Real-Time Guaranteed Monitoring for a Drone Using Interval Analysis and Signal Temporal Logic

This paper presents a guaranteed model-based approach for monitoring drone trajectory, providing real-time guarantees with a simplified dynamic model. ROS components are introduced for real-time implementation, enabling monitoring and adjustments in both simulations and actual systems. We extend the application of set-based simulation by formalizing timing conditions with Signal Temporal Logic (STL) and incorporating Boolean interval arithmetic to handle undetermined behaviors. The method compares model-based fault prediction using a stochastic approach with a set-based method, which manages bounded uncertainties and offers guarantees. Experimental validation, including comparisons against Monte Carlo methods, demonstrates the approach ability to ensure safety in worst-case scenarios while remaining suitable for real-time processing.

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Publication Details

Published
2025-10-19
DOI
https://doi.org/10.1109/iros60139.2025.11245994
Primary Topic
Aerospace and Aviation Technology
Type
article
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article

Real-Time Guaranteed Monitoring for a Drone Using Interval Analysis and Signal Temporal Logic

Joris Tillet, Julien Alexandre dit Sandretto, Antoine Besset
Aerospace and Aviation Technology
article

Real-Time Guaranteed Monitoring for a Drone Using Interval Analysis and Signal Temporal Logic

Joris Tillet, Julien Alexandre dit Sandretto, Antoine Besset
article en

Abstract

This paper presents a guaranteed model-based approach for monitoring drone trajectory, providing real-time guarantees with a simplified dynamic model. ROS components are introduced for real-time implementation, enabling monitoring and adjustments in both simulations and actual systems. We extend the application of set-based simulation by formalizing timing conditions with Signal Temporal Logic (STL) and incorporating Boolean interval arithmetic to handle undetermined behaviors. The method compares model-based fault prediction using a stochastic approach with a set-based method, which manages bounded uncertainties and offers guarantees. Experimental validation, including comparisons against Monte Carlo methods, demonstrates the approach ability to ensure safety in worst-case scenarios while remaining suitable for real-time processing.

Openalex Percentile: Top 52%
Aerospace and Aviation Technology
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