Catching What Signatures Miss: AI and eBPF for Cloud-Native Threat Detection

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Nawazpasha Shaik

Abstract

Cloud-native environments bring forth dynamic workloads, ephemeral containers, distributed services, and dynamically changing execution patterns, with which signature-based security mechanisms are often ill-suited. The signature-based detection, whilst working well with the known threats, might not detect newer attacks, altered malware, and suspicious activities that do not correlate with the standard indicators. The paper suggests an AI-assisted framework of threat detection on clouds using a combination of a long-term Berkeley Packet Filter (eBPF) telemetry with behavioral analytics and machine learning. The framework gathers runtime events related to the execution of processes, network communication, access of files and activities related to privileges. These happenings are turned into contextual characteristics and decomposed through supervised and unsupervised learning algorithms to determine abnormalities in workload behavior. Risk-based analysis element is an integration of a model confidence, behavior deviation, and asset criticality, and corroborating evidence to rank alerts. An empirical methodology of assessment is suggested that can be reproduced to investigate detection performance, false-positive, performance, and performance on threats not being studied. The research places AI and eBPF as complementary technologies that have the potential of reinforcing the current cloud-native security controls.

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How to Cite

Shaik, N. (2026). Catching What Signatures Miss: AI and eBPF for Cloud-Native Threat Detection. International Journal of Humanities and Information Technology, 8(1), 142-149. https://doi.org/10.21590/ijhit.08.01.17

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