Electromagnetic Optics

• Autore: Gbur Greg
• Pubblicazione: Bristol : , : Institute of Physics Publishing, , 2025; ©2025
• Edizione: 1st ed.
• Descrizione fisica: 1 online resource (537 pages)
• Soggetto topico: TECHNOLOGY & ENGINEERING / Electrical; TECHNOLOGY & ENGINEERING / Fiber Optics
• Nota di contenuto: Intro -- Acknowledgments -- Author biography -- Gregory J Gbur -- Chapter Introduction: the electromagnetic spectrum -- References -- Chapter Maxwell's equations -- 2.1 Gauss's law -- 2.1.1 Uniformly charged sphere -- 2.1.2 Two infinite sheets of electric charge -- 2.2 'No magnetic monopoles' -- 2.3 Faraday's law -- 2.4 Ampère-Maxwell law -- 2.4.1 Magnetic field of a thick wire -- 2.4.2 Magnetic field of a current sheet -- 2.4.3 Magnetic field of a solenoid -- 2.5 Exercises -- References -- Chapter Electromagnetic waves -- 3.1 The wave equation -- 3.2 Solutions of the wave equation -- 3.3 Plane waves -- 3.4 Waves in a half space -- 3.5 Paraxial waves and Gaussian beams -- 3.6 Exercises -- References -- Chapter The polarization of light -- 4.1 Polarization basics -- 4.2 Special cases -- 4.2.1 Linear polarization -- 4.2.2 Circular polarization -- 4.3 Polarization-sensitive optical elements -- 4.4 Stokes parameters -- 4.5 The Poincaré sphere -- 4.6 The Pancharatnam phase -- 4.7 Jones vectors -- 4.7.1 Example: linear to circular polarization -- 4.7.2 Example: Pancharatnam-Berry optical element -- 4.7.3 Example: circular polarization filter -- 4.7.4 Example: optical attenuator -- 4.8 Nonuniform polarization -- 4.9 Exercises -- References -- Chapter Maxwell's equations in matter -- 5.1 Electric dipoles and the D-field -- 5.2 Magnetic dipoles and the H-field -- 5.3 Closing the electromagnetic 'loop' -- 5.4 Permittivity, permeability, and the refractive index -- 5.5 Exercises -- References -- Chapter Dispersion and the speed of light -- 6.1 Lorentz oscillator model of the atom -- 6.2 The Lorentz model for multiple oscillators -- 6.3 The Debye model -- 6.4 The speed of light in matter -- 6.5 Optical dispersion -- 6.6 Kramers-Kronig relations -- 6.7 Optical precursors -- 6.8 Exercises -- References -- Chapter Conservation laws. ; 7.1 Conservation of energy -- 7.1.1 Energy of a plane wave -- 7.2 Paradoxical behavior of the Poynting vector -- 7.3 Conservation of momentum -- 7.3.1 Momentum of a plane wave -- 7.4 Momentum in matter and the Abraham-Minkowski controversy -- 7.5 Optical trapping -- 7.6 Conservation of angular momentum -- 7.7 Exercises -- References -- Chapter Anisotropic media -- 8.1 Basic concepts of anisotropy -- 8.2 Plane waves in crystals -- 8.3 Energy flow in crystals -- 8.4 The Fresnel equation of wave normals -- 8.5 Ellipsoid of wave normals -- 8.6 Anisotropy and wave plates -- 8.7 Optical rotation -- 8.8 Anisotropic media with absorption -- 8.9 Conical refraction -- 8.10 Exercises -- References -- Chapter Interface effects -- 9.1 Wiener's experiment -- 9.2 Boundary conditions -- 9.3 Reflection and refraction at an interface -- 9.4 Fresnel equations -- 9.4.1 The s-polarization case -- 9.4.2 The p-polarization case -- 9.4.3 Fresnel equations: observations -- 9.4.4 Total internal reflection -- 9.5 The Goos-Hänchen effect -- 9.6 Refraction in complex media -- 9.7 Refraction in anisotropic media -- 9.8 Refraction in magnetic materials -- 9.9 Exercises -- References -- Chapter Light propagation in stratified media -- 10.1 General considerations -- 10.2 Matrix methods for stratified media -- 10.3 Single interface -- 10.4 Single thin films -- 10.5 Frustrated total internal reflection -- 10.6 Dielectric mirrors and photonic bandgaps -- 10.7 Exercises -- References -- Chapter Surface plasmons -- 11.1 Light propagation in a plasma -- 11.2 Plasma oscillations -- 11.3 What is a surface plasmon? -- 11.4 Surface plasmons in Maxwell's equations -- 11.5 Optical excitation of surface plasmons -- 11.6 Field enhancement of surface plasmons -- 11.7 Surface plasmons in thin films -- 11.8 Extraordinary optical transmission -- 11.9 Zenneck waves -- 11.10 Dyakonov waves. ; 11.11 Exercises -- References -- Chapter Metamaterials -- 12.1 Background -- 12.2 Negative refraction -- 12.3 The perfect lens -- 12.4 Epsilon-near-zero materials -- 12.5 High-index metamaterials -- 12.6 Spoof surface plasmons -- 12.7 Form birefringence -- 12.8 Exercises -- References -- Chapter Guided waves -- 13.1 General observations -- 13.2 Hollow metal waveguides -- 13.2.1 Metallic slab waveguide -- 13.2.2 Metallic rectangular waveguide -- 13.2.3 Metallic circular waveguides -- 13.3 Metallic coaxial waveguides -- 13.3.1 Nonexistence of TEM modes in hollow waveguides -- 13.3.2 TEM mode in a metallic coaxial waveguide -- 13.3.3 TE and TM modes in a metallic coaxial waveguide -- 13.4 Circular dielectric waveguides -- 13.4.1 TE modes -- 13.4.2 TM modes -- 13.4.3 Hybrid EH and HE modes -- 13.5 Mode structure of dielectric waveguides -- 13.6 Optical fibers -- 13.7 Exercises -- References -- Chapter Sources and potentials -- 14.1 Sources and potentials -- 14.2 Dyadics -- 14.3 The general radiation problem -- 14.4 Multipole sources -- 14.5 Multipole potentials -- 14.6 Multipole fields and radiation -- 14.6.1 Electric dipole fields -- 14.6.2 Magnetic dipole fields -- 14.6.3 Electric quadrupole fields -- 14.7 Higher-order multipoles and spherical waves -- 14.8 Gauge transformations -- 14.9 The Aharonov-Bohm experiments -- 14.10 Exercises -- References -- Chapter Electromagnetic scattering -- 15.1 The electromagnetic Green's dyadics -- 15.2 Scattering theory -- 15.3 The Born series -- 15.4 The optical theorem -- 15.5 Rayleigh scattering -- 15.6 Rayleigh-Gans scattering -- 15.7 Mie scattering -- 15.8 Inverse problems -- 15.9 Anapoles -- 15.10 Exercises -- References -- Chapter Computational methods for Maxwell's equations -- 16.1 The Foldy-Lax method -- 16.2 Integral equation solutions and the dyadic Green's function. ; 16.3 The method of moments and the discrete dipole approximation -- 16.4 Finite-difference time-domain (FDTD) method -- 16.5 So long, and thanks for all the physics -- References -- Chapter -- A.1 Vector algebra -- A.2 Vector fields -- A.3 Vector differentiation -- A.4 Vector integration -- A.5 Integral theorems -- References.
• Sommario/riassunto: This book will be an in-depth textbook introducing and covering all topics related to the fact that light is a transverse electromagnetic wave.
• Titolo autorizzato: Electromagnetic Optics
• ISBN: 9780750360661; 0750360666
• Formato: Materiale a stampa
• Livello bibliografico: Monografia
• Lingua di pubblicazione: Inglese
• Record Nr.: 9911132908803321
• Lo trovi qui: Univ. Federico II
• Serie: IOP Ebooks Series