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Essential Graduate Physics - Classical Electrodynamics (Likharev)

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Essential Graduate Physics - Classical Electrodynamics (Likharev)

Electricity and MagnetismPhysics
Author
Konstantin K. Likharev
Publisher
Stony Brook University
Source
LibreTexts
License
CC BY-NC-SA
Language
EN
Category
Basic Sciences
Read online Download PDF (open licence)
Contents· 89 sections
  1. 01: Electric Charge Interaction
  2. 1.01: The Coulomb Law
  3. 1.02: The Gauss Law
  4. 1.03: Scalar Potential and Electric Field Energy
  5. 1.04: Exercise Problems
  6. 02: Charges and Conductors
  7. 2.01: Greens Functions
  8. 2.02: Numerical Approach
  9. 2.03: Exercise Problems
  10. 2.04: Polarization and screening
  11. 2.05: Capacitance
  12. 2.06: The Simplest Boundary Problems
  13. 2.07: Using other Orthogonal Coordinates
  14. 2.08: Variable Separation Cartesian Coordinates
  15. 2.09: Variable Separation Polar Coordinates
  16. 2.10: Variable Separation Cylindrical Coordinates
  17. 2.11: Variable Separation Spherical Coordinates
  18. 2.12: Charge Images
  19. 03: Dipoles and Dielectrics
  20. 3.01: Electric Dipole
  21. 3.02: Dipole Media
  22. 3.03: Polarization of Dielectrics
  23. 3.04: Electrostatics of Linear Dielectrics
  24. 3.05: Electric Field Energy in a Dielectric
  25. 3.06: Exercise Problems
  26. 04: DC Currents
  27. 4.01: Continuity Equation and the Kirchhoff Laws
  28. 4.02: The Ohm Law
  29. 4.03: Boundary Problems
  30. 4.04: Energy Dissipation
  31. 4.05: Exercise Problems
  32. 05: Magnetism
  33. 5.01: Magnetic Interaction of Currents
  34. 5.02: Vector Potential and the Ampere Law
  35. 5.03: Magnetic Flux Energy and Inductance
  36. 5.04: Magnetic Dipole Moment and Magnetic Dipole Media
  37. 5.05: Magnetic Materials
  38. 5.06: Systems with Magnetics
  39. 5.07: Exercise Problems
  40. 06: Electromagnetism
  41. 6.01: Electromagnetic Induction
  42. 6.02: Magnetic Energy Revisited
  43. 6.03: Quasistatic Approximation and the Skin Effect
  44. 6.04: Electrodynamics of Superconductivity and the Gauge Invariance
  45. 6.05: Electrodynamics of Macroscopic Quantum Phenomena
  46. 6.06: Inductors Transformers and AC Kirchhoff Laws
  47. 6.07: Displacement Currents
  48. 6.08: Finally the Full Maxwell Equation System
  49. 6.09: Exercise Problems
  50. 07: Electromagnetic Wave Propagation
  51. 7.01: Plane Waves
  52. 7.02: Attenuation and Dispersion
  53. 7.03: Reflection
  54. 7.04: Refraction
  55. 7.05: Transmission Lines- TEM Waves
  56. 7.06: Waveguides- H and E Waves
  57. 7.07: Dielectric Waveguides Optical Fibers and Paraxial Beams
  58. 7.08: Resonators
  59. 7.09: Energy Loss Effects
  60. 7.10: Exercise Problems
  61. 08: Radiation Scattering Interference and Diffraction
  62. 8.01: Retarded Potentials
  63. 8.02: Electric Dipole Radiation
  64. 8.03: Wave Scattering
  65. 8.04: Interference and Diffraction
  66. 8.05: The Huygens Principle
  67. 8.06: Fresnel and Fraunhofer Diffraction Patterns
  68. 8.07: Geometrical Optics Placeholder
  69. 8.08: Fraunhofer Diffraction from More Complex Scatterers
  70. 8.09: Magnetic Dipole and Electric Quadrupole Radiation
  71. 8.10: Exercise Problems
  72. 09: Special Relativity
  73. 9.01: Einstein Postulates and the Lorentz Transform
  74. 9.02: Relativistic Kinematic Effects
  75. 9.03: 4-vectors Momentum Mass and Energy
  76. 9.04: More on 4-vectors and 4-tensors
  77. 9.05: The Maxwell Equations in the 4-form
  78. 9.06: Relativistic Particles in Electric and Magnetic Fields
  79. 9.07: Analytical Mechanics of Charged Particles
  80. 9.08: Analytical Mechanics of Electromagnetic Field
  81. 9.09: Exercise Problems
  82. 10: Radiation by Relativistic Charges
  83. 10.01: Lienard-Wiechert Potentials
  84. 10.02: Radiation Power
  85. 10.03: Synchrotron Radiation
  86. 10.04: Bremsstrahlung
  87. 10.05: Coulomb Losses
  88. 10.06: Density Effects and the Cherenkov Radiation
  89. 10.08: Exercise Problems