Ee117 Electromagnetics Ii Ee Ucr

Ee117 Electromagnetics Ii Ee Ucr EE117 Electromagnetics II UC Riverside Course EE117 Electromagnetics II builds upon the fundamental concepts of electromagnetic theory introduced in EE116 delving deeper into advanced topics and their applications in various engineering fields This course explores the behavior of electromagnetic waves their interaction with materials and the design and analysis of electromagnetic devices Course Objectives Upon successful completion of EE117 students will be able to Understand and apply Maxwells equations in various electromagnetic scenarios Analyze the propagation of electromagnetic waves in different media including transmission lines and waveguides Solve problems involving electromagnetic wave reflection and transmission at interfaces Design and analyze antennas for various applications Understand the principles of electromagnetic interference EMI and compatibility EMC Apply electromagnetic theory to solve practical engineering problems in fields like communication radar and biomedical engineering Course EE117 is structured around a series of lectures recitations and homework assignments culminating in a final examination Lectures Approximately 2 hours of lectures per week cover the theoretical concepts derivations and practical applications of electromagnetics Recitations An additional hour of recitation per week is dedicated to problemsolving application examples and clarification of concepts Homework Assignments Regular homework assignments reinforce the theoretical understanding and provide handson experience in solving problems related to various topics Midterm Exam An inclass midterm examination assesses students understanding of the first half of the course material Final Exam A comprehensive final examination covers the entire course syllabus and serves as the final evaluation tool 2 Course Content Module 1 Electromagnetic Wave Propagation Maxwells Equations in TimeVarying Fields Review of Maxwells equations wave equation derivation and solution techniques Plane Waves in Free Space Polarization wave impedance power density and energy propagation Plane Waves in Lossy Media Wave propagation in conductors skin depth and attenuation Plane Waves in Dispersive Media Dispersion relations group velocity and pulse propagation Wave Polarization Linear circular and elliptical polarization Reflection and Transmission of Plane Waves Boundary conditions Fresnel equations and reflection coefficient Module 2 Transmission Lines Transmission Line Parameters Resistance inductance capacitance and conductance Transmission Line Equations Input impedance reflection coefficient and standing wave ratio Power Transmission and Matching Maximum power transfer impedance matching and Smith chart Transmission Line Applications Microwave circuits antennas and communication systems Module 3 Waveguides Rectangular Waveguides TE and TM modes cutoff frequency and propagation constant Waveguide Properties Impedance power flow and attenuation Waveguide Applications Microwave circuits communication systems and medical imaging Module 4 Antennas Antenna Fundamentals Antenna types radiation pattern and gain Dipole Antennas Halfwave dipole quarterwave monopole and their radiation characteristics Array Antennas Beamforming array factor and interference patterns Antenna Applications Communication radar and satellite systems Module 5 Electromagnetic Interference and Compatibility Sources of Electromagnetic Interference Conducted and radiated emissions EMI Shielding and Filtering Techniques for reducing EMI EMC Standards and Regulations Overview of industry standards and regulations 3 EMIEMC Design Principles Practical considerations for designing EMIresistant systems Course Resources Textbooks Engineering Electromagnetics by William H Hayt Jr and John A Buck Elements of Electromagnetics by Sadiku Course Website Online platform for accessing lecture notes assignments and other resources Office Hours Regular office hours are available for student consultations Grading Homework Assignments 20 Midterm Exam 30 Final Exam 50 Prerequisites EE116 Electromagnetics I or equivalent Basic understanding of calculus and differential equations Career Relevance EE117 provides essential knowledge and skills relevant to various engineering fields including Telecommunications Design and analysis of communication systems antennas and waveguides Radar and Remote Sensing Design and analysis of radar systems antennas and wave propagation models Biomedical Engineering Development of medical imaging technologies and biocompatible materials Aerospace Engineering Design and analysis of aircraft and satellite systems Power Engineering Analysis of electromagnetic fields in power systems and highvoltage equipment EE117 Electromagnetics II offers a comprehensive understanding of advanced electromagnetic theory and its applications equipping students with the knowledge and skills necessary for a successful career in various engineering fields 4