有機場效應晶體管--原理及半導體材料(精)

Preface
Chapter 1 Basic Introduction to Organic Field-Effect Transistors
1.1 Basic Principle of FET
1.2 History of Development of FET
1.3 Transistor Operation in Si MOS-FET
1.4 Fundamental Principles of OFET
1.5 A Brief History of OFET
1.6 Theoretical Bases for FET
1.6.1 Explanation of technical terms in FET
1.6.2 Theoretical background of FET
1.6.3 Evaluation of carrier injection barrier height
1.7 Characterization
1.7.1 Powder X-ray diffraction
1.7.2 Single crystal X-ray diffraction
1.7.3 Infrared spectroscopy
1.7.4 Raman spectroscopy
1.7.5 Photoluminescence spectroscopy
1.7.6 Thermo-gravimetric analysis
1.7.7 Atomic force microscopy
1.7.8 Vibrating sample magnetometer
1.8 Basic Physical Concepts
1.8.1 Electrons and holes
1.8.2 Carriers in organic semiconductors: n-type, p-type and ambipolar
1.8.3 Energy levels and energy bands
1.8.4 Metals, semiconductors, and insulators
1.8.5 Work function
1.8.6 Schottky barrier
1.8.7 Device configuration
1.9 Organic Magnets
References
Chapter 2 Organic Small Molecule Field-Effect Materials
2.1 Polycyclic Aromatic Hydrocarbons and Their Derivatives
2.2 Thiaheterocycles and Their Derivatives
2.3 Halogenated Small Molecules and Their Derivatives
2.4 Cyanated Small Molecules and Their Derivatives
2.5 Quinoid Small Molecules and Their Derivatives
2.6 Lactam/Imide Small Molecules and Their Derivatives
2.7 Main Problems for Organic Small Molecule FETs
2.7.1 Challenges in material design
2.7.2 Challenges in device performance
2.7.3 Challenges in process optimization
2.8 The Development Prospects of Small Molecule FETs
2.8.1 Design and development of new materials
2.8.2 Optimization of device structure
2.8.3 Innovation in process technology
References
Chapter 3 Conjugated Polymer Field-Effect Materials
3.1 Introduction
3.2 Basic Principles of Conjugated Polymers
3.2.1 Structure and electronic properties of conjugated polymers
3.2.2 Conjugated systems and molecular orbital theory
3.2.3 Conductivity of π-conjugated systems
3.2.4 Relationship between charge mobility and molecular structure
3.3 Conjugated Polymer Materials
3.3.1 Introduction
3.3.2 P-type conjugated polymer materials
3.3.3 N-type conjugated polymer materials
3.3.4 Bipolar conjugated polymer materials
3.3.5 Atomic substitution
3.4 Optimization of Conjugated Polymer Field-Effect Materials
3.4.1 Solution processing techniques
3.4.2 Customizing film orientation
3.4.3 Optimization of polymerization reactions
3.4.4 Polymer side-chain engineering
3.5 The Development Prospects of Conjugated Polymer Field-Effect Materials
References
Chapter 4 Charge Transfer Cocrystal Field-Effect Materials
4.1 Introduction
4.2 Basic Information of Charge Transfer Cocrystals
4.2.1 LUMO-HOMO engineering
4.2.2 Definition and theory
4.2.3 Determination of charge transfer
4.3 Method for growth of charge transfer cocrystal single crystals
4.3.1 Slow cooling method
4.3.2 Slow evaporation method
4.3.3 Vapor diffusion method
4.3.4 Liquid-liquid interface method
4.3.5 Vapor method growth of charge transfer compound single crystals
4.3.6 Print growth of charge transfer compound single crystals
4.4 Materials for Charge Transfer Cocrystals
4.4.1 TCNQ-based charge transfer cocrystals
4.4.2 PDI-based charge transfer cocrystals
4.4.3 Other types of acceptor-based charge transfer cocrystals
4.5 Summary and Prospect
References
Chapter 5 Organic Thin-Film FETs
5.1 Introduction
5.2 Organic Thin-Film FET Materials
5.2.1 P-type organic thin film semiconductor materials
5.2.2 N-type organic semiconductor materials
5.2.3 Bipolar organic semicond