Engineering 6813 — Electromagnetic Fields      Fall, 2002

 

Instructor: Eric Gill     Office Number: EN3046        Phone: 737-8922        Email: egill@engr.mun.ca

 

COURSE RATIONALE

 

This is the second of two elementary courses, the first being Engineering 5812, designed to prepare students for further applications in engineering electromagnetics.  Briefly reviewing the concepts associated with steady electric and magnetic fields, the material proceeds logically to the problem of time-varying electromagnetic fields.  The ideas encountered will be essential to the understanding of applications in, for example, antenna theory and design and will provide the physical foundation for the discussion and derivation of the governing equations for various communication channels (eg. transmission lines, optic fibres, waveguides, etc.). 

 

TEXT:  Engineering Electromagnetics, 6th Ed., by W.H. Hayt, Jr. and J.A. Buck,

             McGraw Hill

 

Course Prerequisite:  Engineering 5812—Basic Electromagnetics

 

Course Format:  Lecture: 3hrs/wk     ;     Tutorial: 1hr/wk

 

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COURSE OUTLINE

 

Unit 1 Relevant Electrostatics and Magnetostatics (Old and New)

 

1-1  Basic Theorems, Laws, and Concepts for Electrostatics (Chapters 1—5, 7)

1-2  Basic Theorems, Laws, and Concepts  for Magnetostatics  (Chapters 8 & 9)

- Biot-Savart Law (Section 8.1)

- Ampère’s Law (Sections 8.2, 8.3, 8.4)

- Magnetic “Constitutive” Relationship (Section 8.5)

- Scalar and Vector Potentials (Sections 8.6, 8.7)

- Lorentz Force Equation and Related Concepts (Sections 9.1,9.2,9.3)

- Force and Torque (Section 9.4)

- Magnetic Materials and Boundary Conditions (Sections 9.5, 9.6, 9.7)

1-3  Summary of the Integral and Point Forms of the Non-Time-Varying Equations

 

Unit 2 Time-Varying Fields and Maxwell’s Equations

 

2-1  Faraday’s Law (Section 10.1)

2-2  Ampère’s Law Revisited – Maxwell’s Fix! (Section 10.2)

2-3  Maxwell’s Equations Summarized

2.3.1 Point Form (Section 10.3)

2.3.2 Integral Form (Section 10.4)

 

Unit 3 The Uniform Plane Wave and Related Topics

 

3-1  The Helmoltz Equation and its Solution (Section 11.1)

3-2  Plane Waves in Dielectrics

        3.2.1 Lossless Dielectrics

        3.2.2 Lossy Dielectrics

3-3  Power Flow—the Poynting Vector (Section 11.3)

3-4  Propagation in Good Conductors—Skin Depth (Section 11.4)

3-5  Polarization, Reflection and Transmission of Plane Waves (Sections 11.5-12.5)

 

Unit 4 Applications

 

4-1  Transmission Lines

        4.1.1 The Telegrapher’s equations (Section 13.1)

        4.1.2 Transmission Line Parameters and Examples (Sections 13.2, 13.3)

        4.1.3 The Smith Chart (Sections13.4, 13.5)

4-2  Other Applications

 

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Evaluation Scheme

 

Evaluation Instrument

 

Value

 

      Approximate   Date

Assignments

 10%

             Biweekly

Term Tests (2)

 40%

         Oct. 12; Nov. 16

Final Exam

 50%

             December

 

 

 

 

 

 

 

 

PLEASE NOTE: The tutorials are an essential part of this course as they will be used primarily for problem solving.