aiqbench analysis
This research addresses the critical scalability challenge in AI-mediated knowledge services by modeling how partial verification impacts confidence in large, multi-claim artifacts generated by generative systems. The study introduces a Bayesian framework centered on the Predictive Value of Pass (PVP), demonstrating that evidentiary reliability diminishes as artifact size increases under fixed verification budgets, particularly when errors are sparse. These findings offer a quantitative basis for optimizing quality-assurance workflows in digital libraries and repositories where full fact-checking is resource-prohibitive.
More Claims, Less Evidence: Bounded Verification of AI-Generated Digital Knowledge Artifacts
arXiv:2610.05547v1 Announce Type: new Abstract: Digital libraries, repositories, and AI-mediated knowledge services increasingly rely on generative systems to produce summaries, descriptions, and other multi-claim knowledge objects. Yet generation can scale far more easily than verification capacity: a reviewer may need to decide whether an object is suitable for publication or downstream use after checking only a small fraction of its claims. This creates a fundamental gap between claim-level verification and confidence in the object as a whole. The central question is therefore what a successful partial check implies about the reliability of the complete artifact when its size grows but the verification budget does not. This paper contributes a Bayesian model of bounded verification centered on the Predictive Value of Pass (PVP). The model predicts that evidentiary value decreases as artifacts grow under fixed verification capacity, improves with larger verification budgets, and is especially fragile when errors are sparse. Controlled experiments on FEVEROUS and FEVER support these predictions and show that adding supported claims around a fixed number of false or unsupported claims can make passing more likely while making a pass less informative. The model further yields the minimum verification budget required to maintain a target PVP, providing a practical component for AI-assisted quality-assurance workflows in which generated knowledge objects must be checked before publication or downstream use.
Abstract:Digital libraries, repositories, and AI-mediated knowledge services increasingly rely on generative systems to produce summaries, descriptions, and other multi-claim knowledge objects. Yet generation can scale far more easily than verification capacity: a reviewer may need to decide whether an object is suitable for publication or downstream use after checking only a small fraction of its claims. This creates a fundamental gap between claim-level verification and confidence in the object as a whole. The central question is therefore what a successful partial check implies about the reliability of the complete artifact when its size grows but the verification budget does not. This paper contributes a Bayesian model of bounded verification centered on the Predictive Value of Pass (PVP). The model predicts that evidentiary value decreases as artifacts grow under fixed verification capacity, improves with larger verification budgets, and is especially fragile when errors are sparse. Controlled experiments on FEVEROUS and FEVER support these predictions and show that adding supported claims around a fixed number of false or unsupported claims can make passing more likely while making a pass less informative. The model further yields the minimum verification budget required to maintain a target PVP, providing a practical component for AI-assisted quality-assurance workflows in which generated knowledge objects must be checked before publication or downstream use.
11 pages, 2 figures. Accepted at the 28th International Conference on Asia-Pacific Digital Libraries (ICADL 2026)
Artificial Intelligence (cs.AI); Digital Libraries (cs.DL)
arXiv:2610.05547 [cs.AI]
(or arXiv:2610.05547v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2610.05547 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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Full text under the publisher's open licence · 327 words
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