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This research advances industrial reliability by shifting Graph Neural Network (GNN) focus from simple sensor deviations to diagnosing root causes within system dynamics. The proposed explainable framework effectively prioritizes true faulty components, offering interpretable insights into complex multivariate time series failures. This work represents a significant step toward trustworthy AI applications in critical infrastructure monitoring.
An Explainable GNN Framework for Component-Level Anomaly Diagnosis
arXiv:2608.09246v2 Announce Type: replace Abstract: Industrial processes are complex systems composed of multiple interacting sensors that generate multivariate time series (MTS). Detecting anomalies in such systems is critical for reliability and safety, yet understanding their origin is equally important. Existing Graph Neural Network (GNN)based methods for anomaly detection primarily focus on sensor-level deviations and either attribute anomalies directly to the deviating sensors. When diagnosis is attempted, generally, the most deviated sensor is identified as a root cause of a system fault. However, in many industrial systems, anomalies do not arise from faulty sensors but from disruptions in the influences governing the system dynamics. We propose an explainable GNN-based anomaly detection framework that shifts the perspective from sensor-level anomalies to component-level diagnosis, hypothesizing that anomalous measurements are symptoms of altered inter-sensor influences. Experiments show that the method effectively identifies and prioritizes the true faulty components, providing interpretable insights into system failures.
Abstract:Industrial processes are complex systems composed of multiple interacting sensors that generate multivariate time series (MTS). Detecting anomalies in such systems is critical for reliability and safety, yet understanding their origin is equally important. Existing Graph Neural Network (GNN)based methods for anomaly detection primarily focus on sensor-level deviations and either attribute anomalies directly to the deviating sensors. When diagnosis is attempted, generally, the most deviated sensor is identified as a root cause of a system fault. However, in many industrial systems, anomalies do not arise from faulty sensors but from disruptions in the influences governing the system dynamics. We propose an explainable GNN-based anomaly detection framework that shifts the perspective from sensor-level anomalies to component-level diagnosis, hypothesizing that anomalous measurements are symptoms of altered inter-sensor influences. Experiments show that the method effectively identifies and prioritizes the true faulty components, providing interpretable insights into system failures.
Artificial Intelligence (cs.AI)
arXiv:2608.09246 [cs.AI]
(or arXiv:2608.09246v2 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2608.09246 Focus to learn more arXiv-issued DOI via DataCite
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