Temporal Logic Resilience for Continuous-time Systems

Fuente: arXiv
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Hauptverfasser: Das, Ratnangshu, Monir, Negar, Si, Youssef Ait, Saoud, Adnane, Soudjani, Sadegh, Jagtap, Pushpak
Format: Preprint
Veröffentlicht: 2026
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author Das, Ratnangshu
Monir, Negar
Si, Youssef Ait
Saoud, Adnane
Soudjani, Sadegh
Jagtap, Pushpak
author_facet Das, Ratnangshu
Monir, Negar
Si, Youssef Ait
Saoud, Adnane
Soudjani, Sadegh
Jagtap, Pushpak
contents In this paper, we present a novel framework for quantifying a lower bound on resilience in continuous-time (non)linear systems subject to external disturbances while ensuring satisfaction of signal temporal logic specifications. Unlike robustness, which evaluates how well a system satisfies a specification under a given disturbance, resilience measures the maximum disturbance a system can tolerate from a given initial state while maintaining specification satisfaction. We first derive bounds on the perturbed trajectories and then use them to formulate a computational method based on scenario optimization to efficiently compute the maximum admissible disturbance. We validate our approach through case studies, including dc motor, temperature regulation, a nonlinear numerical example, and a vehicle collision avoidance case.
format Preprint
id arxiv_https___arxiv_org_abs_2604_14714
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Temporal Logic Resilience for Continuous-time Systems
Das, Ratnangshu
Monir, Negar
Si, Youssef Ait
Saoud, Adnane
Soudjani, Sadegh
Jagtap, Pushpak
Systems and Control
In this paper, we present a novel framework for quantifying a lower bound on resilience in continuous-time (non)linear systems subject to external disturbances while ensuring satisfaction of signal temporal logic specifications. Unlike robustness, which evaluates how well a system satisfies a specification under a given disturbance, resilience measures the maximum disturbance a system can tolerate from a given initial state while maintaining specification satisfaction. We first derive bounds on the perturbed trajectories and then use them to formulate a computational method based on scenario optimization to efficiently compute the maximum admissible disturbance. We validate our approach through case studies, including dc motor, temperature regulation, a nonlinear numerical example, and a vehicle collision avoidance case.
title Temporal Logic Resilience for Continuous-time Systems
topic Systems and Control
url https://arxiv.org/abs/2604.14714