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Applications of Maxwell’s Equation

This book was developed for an upper-level physics course. Along with a careful exposition of electricity and magnetism, it devotes a chapter to ferromagnets. According to the course description, the topics covered were “electromagnetics, magnetostatics, waves, transmission lines, waveguides, antennas, and radiating systems.”

Electricity and MagnetismPhysics
Author
John F. Cochran and Bretislav Heinrich
Publisher
Simon Fraser University
Source
LibreTexts
License
CC BY
Language
EN
Category
Basic Sciences
Read online Download PDF (open licence)
Contents· 93 sections
  1. 01: Maxwells Equations
  2. 1.01: Fundamental Postulates
  3. 1.02: Maxwells Equations
  4. 1.03: Return to Maxwells Equations
  5. 1.04: The Auxiliary Fields D and H
  6. 1.05: The Force Density and Torque Density in Matter
  7. 1.06: The CGS System of Units
  8. 02: Electrostatic Field I
  9. 2.01: Introduction
  10. 2.02: The Scalar Potential Function
  11. 2.03: General Theorems
  12. 2.04: The Tangential Components of E
  13. 2.05: A Conducting Body
  14. 2.06: Continuity of the Potential Function
  15. 2.07: Example Problems
  16. 2.08: Appendix 2A
  17. 03: Electrostatic Field II
  18. 3.01: Introduction
  19. 3.02: Soluble Problems
  20. 3.03: Electrostatic Field Energy
  21. 3.04: The Field Energy as Minimum
  22. 3.05: Appendix(A) - The Onsager Problem
  23. 04: The Magnetostatic Field I
  24. 4.01: Introduction
  25. 4.02: The Law of Biot-Savart
  26. 4.03: Standard Problems
  27. 4.04: A Second Approach to Magnetostatics
  28. 05: The Magnetostatic Field II
  29. 5.01: Introduction- Sources in a Uniform Permeable Material
  30. 5.02: Calculation of off-axis Fields
  31. 5.03: A Discontinuity in the Permeability
  32. 5.04: The Magnetostatic Field Energy
  33. 5.05: Inductance Coefficients
  34. 5.06: Forces on Magnetic Circuits
  35. 5.07: The Maxwell Stress Tensor
  36. 06: Ferromagnetism
  37. 6.01: Introduction
  38. 6.02: B-H Curves
  39. 6.03: Digital Magnetic Recording
  40. 6.04: Electromagnets
  41. 07: Time Dependent Electromagnetic Fields.
  42. 7.02: Time Dependent Maxwells Equations
  43. 7.03: A Simple Radio Antenna
  44. 7.04: An Electric Dipole Radiator
  45. 7.05: A Point Magnetic Dipole
  46. 7.06: A Moving Point Charge in Vacuum
  47. 08: Electromagnetic Fields and Energy Flow
  48. 8.02: Poyntings Theorem
  49. 8.03: Power Radiated by a Simple Antenna
  50. 8.04: A Non-Sinusoidal Time Dependence
  51. 8.05: Scattering from a Stationary Atom
  52. 09: Plane Waves I
  53. 9.01: Introduction to Plane Waves
  54. 9.02: Phasors
  55. 9.03: Elliptically Polarized Plane Waves
  56. 9.04: Gaussian Light Beams
  57. 10: Plane Waves II
  58. 10.01: Normal Incidence
  59. 10.02: Boundary Conditions
  60. 10.03: Application of the Boundary Conditions to a Plane Interface
  61. 10.04: Reflection from a Metal at Radio Frequencies
  62. 10.05: Oblique Incidence
  63. 10.06: Example- Copper
  64. 10.07: Example- Crown Glass
  65. 10.08: Metals at Radio Frequencies
  66. 11: Transmission Lines
  67. 11.01: Introduction
  68. 11.02: Strip-lines
  69. 11.03: Co-axial Cables
  70. 11.04: Transmission Lines in General
  71. 11.05: A Terminated Line
  72. 11.06: Sinusoidal Signals on a Terminated Line
  73. 11.07: The Slotted Line
  74. 11.08: Transmission Line with Losses
  75. 12: Waveguides
  76. 12.01: Simple Transverse Electric Modes
  77. 12.02: Higher Order Modes
  78. 12.03: Waveguide Discontinuities
  79. 12.04: Energy Losses in the Waveguide Walls
  80. 12.05: Circular Waveguides
  81. 13: Problem and Answers
  82. 13.01: Chapter 1
  83. 13.02: Chapter 2
  84. 13.03: Chapter 3
  85. 13.04: Chapter 4
  86. 13.05: Chapter 5
  87. 13.06: Chapter 6
  88. 13.07: Chapter 7
  89. 13.08: Chapter 8
  90. 13.09: Chapter 9
  91. 13.10: Chapter- 10
  92. 13.11: Chapter- 11
  93. 13.12: Chapter- 12