This work presents an advanced fault detection strategy for Autonomous Underwater Reconfigurable Vehicles (AURVs) leveraging Deep Learning techniques, specifically autoencoders. As AURVs are increasingly utilized for complex underwater missions, ensuring their operational reliability is critical. The proposed method addresses the challenges of fault detection in such environments by implementing an autoencoder-based approach to identify anomalies in the vehicle's thruster performance. The strategy's effectiveness is validated through extensive simulations under both 'survey' and 'hovering' configurations. The model demonstrated high accuracy in both the 'survey' configuration and 'hovering' configuration, effectively distinguishing between faulty and non-faulty states with minimal false positives. The results indicate that the autoencoder approach is robust, providing reliable fault detection that can enhance the safety and performance of AURVs in dynamic and unpredictable underwater environments.

Autoencoder-based Fault Detection Strategy for Autonomous Underwater Reconfigurable Vehicles / Vangi, Mirco; Topini, Alberto; Lazzerini, Guido; Ridolfi, Alessandro; Omerdic, Edin; Allotta, Benedetto. - ELETTRONICO. - (2024), pp. 1-8. (Intervento presentato al convegno OCEANS 2024 - Halifax, OCEANS 2024 tenutosi a Halifax, Canada nel 23-26 September 2024) [10.1109/oceans55160.2024.10754243].

Autoencoder-based Fault Detection Strategy for Autonomous Underwater Reconfigurable Vehicles

Vangi, Mirco
;
Topini, Alberto;Lazzerini, Guido;Ridolfi, Alessandro;Allotta, Benedetto
2024

Abstract

This work presents an advanced fault detection strategy for Autonomous Underwater Reconfigurable Vehicles (AURVs) leveraging Deep Learning techniques, specifically autoencoders. As AURVs are increasingly utilized for complex underwater missions, ensuring their operational reliability is critical. The proposed method addresses the challenges of fault detection in such environments by implementing an autoencoder-based approach to identify anomalies in the vehicle's thruster performance. The strategy's effectiveness is validated through extensive simulations under both 'survey' and 'hovering' configurations. The model demonstrated high accuracy in both the 'survey' configuration and 'hovering' configuration, effectively distinguishing between faulty and non-faulty states with minimal false positives. The results indicate that the autoencoder approach is robust, providing reliable fault detection that can enhance the safety and performance of AURVs in dynamic and unpredictable underwater environments.
2024
Oceans Conference Record (IEEE)
OCEANS 2024 - Halifax, OCEANS 2024
Halifax, Canada
23-26 September 2024
Goal 9: Industry, Innovation, and Infrastructure
Vangi, Mirco; Topini, Alberto; Lazzerini, Guido; Ridolfi, Alessandro; Omerdic, Edin; Allotta, Benedetto
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Utilizza questo identificatore per citare o creare un link a questa risorsa: https://hdl.handle.net/2158/1405773
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