Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents

This paper extends recent literature results concerning the statistical simulation of circuits affected by random electrical parameters by means of the polynomial chaos framework. With respect to previous implementations, based on the generation and simulation of augmented and deterministic circu...

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Main Authors: MANFREDI, P., STIEVANO, I. S., CANAVERO, F. G.
Format: Article
Language:English
Published: Stefan cel Mare University of Suceava 2014-11-01
Series:Advances in Electrical and Computer Engineering
Subjects:
Online Access:http://dx.doi.org/10.4316/AECE.2014.04001
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spelling doaj-1f560139973848f2b38595659bcaaf8e2020-11-24T21:57:50ZengStefan cel Mare University of SuceavaAdvances in Electrical and Computer Engineering1582-74451844-76002014-11-011443810.4316/AECE.2014.04001Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic EquivalentsMANFREDI, P.STIEVANO, I. S.CANAVERO, F. G. This paper extends recent literature results concerning the statistical simulation of circuits affected by random electrical parameters by means of the polynomial chaos framework. With respect to previous implementations, based on the generation and simulation of augmented and deterministic circuit equivalents, the modeling is extended to generic and ?black-box? multi-terminal nonlinear subcircuits describing complex devices, like those found in integrated circuits. Moreover, based on recently-published works in this field, a more effective approach to generate the deterministic circuit equivalents is implemented, thus yielding more compact and efficient models for nonlinear components. The approach is fully compatible with commercial (e.g., SPICE-type) circuit simulators and is thoroughly validated through the statistical analysis of a realistic interconnect structure with a 16-bit memory chip. The accuracy and the comparison against previous approaches are also carefully established.http://dx.doi.org/10.4316/AECE.2014.04001circuit simulationintegrated circuitsnonlinear circuitsSPICEstatistical analysis
collection DOAJ
language English
format Article
sources DOAJ
author MANFREDI, P.
STIEVANO, I. S.
CANAVERO, F. G.
spellingShingle MANFREDI, P.
STIEVANO, I. S.
CANAVERO, F. G.
Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents
Advances in Electrical and Computer Engineering
circuit simulation
integrated circuits
nonlinear circuits
SPICE
statistical analysis
author_facet MANFREDI, P.
STIEVANO, I. S.
CANAVERO, F. G.
author_sort MANFREDI, P.
title Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents
title_short Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents
title_full Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents
title_fullStr Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents
title_full_unstemmed Stochastic Simulation of Integrated Circuits with Nonlinear Black-Box Components via Augmented Deterministic Equivalents
title_sort stochastic simulation of integrated circuits with nonlinear black-box components via augmented deterministic equivalents
publisher Stefan cel Mare University of Suceava
series Advances in Electrical and Computer Engineering
issn 1582-7445
1844-7600
publishDate 2014-11-01
description This paper extends recent literature results concerning the statistical simulation of circuits affected by random electrical parameters by means of the polynomial chaos framework. With respect to previous implementations, based on the generation and simulation of augmented and deterministic circuit equivalents, the modeling is extended to generic and ?black-box? multi-terminal nonlinear subcircuits describing complex devices, like those found in integrated circuits. Moreover, based on recently-published works in this field, a more effective approach to generate the deterministic circuit equivalents is implemented, thus yielding more compact and efficient models for nonlinear components. The approach is fully compatible with commercial (e.g., SPICE-type) circuit simulators and is thoroughly validated through the statistical analysis of a realistic interconnect structure with a 16-bit memory chip. The accuracy and the comparison against previous approaches are also carefully established.
topic circuit simulation
integrated circuits
nonlinear circuits
SPICE
statistical analysis
url http://dx.doi.org/10.4316/AECE.2014.04001
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