Intelligent Cloud Native Observability for Enterprise Infrastructure Using Predictive Analytics and Machine Learning
DOI:
https://doi.org/10.21590/Keywords:
cloud-native observability, predictive analytics, machine learning, enterprise infrastructure, anomaly detection, infrastructure monitoring, time-series forecasting, AIOps, cloud computing, microservices, telemetry analytics, predictive maintenance, intelligent operations, machine learning operationsAbstract
Enterprise infrastructure has become increasingly distributed across public clouds, private clouds, hybrid environments, containers, microservices, virtual machines, databases, networks, and edge-connected systems. This complexity creates significant challenges for conventional monitoring approaches, which often examine infrastructure metrics independently and primarily respond after failures have occurred. Intelligent cloud-native observability provides a more proactive approach by integrating metrics, logs, traces, events, and contextual infrastructure information into a unified analytical environment. This study investigates the application of predictive analytics and machine learning to cloud-native observability for improving enterprise infrastructure reliability, performance, and operational decision-making. The proposed approach combines continuous telemetry collection, centralized and distributed data processing, anomaly detection, time-series forecasting, failure prediction, and automated alert prioritization. Machine-learning models are used to identify deviations from normal infrastructure behavior, forecast resource exhaustion, predict potential service degradation, and estimate the likelihood of infrastructure incidents. Cloud-native technologies enable the proposed framework to scale across dynamically changing workloads and heterogeneous infrastructure environments. The research methodology adopts an experimental design involving telemetry collection, feature engineering, model development, predictive evaluation, and comparative analysis against conventional threshold-based monitoring. Performance is assessed using prediction accuracy, detection latency, false-positive rate, resource utilization, and incident prediction lead time. The proposed framework aims to transform observability from a predominantly reactive monitoring function into an intelligent predictive capability that supports earlier intervention, more efficient resource allocation, and resilient enterprise infrastructure operations.
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