π€ AI Summary
Current generative AI systems suffer from inadequate evaluation: static benchmarks fail to reflect real-world performance, and case-by-case audits lack scalability. To address this, we propose a scientific framework for evaluating generative AIβshifting assessment from fragmented auditing toward systematic, iterative, and institutionalized engineering practice. Our method introduces three foundational principles: (1) evaluation metrics must empirically capture real-world performance; (2) metrics must evolve dynamically over time; and (3) assessment must be conducted by specialized, accredited institutions operating under rigorous procedural standards. Drawing cross-domain insights from transportation, aerospace, and pharmaceutical safety regulation, we integrate systems safety engineering, metrology, and institutional design. The framework provides both theoretical grounding and actionable pathways for AI safety verification, regulatory alignment, and responsible industrial deployment.
π Abstract
There is an increasing imperative to anticipate and understand the performance and safety of generative AI systems in real-world deployment contexts. However, the current evaluation ecosystem is insufficient: Commonly used static benchmarks face validity challenges, and ad hoc case-by-case audits rarely scale. In this piece, we advocate for maturing an evaluation science for generative AI systems. While generative AI creates unique challenges for system safety engineering and measurement science, the field can draw valuable insights from the development of safety evaluation practices in other fields, including transportation, aerospace, and pharmaceutical engineering. In particular, we present three key lessons: Evaluation metrics must be applicable to real-world performance, metrics must be iteratively refined, and evaluation institutions and norms must be established. Applying these insights, we outline a concrete path toward a more rigorous approach for evaluating generative AI systems.