2011Unpublished venueRequires access

An extraction-free circuit simulator of linear complexity guided by electromagnetics-based first principles

Qing He, Duo Chen, Dan Jiao

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Abstract

The prevailing circuit simulation paradigm heavily relies on extraction to perform circuit simulation. In addition, no linear complexity has been reported by existing circuit simulation approaches. In this work, we develop a circuit simulator that bypasses the step of extraction. It produces an RLC (resistor-inductor-capacitor) representation of the linear network without any numerical computation. Such a representation is inherently passive and stable. In addition, it allows for the simulation of a circuit including both nonlinear devices and the linear network in linear complexity. The proposed circuit simulator rigorously captures the coupling between nonlinear circuits and the linear network. As an added bonus, it possesses electromagnetic-physics based accuracy. Application to very large-scale on-chip circuits involving close to 1 million CMOS transistors and interconnects having hundreds of millions of unknowns has demonstrated the superior performance of the proposed extraction-free circuit simulator.

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What this paper is about

The prevailing circuit simulation paradigm heavily relies on extraction to perform circuit simulation. In addition, no linear complexity has been reported by existing circuit simulation approaches. In this work, we develop a circuit simulator that bypasses the step of extraction. It produces an RLC (resistor-inductor-capacitor) representation of the linear network without any numerical computation. Such a representation is inherently passive and stable. In addition, it allows for the simulation of a circuit including both nonlinear devices and the linear network in linear complexity. The proposed circuit simulator rigorously captures the coupling between nonlinear circuits and the linear network. As an added bonus, it possesses electromagnetic-physics based accuracy. Application to very large-scale on-chip circuits involving close to 1 million CMOS transistors and interconnects having hundreds of millions of unknowns has demonstrated the superior performance of the proposed extraction-free circuit simulator.

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Available abstract

The prevailing circuit simulation paradigm heavily relies on extraction to perform circuit simulation. In addition, no linear complexity has been reported by existing circuit simulation approaches. In this work, we develop a circuit simulator that bypasses the step of extraction. It produces an RLC (resistor-inductor-capacitor) representation of the linear network without any numerical computation. Such a representation is inherently passive and stable. In addition, it allows for the simulation of a circuit including both nonlinear devices and the linear network in linear complexity. The proposed circuit simulator rigorously captures the coupling between nonlinear circuits and the linear network. As an added bonus, it possesses electromagnetic-physics based accuracy. Application to very large-scale on-chip circuits involving close to 1 million CMOS transistors and interconnects having hundreds of millions of unknowns has demonstrated the superior performance of the proposed extraction-free circuit simulator.

Key concepts: Electronic circuit simulation, Linear circuit, RLC circuit, Computer science, Electronic engineering, Circuit extraction, Inductor, Electronic circuit

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