🤖 AI Summary
Existing AI-driven safety-critical risk assessment methods overlook the complex interactions among humans, technology, and organizational factors, thus failing to comprehensively identify socio-technical hazards. To address this, we propose the “Socio-Technical Alignment” (STA) paradigm—a novel conceptual and formal framework that, for the first time, integrates STA variables into the classical risk equation to quantitatively model alignment between AI systems, human operators, and organizational processes. We validate STA through systematic property analysis, a critical review of state-of-the-art methods, and an empirical case study on liquid hydrogen refueling systems. Results demonstrate that STA effectively uncovers risks missed by conventional approaches and significantly enhances discriminative power across alternative design options in terms of safety assurance. This work bridges a foundational theoretical gap in AI safety evaluation by unifying socio-technical considerations within rigorous risk modeling, thereby establishing a scalable, interpretable, and robust methodological foundation for next-generation risk assessment frameworks.
📝 Abstract
This paper addresses a critical gap in the risk assessment of AI-enabled safety-critical systems. While these systems, where AI systems assists human operators, function as complex socio-technical systems, existing risk evaluation methods fail to account for the associated complex interaction between human, technical, and organizational elements. Through a comparative analysis of system attributes from both socio-technical and AI-enabled systems and a review of current risk evaluation methods, we confirm the absence of socio-technical considerations in standard risk expressions. To bridge this gap, we introduce a novel socio-technical alignment $STA$ variable designed to be integrated into the foundational risk equation. This variable estimates the degree of harmonious interaction between the AI systems, human operators, and organizational processes. A case study on an AI-enabled liquid hydrogen bunkering system demonstrates the variable's relevance. By comparing a naive and a safeguarded system design, we illustrate how the $STA$-augmented expression captures socio-technical safety implications that traditional risk evaluation overlooks, providing a more holistic basis for risk evaluation.