Assessing confidence in frontier AI safety cases
Stephen Barrett, Philip Fox, Joshua Krook, Tuneer Mondal, Simon, Mylius, Alejandro Tlaie

TL;DR
This paper explores how to quantify and communicate confidence in safety cases for frontier AI, proposing methods to improve transparency, reproducibility, and decision-making support amidst the challenges of probabilistic assessment.
Contribution
It introduces a novel LLM-based Delphi method for assessing confidence in AI safety arguments and offers strategies to enhance safety case evaluation and communication.
Findings
Numerical confidence quantification is challenging.
The LLM-based Delphi method improves transparency and reproducibility.
Prioritization strategies help focus investigations on argument defeaters.
Abstract
Powerful new frontier AI technologies are bringing many benefits to society but at the same time bring new risks. AI developers and regulators are therefore seeking ways to assure the safety of such systems, and one promising method under consideration is the use of safety cases. A safety case presents a structured argument in support of a top-level claim about a safety property of the system. Such top-level claims are often presented as a binary statement, for example "Deploying the AI system does not pose unacceptable risk". However, in practice, it is often not possible to make such statements unequivocally. This raises the question of what level of confidence should be associated with a top-level claim. We adopt the Assurance 2.0 safety assurance methodology, and we ground our work by specific application of this methodology to a frontier AI inability argument that addresses the…
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Taxonomy
TopicsEthics and Social Impacts of AI · Adversarial Robustness in Machine Learning
