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Anomaly Detection System for Distributed Job Processing within Microservice Architectures

Ramazan Pekin1,
Kerem Bozkurt2
1Paycell R&D Center
2Paycell R&D Center
Published:December 21, 2025

Abstract

Mobile payment systems process millions of transactions daily across distributed microservice architectures, where operational anomalies and silent failures can lead to financial losses and system instability. Traditional threshold-based monitoring is insufficient for detecting subtle, context-dependent deviations that evolve with user behavior and workload patterns. This study introduces a self-learning hybrid anomaly detection framework that integrates Isolation Forest, LSTM Autoencoder, and One-Class SVM to capture statistical, temporal, and structural deviations in operational metrics. Model outputs are fused using a calibrated soft majority voting strategy based on normalized anomaly scores. The trained framework is deployed as a containerized microservice, enabling real-time anomaly assessment based on live operational statistics. Experimental evaluation across a fifteen-month dataset demonstrates that the ensemble improves detection robustness and reduces false negatives compared to individual models and simple averaging strategies. The results highlight the system’s ability to detect silent failures and abnormal behaviors that occur without explicit exceptions while maintaining scalability and adaptability in complex financial microservice environments.

Keywords
Anomaly DetectionDistributed SystemsMicroservicesLSTM AutoencoderIsolation ForestOne-Class SVMEnsemble LearningSoft Majority VotingSilent FailureMobile Payments

References

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Cite This Article
Pekin, R., Bozkurt, K. (2025). Anomaly Detection System for Distributed Job Processing within Microservice Architectures. *The European Journal of Research and Development*, 5(1), 581-598. https://doi.org/10.56038/ejrnd.v5i1.744

Bibliographic Info

JournalThe European Journal of Research and Development
Volume5
Issue1
Pages581–598
PublishedDecember 21, 2025
eISSN2822-2296