AI-Driven Predictive Maintenance in the Cloud
Keywords:
Data Engineering, Automation, AI, E-Commerce, Personalization,Automated Data Pipelines,AI-Driven ETL / ELT,Real-Time Data Processing,E-Commerce Data Integration,Data Quality Monitoring,Intelligent Data Orchestration,Predictive Data Validation,Customer Behavior Analytics,Scalable Cloud Data Warehousing,Anomaly Detection in Data Streams.cAbstract
Data engineering refers to the set of activities related to preparing and managing data for analytical workloads, and it encompasses a wide range of tasks performed on data at different stages of the analytics life cycle—from ingestion and integration to feature engineering and metadata management. A data engineering pipeline connects various e-commerce data sources by combining data from multiple operational silos (product catalog, customer accounts, shopping carts, transaction records, shipping and delivery, payments, etc.) in order to support the development of artificial intelligence models used for personalized website experiences, recommendation engines, dynamic pricing strategies, and demand forecasting. Nowadays, the volume of consumed data and the highly dynamic nature of the business logic being implemented in the underlying model have reached a point where data engineering pipelines need to be automated, enabling the data operations teams to support the business more efficiently.
Automation at scale is an ambitious goal that requires specialized frameworks and technologies across different areas of data engineering. These areas are outlined through recurring architectural patterns, and each pattern is built by assembling the most suitable services and tools on the market from the cloud providers that best match the organization’s business requirements in order to enable the core automation processes. Reusable building blocks are introduced for key activities such as cloud-native data platforms, data orchestration and workflow automation, automated schema discovery and adaptation, and anomaly detection and data quality alerting. Even though these solutions are presented in the context of personalized experiences and recommendation engines—typical workloads of any large e-commerce organization—they cover only part of the actual automation. The presented approaches can be applied to any AI/ML problem requiring a data plane—such as dynamic pricing and demand forecasting—with the required effort range for implementation.
References
1. Ayvaz, S., & Alpay, K. (2021). Predictive maintenance system for production lines in manufacturing: A machine learning approach using IoT data in real-time. Expert Systems with Applications, 173, 114598.
2. Souza, R. M., Nascimento, E. G. S., Miranda, U. A., Silva, W. J. D., & Lepikson, H. A. (2021). Deep learning for diagnosis and classification of faults in industrial rotating machinery. Computers & Industrial Engineering, 153, 107060.
3. Mangalampalli, B. M. (2024). Transparent Intelligence Explainability Frameworks for AI-Driven Clinical Decision Support in Healthcare Business Intelligence. International Journal of Research Publications in Engineering, Technology and Management (IJRPETM), 7(3), 10566-10579.
4. Nasir, M. A., & Sassani, F. (2021). A machine learning-based predictive maintenance approach for industrial equipment. International Journal of Advanced Manufacturing Technology, 115, 3097–3112.
5. Samatas, G. G., Moumgiakmas, S. S., & Papakostas, G. A. (2021). Predictive maintenance—Bridging artificial intelligence and IoT. arXiv.
6. Mattaparthi, R. (2024). Transformer-Based Fault Diagnosis for Large-Scale Standby Power Generators: Partial Discharge Pattern Recognition at Hyperscale Data Center Installations. Journal of Computational Analysis and Applications (JoCAAA), 33(08), 8781-8799.
7. Soltanali, H., Garmabaki, A. H. S., & Parida, A. (2021). Machine learning-based predictive maintenance in industrial systems: A review and practical framework. Journal of Quality in Maintenance Engineering, 27, 1–20.
8. Theissler, A., Pérez-Velázquez, J., Kettelgerdes, M., & Elger, G. (2022). Predictive maintenance enabled by machine learning: Use cases and challenges in the automotive industry. Reliability Engineering & System Safety, 215, 107864.
9. Kolla, S. K., & Mangalampalli, B. M. (2024). Edge-Based Deep Learning Systems for Point-of-Care Diagnostic Intelligence. Journal of Neonatal Surgery, 13(1), 2387-2399.
10. Hesabi, H., Nourelfath, M., & Hajji, A. (2022). A deep learning predictive model for selective maintenance optimization. Reliability Engineering & System Safety, 219, 108191.
11. Nguyen, K. T. P., Medjaher, K., & Gogu, C. (2022). Probabilistic deep learning methodology for uncertainty quantification of remaining useful lifetime of multi-component systems. Reliability Engineering & System Safety, 222, 108383.
12. Loganathan, R., & Kolla, S. H. (2024). Harnessing generative AI for adaptive risk policy generation in multi-regulatory data center environments. Turkish Journal of Computer and Mathematics Education (TURCOMAT), 15(3), 505-515.
13. Yan, J., He, Z., & He, S. (2022). A deep learning framework for sensor-equipped machine health indicator construction and remaining useful life prediction. Computers & Industrial Engineering, 172, 108559.
14. Son, S., & Oh, K.-Y. (2022). Integrated framework for estimating remaining useful lifetime through a deep neural network. Applied Soft Computing, 122, 108879.
15. Fu, H., & Liu, Y. (2022). A deep learning-based approach for electrical equipment remaining useful life prediction. Autonomous Intelligent Systems, 2, Article 16.
16. Kolla, S. H., & Peddi, R. K. (2024). Designing Governance-Aligned GenAI Pipelines Using Small Language Models for Enterprise Workflow Intelligence. International Journal of Science, Research and Technology, 7(6), 13256-13268.
17. Rosati, R., Romeo, L., Cecchini, G., Tonetto, F., Viti, P., Mancini, A., & Frontoni, E. (2023). From knowledge-based to big data analytic model: A novel IoT and machine learning based decision support system for predictive maintenance in Industry 4.0. Journal of Intelligent Manufacturing, 34, 107–121.
18. Zhuang, L., Xu, A., & Wang, X.-L. (2023). A prognostic driven predictive maintenance framework based on Bayesian deep learning. Reliability Engineering & System Safety, 234, 109181.
19. Zeng, J., & Liang, Z. (2023). A dynamic predictive maintenance approach using probabilistic deep learning for a fleet of multi-component systems. Reliability Engineering & System Safety, 238, 109456.
20. Mahadevan, S. (2024). Clouding the Future: Innovating Towards Net-Zero Emissions. International Journal of Computing and Engineering, 6(2), 17-23.
21. Lee, J., & Mitici, M. (2023). Deep reinforcement learning for predictive aircraft maintenance using probabilistic Remaining-Useful-Life prognostics. Reliability Engineering & System Safety, 230, 108908.
22. Li, Y., Chen, Y., Hu, Z., & Zhang, H. (2023). Remaining useful life prediction of aero-engine enabled by fusing knowledge and deep learning models. Reliability Engineering & System Safety, 229, 108869.
23. Yan, J., He, Z., & He, S. (2023). Multitask learning of health state assessment and remaining useful life prediction for sensor-equipped machines. Reliability Engineering & System Safety, 234, 109141.
24. Li, H., Cao, P., Wang, X., Yi, B., Huang, M., Sun, Q., & Zhang, Y. (2023). Multi-task spatio-temporal augmented net for industry equipment remaining useful life prediction. Advanced Engineering Informatics, 55, 101898.
25. Reddy, V. A. R. (2024). Generative Intelligence for Healthcare Claims Processing and Personalized Benefits Management. International Journal of Advanced Engineering Science and Information Technology (IJAESIT), 7(3), 14099.
26. Zhang, J., Li, X., Tian, J., Luo, H., & Yin, S. (2023). An integrated multi-head dual sparse self-attention network for remaining useful life prediction. Reliability Engineering & System Safety, 233, 109096.
27. Chen, C., Fu, H., Zheng, Y., Tao, F., & Liu, Y. (2023). The advance of digital twin for predictive maintenance: The role and function of machine learning. Journal of Manufacturing Systems, 71, 581–594.
28. Surucu, O., Gadsden, S. A., & Yawney, J. (2023). Condition monitoring using machine learning: A review of theory, applications, and recent advances. Expert Systems with Applications, 221, 119738.
29. Choi, J.-H., Kim, J.-H., & Kim, S.-K. (2023). Artificial intelligence-based data-driven prognostics in industry: A survey. Computers & Industrial Engineering, 184, 109605.
30. Mangala, N. (2022). Real-Time Data Quality Monitoring and Gating Frameworks in Cloud-Based Data Pipelines. International Journal of Research and Applied Innovations, 5(6), 8197-8219.
31. Aboshosha, A., Haggag, A., George, N., & Hamad, H. A. (2023). IoT-based data-driven predictive maintenance relying on fuzzy system and artificial neural networks. Scientific Reports, 13, 12186.
32. Li, H., Li, S., & Min, G. (2024). Lightweight privacy-preserving predictive maintenance in 6G enabled IIoT. Journal of Industrial Information Integration, 39, 100548.
33. Li, Z., He, Q., & Li, J. (2024). A survey of deep learning-driven architecture for predictive maintenance. Engineering Applications of Artificial Intelligence, 133, Article 108285.
34. Bala, A., Rashid, R. Z. J. A., Ismail, I., Oliva, D., Muhammad, N., Sait, S. M., Al-Utaibi, K. A., Amosa, T. I., & Memon, K. A. (2024). Artificial intelligence and edge computing for machine maintenance-review. Artificial Intelligence Review, 57(5), Article 119.
35. Mallioris, P., Aivazidou, E., & Bechtsis, D. (2024). Predictive maintenance in Industry 4.0: A systematic multi-sector mapping. CIRP Journal of Manufacturing Science and Technology, 50, 80–103.
36. Elkateb, S., Métwalli, A., Shendy, A., & Abu-Elanien, A. E. B. (2024). Machine learning and IoT-based predictive maintenance approach for industrial applications. Alexandria Engineering Journal, 88, 298–309.
37. Wang, L., Zhu, Z., & Zhao, X. (2024). Dynamic predictive maintenance strategy for system remaining useful life prediction via deep learning ensemble method. Reliability Engineering & System Safety, 245, 110012.
38. de Beaulieu, M. H., Jha, M. S., Garnier, H., & Cerbah, F. (2024). Remaining useful life prediction based on physics-informed data augmentation. Reliability Engineering & System Safety, 252, 110451.
39. Wang, W., Song, H., Si, S., Lu, W., & Cai, Z. (2024). Data augmentation based on diffusion probabilistic model for remaining useful life estimation of aero-engines. Reliability Engineering & System Safety, 252, 110394.
40. Yandamuri, U. S. (2024). AI-Driven Decision Support Systems for Operational Optimization in Hospitality Technology. Metallurgical and Materials Engineering.
41. Qin, Y., et al. (2024). Remaining useful life prediction based on deep learning: A survey. Sensors, 24(11), 3454.
42. Pani, S., Pattnaik, O., & Pattanayak, B. K. (2024). Predictive maintenance in Industrial IoT using machine learning approach. International Journal of Intelligent Systems and Applications in Engineering, 12(14s), 521–534.
43. Souza, R. M., Nascimento, E. G. S., Miranda, U. A., Silva, W. J. D., & Lepikson, H. A. (2021). Deep learning for diagnosis and classification of faults in industrial rotating machinery. Computers & Industrial Engineering, 153, 107060.
44. Zhou, K.-L., Cheng, D.-J., Zhang, H.-B., Hu, Z.-T., & Zhang, C.-Y. (2023). Deep learning-based intelligent multilevel predictive maintenance framework considering comprehensive cost. Reliability Engineering & System Safety, 237, 109357.
Additional Files
Published
Data Availability Statement
None
Issue
Section
License
Copyright (c) 2025 Anumandla Mukesh (Author)

This work is licensed under a Creative Commons Attribution 4.0 International License.