Information-Dense Reasoning for Efficient and Auditable Security Alert Triage
Guangze Zhao, Yongzheng Zhang, Changbo Tian, Dan Xie, Hongri Liu, Bailing Wang

TL;DR
AIDR introduces a gradient-based compression method for reasoning chains in security alert triage, balancing accuracy, transparency, and efficiency by optimizing information density within token and latency constraints.
Contribution
The paper presents a hybrid cloud-edge framework with gradient-based compression of reasoning chains, enabling efficient, auditable, and privacy-compliant security alert triage.
Findings
Achieves 68% token reduction in alert summaries.
40.6% latency reduction compared to Chain-of-Thought.
Maintains robustness to data corruption and out-of-distribution data.
Abstract
Security Operations Centers face massive, heterogeneous alert streams under minute-level service windows, creating the Alert Triage Latency Paradox: verbose reasoning chains ensure accuracy and compliance but incur prohibitive latency and token costs, while minimal chains sacrifice transparency and auditability. Existing solutions fail: signature systems are brittle, anomaly methods lack actionability, and fully cloud-hosted LLMs raise latency, cost, and privacy concerns. We propose AIDR, a hybrid cloud-edge framework that addresses this trade-off through constrained information-density optimization. The core innovation is gradient-based compression of reasoning chains to retain only decision-critical steps--minimal evidence sufficient to justify predictions while respecting token and latency budgets. We demonstrate that this approach preserves decision-relevant information while…
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Taxonomy
TopicsSoftware System Performance and Reliability · Network Security and Intrusion Detection · Security and Verification in Computing
