DocumentCode :
2202381
Title :
Analysis of lossy multi-chip module interconnections using finite element method
Author :
Kolbehdari, M.A. ; Sadiku, M.N.O.
Author_Institution :
Dept. of Electr. Eng., Temple Univ., Philadelphia, PA, USA
fYear :
1996
fDate :
11-14 Apr 1996
Firstpage :
144
Lastpage :
147
Abstract :
In this paper, a new comprehensive electromagnetic modeling tool, the networking distributed transmission line parameters, R(ω), L(ω), C(ω), and G(ω), is developed. The modal characteristic impedances, network functions, and multiconductor transmission lines stamp of pulse propagation in interconnects are derived. For signals with subnanosecond rise times, the interconnects always behave as transmission lines. Multichip module MCMs are the emerging technology for an advanced electronic packaging. This technology has the advantages of smaller size, lighter systems, and improved performance. The interconnect circuit parameters vary with frequency. Two- or three-dimensional finite elements, are used to solve the fields in terms of the magnetic vector potential and scalar potential. The loss analysis has taken into account the skin effect, proximity effect, and lossy dielectric material in the problem. The accuracy of the method is studied by comparison with available data in the literature
Keywords :
electric impedance; electromagnetic fields; finite element analysis; integrated circuit interconnections; integrated circuit modelling; integrated circuit packaging; linear network analysis; losses; microstrip lines; multichip modules; skin effect; transmission line matrix methods; electromagnetic modeling tool; electronic packaging; finite element method; interconnect circuit parameters; loss analysis; lossy dielectric material; lossy multi-chip module interconnections; magnetic vector potential; modal characteristic impedances; multiconductor transmission lines; network functions; networking distributed transmission line parameters; proximity effect; pulse propagation; scalar potential; skin effect; subnanosecond rise times; three-dimensional finite elements; transmission lines; two-dimensional finite elements; Dielectric losses; Distributed parameter circuits; Electromagnetic modeling; Electromagnetic propagation; Impedance; Integrated circuit interconnections; Multichip modules; Multiconductor transmission lines; Optical propagation; Transfer functions;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Southeastcon '96. Bringing Together Education, Science and Technology., Proceedings of the IEEE
Conference_Location :
Tampa, FL
Print_ISBN :
0-7803-3088-9
Type :
conf
DOI :
10.1109/SECON.1996.510045
Filename :
510045
Link To Document :
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