Engineering Electromagnetics and Antenna Systems
This graduate-level course provides a comprehensive study of advanced electromagnetic theory and its applications in modern electronics engineering technology. Students will delve into Maxwell's equations within various media, exploring their implications for wave propagation and interaction with materials. The curriculum emphasizes practical applications, covering the fundamental principles of transmission lines and waveguides, crucial for high-frequency circuit design and signal integrity. A significant portion of the course is dedicated to radiation phenomena and antenna systems, including detailed analysis of various antenna types, array theory, and synthesis techniques. Furthermore, the course introduces concepts of electromagnetic compatibility (EMC) and interference (EMI) analysis, equipping students with the tools to design robust and compliant electronic systems. Through theoretical understanding and practical problem-solving, students will gain proficiency in analyzing and designing complex RF and microwave systems.
Course outline
Lectures, virtual labs, and graded assignments — completed in your browser.
Syllabus
Week 1: Review of Vector Calculus and Maxwell's Equations in Free Space Week 2: Constitutive Relations and Maxwell's Equations in Materials Week 3: Plane Wave Propagation in Lossy and Lossless Media Week 4: Reflection and Refraction of Plane Waves, Snell's Law Week 5: Transmission Line Theory: Basic Equations and Parameters Week 6: Transmission Line Impedance Matching and Smith Chart Week 7: Waveguides: Parallel Plate and Rectangular Waveguides Week 8: Resonators and Cavities: Design and Characteristics Week 9: Radiation Fundamentals and Basic Antenna Parameters Week 10: Dipole, Monopole, and Loop Antennas Week 11: Antenna Arrays: Design, Patterns, and Beamforming Week 12: Aperture Antennas and Reflectors Week 13: Introduction to Electromagnetic Compatibility (EMC) and EMI Week 14: EMC Design Principles and Measurement Techniques