This course can also be taken for academic credit as ECEA 5630, part of CU Boulder’s Master of Science in Electrical Engineering degree.
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Programa Especializado - Semiconductor DevicesUniversidad de Colorado en BoulderAcerca de este Curso
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Certificado para compartir
Obtén un certificado al finalizar
100 % en línea
Comienza de inmediato y aprende a tu propio ritmo.
Curso 1 de 3 en
Fechas límite flexibles
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Nivel avanzado
Aprox. 12 horas para completar
Inglés (English)
Subtítulos: Inglés (English)
Certificado para compartir
Obtén un certificado al finalizar
100 % en línea
Comienza de inmediato y aprende a tu propio ritmo.
Curso 1 de 3 en
Fechas límite flexibles
Restablece las fechas límite en función de tus horarios.
Nivel avanzado
Aprox. 12 horas para completar
Inglés (English)
Subtítulos: Inglés (English)
ofrecido por
Universidad de Colorado en Boulder
CU-Boulder is a dynamic community of scholars and learners on one of the most spectacular college campuses in the country. As one of 34 U.S. public institutions in the prestigious Association of American Universities (AAU), we have a proud tradition of academic excellence, with five Nobel laureates and more than 50 members of prestigious academic academies.
Comienza a trabajar para obtener tu maestría
Este curso es parte del Master of Science in Electrical Engineering completamente en línea de Universidad de Colorado en Boulder.
Si eres aceptado en el programa completo, tus cursos cuentan para tu título.
Programa - Qué aprenderás en este curso
2 horas para completar
Quantum Theory Of Semiconductors
In this module we will introduce the course and the Semiconductor Devices specialization. In addition, we will review the following topics: Type of solids, Bravais lattices, Lattice with basis, Point defects, Dislocation, Bulk crystal growth, Epitaxy, Energy levels of atoms and molecules, Energy bands of solids, Energy bands in real space, Energy bands in reciprocal lattice, Energy band structures of metal and insulator, Definition of semiconductor, Electrons and holes, and Effective mass.
2 horas para completar
8 videos (Total 76 minutos), 2 lecturas, 2 cuestionarios
8 videos
Course Introduction2m
Crystal Structures13m
Defects in Crystals7m
Crystal Growth10m
Formation of Energy Bands9m
Energy Band Structure10m
Semiconductor15m
2 lecturas
Module Topics1m
Materials and Physical Constants10m
1 ejercicio de práctica
Homework #130m
3 horas para completar
Carrier Statistics
In this module, we will cover carrier statistics. Topics include: Currents in semiconductors, Density of states, Fermi-Dirac probability function, Equilibrium carrier concentrations, Non-degenerate semiconductors, Intrinsic carrier concentration, Intrinsic Fermi level, Donor and acceptor impurities, Impurity energy levels, Carrier concentration in extrinsic semiconductor, and Fermi level of extrinsic semiconductors.
3 horas para completar
5 videos (Total 71 minutos), 2 lecturas, 2 cuestionarios
5 videos
Carrier Statistics15m
Intrinsic Semiconductors12m
Extrinsic Semiconductors 111m
Extrinsic Semiconductors 215m
2 lecturas
Module Topics1m
Materials and Physical Constants10m
1 ejercicio de práctica
Homework 21h
3 horas para completar
Currents in Semiconductor
This module introduces you to currents in semiconductors. Topics we will cover include: Thermal motion of carriers, Carrier motion under electric field, Drift current, Mobility and conductivity, Velocity saturation, Diffusion of carriers, General expression for currents in semiconductor, Carrier concentration and mobility, and the Van der Pauw technique.
3 horas para completar
4 videos (Total 50 minutos), 2 lecturas, 1 cuestionario
2 lecturas
Module Topics10m
Materials and Physical Constants10m
1 ejercicio de práctica
Homework #31h 30m
3 horas para completar
Carrier Dynamics
In this module we explore carrier dynamics. Topics include: Electronic transitions in semiconductor, Radiative transition, Direct and indirect bandgap semiconductors, Roosbroeck-Shockley relationship, Radiative transition rate at non-equilibrium, Minority carrier lifetime, Localized states, Recombination center and trap, Shockley-Hall-Reed recombination, Surface recombination, Auger recombination, Derivation of continuity equation, Non-equilibrium carrier concentration, Quasi-Fermi level, Current and quasi-Fermi level, Non-uniform doping, and Non-uniform bandgap.
3 horas para completar
7 videos (Total 90 minutos), 2 lecturas, 2 cuestionarios
7 videos
Radiative Transition Rate13m
Non-Radiative Transitions 111m
Non-Radiative Transitions 215m
Continuity Equation14m
Quasi-Fermi Level8m
Heterogeneous Materials14m
2 lecturas
Module Topics10m
Materials and Physical Constants10m
1 ejercicio de práctica
Homework #41h
Revisiones
Principales revisiones sobre SEMICONDUCTOR PHYSICS
por YD19 de abr. de 2020
The is Grate course. The lattice part at the beginning is not all that well connected to what follows. I would enter the band structure without lattice discussion.
por SB22 de may. de 2020
Very informative course and nice approach to solve problems. Well tailored course suited to under graduate engineering students
por PR4 de jun. de 2020
A very useful course for me to understand semiconductor physics. And systematically operated course.
por SM21 de may. de 2020
Great course for electronics enthusiastic learners. Specially the homeworks are really helpful
Acerca de Programa especializado: Semiconductor Devices
The courses in this specialization can also be taken for academic credit as ECEA 5630-5632, part of CU Boulder’s Master of Science in Electrical Engineering degree. Enroll here.
This Semiconductor Devices specialization is designed to be a deep dive into the fundamentals of the electronic devices that form the backbone of our current integrated circuits technology. You will gain valuable experience in semiconductor physics, pn junctions, metal-semiconductor contacts, bipolar junction transistors, metal-oxide-semiconductor (MOS) devices, and MOS field effect transistors.
Specialization Learning Outcomes:
*Learn fundamental mechanisms of electrical conduction in semiconductors
*Understand operating principles of basic electronic devices including pn junction, metal-semiconductor contact, bipolar junction transistors and field effect transistors
*Analyze and evaluate the performance of basic electronic devices
*Prepare for further analysis of electronic and photonic devices based on semiconductors
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