Resilient and Effort-Optimal Controller Synthesis under Temporal Logic Specifications

Fuente: arXiv
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Autores principales: Si, Youssef Ait, Das, Ratnangshu, Monir, Negar, Soudjani, Sadegh, Jagtap, Pushpak, Saoud, Adnane
Formato: Preprint
Publicado: 2026
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author Si, Youssef Ait
Das, Ratnangshu
Monir, Negar
Soudjani, Sadegh
Jagtap, Pushpak
Saoud, Adnane
author_facet Si, Youssef Ait
Das, Ratnangshu
Monir, Negar
Soudjani, Sadegh
Jagtap, Pushpak
Saoud, Adnane
contents In this paper, we consider the notions of effort and resilience of a dynamical control system defined by the maximum disturbance the system can withstand while satisfying given finite temporal logic specifications. Given a dynamical system and a specification, the objective is to synthesize the controller such that the system satisfies the specification while maximizing its resilience, taking into account input constraints. In addition, we introduce a new metric, called the effort metric, which characterizes the minimal input bound necessary to satisfy a given specification for a perturbed system. The problem for both metrics is formulated as a robust optimization program where the objective is to compute the maximum resilience for the system with input constraints or the minimal effort while simultaneously synthesizing the corresponding controller parameters. Moreover, we study the trade-off between resilience and effort, where we seek to maximize resilience and minimize the control effort. For linear systems and linear controllers, exact solutions are provided for the class of time-varying polytopic specifications for the closed-loop and open-loop systems. For the case of nonlinear systems, nonlinear controllers, and more general specifications, we leverage tools from the scenario optimization approach, offering a probabilistic guarantee of the solution as well as computational feasibility. Different case studies are presented to illustrate the theoretical results.
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id arxiv_https___arxiv_org_abs_2604_10680
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publishDate 2026
record_format arxiv
spellingShingle Resilient and Effort-Optimal Controller Synthesis under Temporal Logic Specifications
Si, Youssef Ait
Das, Ratnangshu
Monir, Negar
Soudjani, Sadegh
Jagtap, Pushpak
Saoud, Adnane
Systems and Control
In this paper, we consider the notions of effort and resilience of a dynamical control system defined by the maximum disturbance the system can withstand while satisfying given finite temporal logic specifications. Given a dynamical system and a specification, the objective is to synthesize the controller such that the system satisfies the specification while maximizing its resilience, taking into account input constraints. In addition, we introduce a new metric, called the effort metric, which characterizes the minimal input bound necessary to satisfy a given specification for a perturbed system. The problem for both metrics is formulated as a robust optimization program where the objective is to compute the maximum resilience for the system with input constraints or the minimal effort while simultaneously synthesizing the corresponding controller parameters. Moreover, we study the trade-off between resilience and effort, where we seek to maximize resilience and minimize the control effort. For linear systems and linear controllers, exact solutions are provided for the class of time-varying polytopic specifications for the closed-loop and open-loop systems. For the case of nonlinear systems, nonlinear controllers, and more general specifications, we leverage tools from the scenario optimization approach, offering a probabilistic guarantee of the solution as well as computational feasibility. Different case studies are presented to illustrate the theoretical results.
title Resilient and Effort-Optimal Controller Synthesis under Temporal Logic Specifications
topic Systems and Control
url https://arxiv.org/abs/2604.10680