EL6713 Electromagnetic Theory and Applications

Course introduces Maxwell's equations, which underlie electromagnetic wave propagation. The properties of freely propagating plane waves are derived, as well as waves guided by structures, including various two-wire transmission lines, hollow waveguides, and dielectric waveguides. A unified treatment of wave propagation is given in terms of the transmission line representation with examples drawn from microwaves, integrated circuits and optics.

Prerequisites: graduate status and EE 3604.

Weekly Outline:

1st week: Vector Analysis, Divergence Theorem & Stokes' Theorem

2nd week: Coulumb's Law, Electric Field Intensity, Potential &Energy

3rd week: Gauss's Law & Electric Flux Density

4th week: Dielectric Materials, Capacitor & Conductor

5th week: Biot-Savart Law, Magnetic Field Intensity, Vector Potential

6th week: Divergence and Curl of Steady Magnetic Fields

7th week: Magnetic Materials & Inductor

8th week: Midterm Exam

9th week: Time Varying Fields and Maxwell's Equation

10th week: Uniform Plane Wave

11th week: Reflection & Refraction

12th week: Transmission Line

13th week: Waveguides and Cavity

14th week: Antenna and Radiation

15th week: Final Exam

1. Electromagnetics for Engineers: With Applications to Digital Systems and Electromagnetic Interference, Clayton R. Paul, John Wiley & Sons, Inc.
2. David M. Pozar, "Microwave Engineering," 3rd edition, John Wiley & Sons, Inc

1. David K. Cheng, "Fundamentals of Engineering Electromagnetics," Addison Wesley
2. William H. Hayt, Jr., "Engineering Electromagnetics," 5th edition, McGraw Hill.