Title:  Electromagenetics 1: Microwave Engineering

Professor: Allan Ecker, allan@ee.washington.edu

Description: Covers microwave transmission line models and their applications; electromagnetic waves in layered media; mode structures in metallic and dielectric waveguides; resonators and cavities; and Green's functions.

Lectures:
1 - Transmission lines, S-parameters, and microstrip wave guides
2 - Electric Materials 1: Physics and Mathematical Modeling
3 - Electric Materials 2: Mathematical Modeling and Circuit Analysis
4 - Time Domain analysis of Transmission Lines with Step Functions (digital transmissions case)
5 - Time Domain analysis with lossy materials
6 - Coupled Transmission Lines (crosstalk)
7 - Discontinuities in Transmission Lines (flawed/bent circuit traces and interconnect)
8 - Higher-Order Transmission Modes
9 - Single-Conductor wave guides: cylindrical and rectangular wave guides (TBD: may additionally cover nonlinear responses such as amplifier cases)
10 - Wireless Transmission: antennae, multipath, and contemporary transmission problems

I am preparing a set of MatLab examples (which will be compatible with GNU Octave, an open source alternative which is attractive for home use especially).  These are tentatively:
1 - Frequency Domain Models for distributed systems (and cascading these models via ABCD parameters)
2 - Phase Unwrap problem for Transmission Lines
3 - Virtual instrumentation and working with data sets from real instrumentation
4 - Software Time Domain Reflection (TDR) + Eye Diagrams
5 - Modeling loss and dispersion
6 - Navagating non-ideal data sets
7 - Complex interconnect
8 - Modes as ports
9 - Case Study: a 100 Watt NWA from other instruments lying around the lab