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Author Xia Ji ♦ Tiao Lu ♦ Wei Cai ♦ Pingwen Zhang
Sponsorship IEEE Lasers and Electro-Optics Society ♦ Optical Society of America
Source IEEE Xplore Digital Library
Content type Text
Publisher Institute of Electrical and Electronics Engineers, Inc. (IEEE)
File Format PDF
Copyright Year ©1983
Language English
Subject Domain (in DDC) Natural sciences & mathematics ♦ Physics ♦ Electricity & electronics ♦ Technology ♦ Engineering & allied operations ♦ Applied physics
Subject Keyword Moment methods ♦ Waveguide discontinuities ♦ Optical resonators ♦ Optical waveguides ♦ Maxwell equations ♦ Finite difference methods ♦ Perfectly matched layers ♦ Convergence ♦ Optical scattering ♦ Two dimensional displays ♦ uniaxial perfectly matched layer (UPML) ♦ Discontinuous Galerkin time domain (DGTD) ♦ Maxwell's equations ♦ microring resonators
Abstract This paper presents the study of coupling efficiencies between two-dimensional (2-D) waveguides and microring resonators with a newly developed high-order discontinuous Galerkin time domain (DGTD) method for Maxwell's equations. The DGTD method is based on a unified formulation for the physical media and the artificial media in the uniaxial perfectly matched layer (UPML) regions used to truncate the computational domain. The DGTD method employs finite element type meshes and uses piecewise high-order polynomials for spatial discretization of the Maxwell's equations and Runge-Kutta methods for time integration. After demonstrating the high-order convergence of the DGTD method, the effect of separation gap between the waveguides and one and two microrings on the coupling efficiency and transmittance for pulse propagations is studied.
Description Author affiliation :: LMAM & Sch. of Math. Sci., Peking Univ., Beijing, China
ISSN 07338724
Education Level UG and PG
Learning Resource Type Article
Publisher Date 2005-11-01
Publisher Place U.S.A.
Rights Holder Institute of Electrical and Electronics Engineers, Inc. (IEEE)
Volume Number 23
Issue Number 11
Size (in Bytes) 454.60 kB
Page Count 11
Starting Page 3864
Ending Page 3874


Source: IEEE Xplore Digital Library