In this demo, we present a real-time, machine-learning-driven framework for early fault detection in optical fiber networks, leveraging continuous State-of-Polarization (SOP) monitoring and angular speed (SOPAS) analysis. By extracting polarization fingerprints from a Polarimeter and feeding them into a trained ML classifier, our system detects and categorizes physical anomalies, such as small hits, slow shake (oscillations), and fast shake (oscillations) on the fiber, before they escalate into service disruptions. This proactive mechanism enables timely alerts and a direction towards dynamic traffic rerouting, preserving network integrity. The demonstration showcases a fully functional remote pipeline that integrates AI-based sensing, classification, and automated response, laying the foundation for self-monitoring optical infrastructures
Demonstration of Real-Time AI-Enabled Smart Fault Detection using State-of-Polarization Monitoring / Malik, Gulmina; Masood, Muhammad Umar; Ambrosone, Renato; Dipto, Imran Chowdery; Mohamed, Mashboob Cheruvakkadu; Ali, Ahtisham; Straullu, Stefano; Bhyri, Sai Kishore; Galimberti, Gabriele Maria; Pedro, João; Napoli, Antonio; Wakim, Walid; Curri, Vittorio. - (2025), pp. 1-4. (Intervento presentato al convegno 2025 25th Anniversary International Conference on Transparent Optical Networks (ICTON) tenutosi a Barcelona (Spa) nel July 06-10, 2025) [10.1109/icton67126.2025.11125473].
Demonstration of Real-Time AI-Enabled Smart Fault Detection using State-of-Polarization Monitoring
Malik, Gulmina;Masood, Muhammad Umar;Ambrosone, Renato;Mohamed, Mashboob Cheruvakkadu;Ali, Ahtisham;Straullu, Stefano;Curri, Vittorio
2025
Abstract
In this demo, we present a real-time, machine-learning-driven framework for early fault detection in optical fiber networks, leveraging continuous State-of-Polarization (SOP) monitoring and angular speed (SOPAS) analysis. By extracting polarization fingerprints from a Polarimeter and feeding them into a trained ML classifier, our system detects and categorizes physical anomalies, such as small hits, slow shake (oscillations), and fast shake (oscillations) on the fiber, before they escalate into service disruptions. This proactive mechanism enables timely alerts and a direction towards dynamic traffic rerouting, preserving network integrity. The demonstration showcases a fully functional remote pipeline that integrates AI-based sensing, classification, and automated response, laying the foundation for self-monitoring optical infrastructuresFile | Dimensione | Formato | |
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https://hdl.handle.net/11583/3002566