CSTS: A Canonical Security Telemetry Substrate for AI-Native Cyber Detection
Abstract
Cybersecurity data remains fragmented across vendors, formats, schemas, and deployment environments, forcing AI and analytics programs to spend disproportionate effort on ingestion, normalization, and brittle source-specific engineering. This paper introduces the Canonical Security Telemetry Substrate (CSTS), a canonical, AI-ready telemetry foundation designed to harmonize heterogeneous cyber data into a common representation over persistent entities, typed relations, events, temporal state, and provenance. CSTS is intended to move cybersecurity analytics beyond ad hoc record normalization toward a reusable substrate that supports anomaly detection, graph learning, forecasting, behavior-based modeling, and agentic cyber AI. We formalize the core design principles of CSTS, define its representational components, and explain how it preserves source-specific nuance through explicit mappings and extensible metadata while still enabling portable downstream inference. We further position CSTS as a cloud-agnostic and deployment-agnostic substrate suitable for on-prem, hybrid, and multi-cloud environments. The result is a unifying telemetry model that reduces the blue-collar burden of cyber data engineering and creates a clearer path to scalable, interoperable, and model-agnostic cyber AI.
Cite
@article{arxiv.2603.23459,
title = {CSTS: A Canonical Security Telemetry Substrate for AI-Native Cyber Detection},
author = {Abdul Rahman},
journal= {arXiv preprint arXiv:2603.23459},
year = {2026}
}
Comments
This revision substantially strengthens the papers conceptual framing, formal substrate definition, portability decomposition, deployment model, and empirical interpretation as a telemetry substrate rather than a field normalization layer and sharpens the distinction between schema stability