DocumentCode
1504029
Title
Fast parameter extraction of general interconnects using geometry independent measured equation of invariance
Author
Sun, Weikai ; Dai, Wayne Wei-Ming ; Hong, Wei
Author_Institution
Dept. of Comput. Sci., California Univ., Santa Cruz, CA, USA
Volume
45
Issue
5
fYear
1997
fDate
5/1/1997 12:00:00 AM
Firstpage
827
Lastpage
836
Abstract
The measured equation of invariance (MEI) is a new concept in computational electromagnetics. It has been demonstrated that the MEI technique can be used to terminate the meshes very close to the object boundary and still strictly preserves the sparsity of the finite-difference (FD) equations. Therefore, the final system matrix encountered by the MEI is a sparse matrix with a size similar to that of integral equation methods. However complicated the Green´s function, disagreeable Sommerfeld integrals, and very difficult umbilical meshes for multiconductors make the traditional MEI very difficult (if not impossible) to be applied to analyze multilayer and multiconductor interconnects. In this paper, the authors propose the geometry independent MEI (GIMEI) which substantially improves the original MEI method. The authors use GIMEI for capacitance extraction of general two-dimensional (2-D) and three-dimensional (3-D) very large scale integration (VLSI) interconnect. numerical results are in good agreement with published data and those obtained by using FASTCAP from Massachusetts Institute of Technology (MIT) and some other commercial tools, while GIMEIs are generally an order of magnitude faster than FASTCAP with much less memory usage
Keywords
MMIC; VLSI; capacitance; finite difference methods; integrated circuit interconnections; mesh generation; sparse matrices; GIMEI; MMIC; Sommerfeld integrals; VLSI; capacitance extraction; computational electromagnetics; fast parameter extraction; finite-difference equations; general interconnects; geometry independent measured equation of invariance; multiconductors; sparse matrix; umbilical meshes; Computational electromagnetics; Electromagnetic measurements; Finite difference methods; Geometry; Green´s function methods; Integral equations; Nonhomogeneous media; Parameter extraction; Sparse matrices; Very large scale integration;
fLanguage
English
Journal_Title
Microwave Theory and Techniques, IEEE Transactions on
Publisher
ieee
ISSN
0018-9480
Type
jour
DOI
10.1109/22.575607
Filename
575607
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