Light-material interactions and applications in optoelectronic devices /
"Version: 20241201"--Title page verso.Includes bibliographical references.1. Wave propagation, properties, and manipulation -- 1.1. Maxwell's equations -- 1.2. Wave propagation and properties -- 1.3. Wave manipulation2. Dielectric responses -- 2.1. Anisotropic and dispersive characteristics -- 2.2. Dielectric Debye model -- 2.3. Lorentz model -- 2.4. Drude model -- 2.5. Transfer matrix method3. Laser beam propagation, properties, and manipulation -- 3.1. Gaussian beams -- 3.2. Beam expanders -- 3.3. Objective lenses -- 3.4. Optical couplers -- 3.5. Plasmonic lenses4. Optical spectroscopic techniques -- 4.1. Optical-microscope-based spectroscopy -- 4.2. Transmittance/reflectance spectrometry -- 4.3. Photoluminescence/Raman scattering spectrometry -- 4.4. Near-field optical spectrometry -- 4.5. Surface-enhanced Raman scattering effects5. Optical waveguide-based sensors -- 5.1. Principle of optical waveguides -- 5.2. Waveguide-based sensors -- 5.3. Nanoplasmonic sensors6. Excitons -- 6.1. Excitons in semiconductors -- 6.2. Exciton generation -- 6.3. Exciton dissociation and emission -- 6.4. Exciton diffusion and energy transfer7. Energy diagrams and carrier properties -- 7.1. Energy diagrams of materials -- 7.2. Energy diagrams of metal/semiconductor interfaces -- 7.3. Energy diagrams of doped semiconductors -- 7.4. Carrier drift -- 7.5. Carrier diffusion8. Quantum wells and quantum dots -- 8.1. Quantum-scale effects -- 8.2. Quantum wells -- 8.3. Quantum dots9. Photovoltaic solar cells -- 9.1. Classification of single-junction solar cells -- 9.2. Si solar cells -- 9.3. GaAs solar cells -- 9.4. InP solar cells -- 9.5. CdTe solar cells -- 9.6. CIGS solar cells -- 9.7. CZTSSe solar cells -- 9.8. MAPbI3 solar cells -- 9.9. Evaluating solar cells10. Light-emitting diodes -- 10.1. Light emission mechanisms in semiconductors -- 10.2. InGaN-based LEDs -- 10.3. Efficient blue InGaN LEDs -- 10.4. Efficient CsPbBr3 QD LEDs -- 10.5. Thermally activated delayed fluorescence organic LEDs -- 10.6. Efficient near-infrared phosphor LEDs -- 10.7. Electroplex LEDs.Full-text restricted to subscribers or individual document purchasers.This book aims to guide graduate students on how to investigate and understand optoelectronic devices via exploring light-material interactions with graphical concepts and simplified formulas. This book can be a textbook in graduate courses and a reference book in undergraduate courses. The contents in chapters 1-5 are related to electromagnetic waves, laser beams, and waveguides. The contents in chapters 6- 8 are related to excitons and carriers in semiconductors. The contents in chapters 9 and 10 are focused on solar cells and light-emitting diodes, respectively. Part of IOP Series in Advances in Optics, Photonics and Optoelectronics.Scientists, practitioners, researchers and clinicians devoted to viral disease diagnosis and therapeutics.Also available in print.Mode of access: World Wide Web.System requirements: Adobe Acrobat Reader, EPUB reader, or Kindle reader.Anjali Chandel is a postdoctoral researcher in the Department of Optoelectronics and Materials Technology at National Taiwan Ocean University, Taiwan. From March 2023 to March 2024, she served as a postdoctoral researcher at Ming-Chi University of Technology. She holds a PhD in Physics from Chung Yuan Christian University, Taiwan. Her research focuses on photovoltaics, particularly the development and applications of solar cells. Sheng Hsiung Chang is currently working as a faculty member in the Department of Optoelectronics and Materials Technology, National Taiwan Ocean University, Keelung, Taiwan, Republic of China. From 2006 to 2024, he published more than 100 papers. Professor Chang is involved with research concerning organic/inorganic solar cells, nano-plasmonics, high-k materials, and light-matter interactions.Title from PDF title page (viewed on January 17, 2025).
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