Title :
EMC Analysis of High-Speed On-Chip Interconnects via a Mixed Quasi-Static Finite Difference—FEM Technique
Author :
Yioultsis, Traianos V. ; Kosmanis, Theodoros I. ; Rekanos, Ioannis T. ; Tsiboukis, Theodoros D.
Author_Institution :
Dept. of Electr. & Comput. Eng., Aristotle Univ. of Thessaloniki
fDate :
4/1/2007 12:00:00 AM
Abstract :
We present a new technique to investigate electromagnetic compatibility/electromagnetic interference (EMC/EMI) interactions in high-speed transmission lines on the chip level. The time-domain method is based on the different nature of the problem in conductors and semiconductors, compared to the insulating media that separate them. Therefore, the static problem in the silicon oxide is separated from the diffusion problem in conductors. The latter one is solved by an efficient DuFort-Frankel technique, while the static problem is solved in a coarse finite element method (FEM) mesh. In each step, the two problems are appropriately coupled by means of the interface conditions. The time-domain nature of this method permits the use of proper fast Fourier transform (FFT)-based postprocessing procedures to calculate the per unit length parameters in a fast and efficient manner
Keywords :
conductors (electric); electromagnetic compatibility; electromagnetic interference; fast Fourier transforms; finite difference methods; finite element analysis; time-domain analysis; transmission lines; Dufort-Frankel technique; EMC-EMI interactions; FEM technique; conductor diffusion problem; electromagnetic compatibility; electromagnetic interference; fast Fourier transform-based postprocessing; finite element method; high-speed onchip interconnects; high-speed transmission lines; mixed quasistatic finite difference; silicon oxide static problem; time-domain method; Conductors; Electromagnetic compatibility; Electromagnetic compatibility and interference; Electromagnetic interference; Finite difference methods; Finite element methods; Insulation; Silicon; Time domain analysis; Transmission lines; Finite difference methods; finite element methods (FEMs); integrated circuit interconnections; transmission lines;
Journal_Title :
Magnetics, IEEE Transactions on
DOI :
10.1109/TMAG.2006.891010