Electromagnetics and Applications

by David H. Staelin

This text explores electromagnetic phenomena in modern applications, including wireless and optical communications, circuits, computer interconnects and peripherals, microwave communications and radar, antennas, sensors, micro-electromechanical systems, and power generation and transmission. Fundamentals include quasistatic and dynamic solutions to Maxwell's equations; waves, radiation, and diffraction; coupling to media and structures; guided waves; resonance; and acoustic analogs.

Description from LibreTexts.

Publisher
Massachusetts Institute of Technology
Subjects
Physics, Electricity and Magnetism
Licence
CC BY-NC-SA 4.0, as LibreTexts states it. Non-commercial use only.
Who can read
Tweens profiles and older, judged from its title and subjects

Contents

LibreTexts writes equations in TeX, and here they show as TeX; the PDF has them typeset.

  1. Front Matter
  2. TitlePage
  3. InfoPage
  4. Preface
  5. Table of Contents
  6. Licensing
  7. 1: Introduction to Electromagnetics and Electromagnetic Fields
  8. 1.1: Review of Foundations
  9. 1.2: Forces and the Measurement and Nature of Electromagnetic Fields
  10. 1.3: Gauss’s Law and electrostatic fields and potentials
  11. 1.4: Ampere’s Law and Magnetostatic Fields
  12. 2: Introduction to Electrodynamics
  13. 2.1: Maxwell’s differential equations in the time domain
  14. 2.2: Electromagnetic Waves in the Time Domain
  15. 2.3: Maxwell’s Equations, Waves, and Polarization in the Frequency Domain
  16. 2.4: Relation between integral and differential forms of Maxwell’s equations
  17. 2.5: Electric and Magnetic Fields in Media
  18. 2.6: Boundary conditions for electromagnetic fields
  19. 2.7: Power and Energy in the Time and Frequency Domains and the Poynting Theorem
  20. 2.8: Uniqueness Theorem
  21. 3: Electromagnetic Fields in Simple Devices and Circuits
  22. 3.1: Resistors and Capacitors
  23. 3.2: Inductors and Transformers
  24. 3.3: Quasistatic Behavior of Devices
  25. 3.4: General circuits and solution methods
  26. 3.5: Two-element circuits and RLC resonators
  27. 4: Static and Quasistatic Fields
  28. 4.1: Introduction to Static and Quasistatic Fields
  29. 4.2: Mirror image charges and currents
  30. 4.3: Relaxation of Fields and Skin Depth
  31. 4.4: Static fields in inhomogeneous materials
  32. 4.5: Laplace’s equation and separation of variables
  33. 4.6: Flux tubes and field mapping
  34. 5: Electromagnetic Forces
  35. 5.1: Forces on Free Charges and Currents
  36. 5.2: Forces on Charges and Currents within Conductors
  37. 5.3: Forces on Bound Charges within Materials
  38. 5.4: Forces Computed Using Energy Methods
  39. 5.5: Electric and magnetic pressure
  40. 5.6: Photonic Forces
  41. 6: Actuators, Sensors, Motors and Generators
  42. 6.1: Force-induced electric and magnetic fields
  43. 6.2: Electrostatic actuators and motors
  44. 6.3: Rotary magnetic motors
  45. 6.4: Linear magnetic motors and actuators
  46. 6.5: Permanent Magnet Devices
  47. 6.6: Electric and magnetic sensors
  48. 7: TEM Transmission Lines
  49. 7.1: TEM Waves on Structures
  50. 7.2: TEM Lines with Junctions
  51. 7.3: Methods for Matching Transmission Lines
  52. 7.4: TEM Resonances
  53. 8: Fast electronics and transient behavior on TEM lines
  54. 8.1: Propagation and reflection of transient signals on TEM transmission lines
  55. 8.2: Limits Posed by Devices and Wires
  56. 8.3: Distortions due to loss and dispersion
  57. 9: Electromagnetic Waves
  58. 9.1: Waves at planar boundaries at normal incidence
  59. 9.2: Waves incident on planar boundaries at angles
  60. 9.3: Waves Guided within Cartesian Boundaries
  61. 9.4: Cavity resonators
  62. 9.5: Waves in complex media
  63. 10: Antennas and Radiation
  64. 10.1: Radiation from charges and currents
  65. 10.2: Short Dipole Antennas
  66. 10.3: Antenna gain, effective area, and circuit properties
  67. 10.4: Antenna Arrays
  68. 11: Common Antennas and Applications
  69. 11.1: Aperture Antennas and Diffraction
  70. 11.2: Wire Antennas
  71. 11.3: Propagation of Radio Waves and Thermal Emission
  72. 11.4: Applications
  73. 12: Optical Communications
  74. 12.1: Introduction to optical communication links
  75. 12.2: Optical Waveguides
  76. 12.3: Lasers
  77. 12.4: Optical detectors, multiplexers, interferometers, and switches
  78. 13: Acoustics
  79. 13.1: Acoustic Waves
  80. 13.2: Acoustic waves at interfaces and in guiding structures and resonators
  81. 13.3: Acoustic Radiation and Antennas
  82. 13.4: Electrodynamic-acoustic devices
  83. 14: Appendices
  84. 14.1: Numerical Constants
  85. 14.2: Complex Numbers and Sinusoidal Representation
  86. 14.3: Mathematical Identities
  87. 14.4: Basic Equations for Electromagnetics and Applications
  88. 14.5: Frequently Used Trigonometric and Calculus Expressions
  89. Back Matter
  90. Index
  91. Glossary
  92. Detailed Licensing