Book:I.S. Grant/Electromagnetism/Second Edition
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I.S. Grant and W.R. Phillips: Electromagnetism (2nd Edition)
Published $\text {1990}$, John Wiley & Sons, Ltd
- ISBN 0-471-92712-0
Subject Matter
Contents
- Flow diagram
- Preface to the Second Edition (January, 1990)
- Preface to the First Edition (May, 1974)
- $1$ FORCE AND ENERGY IN ELECTROSTATICS
- $1.1$ Electric Charge
- $1.2$ The Electric Field
- $1.3$ Electric Fields in Matter
- $1.3.1$ The Atomic Charge Density
- $1.3.2$ The Atomic Electric Field
- $1.3.3$ The Macroscopic Electric Field
- $1.3$ Electric Fields in Matter
- $1.4$ Gauss' Law
- $1.4.1$ The Flux of a Vector Field
- $1.4.2$ The Flux of the Electric Field out of a Closed Surface
- $1.4.3$ The Divergence of a Vector Field
- $1.4.4$ The Differential Form of Gauss' Law
- $1.4$ Gauss' Law
- $1.5$ Electrostatic Energy
- $1.5.1$ The Electrostatic Potential
- $1.5.2$ The Electric Field as the Gradient of the Potential
- $1.5.3$ The Dipole Potential
- $1.5.4$ Energy Changes Associated with the Atomic Field
- $1.5.5$ Capacitors, and Energy in Macroscopic Fields
- $\star \ 1.5.6$ Energy Stored by a Number of Charged Conductors
- Problems $1$
- $1.5$ Electrostatic Energy
- $\star$ Starred sections may be omitted as they are not required later in the book.
- $2$ DIELECTRICS
- $2.1$ Polarization
- $2.2$ Relative Permittivity and Electric Susceptibility
- $2.2.1$ The Local Field
- $2.2.2$ Polar Molecules
- $2.2.3$ Non-polar Liquids
- $2.3$ Macroscopic Fields in Dielectrics
- $2.3.1$ The Volume Density of Polarization Charge
- $2.3.2$ The Electric Displacement Vector
- $2.3.3$ Boundary Conditions for $\mathbf D$ and $\mathbf E$
- $2.4$ Energy in the Presence of Dielectrics
- $\star \ 2.4.1$ Some Further Remarks about Energy and Forces
- Problems $2$
- $3$ ELECTRIC FIELD CALCULATIONS
- $3.1$ Poisson's Equation and Laplace's Equation
- $3.1.1$ The Uniqueness Theorem
- $3.1.2$ Electric Fields in the Presence of Free Charge
- $3.2$ Boundaries Between Different Regions
- $\star \ 3.3$ Boundary Conditions and Field Patterns
- $\star \ 3.3.1$ Electrostatic Images
- $\star \ 3.3.2$ Spheres and Spherical Cavities in Uniform External Field
- $\star \ 3.4$ Electrostatic Lenses
- $\star \ 3.5$ Numerical Solutions of Poisson's Equation
- $3.6$ Summary of Electrostatics
- Problems $3$
- $3.1$ Poisson's Equation and Laplace's Equation
- $4$ STEADY CURRENTS AND MAGNETIC FIELDS
- $4.1$ Electromotive Force and Conduction
- $4.1.1$ Current and Resistance
- $\star \ 4.1.2$ The Calculation of Resistance
- $4.2$ The Magnetic Field
- $4.2.1$ The Lorentz Force
- $4.2.2$ Magnetic Field Lines
- $4.3$ The Magnetic Dipole
- $4.3.1$ Current Loops in External Fields
- $4.3.2$ Magnetic Dipoles and Magnetic Fields
- $4.4$ Ampère's Law
- $4.4.1$ The Field of a Large Current Loop
- $4.4.2$ The Biot-Savart Law
- $4.4.3$ Examples of the Calculation of Magnetic Fields
- $4.5$ The Differential Form of Ampère's Law
- $4.5.1$ The Operator Curl
- $4.5.2$ The Vector Curl $\mathbf B$
- $4.5.3$ The Magnetic Vector Potential
- $4.6$ Forces and Torques on Coils
- $4.6.1$ Magnetic Flux
- $4.7$ The Motion of Charged Particles in Electric and Magnetic Fields
- $4.7.1$ The Motion of a Charged Particle in a Uniform Magnetic Field
- $4.7.2$ Magnetic Mirrors and Plasmas
- $\star \ 4.7.3$ Magnetic Quadrupole Lenses
- Problems $4$
- $4.1$ Electromotive Force and Conduction
- $5$ MAGNETIC MATERIALS
- $5.1$ Magnetization
- $5.1.1$ Diamagnetism
- $5.1.2$ Paramagnetism
- $5.1.3$ Ferromagnetism
- $5.2$ The Macroscopic Magnetic Field Inside Media
- $5.2.1$ The Surface Currents on a Uniformly Magnetized Body
- $5.2.2$ The Distributed Currents Within a Magnetized Body
- $5.2.3$ Magnetic Susceptibility and Atomic Structure
- $5.3$ The Field Vector $\mathbf H$
- $5.3.1$ Ampère's Law for the Field $\mathbf H$
- $5.3.2$ The Boundary Conditions on the Field $\mathbf B$ and $\mathbf H$
- $5.4$ Magnets
- $5.4.1$ Electromagnets
- $\star \ 5.4.2$ Permanent Magnets
- $5.5$ Summary of Magnetostatics
- Problems $5$
- $5.1$ Magnetization
- $6$ ELECTROMAGNETIC INDUCTION AND MAGNETIC ENERGY
- $6.1$ Electromagnetic Induction
- $6.1.1$ Motional Electromotive Force
- $6.1.2$ Faraday's Law
- $6.1.3$ Examples of Induction
- $6.1.4$ The Differential Form of Faraday's Law
- $6.2$ Self-inductance and Mutual Inductance
- $6.2.1$ Self-inductance
- $6.2.2$ Mutual Inductance
- $6.3$ Energy and Forces in Magnetic Fields
- $6.3.1$ The Magnetic Energy Stored in an Inductor
- $6.3.2$ The Total Magnetic Energy of a System of Currents
- $6.3.3$ The Potential Energy of a Coil in a Field and the Force on the Coil
- $6.3.4$ The Total Magnetic Energy in Terms of the Fields $\mathbf B$ and $\mathbf H$
- $6.3.5$ Non-linear Media
- $\star \ 6.3.6$ Further Comments on Energy in Magnetic Fields
- $6.4$ The Measurement of Magnetic Fields and Susceptibilities
- $6.4.1$ The Measurement of Magnetic Fields
- $6.4.2$ The Measurement of Magnetic Susceptibilities
- Problems $6$
- $6.1$ Electromagnetic Induction
- $7$ ALTERNATING CURRENTS AND TRANSIENTS
- $7.1$ Alternating Current Generators
- $7.2$ Amplitude, Phase and Period
- $7.3$ Resistance, Capacitance and Inductance in A.C. Circuits
- $7.4$ The Phasor Diagram and Complex Impedance
- $7.5$ Power in A.C. Circuits
- $7.6$ Resonance
- $7.7$ Transients
- Problems $7$
- $8$ LINEAR CIRUITS
- $8.1$ Networks
- $8.1.1$ Kirchhoff's Rules
- $8.1.2$ Loop Analysis, Node Analysis and Superposition
- $8.1.3$ A.C. Networks
- $8.2$ Audio-frequency Bridges
- $8.3$ Impedance and Admittance
- $8.3.1$ Input Impedance
- $8.3.2$ Output Impedance and Thévenin's Theorem
- $8.4$ Filters
- $8.4.1$ Ladder Networks
- $8.4.2$ Higher Order Filter and Delay Lines
- $8.5$ Transformers
- $8.5.1$ The Ideal Transformer
- $8.5.2$ Applications of Transformers
- $\star \ 8.5.3$ Real Transformers
- Problems $8$
- $8.1$ Networks
- $9$ TRANSMISSION LINES
- $9.1$ Propagation of Signals in a Lossless Transmission Line
- $9.2$ Practical Types of Transmission Line
- $9.2.1$ The Parallel Wire Transmission Line
- $9.2.2$ The Coaxial Cable
- $9.2.3$ Parallel Strip Lines
- $9.3$ Reflections
- $\star \ 9.4$ The Input Impediance of a Mismatched Line
- $\star \ 9.5$ Lossy Lines
- Problems $9$
- $10$ MAXWELL'S EQUATIONS
- $10.1$ The Equation of Continuity
- $10.2$ Displacement Current
- $10.3$ Maxwell's Equations
- $10.4$ Electromagnetic Radiation
- $\star \ 10.5$ The Microscopic Field Equations
- Problems $10$
- $11$ ELECTROMAGNETIC WAVES
- $11.1$ Electromagnetic Waves in Free Space
- $11.2$ Plane Waves and Polarization
- $11.2.1$ Plane Waves in Free Space
- $11.2.2$ Plane Waves in Isotropic Insulating Media
- $11.3$ Dispersion
- $11.4$ Energy in Electromagnetic Waves
- $11.5$ The Absorption of Plane Waves in Conductors and the Skin Effect
- $11.6$ The Reflection and Transmission of Electromagnetic Waves
- $11.6.1$ Boundary Conditions on Electric and Magnetic Fields
- $11.6.2$ Reflection at Dielectric Boundaries
- $11.6.3$ Reflection at Metallic Boundaries
- $\star \ 11.6.4$ Polarization by Reflection
- $\star \ 11.7$ Electromagnetic Waves and Photons
- Problems $11$
- $12$ WAVEGUIDES
- $12.1$ The Propagation of Waves Between Conducting Plates
- $12.2$ Rectangular Waveguides
- $12.2.1$ The $\operatorname {TE}_{01}$ Mode
- $\star \ 12.2.2$ Further Comments on Waveguides
- $12.3$ Cavities
- Problems $12$
- $13$ THE GENERATION OF MAGNETIC WAVES
- $13.1$ The Retarded Potentials
- $13.2$ The Hertzian Dipole
- $13.3$ Antennas
- Problems $13$
- $14$ ELECTROMAGNETISM AND SPECIAL RELATIVITY
- $14.1$ Introductory Remarks
- $14.2$ The Lorentz Transformation
- $14.3$ Charges and Fields as seen by Different Observers
- $14.4$ Four-vectors
- $14.5$ Maxwell's Equations in Four-vector Form
- $14.6$ Transformation of the Fields
- $14.7$ Magnetism as a Relativistic Phenomenon
- $14.8$ Retarded Potentials From the Relativistic Standpoint
- Problems $14$
- APPENDIX A UNITS
- $\text A.1$ Electrical Units and Standards
- $\text A.1.1$ The Definition of the Ampere
- $\text A.1.2$ Calibration and Comparison of Electrical Standards
- $\text A.2$ Gaussian Units
- $\text A.3$ Conversion between SI and Gaussian Units
- $\text A.1$ Electrical Units and Standards
- APPENDIX B FIELDS AND DIFFERENTIAL OPERATORS
- $\text B.1$ The operators $\operatorname {div}$, $\grad$ and $\curl$
- $\text B.2$ Formulae in Different Coordinate Systems
- $\text B.3$ Identities
- APPENDIX C THE DERIVATION OF THE BIOT-SAVART LAW
- Solutions to Problems
- Further Reading
- Index
- Physical Constants
Further Editions
- 1975: I.S. Grant and W.R. Phillips: Electromagnetism
Source work progress
- 1990: I.S. Grant and W.R. Phillips: Electromagnetism (2nd ed.) ... (previous) ... (next): Chapter $1$: Force and energy in electrostatics: $1.3$ Electric Fields in Matter: $1.3.3$ The macroscopic electric field
- From Next:
- 1990: I.S. Grant and W.R. Phillips: Electromagnetism (2nd ed.) ... (previous) ... (next): Appendix $\text A$: Units
- From Next:
- 1990: I.S. Grant and W.R. Phillips: Electromagnetism (2nd ed.) ... (previous) ... (next): Appendix $\text B$: Fields and differential operators: $\text B.1$ The Operators Div, Grad and Curl: $(\mathbf B 1)$