructures
  • 4.2. Thermal annealing effect on electrical properties of Si-LiNbO3 heterosystem
  • 4.3. Impedance spectroscopy of Si-LiNbO3-Al heterostructures after thermal annealing
  • 4.4. Optical band gap shift in thin LiNbO3 films depending on RFMS conditions and subsequent thermal annealing
  • 4.5. Temperature transition of p- to n-type conduction in the LiNbO3/Nb2O5 polycrystalline films fabricated in an Ar + O2 reactive gas environment
  • Appendix A. Cell parameters and powder x-ray diffraction data of LiNbO3 [1], LiNb3O8 [2], Li3NbO4 [3] and Nb2O5 [4].