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Lecture
Optical Absorption: Understanding Semiconductor Behavior
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Related lectures (32)
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Effective Masses in Semiconductor Physics
Covers effective masses in semiconductors, focusing on energy bands and their implications for materials like silicon and gallium arsenide.
Laser Micro-Processing: Materials and Spectroscopy
Explores laser micro-processing of materials, fluorescence, spectroscopy, and band structures.
Quantum Structures: Band Gaps and Heterostructures
Covers the formation and properties of quantum wells and heterostructures in semiconductor materials.
Semiconductor Properties: Band Structure and Carrier Statistics
Explores semiconductor band structure, carrier statistics, and impurities' impact on carrier activation and conductivity.
Formation of Bands in Semiconductors: Understanding Silicon and Gallium Arsenide
Covers the formation of bands in semiconductors, focusing on silicon and gallium arsenide, and their electronic properties and crystalline structures.
Density of States in Semiconductor Devices
Explores density of states in semiconductor devices, covering electron gas, energy bands, Fermi-Dirac distribution, and band structures.
Optical Properties of Semiconductors: Understanding Absorption and Transitions
Discusses the optical properties of semiconductors, focusing on absorption coefficients and the differences between direct and indirect semiconductors.
Semiconductors: Equilibrium Properties and Charge Dynamics
Covers the equilibrium properties of semiconductors, focusing on charge dynamics and the influence of temperature on electron-hole generation.
Semiconductor Junctions: Electric Fields and Currents
Covers semiconductor junctions, focusing on electric fields, current flow, and diode characteristics.
Bloch Theorem and Kronig-Penney Model: Band Theory Insights
Covers the Bloch theorem and Kronig-Penney model, essential for understanding semiconductor band theory and electronic states in periodic potentials.
