Engineering Electromagnetics/Инженерная электромагнетика. - купить книгу в интернет-магазине CentrMag по лучшим ценам! (00-01124448)

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Издание на английском языке
This book covers the fundamentals of electromagnetic theory and its practical applications. It covers vector analysis, electric and magnetic fields, Coulomb's law, Gauss's law, Laplace's and Poisson's equations, the Biot-Savart law, Amp?re's law, electromagnetic waves, and Maxwell's equations. Special attention is given to transmission lines, waveguides, antennas, their parameters and types, as well as electromagnetic interference, compatibility, standards, and protection methods for electronic devices.

Content
Preface
Chapter 1. Vector Analysis
Introduction
1.1. Definitions of Vector Analysis
1.2. Vector Algebra
1.2.1. Sum of Vectors
1.2.2. The Negative Vector
1.2.3. Subtraction of Vectors and the Zero Vector
1.2.4. Scalar Multiplication
1.3. Components of a Vector
1.3.1. Unit Vector
1.3.2. Component Form of a Vector
1.4. Rectangular Coordinate System
1.5. The Dot Product
1.6. The Cross Product
1.6.1. The Triple Scalar Product
Summary
References
Chapter 2. Electric Field
Introduction
2.1. Defined of Electric Field
2.1.1. Types of an Electric Field
2.1.2. Properties of an Electric Field
2.1.3. Electric Field Lines
2.1.4. Electric Flux
2.2. Coulomb's Law
2.2.1. Vector Form of Coulomb's Law
2.2.2. Remarks on Vector Form of Coulomb's Law
2.2.3. Limitations of Coulomb's Law
2.3. Electric Field Intensity
2.4. Gauss Law
2.4.1. Gauss Law Formula
2.4.2. The Gauss Theorem
2.4.3. Applications of Gauss's Law
2.4.4. Electric Field due to Infinite Wire
2.4.5. Electric Field due to Infinite Plate Sheet
2.4.6. Electric Field due thin Spherical Shell
2.5. Electrical Potential
2.5.1. Electric Potential Energy
2.5.2. Potential Difference
2.5.3. Relationship between E and. V
2.6. Electric Current
2.6.1. Measurement of Current
2.6.2. Effects of Electric Current
2.6.3. The Law of Force between Two Moving Charges
2.7. Electric Charge
2.7.1. Basic Properties of Electric Charge
2.8. Laplace and Poisson's Equations
Summary
References
Chapter 3. Magnetic Field
Introduction
3.1. The Definition of a Magnetic Field
3.1.1. Magnetic Force on a Current-Carrying Wire
3.1.2. Magnetic Flux Density
3.1.3. Boundary Conditions on the Magnetic Field Intensity
3.2. Biot-Savart Law
3.3. Ampere's Circuital Law
3.4. Motion of a Charged Particle in a Uniform Magnetic Field
3.4.1. Applications Involving Charged Particles Moving in a Magnetic Field
3.4.2. Hall Effect
3.5. Properties of Magnetic Materials
3.5.1. Magnetization Vector and Magnetic Field Strength
3.5.2. Classification of Magnetic Substances
Summary
References
Chapter 4. Electromagnetic Wave Propagation
Introduction
4.1. Electromagnetic Wave
4.1.1. Properties of Electromagnetic Wave Propagation
4.1.2. Types of Wave Propagation
4.1.3. Applications of Electromagnetic Waves
4.2. Faraday's Law of Induction
4.2.1. Applications of Faraday Law
4.2.2. Displacement Current
4.2.3. Maxwell's Equation Expressed in Point Form
4.2.4. Maxwell's Equation in Integral Form
4.3. Time-Harmonic Electromagnetic Fields
4.4. Wave Equations (One dimension)
4.4.1. Plane Wave Propagation
4.4.2. Plane Waves in a Lossy Medium
Summary
References
Chapter 5. Transmission Lines
Introduction
5.1. Transmission Line
5.1.1. Classification of Transmission Lines
5.2. Transmission Line Equations
5.3. Transmission Line Parameters
5.3.1. Equivalent Circuit
5.3.2. Resistance
5.3.3. Current-Carrying Capacity
5.3.4. Inductance and Inductive Reactance
5.3.5. Capacitance and Capacitive Reactance
Summary
References
Chapter 6. Waveguides
Introduction
6.1. Concept of Waveguide
6.1.1. Classification of Waveguide
6.1.2. Developing the Waveguide from Parallel Lines
6.2. Energy Propagation in Waveguides
6.2.1. E Field
6.2.2. H Field
6.3. Waveguide Modes
6.3.1. TE (Transverse Electric) Mode
6.3.2. TM (Transverse Magnetic) Mode
6.3.3. Waveguide Modes of Operation
6.4. Waveguide Terminations
6.5. Waveguide Plumbing
6.5.1. Waveguide Bends
6.5.2. Waveguide Joints
6.6. Waveguide Devices
6.6.1. Directional Couplers
6.6.2. Cavity Resonators
6.6.3. Waveguide Junctions
Summary
References
Chapter 7. Antennas
Introduction
7.1. Concept of Antennas
7.1.1. History of Antennas
7.1.2. Characteristics of Antenna's
7.2. Types of Antennas
7.2.1. Log-Periodic Antennas
7.2.2. Wire Antennas
7.2.3. Travelling Wave Antennas
7.2.4. Microwave Antennas
7.2.5. Reflector Antennas
7.3. Antenna Parameters
7.3.1. Input Impedance
7.3.2. Reflection Coefficient and Return Loss
7.3.3. Voltage Standing Wave Ratio
7.3.4. Gain
7.3.5. Directivity
7.3.6. Bandwidth
7.3.7. Radiation Pattern
7.3.8. Polarization
7.3.9. Antenna Efficiency
7.3.10. Antenna Beamwidth
7.3.11. Effective Area
7.4. Antenna Arrays
7.4.1. Types of Arrays
Summary
References
Chapter 8. Electromagnetic Interference and Compatibility
Introduction
8.1. Electromagnetic Interference (EMI)
8.1.1. Basic Types of EMI
8.1.2. Sources of EMI
8.1.3. Control Techniques of EMI
8.1.4. Conducted Interference
8.1.5. Susceptibilities of Different Radio Technologies
8.1.6. Interference to Consumer Devices
8.1.7. EMI Standards
8.1.8. EMI in Integrated Circuits
8.1.9. RFI in Radio Astronomy
8.2. Electromagnetic Compatibility (EMC)
8.2.1. Need for EMC Standards
8.2.2. EMC Standards
8.2.3. Types of Electromagnetic Interference
8.2.4. Coupling Mechanisms
8.2.5. EMC Control
8.2.6. EMC Design
8.2.7. EMC Testing
Summary
References
Index

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