From Static Thresholds to Smart Baselines: Incremental AI Enhancement for Industrial Time Series Data Monitoring

Industries increasingly demand intelligent monitoring for data anomalies in industrial sensing systems.However, traditional threshold-based sensor data anomaly detection remains prevalent; a rapid shift to fully AI-enhanced systems is often impractical.Instead, incrementally optimizing traditional methods is more feasible.In this study, we enhance traditional dynamic threshold techniques for sensor time series data using large model-driven recommendations and parameter optimization.Our method first relabels and corrects samples from existing threshold outputs to recalculate appropriate values.Through a time-segmented split mechanism, it dynamically adjusts threshold ratios within each segment to better reflect sensor data variations.Additionally, we incorporate a large language model to recommend optimal parameter configurations, improving usability and flexibility.Real-world deployment demonstrates that our approach significantly outperforms traditional dynamic thresholds in detection accuracy and adaptability, offering a scalable solution for transitioning toward intelligent sensor monitoring.While effectively addressing the rigidity and high false-alarm rates of traditional sensor baselines, this study's limitation is its reliance on human validation for complex sensor drift.The remaining challenge is achieving the fully autonomous handling of multi-sensor correlations.

Authors

Publication Details

Journal
Sensors and Materials
Published
2026-06-29
DOI
https://doi.org/10.18494/sam6282
Primary Topic
Time Series Analysis and Forecasting
Type
article
Field-Weighted Citation Impact
0.00

Funders

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article

From Static Thresholds to Smart Baselines: Incremental AI Enhancement for Industrial Time Series Data Monitoring

Xidao Wen, Kanglin Yin, Xingzhi Chang, Hua Lou et al.
Sensors and Materials
Time Series Analysis and Forecasting
article

From Static Thresholds to Smart Baselines: Incremental AI Enhancement for Industrial Time Series Data Monitoring

Xidao Wen, Kanglin Yin, Xingzhi Chang, Hua Lou, Ruming Tang
article en

Abstract

Industries increasingly demand intelligent monitoring for data anomalies in industrial sensing systems.However, traditional threshold-based sensor data anomaly detection remains prevalent; a rapid shift to fully AI-enhanced systems is often impractical.Instead, incrementally optimizing traditional methods is more feasible.In this study, we enhance traditional dynamic threshold techniques for sensor time series data using large model-driven recommendations and parameter optimization.Our method first relabels and corrects samples from existing threshold outputs to recalculate appropriate values.Through a time-segmented split mechanism, it dynamically adjusts threshold ratios within each segment to better reflect sensor data variations.Additionally, we incorporate a large language model to recommend optimal parameter configurations, improving usability and flexibility.Real-world deployment demonstrates that our approach significantly outperforms traditional dynamic thresholds in detection accuracy and adaptability, offering a scalable solution for transitioning toward intelligent sensor monitoring.While effectively addressing the rigidity and high false-alarm rates of traditional sensor baselines, this study's limitation is its reliance on human validation for complex sensor drift.The remaining challenge is achieving the fully autonomous handling of multi-sensor correlations.

Sensors and MaterialsVol. 38(6)
Government of Jiangsu Province
Industry, innovation and infrastructure
Openalex Percentile: Top 6%
Time Series Analysis and Forecasting
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