Cognitive AI Cyber Defense for Enterprise Cloud Security Through Knowledge Graphs and Automated Incident Correlation

Authors

  • Vinoth Kumar M Associate Professor, Department of Information Science and Engineering, RV Institute of Technology and Management, Bangalore, India Author

Keywords:

Cognitive Artificial Intelligence, Enterprise Cloud Security, Knowledge Graphs, Automated Incident Correlation, Cyber Threat Intelligence, Anomaly Detection, Security Orchestration.

Abstract

The growing complexity of enterprise cloud environments has increased the need for intelligent cybersecurity mechanisms capable of identifying, correlating, and responding to sophisticated cyber threats. Traditional security systems frequently analyze alerts independently, resulting in fragmented threat visibility, excessive false positives, delayed investigations, and inefficient incident response. This research proposes a cognitive artificial intelligence (AI) cyber defense framework that integrates knowledge graphs, machine learning, contextual reasoning, and automated incident correlation to strengthen enterprise cloud security. The proposed framework collects security telemetry from cloud infrastructure, network services, identity management platforms, applications, and endpoint protection systems. These heterogeneous events are normalized and transformed into interconnected knowledge graph entities representing users, devices, workloads, vulnerabilities, network connections, and security incidents. Graph-based reasoning identifies relationships among suspicious events, while AI-driven analytics detect behavioral anomalies, infer potential attack paths, and prioritize correlated incidents according to their estimated severity. Automated orchestration subsequently recommends or executes appropriate mitigation actions, including access restriction, suspicious session termination, workload isolation, and escalation to security analysts. The methodology evaluates detection precision, recall, false-positive rate, incident correlation accuracy, response latency, and computational overhead against conventional rule-based and machine-learning baselines. The proposed approach aims to improve contextual threat understanding, reduce alert fatigue, and accelerate incident investigation across distributed enterprise cloud systems. By combining structured knowledge representation with cognitive analytics and controlled automation, this framework provides a foundation for adaptive, explainable, and scalable cyber defense while maintaining operational reliability, privacy, and human oversight.

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Published

2026-11-01

How to Cite

Cognitive AI Cyber Defense for Enterprise Cloud Security Through Knowledge Graphs and Automated Incident Correlation. (2026). Journal of Cyber-Physical Security and Robotics, 2(02), 46-54. https://jocpsr.com/index.php/journal/article/view/76

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