Course: Semiconductor Device Modeling and Simulation
Code: 3ФЕИТ12004
ECTS points: 6 ECTS
Number of classes per week: 3+0+0+3
Lecturer: Prof. Dr. Dragica Vasileva
Course Goals (acquired competencies): The course offers a thorough knowledge on the field of semiconductor device modeling on a physical level. Ability to understand multiple scale transport in semiconductors and skill to design their own 2D (two-dimensional) drift-diffusion or particle based device simulator. Ability to design novel simulation methods needed for modeling state-of-the-art nanoscale devices.
Course Syllabus: Introduction to computational electronics – transistor history and why computational electronics. Physics of semiconductor devices: energy band structure of semiconductors, mobility carriers dynamics, semi-classical transport theory, Boltzmann Transport Equation, scattering events and RTA approximation. An overview of numerical methods for solving continuity and Poisson equations. Drift-diffusion (DD) equations: physical limitations, methods for solving DD-equations. Modeling of carrier mobility. Models of carrier mobility used in commercial device simulators. Hydrodynamic model. Commercial simulators: PADRE, Silvaco and DESSIS. Modeling the tunneling current through gate: type of tunneling mechanisms through gate. Quantum effects.
Literature:
Required Literature |
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No. |
Author |
Title |
Publisher |
Year |
1 |
Dragica Vasileska and Stephen M. Goodnick | Computational Electronics | Morgan and Claypool | 2006 |
Additional Literature |
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No. |
Author |
Title |
Publisher |
Year |
1 |
Kazutaka Tomizawa | Numerical Simulation of Submicron Semiconductor Devices | Artech House | 1993 |