Electromagnetic Fields

Name: Electromagnetic Fields
Brand: Wiley-IEEE Press
Price: 201.99 EUR
Availability: OnlineOnly

Jean G. Van Bladel(Autor*in)

Wiley-IEEE Press

2. Auflage

Erschienen am 22. August 2007

1100 Seiten

E-Book

PDF mit Adobe-DRM

Systemvoraussetzungen

978-0-470-12457-4 (ISBN)

201,99 €inkl. 7% MwSt.

Systemvoraussetzungen

für PDF mit Adobe-DRM

E-Book Einzellizenz

Als Download verfügbar

Beschreibung

Weitere Details

Weitere Ausgaben

Person

Inhalt

Intro
Electromagnetic Fields
Contents
Preface
1. Linear Analysis
1.1 Linear Spaces
1.2 Linear Transformations
1.3 The Inversion Problem
1.4 Green's Functions
1.5 Reciprocity
1.6 Green's Dyadics
1.7 Convergence of a Series
1.8 Eigenfunctions
1.9 Integral Operators
1.10 Eigenfunction Expansions
1.11 Discretization
1.12 Matrices
1.13 Solution of Matrix Equations: Stability
1.14 Finite Differences
1.15 Perturbations
2. Variational Techniques
2.1 Stationary functionals
2.2 A Suitable Functional for the String Problem
2.3 Functionals for the General L Transformation
2.4 Euler's Equations of Some Important Functionals
2.5 Discretization of the Trial Functions
2.6 Simple Finite Elements for Planar Problems
2.7 More Finite Elements
2.8 Direct Numerical Solution of Matrix Problems
2.9 Iterative Numerical Solution of Matrix Problems
3. Electrostatic Fields in the Presence of Dielectrics
3.1 Volume Charges in Vacuum
3.2 Green's Function for Infinite Space
3.3 Multipole Expansion
3.4 Potential Generated by a Single Layer of Charge
3.5 Potential Generated by a Double Layer of Charge
3.6 Potential Generated by a Linear Charge
3.7 Spherical Harmonics
3.8 Dielectric Materials
3.9 Cavity Fields
3.10 Dielectric Sphere in an External Field
3.11 Dielectric Spheroid in an Incident Field
3.12 Numerical Methods
4. Electrostatic Fields in the Presence of Conductors
4.1 Conductivity
4.2 Potential Outside a Charged Conductor
4.3 Capacitance Matrix
4.4 The Dirichlet Problem
4.5 The Neumann Problem
4.6 Numerical Solution of the Charge Density Problem
4.7 Conductor in an External Field
4.8 Conductors in the Presence of Dielectrics
4.9 Current Injection into a Conducting Volume
4.10 Contact Electrodes
4.11 Chains of Conductors
5. Special Geometries for the Electrostatic Field
5.1 Two-Dimensional Potentials in the Plane
5.2 Field Behavior at a Conducting Wedge
5.3 Field Behavior at a Dielectric Wedge
5.4 Separation of Variables in Two Dimensions
5.5 Two-Dimensional Integral Equations
5.6 Finite Methods in Two Dimensions
5.7 Infinite Computational Domains
5.8 More Two-Dimensional Techniques
5.9 Layered Media
5.10 Apertures
5.11 Axisymmetric Geometries
5.12 Conical Boundaries
6. Magnetostatic Fields
6.1 Magnetic Fields in Free Space: Vector Potential
6.2 Fields Generated by Linear Currents
6.3 Fields Generated by Surface Currents
6.4 Fields at Large Distances from the Sources
6.5 Scalar Potential in Vacuum
6.6 Magnetic Materials
6.7 Permanent Magnets
6.8 The Limit of Infinite Permeability
6.9 Two-Dimensional Fields in the Plane
6.10 Axisymmetric Geometries
6.11 Numerical Methods: Integral Equations
6.12 Numerical Methods: Finite Elements
6.13 Nonlinear Materials
6.14 Strong Magnetic Fields and Force-Free Currents
7. Radiation in Free Space
7.1 Maxwell's Equations
7.2 The Wave Equation
7.3 Potentials
7.4 Sinusoidal Time Dependence: Polarization
7.5 Partially Polarized Fields
7.6 The Radiation Condition
7.7 Time-Harmonic Potentials
7.8 Radiation Patterns
7.9 Green's Dyadics
7.10 Multipole Expansion
7.11 Spherical Harmonics
7.12 Equivalent Sources
7.13 Linear Wire Antennas
7.14 Curved Wire Antennas: Radiation
7.15 Transient Sources
8. Radiation in a Material Medium
8.1 Constitutive Equations
8.2 Plane Waves
8.3 Ray Methods
8.4 Beamlike Propagation
8.5 Green's Dyadics
8.6 Reciprocity
8.7 Equivalent Circuit of an Antenna
8.8 Effective Antenna Area
9. Plane Boundaries
9.1 Plane Wave Incident on a Plane Boundary
9.2 Propagation Through a Layered Medium
9.3 The Sommerfeld Dipole Problem
9.4 Multilayered Structures
9.5 Periodic Structures
9.6 Field Penetration Through Apertures
9.7 Edge Diffraction
10. Resonators
10.1 Eigenvectors for an Enclosed Volume
10.2 Excitation of a Cavity
10.3 Determination of the Eigenvectors
10.4 Resonances
10.5 Open Resonators: Dielectric Resonances
10.6 Aperture Coupling
10.7 Green's Dyadics
11. Scattering: Generalities
11.1 The Scattering Matrix
11.2 Cross Sections
11.3 Scattering by a Sphere
11.4 Resonant Scattering
11.5 The Singularity Expansion Method
11.6 Impedance Boundary Conditions
11.7 Thin Layers
11.8 Characteristic Modes
12. Scattering: Numerical Methods
12.1 The Electric Field Integral Equation
12.2 The Magnetic Field Integral Equation
12.3 The T-Matrix
12.4 Numerical Procedures
12.5 Integral Equations for Penetrable Bodies
12.6 Absorbing Boundary Conditions
12.7 Finite Elements
12.8 Finite Differences in the Time Domain
13. High- and Low-Frequency Fields
13.1 Physical Optics
13.2 Geometrical Optics
13.3 Geometric Theory of Diffraction
13.4 Edge Currents and Equivalent Currents
13.5 Hybrid Methods
13.6 Low-Frequency Fields: The Rayleigh Region
13.7 Non-Conducting Scatterers at Low Frequencies
13.8 Perfectly Conducting Scatterers at Low Frequencies
13.9 Good Conductors
13.10 Stevenson's Method Applied to Good Conductors
13.11 Circuit Parameters
13.12 Transient Eddy Currents
14. Two-Dimensional Problems
14.1 E and H Waves
14.2 Scattering by Perfectly Conducting Cylinders
14.3 Scattering by Penetrable Circular Cylinders
14.4 Scattering by Elliptic Cylinders
14.5 Scattering by Wedges
14.6 Integral Equations for Perfectly Conducting Cylinders
14.7 Scattering by Penetrable Cylinders
14.8 Low-Frequency Scattering by Cylinders
14.9 Slots in a Planar Screen
14.10 More Slot Couplings
14.11 Termination of a Truncated Domain
14.12 Line Methods
15. Cylindrical Waveguides
15.1 Field Expansions in a Closed Waveguide
15.2 Determination of the Eigenvectors
15.3 Propagation in a Closed Waveguide
15.4 Waveguide Losses
15.5 Waveguide Networks
15.6 Aperture Excitation and Coupling
15.7 Guided Waves in General Media
15.8 Orthogonality and Normalization
15.9 Dielectric Waveguides
15.10 Other Examples of Waveguides
16. Axisymmetric and Conical Boundaries
16.1 Field Expansions for Axisymmetric Geometries
16.2 Scattering by Bodies of Revolution: Integral Equations
16.3 Scattering by Bodies of Revolution: Finite Methods
16.4 Apertures in Axisymmetric Surfaces
16.5 The Conical Waveguide
16.6 Singularities at the Tip of a Cone
16.7 Radiation and Scattering from Cones
17. Electrodynamics of Moving Bodies
17.1 Fields Generated by a Moving Charge
17.2 The Lorentz Transformation
17.3 Transformation of Fields and Currents
17.4 Radiation from Sources: the Doppler Effect
17.5 Constitutive Equations and Boundary Conditions
17.6 Material Bodies Moving Uniformly in Static Fields
17.7 Magnetic Levitation
17.8 Scatterers in Uniform Motion
17.9 Material Bodies in Nonuniform Motion
17.10 Rotating Bodies of Revolution
17.11 Motional Eddy Currents
17.12 Accelerated Frames of Reference
17.13 Rotating Comoving Frames
Appendix 1. Vector Analysis in Three Dimensions
Appendix 2. Vector Operators in Several Coordinate Systems
Appendix 3. Vector Analysis on a Surface
Appendix 4. Dyadic Analysis
Appendix 5. Special Functions
Appendix 6. Complex Integration
Appendix 7. Transforms
Appendix 8. Distributions
Appendix 9. Some Eigenfunctions and Eigenvectors
Appendix 10. Miscellaneous Data
Bibliography
General Texts on Electromagnetic Theory
Texts that Discuss Particular Areas of Electromagnetic Theory
General Mathematical Background
Mathematical Techniques Specifically Applied to Electromagnetic Theory
Acronyms and Symbols
Author Index
Subject Index

Inhalt (PDF)

Systemvoraussetzungen

Als PDF speichern Als Link merken