Part I. Devices and Processing Chapter: 1 Fundamentals of OLED 1.1 Brief History 1.2 Device Structure 1.2.1 Substrates and Electrodes 1.2.2 Organic Functional Layers 1.

2.3 Passive and Active Matrix Addressing 1.2.4 Bottom- and Top-Emitting Devices 1.2.5 Inverted Devices 1.2.6 Tandem Devices 1.

3 Parameters of OLEDs and their Testing Methods 1.3.1 Emission Spectrum and CIE Coordinate 1.3.2 Current Density-Voltage-Luminance Characteristics 1.3.3 Current Efficiency, Power Efficiency, and External Quantum Efficiency 1.3.

4 Light Out-Coupling Efficiency 1.3.5 Device Lifetime 1.4 Application 1.4.1 Flexible Display 1.4.2 Transparent Displays 1.

4.3 Microdisplay 1.4.4 Lighting Chapter: 2 Device Fabrication Techniques 2.1 Electrodes Processing 2.1.1 Metal Film, Grid and Nanowire 2.1.

2 ITO 2.1.3 Polymer 2.1.4 Graphene 2.2 Organic Layer Deposition 2.2.1 Vacuum Deposition 2.

2.2 Solution Processing (spin coating, inkjet printing, blade coating) 2.3 Encapsulation 2.4 Light Out-Coupling Enhancement 2.5 Spectral Narrowing 2.5.1 Filter 2.5.

2 Wavelength Conversion Layer 2.5.3 Microcavity Part II. Physical and Chemical Aspects of Molecular Semiconductors Chapter: 3 Physical and Chemical Processes in OLEDs 3.1 Charge Injection and Transport 3.2 Exciton Generation and Decay 3.3 Energy Transfer 3.4 Exciton-Exciton and Exciton-Polaron Annihilation 3.

5 Reversible Dipole Reorientation 3.6 Electrochemical Reactions 3.7 Photochemical Reactions Chapter 4: Physical and Chemical Properties of Organic Semiconductors in Solutions and Thin-Films 4.1 Emission Spectrum 4.2 Photoluminescence Quantum Yield 4.3 Excited-State Lifetime 4.4 Singlet and Triplet Energy Levels 4.5 Oxidation and Reduction Potentials 4.

6 Charge Carriers Mobility 4.7 Polarized Light Emission 4.8 Thermal-Stability (thermal decomposition temperature and glass-transition temperature) 4.9 UV Light-Stability 4.10 Electrochemistry-Stability Chapter 5: Correlation of Thin-Film Properties with Device Performance 5.1 Deviation of Electroluminescence Spectrum from Photoluminescence Spectrum 5.2 Factors Impacting on Current Density-Voltage Characteristics 5.3 Factors Impacting on Device Efficiency (at different current density) 5.

4 Factors Impacting on Device Lifetime 5.5 Polarized Electroluminescence Part III. Molecular Electronics and Photonics Chapter 6: Basic Physical Parameters of Single Molecule 6.1 Zero-Zero Energies of Low-Lying Excited States 6.2 Radiative Decay Rate 6.3 Internal Conversion Rate 6.4 Intersystem Crossing Rate 6.5 Ionization Potential (IP) and Electron Affinity (EA) 6.

6 Dipole Moment Chapter 7: Molecular Interactions in Organic Semiconductor Thin-films 7.1 Bimolecular Processes 7.2 Parameters Impacting on Carrier Transport 7.3 Parameters Impacting on Energy Transfer Rate 7.4 A Classification of Upconversion Pathways 7.5 Parameters Impacting on Phosphorescence Yield 7.6 Parameters Impacting on TADF Yield 7.7 Dynamics of Intermolecular Interaction and its Influence on Physical Parameters Chapter 8: Quantum-Chemical Insight into Structure-Property Relationships 8.

1 Geometric and Electronic Configurations 8.2 Atomic Orbitals, Molecular Orbitals, and Electronic States 8.3 Rotational Levels and Vibrational Levels 8.4 Transition between States 8.5 Allowed and Forbidden Transitions (oscillator strength and transition dipole moment) 8.6 Coulomb Integral and Exchange Integral 8.7 Orbital Overlap Integral 8.8 Electronic Coupling and Transfer Integral 8.

9 Franck-Condon Principle 8.10 Excited-State Relaxation 8.11 Energy Gap Law for Internal Conversion 8.12 Spin-Orbital Coupling and Heavy Atomic Effect 8.13 Pathways for Nonradiative Decay 8.14 Exciplex and Excimer 8.15 Bipolar Molecules Part IV. Simulation Methods Chapter 9: Single Molecule Simulation 9.

1 Geometric and Electronic Structures of Ground-, Oxidation-, Reduction-, and Excited-States 9.2 Vertical Transition 9.3 Nonradiative Decay 9.4 Energy Difference between S1 and T1 9.5 Spin-Orbital Coupling 9.6 Spin-Phonon Coupling 9.7 Oxidation and Reduction Potentials 9.8 Reorganization Energy 9.

9 Luminescence Quantum Yield 9.10 Bond Dissociation Energy Chapter 10: Condensed-Matter Simulation 10.1 Bimolecular Arrangement 10.2 Energy Levels of Dimer 10.3 Molecular Orientation 10.4 Chain Structure of Polymer 10.5 Solid-State Solvation 10.6 Charge Carriers Mobility 10.

7 Chemical Reaction Path Chapter 11: Prediction of Device Performance from Materials and Device Structure 11.1 Outlook: From Molecular Structure to Device Performance 11.2 Missing Links in Theory 11.3 Finding New Strategies for Improving Device Performances by AI.