Title :
Transmission and reflection analysis of functional coupled cavity components
Author :
Peschel, Ulf ; Reynolds, Andrew L. ; Arredondo, B. ; Lederer, Falk ; Roberts, Peter John ; Krauss, Thomas F. ; De Maagt, Peter J I
Author_Institution :
Friedrich-Schiller-Univ., Jena, Germany
fDate :
7/1/2002 12:00:00 AM
Abstract :
This paper contributes to the ongoing discussion within the photonic crystal community by providing essential insight into the limiting conditions of the coupled cavity waveguiding mechanism. A theoretical and numerical description of coupled defects in PBG crystals is applied to quantify the conditions under which reflections occur within coupled cavity photonic crystal systems. We present an analysis of coupled cavity systems that form a straight and bent waveguide, a Y-shaped symmetric power splitter, and a waveguide incorporating two bends. The method is based on a weak interaction approach; the actual configuration of the defects (chain, lattice, bend, splitter, or anything else) enters the equations as a linear coupling between neighboring defects. The strength of this method is that many solutions of this system are known analytically, and that the band structure as well as the transmission and reflection response of the system can be determined
Keywords :
electromagnetic wave reflection; electromagnetic wave transmission; optical beam splitters; optical resonators; optical waveguide theory; optical waveguides; photonic band gap; symmetry; waveguide discontinuities; PBG crystals; Y-shaped symmetric power splitter; band structure; bent waveguide; coupled cavity photonic crystal systems; coupled cavity systems; coupled cavity waveguiding mechanism; coupled defects; functional coupled cavity components; limiting conditions; linear coupling; neighboring defects; photonic bandgap crystals; photonic crystal community; reflection analysis; reflection response; reflections; splitter; straight waveguide; transmission analysis; transmission response; waveguide; weak interaction; Couplings; Crystalline materials; Dielectric materials; Electromagnetic propagation; Electromagnetic waveguides; Lattices; Periodic structures; Photonic band gap; Photonic crystals; Reflection;
Journal_Title :
Quantum Electronics, IEEE Journal of
DOI :
10.1109/JQE.2002.1017594