Electricity and Magnetism

Name: Electricity and Magnetism
Brand: Dover Publications
Price: 40.49 EUR
Availability: OnlineOnly

Edson Ruther Peck(Autor*in)

Dover Publications (Verlag)

Erschienen am 14. Januar 2015

995 Seiten

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978-0-486-78284-3 (ISBN)

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Inhalt

Cover
Title Page
Copyright Page
Preface
Contents
Chapter 1 Electrostatics
1.1 Electric Charge
1.2 Coulomb's Law, and Conservation of Charge
1.3 Charge Density
1.4 Electric Field
1.5 Electrostatic Potential
1.6 Potential of a Point Charge
1.7 Potential of a Charge Distribution
1.8 Convergence of Improper Integrals
1.9 Flux of the Electric Field. Gauss' Law
1.10 Computation of Electric Field by Gauss' Law
1.11 Lines of Force and Equipotential Surfaces
1.12 Conductors in Electrostatic Systems
1.13 The Electric Dipole
1.14 Expansion of the Potential of a System of Charges
Problems
Chapter 2 The Electrostatic Field of Free Charges
2.1 Introduction
2.2 Poisson's Equation in Space. Laplace's Equation
2.3 Boundary Conditions
2.4 Poisson's Equation in Less than Three Cartesian Coordinates
2.5 Electrostatic Images
2.6 Image Problems Involving a Spherical Conductor
2.7 Equipotential Surfaces in the Form of Circular Cylinders
2.8 Line Charge and Conducting Circular Cylinder
2.9 Two Conducting Circular Cylinders
Problems
Chapter 3 Dielectric Theory
3.1 Introduction
3.2 Electric Polarization
3.3 A One-dimensional Model, and a Mathematical Transformation
3.4 Bound Charge
3.5 Electric Field within a Dielectric
3.6 Electric Displacement
3.7 Electric Susceptibility and Dielectric Constant
3.8 Electrostatic Potential in a Dielectric System
3.9 Boundary Conditions on the Field Vectors
3.10 Boundary Conditions for the Macroscopic Electrostatic Potential
3.11 The Poisson Equation
3.12 The Special Case
3.13 Dielectric Image Theory
3.14 Local Field. Permanent and Induced Dipole Moments
Problems
Chapter 4 Electrostatic Energy, Force, and Capacitance
4.1 Meaning of Energy
4.2 A Fundamental Expression for Energy
4.3 Energy of a System Containing Macroscopic Point Charges
4.4 Energy of Elementary Particles
4.5 Electrostatic Energy in Terms of Field Vectors
4.6 Linear Systems of Conductors
4.7 Energy of a Linear System of Conductors
4.8 Further Properties of the Coefficients of Potential, Induction, and Capacitance
4.9 Condensers
4.10 Networks of Condensers
4.11 Forces on Electrostatic Charge Distributions
4.12 Total Electrostatic Force on a System in Vacuo
4.13 Electrostatic Force and Torque Derived by Energy Considerations
Problems
Chapter 5 Electric Current
5.1 Electric Current and Density
5.2 Surface Current Density
5.3 Continuity
5.4 Conductivity
5.5 Joule Heat
5.6 The Electric Field in a System Containing Electric Current
5.7 Potential Difference in a Nonstatic System
5.8 Electromotive Force
5.9 Two-terminal Passive Systems. D-C Resistance
5.10 Two-terminal Active Systems with Direct Current
5.11 Charge within a Conductor
5.12 Steady Current Flow in a Region without EMF
5.13 Current Flow in a Wire. Resistivity
5.14 Temperature Coefficient of Resistivity
Problems
Chapter 6 Direct-Current Circuits
6.1 Components
6.2 The Simplest Circuit. Basic Principles
6.3 Series and Parallel Circuits
6.4 Kirchhoff's Laws
6.5 Loop Currents
6.6 Superposition
6.7 Equivalent EMF and Internal Resistance
6.8 Thevenin's Theorem
6.9 Maximum Power Output
Problems
Chapter 7 Steady-State Magnetism
7.1 Introduction
7.2 Magnetic Induction
7.3 Ampere's Law
7.4 Magnetic Field of Wire, Loop, and Solenoid
7.5 Vector Potential
7.6 Magnetic Flux
7.7 Ampere's Circuital Law
7.8 Field of a Distant Circuit. Magnetic Dipole Moment
7.9 The Equivalent Network. Dipole Moment of an Arbitrary Circuit
7.10 Magnetic Scalar Potential
7.11 Differential Form of the Circuital Law
7.12 Force and Torque on a Current Circuit
7.13 Force and Couple on a Magnetic Dipole
Problems
Chapter 8 Electromagnetic Induction
8.1 Motional Electromotive Force
8.2 EMF and Magnetic Flux: Faraday's Law of Electromagnetic Induction
8.3 Lenz's Law
8.4 Self-inductance
8.5 Mutual Inductance
8.6 Inductors
8.7 Limit of Mutual Inductance
8.8 Parallel Inductors
8.9 Energy Transformations in Inductors. Magnetic Stored Energy
Problems
Chapter 9 Magnetic Properties of Matter
9.1 Macroscopic and Microscopic Analysis
9.2 Relative Permeability. State of Magnetization
9.3 Magnetizing Force
9.4 Terminology of Magnetism
9.5 Nonferromagnetic Materials
9.6 Ferromagnetism
9.7 Origins of Magnetic Susceptibility
9.8 Magnetic Polarization
9.9 Exterior Field of Magnetized Material. Magnetic Bound Charge
9.10 Internal Field of a Magnet
9.11 Microscopic Analysis of Magnetizing Force
9.12 The Magnetic Circuit
9.13 Force and Torque on a Magnet in Terms of Bound Charge
9.14 Exterior Field of a Magnet: Bound Current Densities
9.15 Interior Field of a Magnet in Terms of Bound Currents
9.16 Force and Torque on a Magnet in Terms of Bound Currents
9.17 Magnetic Energy. Hysteresis Loss
9.18 Magnetomechanical Energy Relations
Problems
Chapter 10 Transient Currents
10.1 Circuit Components
10.2 Circuit Theorems for Transient Conditions
10.3 Simple R-L Circuits
10.4 Simple R-C Circuits
10.5 Ideal L-C Circuit
10.6 Series L-C-R Circuit
10.7 Transient Balance
10.8 Mutual Inductance Bridge of Carey Foster
10.9 Moving-coil D-C Galvanometers
10.10 The dArsonval Ballistic Galvanometer
Problems
Chapter 11 Analysis of Alternating-Current Circuits
11.1 Series Circuit with A-C Generator. Transient and Steady-state Currents
11.2 Alternating-current Characteristics of Uncoupled Linear Circuit Components
11.3 Power
11.4 Vector Representation of A-C Variables
11.5 Impedance Operators and Impedance Vectors
11.6 Admittance
11.7 Complex Numbers. The Exponential Function of a Complex Variable
11.8 Complex Circuit Analysis
11.9 Resonance
11.10 A-C Bridges without Coupling
11.11 Inductive Coupling in Complex Analysis. General Theorems
11.12 Practical Circuit Components. Frequency Dependence
11.13 Transformers
Problems
Chapter 12 Maxwell's Equations. Electromagnetic Waves
12.1 Introduction
12.2 Differential Form of Faraday's Law of Electromagnetic Induction
12.3 Divergence of Magnetic Induction
12.4 Displacement Current
12.5 The Maxwell Equations. The Wave Equation in Insulating Material
12.6 Plane Waves in Dielectric Material
12.7 Energy Flow. The Poynting Vector
12.8 Radiation of a Harmonically Oscillating Electric Dipole
12.9 General Boundary Conditions
12.10 Reflection and Transmission of a Plane Wave at a Dielectric Interface. Normal Incidence
12.11 Electromagnetic Potentials
12.12 Electric and Magnetic Fields in Small Systems
Problems
Index

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