[eBook Code] Introduction to Spectroscopic Ellipsometry of Thin Film Materials (eBook Code, 1st)

1 SPECTROSCOPIC ELLIPSOMETRY: BASIC PRINCIPLES
1.1 Introduction
1.2 Polarization of Light
1.3 Features of Spectroscopic Ellipsometry
1.4 Experimental Set Up
1.5 Data Analysis

2 STRONGLY CORRELATED SYSTEMS: CUPRATES & MANGANITES
2.1 An Introduction
2.1.1 Crystal Structures
2.1.2 Arising Electronic Structures
2.1.3 Superconductivity
2.1.4 Colossal Magnetoresistance
2.2 Strong and Weak Correlations in Ambipolar cuprate thin-film systems
2.3 Charge localization in Cuprate thin film on oxide substrate
2.4 Jahn-Teller splitting energy control the phase transition in manganite thin-film systems
2.5 Plasmon and high-energy exciton excitations in cuprates thin-films

3 2D TRANSITION METAL DICHALCOGENIDES
3.1 An Introduction
3.1.1 Crystal Structures of 2D-TMDs
3.1.2 Arising Electronic Structures
3.2 Ellipsometry in Probing structural phase transition and electronic structures monolayer-MoS2
3.3 Three-Dimensional Resonant Exciton in monolayer-WSe2
3.4 Examining Interfacial Effects: High-energy excitons in Strontium Titanate and interfaces (manganite, MoS2)
3.5 Anisotropic plasmon excitations in quasi-metallic 2D-TMDs

4 GRAPHENE
4.1 An introduction
4.1.1 Crystal structure of graphene
4.1.2 Arising Electronic structures
4.2 Probing optical structures and many-body effects in Graphene
4.3 High-energy features and quasi-particle dynamics in Graphene

5 NICKELATE PEROVSKITE SYSTEMS
5.1 An Introduction
5.1.1 Electronic and Crystal Structures
5.1.2 Magnetic orders of Nickelate systems
5.2 Metal-Insulator Transition of Rare-earth Nickelates
5.3 Magnetic induction induced by Interfacial hybridization

6 OUTLOOK OF SPECTROSCOPIC ELLIPSOMETRY OF NOVEL MATERIALS
6.1 Future Development of Spectroscopic Ellipsometry
6.2 Development of Novel Materials and the Relevance of Spectroscopic Ellipsometry