MONDAY

WEDNESDAY

FRIDAY

Jan. 19 MLK Holiday

 

Jan. 21

Lecture 1: Introduction and Overview; Device Modeling (ppt)

 (Dr. Goodnick)

Jan. 23

Lecture 2: Semiconductor Band Theory, Bloch Electrons, Brillouin Zone (ppt)

(Dr. Goodnick)

Jan. 26

Lecture 3: Semiconductor Band Theory (cont.) (ppt)

(Dr. Goodnick)

Jan 28

Lecture 4: Particle Dynamics, Acceleration Theorem, Effective Masses (ppt)

(Dr. Vasileska)

Jan 30

Lecture 5: Boltzmann Eqtn., Scattering Integral, Scattering Theory (ppt)

(Dr. Goodnick)

Feb. 2

Lecture 6: Boltzmann Eqtn., Scattering Integral, Scattering Theory (ppt)

(Dr. Goodnick)

Feb. 4

Lecture 7: Scattering Mechanisms: Elastic (ppt)

(Dr. Goodnick)

Feb. 6

Lecture 8: Scattering Mechanisms: Inelastic (ppt)

(Dr. Goodnick)

Feb. 9

Lecture 9: Scattering Mechanisms: polar optical phonon scattering (ppt)

(Dr. Vasileska)

Feb. 11

Lecture 10: Monte Carlo Method for Solution of the BTE (ppt)

(Dr. Goodnick)

Feb. 13

Lecture 11: Monte Carlo Simulation (contd.) (ppt)

(Dr. Goodnick)

 

Feb. 16

Lecture 12: Monte Carlo Simulation (contd.) (ppt)

(Dr. Goodnick)

 

Feb. 18

Lecture 13: Device Simulation, Field Eqtns., Device Domain, Boundary Conditions. (ppt)

(Dr. Goodnick)

Feb. 20

Lecture 14: Discretization of Field Equations: Finite Differences (ppt)

(Dr. Goodnick)

Feb. 23

Lecture 15: Iterative Methods of Solution, Gauss-Seidel, Ordering Methods (ppt)

(Dr. Goodnick)

Feb. 25

Lecture 16: Successive Over-Relaxation, Convergence (ppt)

(Dr. Goodnick)

Feb. 27

Lecture 17: Monte Carlo Device Simulation: Charge Assignment, Steady-State Results (ppt)

(Dr. Goodnick)

Mar. 2

Lecture 18: Monte Carlo Device Simulation: AC and Transient Modeling (ppt)

(Dr. Goodnick)

Mar. 4

Lecture 19: Advanced Iterative Methods: Multi-grid Method (ppt)

(Dr. Saraniti)

Mar. 6

Lecture 20: Multi-grid Method (ppt)

(Dr. Saraniti)

 

Mar. 9

Lecture 21: Multi-grid Method (ppt)

(Dr. Saraniti)

Mar. 11

Lecture 22: Conjugate Gradient Method: Introduction (ppt)

(Dr. Vasileska)

 

Mar. 13

Lecture 23: Conjugate Gradient Method: Description of the Method (ppt)

(Dr. Vasileska)

Mar. 23

Lecture 24:

Conjugate Gradient Method: Preconditioning Techniques (ppt)

(Dr. Vasileska)

Mar. 25

Lecture 25:

Solution to HW Set #1

(Dr. Vasileska)

Mar. 27

Lecture 26:

Moment Methods: Drift-Diffusion, Physical Parameters, Scaling of Variables (ppt)

(Dr. Vasileska)

Mar. 30

Lecture 27: Sharfetter-Gummel Discretization Scheme, Boundary Conditions (ppt)

(Dr. Vasileska)

Apr. 1

Lecture 28: Solution of System of Nonlinear Algebraic Equations: Gummel’s, and Newton’s Scheme (ppt)

(Dr. Vasileska)

Apr. 3

Lecture 29: Time-dependent simulations

(ppt)

(Dr. Vasileska)

Apr. 6

Lecture 30: Small-Geometry Effects in Scaled Si MOSFETs (ppt)

(Dr. Vasileska)

Apr. 8

Lecture 31:

Seminar given by Prof. Rudan (Bologna, Italy)

Apr. 10

Lecture 32: Hot electrons: Velocity Overshoot, Ballistic Transport and Random Dopant Effects (ppt)

(Dr. Vasileska)

Apr. 13

Lecture 33: Hot Electrons: Balance equations, Hydrodynamic Model (ppt)

(Dr. Vasileska)

Apr. 15

Lecture 34: Hot Electrons: Hydrodynamic Model, Explicit Schemes (ppt)

(Dr. Vasileska)

Apr. 17

Lecture 35: Hot Electrons: Implicit Schemes, Energy Transport Model (ppt)

(Dr. Vasileska)

Apr. 20

Lecture 36: Advanced Discretization Schemes: Finite Element Method (ppt)

(Dr. Vasileska)

Apr. 22

Lecture 37: Finite Element Semiconductor Equations (ppt)

(Dr. Vasileska)

Apr. 24

Lecture 38: Heterojunction Devices: Semiconductor Equations for Heterojunctions (ppt)

(Dr. Vasileska)

Apr. 27

Lecture 39: Schrödinger Equation, Discretization, Numerov Algorithm, Shooting Method (ppt)

(Dr. Vasileska)

Apr. 29

Lecture 40: 1D-3D Eigenvalue Solvers (ppt)

(Dr. Vasileska)

May 1

Lecture 41: Introduction to Quantum Transport Theory: Basic Concepts (ppt)

(Dr. Vasileska)

May 4

Lecture 42: Quantum Transport Theory (ppt)

(Dr. Vasileska)

 

May 6 Last Day of Class:

Lecture 43: General discussion about Current research trends

(Dr. Vasileska)

May 8