Waves and Fields in OptoelectronicsMaxwell's equations of isotropic media and some important identities. Reflection of plane waves from interfaces. Mirrors and interferometers. Fresnel diffraction in paraxial limit. Hermit-Gaussian beams and their transformations. Optical fibers and guiding layers. Coupling of modes - resonators and couplers. Distributed feedback structures. Acousto-optic modulators. Some nonlinear systems. Wave propagation in anisotropic media. Electro-optic modulators. Nonlinear optics. Optical detection. |
Contents
Problems | 29 |
MIRRORS AND INTERFEROMETERS | 55 |
FRESNEL DIFFRACTION IN PARAXIAL LIMIT | 81 |
Copyright | |
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a₁ amplitude angle anisotropic axis bandwidth coefficient complex components coordinate cross section crystal dependence derive detector dielectric direction dispersion distance electric field electro-optic electro-optic effect electron energy density evaluate Fabry-Perot factor fiber Figure Fourier transform frequency Fresnel diffraction function Gaussian beam grating group velocity Hermite-Gaussian incident wave index ellipsoid input integral interferometer k₁ laser lens LiNbO3 linear lossless Maxwell's equations medium mirror modelocking modulation noise nonlinear optics obtained output parameter paraxial wave equation perturbation phase front photon plane wave polarization Poynting vector produced propagation constant pulse Quantum r₁ radiation radius reference plane reflection relation resonator scalar second harmonic shown in Fig solution spatial spectrum surface tensor time-averaged transmission transverse vector voltage w₁ wave equation waveguide wavelength zero Δη Δω εο μο ω²μο ωα ωβ ωο