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St. Cloud State University

St. Cloud State University

Course Syllabus
EE 391 Engineering Electromagnetics

Instructor:  Dr. J. Michael Heneghan
Office, Telephone: ECC 215, 320-255-4845
Email:  heneghan@stcloudstate.edu
Class hours and location: 12:00-12:50 PM, M Tu W Th, ECC 126
Lab hours and location: 11:00-11:50 AM, M, ECC 202
Office hours: 1:00 PM, M Tu W Th.  Other times in the afternoon OK.

Prereq.: EE 302, PHYS 346
Textbook :   “Applied Electromagnetism”, L.C. Shen and J.A. Kong

Course Description:
Static and time varying electric and magnetic fields, Maxwell’s equations in differential and  integral form, uniform plane waves, transmission lines, wave guides, and antennas.

Course Objectives:
To understand the basic concepts of electromagnetics and their application to other branches of electrical engineering.  Develop electromagnetic problem solving skills and show applications in areas outside electrical engineering such as bioengineering, remote sensing, geology, astronomy, …

Outcomes:
Students will learn how to solve basic ElectroMagnetic (EM) problems and how EM techniques can be used to solve problems in other fields.  They will learn how EM relates to modern electrical engineering devices and systems.  They will learn how to manipulate EM lab equipment.

Course contents and schedule:
    Transmission Lines:      (3 weeks)
        Transients, reflection diagrams
        Time harmonic waves, Smith charts
    Complex Vectors:        (0.5 weeks)
    Maxwell’s Equations:       (1.5 weeks)
        Physical interpretation, constitutive relations
        Time harmonic fields, Poynting’s theorem
    Uniform Plane Waves:      (1.5 weeks)
        Propagation in free space
        Propagation in dissipative media and polarization
    Reflection and transmission of plane waves:   (1.5 weeks)
        Boundary conditions
        Reflection and transmission across dielectric boundaries
        at arbitrary angles
    Waveguides and resonators:     (2 weeks)
        TE, TM and TEM mode guided waves
        Dielectric waveguides
    Electrostatic Fields:      (2.5 weeks)
        Electrostatic fields, electrostatic potential
        Gauss’ Law, line integrals, Poisson’s equation,
        Method of images, separation of variables
    Antennas:        (2.5 weeks)
        Magnetic vector potential, infinitesimal antennas
        Linear antennas, array antennas

Theoretical Content: 60%
Laboratory Content: 20%
Design Content: 10%
Oral and written communications: 5%
Social and ethical issues: 5%

Grading Policy:
Weekly Quizzes: 100 points total
2 Midterms: 100 points each
Final Exam: 150 points each
Labs: 20 %
Homework: 5 %

Notes:

  • Grade based on sliding curve based on above points.
  • No makeup quizzes or late homework.
  • Letter grade reduced for missing homework.
  • Midterms and final can only be rescheduled if an excused absence is obtained from the instructor in advance.
  • Cheating - See student handbook.