ECE688

Electromagnetics Boundary Value Problems
Spring
Catalog Data: 

ECE Graduate Course Information

 

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ECE 688 - Electromagnetic Boundary Value Problems

Credits:

3.00

Prerequisite(s):

Graduate Standing

UA Catalog Description:

http://catalog.arizona.edu/allcats.html

Course Assessment:

Homework:  None

Projects:  5 topical projects              

                Final project

Exams:  None

Grading Policy:

Typically: 15% Topical projects

                  25% Final Project.

Course Summary:

The basic, canonical boundary value scattering problems such as the plane wave and elemental electric dipole excitations of semi-infinite slabs, infinite cylinders, infinite wedges, and spheres are extended to the next level of difficulty. These include multilayered slabs with defects, irises in waveguides, infinite slotted cylinders, holey spheres, and offset objects interior to one of the canonical cylinder or spherical shapes. Both frequency and time domain solutions are considered.

 

Graduate-level requirements include having taken the Advanced Electromagnetic Theory courses ECE 581a and 581b. Both analysis and MatLab modeling tools will be required to simulate the solutions of these more difficult problems. The results obtained from these tools will be compared to the fully numerical solutions generated by the ANSYS/ANSOFT HFSS finite element modeling tool.

 

Projects: Each project will be associated with the special topic problems considered in the lectures. They will emphasize analysis and understanding the physics associated with these classes of scattering and radiating problems. The Final Project, an advanced boundary value problem, will be defined by the student in consultation with the instructor.

Textbook(s): 

Journal papers

Course Topics: 

1.     Special functions for rectangular, cylindrical and spherical coordinates

2.     Plane wave representations in each coordinate system

3.     Electric dipole representations in each coordinate system

4.     Spectral representations of Green’s functions

5.     Riemann-Hilbert solutions

6.     Asymptotic solutions

7.     When does an analytical solution become numerical

8.     Edge conditions

9.     Radiation conditions

10.  Dual series problems

11.  Addition theorems for special functions

12.  Multi-body scattering

Class/Laboratory Schedule: 

Lecture:  150 minutes/week

Laboratory:  None

Prepared by: 
Richard W. Ziolkowski
Prepared Date: 
April 2013

University of Arizona College of Engineering