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MATLAB-Based Electromagnetics [Kõva köide]

  • Formaat: Hardback, 416 pages, kõrgus x laius x paksus: 100x100x100 mm, kaal: 100 g
  • Ilmumisaeg: 18-Oct-2013
  • Kirjastus: Pearson
  • ISBN-10: 0132857944
  • ISBN-13: 9780132857949
  • Formaat: Hardback, 416 pages, kõrgus x laius x paksus: 100x100x100 mm, kaal: 100 g
  • Ilmumisaeg: 18-Oct-2013
  • Kirjastus: Pearson
  • ISBN-10: 0132857944
  • ISBN-13: 9780132857949

This title can be used to either complement another electromagnetics text, or as an independent resource. Designed primarily for undergraduate electromagnetics, it can also be used in follow-up courses on antennas, propagation, microwaves, advanced electromagnetic theory, computational electromagnetics, electrical machines, signal integrity, etc. This title also provides practical content to current and aspiring industry professionals.

MATLAB-Based Electromagentics provides engineering and physics students and other users with an operational knowledge and firm grasp of electromagnetic fundamentals aimed toward practical engineering applications, by teaching them “hands on” electromagnetics through a unique and comprehensive collection of MATLAB computer exercises and projects. Essentially, the book unifies two themes: it presents and explains electromagnetics using MATLAB on one side, and develops and discusses MATLAB for electromagnetics on the other.

MATLAB codes described (and listed) in TUTORIALS or proposed in other exercises provide prolonged benefits of learning. By running codes; generating results, figures, and diagrams; playing movies and animations; and solving a large variety of problems in MATLAB, in class, with peers in study groups, or individually, readers gain a deep understanding of electromagnetics.

1 Electrostatic Field in Free Space
1(40)
1.1 Coulomb's Law
1(8)
1.2 Electric Field Intensity Vector Due to Given Charge Distributions
9(11)
1.3 Electric Scalar Potential
20(6)
1.4 Differential Relationship Between the Field and Potential in Electrostatics, Gradient
26(2)
1.5 Electric Dipole
28(2)
1.6 Gauss' Law in Integral Form
30(1)
1.7 Differential Form of Gauss' Law, Divergence
31(2)
1.8 Method of Moments for Numerical Analysis of Charged Metallic Bodies
33(8)
2 Electrostatic Field in Dielectrics
41(32)
2.1 Characterization of Dielectric Materials
41(5)
2.2 Dielectric-Dielectric Boundary Conditions
46(4)
2.3 Poisson's and Laplace's Equations
50(1)
2.4 Finite-Difference Method for Numerical Solution of Laplace's Equation
51(8)
2.5 Evaluation of Capacitances of Capacitors and Transmission Lines
59(10)
2.6 Capacitors with Inhomogeneous Dielectrics
69(1)
2.7 Dielectric Breakdown in Electrostatic Systems
70(3)
3 Steady Electric Currents
73(13)
3.1 Continuity Equation, Conductivity, and Ohm's Law in Local Form
73(6)
3.2 Boundary Conditions for Steady Currents
79(2)
3.3 Relaxation Time
81(1)
3.4 Resistance and Ohm's Law
82(4)
4 Magnetostatic Field in Free Space
86(20)
4.1 Magnetic Force and Magnetic Flux Density Vector
86(6)
4.2 Magnetic Field Computation Using Biot-Savart Law
92(6)
4.3 Ampere's Law in Integral Form
98(4)
4.4 Differential Form of Ampere's Law, Curl
102(1)
4.5 Magnetic Vector Potential
103(1)
4.6 Magnetic Dipole
104(2)
5 Magnetostatic Field in Material Media
106(12)
5.1 Permeability of Magnetic Materials
106(2)
5.2 Boundary Conditions for the Magnetic Field
108(1)
5.3 Magnetic Circuits
109(9)
6 Time-Varying Electromagnetic Field
118(28)
6.1 Faraday's Law of Electromagnetic Induction
118(7)
6.2 Self-Inductance
125(2)
6.3 Mutual Inductance
127(1)
6.4 Displacement Current
128(2)
6.5 Maxwell's Equations for the Time-Varying Electromagnetic Field
130(2)
6.6 Boundary Conditions for the Time-Varying Electromagnetic Field
132(4)
6.7 Time-Harmonic Electromagnetics
136(1)
6.8 Complex Representatives of Time-Harmonic Field and Circuit Quantities
137(7)
6.9 Instantaneous and Complex Poynting Vector
144(2)
7 Uniform Plane Electromagnetic Waves
146(27)
7.1 Time-Harmonic Uniform Plane Waves and Complex-Domain Analysis
146(5)
7.2 Arbitrarily Directed Uniform Plane Waves
151(2)
7.3 Theory of Time-Harmonic Waves in Lossy Media
153(5)
7.4 Wave Propagation in Good Dielectrics
158(1)
7.5 Wave Propagation in Good Conductors
158(1)
7.6 Skin Effect
159(2)
7.7 Wave Propagation in Plasmas
161(2)
7.8 Polarization of Electromagnetic Waves
163(10)
8 Reflection and Transmission of Plane Waves
173(31)
8.1 Normal Incidence on a Perfectly Conducting Plane
173(7)
8.2 Normal Incidence on a Penetrable Planar Interface
180(9)
8.3 Oblique Incidence on a Perfect Conductor
189(3)
8.4 Oblique Incidence on a Dielectric Boundary
192(10)
8.5 Wave Propagation in Multilayer Media
202(2)
9 Field Analysis of Transmission Lines
204(18)
9.1 Field Analysis of Lossless Transmission Lines
204(3)
9.2 Transmission Lines with Small Losses
207(5)
9.3 Evaluation of Primary and Secondary Circuit Parameters of Transmission Lines
212(1)
9.4 Transmission Lines with Inhomogeneous Dielectrics
213(1)
9.5 Multilayer Printed Circuit Board
213(9)
10 Circuit Analysis of Transmission Lines
222(69)
10.1 Telegrapher's Equations and Their Solution
222(3)
10.2 Reflection Coefficient for Transmission Lines
225(7)
10.3 Transmission-Line Impedance
232(1)
10.4 Complete Solution for Line Voltage and Current
233(2)
10.5 Short-Circuited, Open-Circuited, and Matched Transmission Lines
235(2)
10.6 Impedance-Matching Using Short- and Open-Circuited Stubs
237(4)
10.7 The Smith Chart - Construction and Basic Properties
241(6)
10.8 Circuit Analysis of Transmission Lines Using the Smith Chart
247(16)
10.9 Transient Analysis of Transmission Lines
263(4)
10.10 Step Response of Transmission Lines with Purely Resistive Terminations
267(5)
10.11 Analysis of Transmission Lines with Pulse Excitations
272(7)
10.12 Bounce Diagrams
279(7)
10.13 Transient Response for Reactive Terminations
286(5)
11 Waveguides and Cavity Resonators
291(30)
11.1 Analysis of Rectangular Waveguides Based on Multiple Reflections of Plane Waves
291(8)
11.2 Arbitrary TE and TM Modes in a Rectangular Waveguide
299(7)
11.3 Wave Impedances of TE and TM Waves
306(1)
11.4 Power Flow Along a Waveguide
307(3)
11.5 Waveguides With Small Losses
310(2)
11.6 Waveguide Dispersion and Group Velocity
312(2)
11.7 Rectangular Cavity Resonators
314(2)
11.8 Electromagnetic Energy Stored in a Cavity Resonator
316(3)
11.9 Quality Factor of Rectangular Cavities with Small Losses
319(2)
12 Antennas and Wireless Communication Systems
321
12.1 Electromagnetic Field due to a Hertzian Dipole
321(2)
12.2 Far Field
323(3)
12.3 Steps in Far Field Evaluation of an Arbitrary Antenna
326(2)
12.4 Radiation and Ohmic Resistances of an Antenna
328(3)
12.5 Antenna Radiation Patterns, Directivity, and Gain
331(6)
12.6 Wire Dipole Antennas of Arbitrary Lengths
337(7)
12.7 Theory of Receiving Antennas. Wireless Links with Nonaligned Wire Antennas
344(6)
12.8 Friis Transmission Formula for a Wireless Link
350(2)
12.9 Antenna Arrays
352
Appendix 1 Quantities, Symbols, Units, and Constants
1(3)
Appendix 2 Mathematical Facts and Identities
4(4)
A2.1 Trigonometric Identities
4(1)
A2.2 Exponential, Logarithmic, and Hyperbolic Identities
4(1)
A2.3 Solution of Quadratic Equation
5(1)
A2.4 Approximations for Small Quantities
5(1)
A2.5 Derivatives
5(1)
A2.6 Integrals
5(1)
A2.7 Vector Algebraic Identities
5(1)
A2.8 Vector Calculus Identities
6(1)
A2.9 Gradient, Divergence, Curl, and Laplacian in Orthogonal Coordinate Systems
6(1)
A2.10 Vector Algebra and Calculus Index
7(1)
Appendix 3 List of MATLAB Exercises
8(14)
Bibliography 22(3)
Index 25
Branislav M. Notaro received the Dipl.Ing. (B.Sc.), M.Sc., and Ph.D. degrees in electrical engineering from the University of Belgrade, Belgrade, Yugoslavia, in 1988, 1992, and 1995, respectively. From 1996 to 1998, he was an Assistant Professor in the Department of Electrical Engineering at the University of Belgrade, and before that, from 1989 to 1996, a Teaching and Research Assistant (faculty position) in the same department.  He spent the 1998-1999 academic year as a Research Associate at the University of Colorado at Boulder. He was an Assistant Professor, from 1999 to 2004, and Associate Professor (with Tenure), from 2004 to 2006, in the Department of Electrical and Computer Engineering at the University of Massachusetts Dartmouth. He is currently an Associate Professor (with Tenure) of electrical and computer engineering at Colorado State University.

 

Research activities of Prof. Notaro are in applied computational electromagnetics, antennas, and microwaves. His research publications so far include 22 journal papers, 58 conference papers and abstracts, and a chapter in a monograph. His main contributions are in higher order computational electromagnetic techniques based on the method of moments, finite element method, physical optics, domain decomposition method, and hybrid methods as applied to modeling and design of antennas and microwave circuits and devices for wireless technology. He has produced several Ph.D. and M.S. graduates. Prof. Notaro teaching activities are in theoretical, computational, and applied electromagnetics. He is the author of the Electromagnetics Concept Inventory (EMCI), an assessment tool for electromagnetic fields and waves. He has published 3 workbooks in electromagnetics and in fundamentals of electrical engineering (basic circuits and fields). He has taught a variety of undergraduate and graduate courses in electromagnetic theory, antennas and propagation, computational electromagnetics, fundamentals of electrical engineering, electromagnetic compatibility, and signal integrity. He has been consistently extremely highly rated by his students in all courses, and most notably in undergraduate electromagnetics courses (even though undergraduates generally find these mandatory courses quite difficult and challenging).

 

Dr. Notaro was the recipient of the 2005 IEEE MTT-S Microwave Prize, Microwave Theory and Techniques Society of the Institute of Electrical and Electronics Engineers (best-paper award for IEEE Transactions on MTT), 1999 IEE Marconi Premium, Institution of Electrical Engineers, London, UK (best-paper award for IEE Proceedings on Microwaves, Antennas and Propagation), 1999 URSI Young Scientist Award, International Union of Radio Science, Toronto, Canada, 2005 UMD Scholar of the Year Award, University of Massachusetts Dartmouth, 2004 Deans Recognition Award, College of Engineering, University of Massachusetts Dartmouth, 2009 and 2010 ECE Excellence in Teaching Awards (by nominations and votes of ECE students), Colorado State University, and 2010 George T. Abell Outstanding Teaching and Service Faculty Award, College of Engineering, Colorado State University.