EE 333
Electricity & Magnetism
Textbook
Electromagnetic Fields and Waves "Second Edition", Magdy F. Iskander, Waveland
Press
Course syllabus

Review of vector analysis

Scalar and Vector fields

Sums and Products of vectors

Vector integration

Coordinate systems

Definition of electric field intensity and magnetic flux density fields in
terms of their forces

Postulation of Maxwell's equations in integral form with validation provided
using Gauss's Law, Ampere's Circuital Law, and Faraday's Law

Solution of problems involving "simple" static distributions of charge
and current using the integral form of Maxwell's equations

Vector differential relations

Definition of gradient, divergence, and curl operations

Definition of the Laplacian operator

Green's integral theorem: uniqueness

Graphical proof of Divergence and Stokes Theorems

Conversion of integral form of Maxwell's equations to differential form

Plane wave solutions in free space

Phase velocity

Polarization

Intrinsic impedance

Maxwell's equations in material media

Effect of finite conductivity

Effect of electric polarization

Effect of magnetic polarization

Development of boundary conditions for

Definition of linear, isotropic, and homogeneous media

Plane wave solutions in material media

TEM waves guided by a two conductor transmission line

Reflection at a lumped parameter load on a transmission line

General analytical solutions of sinusoidal waves on uniform transmission
lines

Use of the Smith chart for solving transmission line problems

Transient solutions for lossless transmission lines with an arbitrary load

Definition of Electrostatic Scalar Potential

Energy of electrostatic field

Electrostatic forces and torques