π€ AI Summary
To address the delayed passive response to hazardous incidents and insufficient interpretability of risk analysis in high-risk operational environments at the U.S. Department of Energy, this paper proposes a modular AI framework that integrates large language models with structured work order data. The framework enables historical incident retrieval, human-AI collaborative decision-making, and expert-feedback-driven iterative agent reasoning. Its key contribution lies in the novel incorporation of expert-in-the-loop mechanisms, establishing an adaptive learning closed loop that significantly enhances prediction accuracy and decision transparency. Preliminary deployment demonstrates superior reliability in risk early warning and improved responsiveness. Subsequent work will quantitatively evaluate the frameworkβs gains in predictive precision, expert consensus alignment, and reduction in decision latency.
π Abstract
Operational safety at mission-critical work sites is a top priority given the complex and hazardous nature of daily tasks. This paper presents the Human-Agent Risk Navigation and Event Safety System (HARNESS), a modular AI framework designed to forecast hazardous events and analyze operational risks in U.S. Department of Energy (DOE) environments. HARNESS integrates Large Language Models (LLMs) with structured work data, historical event retrieval, and risk analysis to proactively identify potential hazards. A human-in-the-loop mechanism allows subject matter experts (SMEs) to refine predictions, creating an adaptive learning loop that enhances performance over time. By combining SME collaboration with iterative agentic reasoning, HARNESS improves the reliability and efficiency of predictive safety systems. Preliminary deployment shows promising results, with future work focusing on quantitative evaluation of accuracy, SME agreement, and decision latency reduction.