Engineering Electromagnetics

Students will develop a strong theoretical and practical understanding of Maxwell's equations, electrostatic and magnetostatic fields, and wave propagation phenomena. The course covers topics from fundamental field concepts to transmission lines and wave guides, preparing students for advanced studies and careers in communications, RF engineering, and related fields. Through problem-solving and application-based learning, students will analyze and design components and systems influenced by electromagnetic principles.

Course outline

Lectures, virtual labs, and graded assignments — completed in your browser.

01Vector Calculus and Coordinate Systemslecture

02Electrostatic Fields in Vacuumlecture

03Electric Potential and Energylecture

04Electrostatic Fields in Material Medialecture

05Magnetostatic Fields in Vacuumlecture

06Magnetostatic Fields in Material Medialecture

07Maxwell's Equations for Time-Varying Fieldslecture

08Midterm examassignment

09Plane Waves in Lossless Medialecture

10Plane Waves in Lossy Medialecture

11Poynting Vector and Electromagnetic Powerlecture

12Transmission Line Theory and Applicationslecture

13Waveguides and Resonatorslecture

14Final projectassignment

Syllabus

*   **Course Objectives:**
    *   Understand and apply Maxwell's equations in differential and integral forms.
    *   Analyze electrostatic and magnetostatic fields in various media.
    *   Solve problems involving boundary conditions for electric and magnetic fields.
    *   Comprehend the principles of time-varying fields, Poynting vector, and power flow.
    *   Analyze plane wave propagation in different media.
    *   Apply knowledge of transmission lines and waveguides.
    *   Utilize mathematical tools (vector calculus) pertinent to electromagnetics.
*   **Grading:**
    *   Homework/Quizzes: 30%
    *   Midterm Exam: 30%
    *   Final Project: 40%