conference · ICCAD-2003. International Conference on Computer Aided Design (IEEE Cat. No.03CH37486) · 2003

Analog Macromodeling using Kernel Methods

Joel Phillips, João L. Afonso, Arlindo L. Oliveira, L. Miguel Silveira · 33 citations

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Summary AI-generated

TL;DR
This paper explores the potential of kernel-based regression, a general class of functional representation techniques, for solving the nonlinear model reduction problem.
Problem
Not specified in the abstract.
Method
The authors adopt a kernel-based viewpoint that provides a convenient computational framework for regression, unifying and extending existing polynomial and piecewise-linear reduction methods.
Results
Not specified in the abstract.
Contributions
Not specified in the abstract.
Limitations
Not specified in the abstract.
Takeaways
By leveraging familiar linear system manipulation techniques in a nonlinear context, kernels offer insight into building more powerful modeling strategies, including an SVD-like technique for automatic model compression that systematically identifies redundancies and controls approximation error.
Applications
Not specified in the abstract.
Topics
Analog Macromodeling; Kernel Methods
For industry
Not specified in the abstract.
Why it matters
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Abstract

In this paper we explore the potential of using a general class of functional representation techniques, kernel-based regression, in the nonlinear model reduction problem. The kernel-based viewpoint provides a convenient computational framework for regression, unifying and extending the previously proposed polynomial and piecewise-linear reduction methods. Furthermore, as many familiar methods for linear system manipulation can be leveraged in a nonlinear context, kernels provide insight into how new, more powerful, nonlinear modeling strategies can be constructed. We present an SVD-like technique for automatic compression of nonlinear models that allows systematic identification of model redundancies and rigorous control of approximation error.

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