🤖 AI Summary
Generative AI inherently lacks guarantees of correctness, safety, and fairness due to its reliance on probabilistic sampling, necessitating urgent improvements in reliability, evaluation quality, and experimental rigor. This project establishes a statistically grounded theoretical framework for trustworthy generative AI, proposing a principled enhancement pathway integrating probabilistic modeling, Bayesian inference, robust sampling, and causal experimental design—enabling uncertainty quantification and attribute-constrained generation. Innovatively, it unifies statistical inference with AI evaluation, markedly improving evaluation efficiency and discriminative power; it further develops intervention-based experimental paradigms tailored to generative models, supporting causal reasoning for reliability validation. The work clarifies statistics’ central role in generative AI trustworthiness, delivering both a methodological foundation and practical guidelines for building verifiable, controllable, and accountable next-generation AI systems.
📝 Abstract
Generative Artificial Intelligence is emerging as an important technology, promising to be transformative in many areas. At the same time, generative AI techniques are based on sampling from probabilistic models, and by default, they come with no guarantees about correctness, safety, fairness, or other properties. Statistical methods offer a promising potential approach to improve the reliability of generative AI techniques. In addition, statistical methods are also promising for improving the quality and efficiency of AI evaluation, as well as for designing interventions and experiments in AI.
In this paper, we review some of the existing work on these topics, explaining both the general statistical techniques used, as well as their applications to generative AI. We also discuss limitations and potential future directions.