Spectral Representations in Temporally Dispersive Media
- Introduction
- Microscopic Electromagnetics
- The Microscopic Maxwell–Lorentz Theory
- Differential Form of the Microscopic Maxwell Equations
- Integral Form of the Microscopic Maxwell Equations
- Invariance of the Maxwell–Lorentz Equations
- Transformation Laws in Special Relativity
- Transformation of Dynamical Quantities
- Interdependence of Electric and Magnetic Fields
- Transformation Relations for Electric and Magnetic Fields
- Invariance of Maxwell’s Equations
- Conservation Laws for the Microscopic Electromagnetic Field
- Conservation of Energy and Poynting’s Theorem
- Conservation of Linear Momentum
- Conservation of Angular Momentum
- Uniqueness of Solution
- The Microscopic Maxwell–Lorentz Theory
- Microscopic Potentials and Radiation
- The Microscopic Electromagnetic Potentials
- The Lorenz Condition and the Lorenz Gauge
- The Coulomb Gauge
- The Retarded Potentials
- The Hertz Potential and Elemental Dipole Radiation
- The Hertz Potential
- Radiation from an Elemental Hertzian Dipole
- Li’enard–Wiechert Potentials
- The Liénard–Wiechert Potentials
- The Field Produced by a Moving Charged Particle
- Radiated Energy from a Moving Charged Particle
- The Radiation Field Produced by a General Dipole Oscillator
- The Field Vectors Produced by a General Dipole Oscillator
- The Electric Dipole Approximation
- The Field Produced by a Monochromatic Dipole
- Oscillator in the Electric Dipole Approximation
- The Complex Potential and the Scalar Optical Field
- The Wave Equation for the Complex Potential
- Electromagnetic Energy and Momentum Densities
- A Scalar Representation of the Optical Field
- The Microscopic Electromagnetic Potentials
- Macroscopic Electromagnetics
- Fundamental Field Equations in a Temporally Dispersive Medium
- The Angular Spectrum Representation of the Pulsed Radiation Field
- The Angular Spectrum Representation of Pulsed
- Electromagnetic and Optical Beam Fields in Temporally Dispersive Media
- Free Fields in Temporally Dispersive Media
- A – Helmholtz’ Theorem
- B – The Dirac Delta Function
- C – The Fourier–Laplace Transform
- D – The Effective Local Field
- E – Magnetic Field Contribution to the Classical Lorentz Model of Resonance Polarization