A Modular Safety Filter for Safety-Certified Cyber-Physical Systems

Nowadays, many control systems are networked and embed communication and computation capabilities. Such control architectures are prone to cyber attacks on the cyberinfrastructure. Consequently, there is an impellent need to develop solutions to preserve the plant's safety against potential attacks. To ensure safety, this paper introduces a modular safety filter approach that is effective for various cyber-attack types. This solution can be implemented in combination with existing control and detection algorithms, effectively separating safety from performance. The safety filter does not require information on the received command's reliability or the anomaly detector's feature. It can be implemented in conjunction with high-performance, resilient controllers to achieve both high performance during normal operation and safety during an attack. As an illustrative example, we have shown the effectiveness of the proposed design considering a multi-agent formation task involving 20 mobile robots. The simulation results testify that the safety filter operates effectively during undetectable, intelligent attacks.

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Publication Details

Published
2025-08-25
DOI
https://doi.org/10.1109/ccta53793.2025.11151283
Citations
1
Primary Topic
Safety Systems Engineering in Autonomy
Type
article
Field-Weighted Citation Impact
1.30
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article

A Modular Safety Filter for Safety-Certified Cyber-Physical Systems

Klaske van Heusden, Mehran Attar, Mohammad Bajelani, Walter Lúcia
1 citations
Safety Systems Engineering in Autonomy
1.30
article

A Modular Safety Filter for Safety-Certified Cyber-Physical Systems

Klaske van Heusden, Mehran Attar, Mohammad Bajelani, Walter Lúcia
article en
1 citations

Abstract

Nowadays, many control systems are networked and embed communication and computation capabilities. Such control architectures are prone to cyber attacks on the cyberinfrastructure. Consequently, there is an impellent need to develop solutions to preserve the plant's safety against potential attacks. To ensure safety, this paper introduces a modular safety filter approach that is effective for various cyber-attack types. This solution can be implemented in combination with existing control and detection algorithms, effectively separating safety from performance. The safety filter does not require information on the received command's reliability or the anomaly detector's feature. It can be implemented in conjunction with high-performance, resilient controllers to achieve both high performance during normal operation and safety during an attack. As an illustrative example, we have shown the effectiveness of the proposed design considering a multi-agent formation task involving 20 mobile robots. The simulation results testify that the safety filter operates effectively during undetectable, intelligent attacks.

Concordia University (CA), Okanagan University College (CA)
Openalex Percentile: Top 17%
Safety Systems Engineering in Autonomy
1.30
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A Modular Safety Filter for Safety-Certified Cyber-Physical Systems — Klaske van Heusden, Mehran Attar, et al. · (2025) | TGRS Research Map | TGRS