| Background | |
|---|---|
| Benchmark ID |
|
| Category |
oberwolfach |
| System-Class |
LTI-FOS |
| Parameters | |
| nstates |
|
| ninputs |
|
| noutputs |
|
| nparameters |
0 |
| components |
A, B, C, E |
| Copyright | |
| License |
NA |
| Creator | |
| Editor | |
| Location | |
|
NA | |
Description
These benchmark originate from VLSI circuits. Specifically resistor-capacitor-inductor circuits, which can be represented by first order descriptor systems, following a modeling process based on the two Kirchhoff's circuit laws and the branch constitutive relations.
PEEC Problem
This RCL circuit is a PEEC discretization[1] and has 2100 capacitors, 172 inductors, 6990 inductive couplings, as well as a resistive source[2],[3]. The resulting model has 306 states, and two inputs and outputs.
Package Problem
The second problem models a 64-pin package of an RF circuit. A subset of eight pins carry signals, which leads to sixteen terminals (eight interior and eight exterior)[4],[3]. The resulting model has 1841 states, and sixteen inputs and outputs.
Origin
This benchmark is part of the Oberwolfach Benchmark Collection[5]; see [3].
Data
The PEEC problem and package problem are available as MATLAB .mat files, providing the
,
,
matrices,
while
is assumed:
- PEEC.zip (32.8KB)
- Package.zip (78.7KB)
Dimensions
System structure:
System dimensions:
,
,
,
.
System variants:
,
, for the PEEC problem, and
,
for the package problem.
Citation
To cite this benchmark, use the following references:
- For the benchmark itself and its data:
- The MORwiki Community, RCL Circuit Equations. MORwiki - Model Order Reduction Wiki, 2019. http://modelreduction.org/index.php/RCL_Circuit_Equations
@MISC{morwiki_convection,
author = {{The MORwiki Community}},
title = {RCL Circuit Equations},
howpublished = {{MORwiki} -- Model Order Reduction Wiki},
url = {https://modelreduction.org/morwiki/RCL_Circuit_Equations},
year = {20XX}
}
- For the background on the benchmark:
@INCOLLECTION{morFre05,
author = {R.W. Freund},
title = {RCL Circuit Equations},
booktitle = {Dimension Reduction of Large-Scale Systems},
pages = {367--371),
year = {2005},
doi = {10.1007/3-540-27909-1_22}
}
References
- ↑ A.E. Ruehli, Equivalent Circuit Models for Three-Dimensional Multiconductor Systems, IEEE Transactions on Microwave Theory and Techniques 22(1): 216--221, 1974.
- ↑ P. Feldmann, R.W. Freund , Efficient linear circuit analysis by Pade approximation via the Lanczos process, IEEE Transactions on Computer-Aided Design of Integrated Circuits and Systems 14(5): 639--649, 1995.
- ↑ 3.0 3.1 3.2 R.W. Freund, RCL Circuit Equations, Dimension Reduction of Large-Scale Systems, Lecture Notes in Computational Science and Engineering, vol 45: 367--371, 2005.
- ↑ Z. Bai, P. Feldmann, R.W. Freund, Equivalent Stable and Passive Reduced-Order Models Based on Partial Pade Approximation Via the Lanczos Process, Numerical Analysis Manuscript 97(3): 1--17, 1997.
- ↑ J.G. Korvink, E.B. Rudnyi, Oberwolfach Benchmark Collection, Dimension Reduction of Large-Scale Systems, Lecture Notes in Computational Science and Engineering, vol 45: 311--315, 2005.
