Scaled Graph Bounding Techniques for Reset Systems

Fuente: arXiv
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Main Authors: de Groot, Timo, Heemels, Maurice, Oomen, Tom, Eijnden, Sebastiaan van den
Format: Preprint
Published: 2026
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author de Groot, Timo
Heemels, Maurice
Oomen, Tom
Eijnden, Sebastiaan van den
author_facet de Groot, Timo
Heemels, Maurice
Oomen, Tom
Eijnden, Sebastiaan van den
contents Reset systems can overcome fundamental limitations of linear time-invariant control. The recently introduced notion of scaled (relative) graphs provides a promising framework for developing graphical analysis and design tools for reset systems, in line with widely adopted loopshaping methods for linear systems. The aim of this paper is to derive techniques for over-bounding the scaled graph of reset systems, and obtain insights in their accuracy. We exploit connections between quadratic dissipativity and scaled graphs to recast the over-bounding problem as the search for piecewise quadratic storage functions. Using specific sampling techniques, we reveal a fundamental limitation of general scaled graph approximation methods that are based on quadratic dissipativity.
format Preprint
id arxiv_https___arxiv_org_abs_2605_21119
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Scaled Graph Bounding Techniques for Reset Systems
de Groot, Timo
Heemels, Maurice
Oomen, Tom
Eijnden, Sebastiaan van den
Optimization and Control
Systems and Control
Reset systems can overcome fundamental limitations of linear time-invariant control. The recently introduced notion of scaled (relative) graphs provides a promising framework for developing graphical analysis and design tools for reset systems, in line with widely adopted loopshaping methods for linear systems. The aim of this paper is to derive techniques for over-bounding the scaled graph of reset systems, and obtain insights in their accuracy. We exploit connections between quadratic dissipativity and scaled graphs to recast the over-bounding problem as the search for piecewise quadratic storage functions. Using specific sampling techniques, we reveal a fundamental limitation of general scaled graph approximation methods that are based on quadratic dissipativity.
title Scaled Graph Bounding Techniques for Reset Systems
topic Optimization and Control
Systems and Control
url https://arxiv.org/abs/2605.21119