Decision-Relative Authority Closure: When Information Exists but Cannot Be Permissibly Acquired to Resolve a Decision

Modern autonomous systems can acquire additional evidence when a decision is uncertain, but a prior question is often left implicit: is the system authorized to perform the experiment needed to resolve that uncertainty? We develop Decision-Relative Authority Closure (DRAC), a finite framework for adaptive evidence acquisition when experiment admissibility depends on the still-unresolved decision class. The model separates technical observability from authorization-resolvability and captures cases in which incompatible worlds are distinguishable in principle but no admissible sequence reaches the required evidence. We prove hereditary admissibility and an Authorization-Closure Characterization Theorem: under the deterministic hereditary rule, an adaptive admissible experiment tree resolves the required decision if and only if every block of the authorization-closure fixed point is decision-homogeneous. The result yields an order-independent feasibility criterion and a direct fixed-point algorithm. We then implement the theory and verify it against an independently coded recursive adaptive-policy solver. Across 19,260 exhaustively generated binary systems and 25,000 higher-dimensional randomized systems—44,260 systems in total—the procedures disagree in zero cases. Moreover, 16,676 exhaustive systems contain decision-separating signal while remaining authorization-unresolvable. The framework therefore identifies a precise gap between information that exists and information that can be permissibly acquired for action.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-19
DOI
https://doi.org/10.5281/zenodo.22848073
Primary Topic
Auction Theory and Applications
Type
preprint
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preprint

Decision-Relative Authority Closure: When Information Exists but Cannot Be Permissibly Acquired to Resolve a Decision

Md. Amir Khusru Akhtar
Zenodo (CERN European Organization for Nuclear Research)
Auction Theory and Applications
preprint

Decision-Relative Authority Closure: When Information Exists but Cannot Be Permissibly Acquired to Resolve a Decision

Md. Amir Khusru Akhtar
preprint en

Abstract

Modern autonomous systems can acquire additional evidence when a decision is uncertain, but a prior question is often left implicit: is the system authorized to perform the experiment needed to resolve that uncertainty? We develop Decision-Relative Authority Closure (DRAC), a finite framework for adaptive evidence acquisition when experiment admissibility depends on the still-unresolved decision class. The model separates technical observability from authorization-resolvability and captures cases in which incompatible worlds are distinguishable in principle but no admissible sequence reaches the required evidence. We prove hereditary admissibility and an Authorization-Closure Characterization Theorem: under the deterministic hereditary rule, an adaptive admissible experiment tree resolves the required decision if and only if every block of the authorization-closure fixed point is decision-homogeneous. The result yields an order-independent feasibility criterion and a direct fixed-point algorithm. We then implement the theory and verify it against an independently coded recursive adaptive-policy solver. Across 19,260 exhaustively generated binary systems and 25,000 higher-dimensional randomized systems—44,260 systems in total—the procedures disagree in zero cases. Moreover, 16,676 exhaustive systems contain decision-separating signal while remaining authorization-unresolvable. The framework therefore identifies a precise gap between information that exists and information that can be permissibly acquired for action.

Zenodo (CERN European Organization for Nuclear Research)
Peace, Justice and strong institutions
Auction Theory and Applications
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