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arXiv · 2608.06689

Complete Abstractions of Monotone Control Systems: From Model-based to Data-Driven Systems

Adnane Saoud·Anas Makdesi·Mohamed Maghenem·Antoine Girard·Murat Arcak
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Abstract

In this paper, we introduce the approximate strong upper alternating simulation (ASUAS), a new behavioral relation for transition systems. Building on this relation, we construct upper- and lower-sparse abstractions for monotone systems that together form a complete abstraction pair: any controller synthesized for the upper-sparse abstraction can be refined into a controller for the original system, and the absence of a controller for the lower-sparse abstraction implies the absence of a controller for the original system. A key feature of our approach is the ability to provably tune the conservativeness gap between the two abstractions by tuning the space-discretization parameter. We further extend these results, beyond the model-based setting, to data-driven systems, where the abstraction is constructed directly from finite sampled data, without requiring an explicit system model. The theoretical results are illustrated through simulations.

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Adnane Saoud, Anas Makdesi, Mohamed Maghenem, Antoine Girard, Murat Arcak. 2026-08-07. Complete Abstractions of Monotone Control Systems: From Model-based to Data-Driven Systems. https://arxiv.org/abs/2608.06689

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