Anomaly Detection Algorithm Using the SARIMA Model for an Automated Complex for Aquatic Environment Biomonitoring

The paper presents an algorithm for anomaly detection in bivalve activity data using the error between the predicted value using the SARIMA model and the actual value. Decomposition of time series was carried out to determine the seasonal component of the models. An optimal model for all averaging times of the activity data of freshwater bivalve was made. After this, using the developed algorithmic software, the RMSE metric was calculated for the entire data set, which made it possible to determine the potential threshold for the operation of the algorithm, as well as the algorithm’s response time to anomalies at different data averaging times. The results will be included in the algorithmic software of an automated complex for biomonitoring the state of water quality based on bivalves, which is already functioning and located in the waters of Sevastopol, which will allow more rapid and more likely detection of anomalies and generate an alarm signal.

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Publication Details

Journal
Scientific and Technical Information Processing
Published
2025-12-01
DOI
https://doi.org/10.3103/s0147688225700303
Primary Topic
Aquatic and Environmental Studies
Type
article
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article

Anomaly Detection Algorithm Using the SARIMA Model for an Automated Complex for Aquatic Environment Biomonitoring

A. N. Grekov, A. S. Mavrin, E. V. Vyshkvarkova
Scientific and Technical Information Processing
Aquatic and Environmental Studies
article

Anomaly Detection Algorithm Using the SARIMA Model for an Automated Complex for Aquatic Environment Biomonitoring

A. N. Grekov, A. S. Mavrin, E. V. Vyshkvarkova
article en

Abstract

The paper presents an algorithm for anomaly detection in bivalve activity data using the error between the predicted value using the SARIMA model and the actual value. Decomposition of time series was carried out to determine the seasonal component of the models. An optimal model for all averaging times of the activity data of freshwater bivalve was made. After this, using the developed algorithmic software, the RMSE metric was calculated for the entire data set, which made it possible to determine the potential threshold for the operation of the algorithm, as well as the algorithm’s response time to anomalies at different data averaging times. The results will be included in the algorithmic software of an automated complex for biomonitoring the state of water quality based on bivalves, which is already functioning and located in the waters of Sevastopol, which will allow more rapid and more likely detection of anomalies and generate an alarm signal.

Scientific and Technical Information ProcessingVol. 52(5)
Institute of Natural and Technical Systems (RU)
Life below water, Clean water and sanitation
Openalex Percentile: Top 26%
Aquatic and Environmental Studies
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