Brief Table of Contents |
Preface |
A Note to the Student |
About the Author |
Math Assessment |
Vector Analysis / Part 1: |
Vector Algebra / 1: |
Introduction / 1.1: |
A Preview of the Book / †1.2: |
Scalars and Vectors / 1.3: |
Unit Vector / 1.4: |
Vector Addition and Subtraction / 1.5: |
Position and Distance Vectors / 1.6: |
Vector Multiplication / 1.7: |
Components of a Vector / 1.8: |
Summary |
Review Questions |
Problems |
Coordinate Systems and Transformation / 2: |
Cartesian Coordinates (x, y, z) / 2.1: |
Circular Cylindrical Coordinates (p, φ z) / 2.3: |
Spherical Coordinates (r, θ, φ) / 2.4: |
Constant-Coordinate Surfaces / 2.5: |
Vector Calculus / 3: |
Differential Length, Area, and Volume / 3.1: |
Line, Surface, and Volume Integrals / 3.3: |
Del Operator / 3.4: |
Gradient of a Scalar / 3.5: |
Divergence of a Vector and Divergence Theorem / 3.6: |
Curl of a Vector and Stokes's Theorem / 3.7: |
Laplacian of a Scalar / 3.8: |
Classification of Vector Fields / †3.9: |
Electrostatics / Part 2: |
Electrostatic Fields / 4: |
Coulomb's Law and Field Intensity / 4.1: |
Electric Fields due to Continuous Charge Distributions / 4.3: |
Electric Flux Density / 4.4: |
Gauss's Law-Maxwell's Equation / 4.5: |
Applications of Gauss's Law / 4.6: |
Electric Potential / 4.7: |
Relationship between E and V- Maxwell's Equation / 4.8: |
An Electric Dipole and Flux Lines / 4.9: |
Energy Density in Electrostatic Fields / 4.10: |
Application Note-Electrostatic Discharge / †4.11: |
Electric Fields in Material Space / 5: |
Properties of Materials / 5.1: |
Convection and Conduction Currents / 5.3: |
Conductors / 5.4: |
Polarization in Dielectrics / 5.5: |
Dielectric Constant and Strength / 5.6: |
Linear, Isotropic, and Homogeneous Dielectrics / †5.7: |
Continuity Equation and Relaxation Time / 5.8: |
Boundary Conditions / 5.9: |
Application Note- Materials with High Dielectric Constant / †5.10: |
Application Note-Graphene / 5.11: |
Application Note-Piezoelectrics / †5.12: |
Electrostatic Boundary-Value Problems / 6: |
Poisson's and Laplace's Equations / 6.1: |
Uniqueness Theorem / †6.3: |
General Procedures for Solving Poisson's or Laplace's Equation / 6.4: |
Resistance and Capacitance / 6.5: |
Method of Images / 6.6: |
Application Note-Capacitance of Microstrip Lines / †6.7: |
Application Note-RF MEMS / 6.8: |
Application Note-Supercapacitors / †6.9: |
Magnetostatics / Part 3: |
Magnetostatic Fields / 7: |
Biot-Savart's Law / 7.1: |
Ampère's Circuit Law-Maxwell's Equation / 7.3: |
Applications of Ampère's Law / 7.4: |
Magnetic Flux Density-Maxwell's Equation / 7.5: |
Maxwell's Equations for Static Fields / 7.6: |
Magnetic Scalar and Vector Potentials / 7.7: |
Derivation of Biot-Savart's Law and Ampère's Law / †7.8: |
Application Note-Lightning / †7.9: |
Application Note-Polywells / 7.10: |
Magnetic Forces, Materials, and Devices / 8: |
Forces due to Magnetic Fields / 8.1: |
Magnetic Torque and Moment / 8.3: |
A Magnetic Dipole / 8.4: |
Magnetization in Materials / 8.5: |
Classification of Materials / †8.6: |
Magnetic Boundary Conditions / 8.7: |
Inductors and Inductances / 8.8: |
Magnetic Energy / 8.9: |
Magnetic Circuits / †8.10: |
Force on Magnetic Materials / †8.11: |
Application Note-Magnetic Levitation / 8.12: |
Application Note-SQUIDs / †8.13: |
Waves and Applications / Part 4: |
Maxwell's Equations / 9: |
Faraday's Law / 9.1: |
Transformer and Motional Electromotive Forces / 9.3: |
Displacement Current / 9.4: |
Maxwell's Equations in Final Forms / 9.5: |
Time-Varying Potentials / †9.6: |
Time-Harmonic Fields / 9.7: |
Application Note-Memristor / †9.8: |
Application Note-Optical Nanocircuits / †9.9: |
Application Note-Wireless Power Transfer and Qi Standard / †9.10: |
Electromagnetic Wave Propagation / 10: |
Waves in General / 10.1: |
Wave Propagation in Lossy Dielectrics / 10.3: |
Plane Waves in Lossless Dielectrics / 10.4: |
Plane Waves in Free Space / 10.5: |
Plane Waves in Good Conductors / 10.6: |
Wave Polarization / 10.7: |
Power and the Poynting Vector / 10.8: |
Reflection of a Plane Wave at Normal Incidence / 10.9: |
Reflection of a Plane Wave at Oblique Incidence / †10.10: |
Application Note-Microwaves / †10.11: |
Application Note-60 GHz Technology / 10.12: |
Transmission Lines |
Transmission Line Parameters / 11.1: |
Transmission Line Equations / 11.3: |
Input Impedance, Standing Wave Ratio, and Power / 11.4: |
The Smith Chart / 11.5: |
Some Applications of Transmission Lines / 11.6: |
Transients on Transmission Lines / †11.7: |
Application Note-Microstrip Lines and Characterization of Data Cables / †11.8: |
Application Note-Metamaterials / 11.9: |
Application Note-Microwave Imaging / †11.10: |
Waveguides / 12: |
Rectangular-Waveguides / 12.1: |
Transverse Magnetic Modes / 12.3: |
Transverse Electric Modes / 12.4: |
Wave Propagation in the Guide / 12.5: |
Power Transmission and Attenuation / 12.6: |
Waveguide Current and Mode Excitation / †12.7: |
Waveguide Resonators / 12.8: |
Application Note-Optical Fiber / †12.9: |
Application Note-Cloaking and Invisibility / †12.10: |
Antennas / 13: |
Hertzian Dipole / 13.1: |
Half-Wave Dipole Antenna / 13.3: |
Quarter-Wave Monopole Antenna / 13.4: |
Small-Loop Antenna / 13.5: |
Antenna Characteristics / 13.6: |
Antenna Arrays / 13.7: |
Effective Area and the Friis Equation / †13.8: |
The Radar Equation / †13.9: |
Application Note-Electromagnetic Interference and Compatibility / †13.10: |
Application Note-Textile Antennas and Sensors / †13.11: |
Application Note-Fractal Antennas / †13.12: |
Application Note-RFID / 13.13: |
Numerical Methods / 14: |
Field Plotting / 14.1: |
The Finite Difference Method / 14.3: |
The Moment Method / 14.4: |
The Finite Element Method / 14.5: |
Application Note-Microstrip Lines / †14.6: |
Mathematical Formulas / Appendix A: |
Material Constants / Appendix B: |
MATLAB / Appendix C: |
The Complete Smith Chart / Appendix D: |
Answers to Odd-Numbered Problems / Appendix E: |
Index |