Introductory Electromagnetics
Published on 12. November 1999
Book
Hardback
556 pages
978-0-201-32678-9 (ISBN)
Description
It relates basic physical principles to engineering practice with a number of application examples. It is mathematically simple, but exact. FEATURES/BENEFITS *Contains application chapters *Includes a "Questions" feature *Derives mathematical tools from physical concepts when needed *Presents transmission lines in the middle of the text once students have understood distributed circuit elements *Offers a "Practice Problems and Labs" supplement
More details
Language
English
Place of publication
United States
Publishing group
Pearson Education (US)
Target group
College/higher education
Dimensions
Height: 243 mm
Width: 199 mm
Thickness: 28 mm
Weight
1038 gr
ISBN-13
978-0-201-32678-9 (9780201326789)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
New editions
B. D. Popovic
Modern Introduction Electromagnetics Package
Book
03/2002
Prentice-Hall
€60.75
Article is exhausted; no reprint
Persons
Zoya Popovic received her B.Sc. from the University of Belgrade in 1985, and Ph.D. from Caltech in 1990. She has since been at the University of Colorado at Boulder. She is a coauthor of Quasi-optical and Active Arrays for Spatial Power Combining (Wiley, 1997), and holds several patents. She received the Eta Kappa Nu professor of the year award from her students. She won the IEEE MTT Microwave Prize, the NSF Presidential Faculty Fellow Award, the URSI Young Scientist Award, the International URSI Issak Koga Gold Medal, and the University of Colorado Margaret Willard Award. She took her first EM course from her father, Branko D. Popovic, who received his degrees at the University of Belgrade, Serbia, Yugoslavia, where he has been a professor for the past four decades. He was a visiting professor at Virginia Tech (VPI), McGill University, and the University of Colorado, and delivered shortcourses around the world, including Chengdu University in China and the Telebras Institute in Brasil. He is the author of 3 monographs and 6 textbooks in English and Serbian, and was the recipient of the IEE James Clerk Maxwell Award, the IERE Heinrich Hertz Premium, and the Serbian Nikola Tesla Award, as well as numerous teaching excellence awards from his students. He is a Member of the Serbian Academy of Sciences and Arts and a Fellow of the IEE. Together, the two authors of Introductory Electromagnetics have had over 50 years experience in teaching electromagnetic fields.
Content
1. Electromagnetics Around Us: Some Basic Concepts.
2. Circuit Theory and Electromagnetics.
I. TIME-INVARIANT ELECTRIC FIELD.
3. Coulomb's Law in Vector Form and Electric Field Strength.
4. The Electric Scalar Potential.
5. Gauss' Law.
6. Conductors in the Electrostatic Field.
7. Dielectrics in the Electrostatic Field.
8. Capacitance and Related Concepts.
9. Energy, Forces, and Pressure in the Electrostatic Field.
10. Time-Invariant Electric Current in Solid and Liquid Conductors.
11. Some Applications of Electrostatics.
II. TIME-INVARIANT MAGNETIC FIELDS.
12. Magnetic Field in a Vacuum.
13. Magnetic Field in Materials.
III. SLOWLY TIME-VARYING ELECTROMAGNETIC FIELDS.
14. Electromagnetic Induction and Faraday's Law.
15. Inductance.
16. Energy and Forces in the Magnetic Field.
17. Some Examples and Applications of Time-Invariant and Slowly Time-Varying Magnetic Fields.
IV. TRANSMISSION LINES.
18. Transmission lines.
V. MAXWELL'S EQUATIONS AND THEIR APPLICATIONS.
19. Maxwell's Equations.
20. The Skin Effect.
21. Uniform Plane Waves.
22. Reflection and Refraction of Plane Waves.
23. Waveguides and Resonators.
24. Fundamentals of Electromagnetic Wave Radiation and Antennas.
25. Some Practical Aspects of Electromagnetic Waves.
Appendix 1: A Brief Survey of Vectors and Vector Calculus.
Appendix 2: Summary of Vector Identities.
Appendix 3: Values of Some Important Physical Constants.
Appendix 4: Electrical Properties of Some Materials at Room Temperature and Low Frequencies.
Appendix 5: Magnetic Properties of Some Materials.
Appendix 6: Standard (IEC) Multipliers of Fundamental Units.
Appendix 7: The Greek Alphabet.
Appendix 8: Theory of Lossless Metallic Waveguides.
Bibliography.
Index.
2. Circuit Theory and Electromagnetics.
I. TIME-INVARIANT ELECTRIC FIELD.
3. Coulomb's Law in Vector Form and Electric Field Strength.
4. The Electric Scalar Potential.
5. Gauss' Law.
6. Conductors in the Electrostatic Field.
7. Dielectrics in the Electrostatic Field.
8. Capacitance and Related Concepts.
9. Energy, Forces, and Pressure in the Electrostatic Field.
10. Time-Invariant Electric Current in Solid and Liquid Conductors.
11. Some Applications of Electrostatics.
II. TIME-INVARIANT MAGNETIC FIELDS.
12. Magnetic Field in a Vacuum.
13. Magnetic Field in Materials.
III. SLOWLY TIME-VARYING ELECTROMAGNETIC FIELDS.
14. Electromagnetic Induction and Faraday's Law.
15. Inductance.
16. Energy and Forces in the Magnetic Field.
17. Some Examples and Applications of Time-Invariant and Slowly Time-Varying Magnetic Fields.
IV. TRANSMISSION LINES.
18. Transmission lines.
V. MAXWELL'S EQUATIONS AND THEIR APPLICATIONS.
19. Maxwell's Equations.
20. The Skin Effect.
21. Uniform Plane Waves.
22. Reflection and Refraction of Plane Waves.
23. Waveguides and Resonators.
24. Fundamentals of Electromagnetic Wave Radiation and Antennas.
25. Some Practical Aspects of Electromagnetic Waves.
Appendix 1: A Brief Survey of Vectors and Vector Calculus.
Appendix 2: Summary of Vector Identities.
Appendix 3: Values of Some Important Physical Constants.
Appendix 4: Electrical Properties of Some Materials at Room Temperature and Low Frequencies.
Appendix 5: Magnetic Properties of Some Materials.
Appendix 6: Standard (IEC) Multipliers of Fundamental Units.
Appendix 7: The Greek Alphabet.
Appendix 8: Theory of Lossless Metallic Waveguides.
Bibliography.
Index.