TABLE DES MATIÈRES
Introduction and mathematical preliminaries
Background
The Gradient
The Divergence
The Curl
The Operator Nabla
Problems for Chapter 1
Electrostatics
Introduction
Coulomb's Law
The Delta Function
The Electric Field
Gauss' Law
The Electrostatic Potential
Potential for an Infinite Sheet of Charge
Potential and Electric Field due to Dipole
The Linear Quadrupole
The Laplace and Poisson Equation
Properties of the Laplace and Poisson Equation
Theorems on Solutions of Laplace and Poisson Equations
Problems for Chapter 2
Electrostatic boundary value problems
Introduction
Conductors, Insulators and Semiconductors
Method of Images
Charge in Front of a Conducting Sphere
General Solution of the Laplace Equation
Solution in Rectangular Coordinates
Cylindrical Coordinates - Bessel Functions
Infinite Circular Cylinder
An Infinite Perfectly Conductor Cylinder in Uniform
Electric Field
Spherical Coordinates with Axial Symmetry
Two Hemispheres at Different Potentials
A Uniform Ring of Charge
Parallel Plates with Hemispherical Defect
Electrostatic Boundary Value Problems and Green's
Functions
Bibliography
Problems for Chapter 3
Electrostatics in dielectric media
Introduction
Multipole Expansion of the Potential
Electrostatic Energy of Charge Distributions
Theory of Capacitance
Electric Field in Material Media
Boundary Conditions at a Dielectric Interface
Electrostatics in Dielectrics
Electrostatic Energy in Dielectric Media
Thermodynamic Meaning of Electrostatic Energy
Average of Electric Field Over a Sphere
The Clausius-Mossotti Equation
Polar Molecules
Forces on Dielectrics
Bibliography
Problems for Chapter 4
Magnetostatics
Introduction
Current, Current Density and Equations of Continuity
Biot-Savart Law
Lorentz Force
Divergence and Curl of B
Field of a Solenoid
The Vector Potential
Magnetic Dipole Moment and B of a Distant Current
Loop
Motion of Charged Particle in an Electromagnetic
Field
Motion of Charged Particles: Inhomogeneous Static
B
Magnetic Scalar Potential
Magnetic Potential and B of a Circular Coil
Bibliography
Problems for Chapter 5
Magnetism in materials
Introduction
Constitutive Relations for Magnetic Materials
Three Types of Magnetism
Magnetization
Magnetic Induction Inside Magnetic Materials
Magnetic Field Intensity H
Boundary Conditions on B and H
Hysteresis Loop
Magnetic Energy and Mechanical Analogues
Energy Loss in Hysteresis Loop
Problems for Chapter 6
Time-varying fields
Introduction
Faraday's Law of Induction
Inductance
Generalization of Ampere's Law
Maxwell's Equations in the Absence of Matter
Green's Functions for the Scalar Wave Equation
Problems for Chapter 7
Maxwell's equations and plane waves
Introduction
Electromagnetic Waves in a Linear Medium
The Flow of Electromagnetic Energy - Poynting Vector
Boundary Conditions
Plane Monochromatic Waves
Polarization of Plane Waves
Problems for Chapter 8
Electromagnetic waves in dielectric material media
Introduction
Reflection and Refraction
Brewster's Angle, Critical Angle
Frequency Dispersion, Causality and Kramers-Kronig
Relations
Problems for Chapter 9
Wave guides and resonant cavities
Introduction
Two Parallel Mirrors
Wave Guides
Transverse Electromagnetic Waves (TEM)
Equations for TE and TM Modes
TM or E Mode
TE or M Mode
Properties of the TE and Tm Modes
TE Modes for Rectangular Wave Guides
Resonant Cavities
Resonant Frequencies for a Cylindrical Cavity
Power Losses and Q of a Cavity
Dielectric Wave Guides
Cylindrical Dielectric Wave Guide
Problems for Chapter 10
Radiation from a stationary time-varying sources
Introduction
Inhomogeneous Wave Equations: Formal Solutions
Approximate Calculations of f and A : Electric Dipole
Radiation
Radiating Hemispheres
Absence of Monopole Radiation
Magnetic Dipole and Electric Quadrupole Radiation
Circular Loop Antenna
Quadrupole Radiation
Radiation from Linear Antennas
Radiation from Two Parallel Half-Wave Antennas
Full Wave Antenna
Bibliography
Problems for Chapter 11
Special relativity
Introduction
The Michelson-Morley Experiment
The Lorentz Transformations
The Fitzgerald-Lorentz Contraction and Time Dilation
Addition of Velocities - Accelerated Motions
Simultaneity
Tensor Calculus and the Lorentz Group
Covariance of Maxwell's Equations
Relativistic Kinematics, Proper Time
The Lorentz Force
The Minkowski Force
Examples
Electromagnetic Field due to Moving Charge
Problems for Chapter 12
Electrodynamics
Introduction
Lienard-Wiechart Potentials
Electric and Magnetic Fields due to Uniform Motion
of a Charge
Power Radiated by a Charge
Dimensions and units
21 mars 2003