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This paper introduces "subject-typed claim licensing" to resolve attribution challenges in hybrid AI systems that combine learned components with external solvers. By distinguishing between evidence supporting a specific component versus the overall system, the proposed SCOPE-Routing framework enables more rigorous evaluation of composite architectures without conflating credit across different subjects. The results suggest that separating claim strength from scientific subject is essential for accurate benchmarking of modern multi-component AI workflows.
When Evidence Changes the Subject: Subject-Typed Claim Licensing for Learned Routing
arXiv:2609.33505v1 Announce Type: new Abstract: Modern learned systems increasingly combine learned components with search, repair, or external solvers. Benchmarks often measure the resulting end-to-end system, while scientific claims may concern only one component, creating an attribution problem: evidence can fail to support the requested component-level claim while still supporting a positive conclusion about the larger system. Existing evidence-to-claim methods primarily calibrate claim strength. We argue that composite systems require a second dimension: scientific subject. We address this problem with subject-typed claim licensing, which separates weaker conclusions about the requested subject from positive but non-substitutive credit about another subject. We instantiate this idea in SCOPE-Routing for preference-conditioned multigraph routing. Non-authors reproducibly apply the declared semantics; held-out review yields fewer reference-relative upward deviations than unstructured review, while the difference from a strong evidence checklist remains unresolved; and a controlled routing study shows that score-optimal and claim-eligible methods can differ while valid hybrid-system credit is preserved. These results motivate treating claim strength and scientific subject as distinct dimensions of evidence-based evaluation.
Abstract:Modern learned systems increasingly combine learned components with search, repair, or external solvers. Benchmarks often measure the resulting end-to-end system, while scientific claims may concern only one component, creating an attribution problem: evidence can fail to support the requested component-level claim while still supporting a positive conclusion about the larger system. Existing evidence-to-claim methods primarily calibrate claim strength. We argue that composite systems require a second dimension: scientific subject. We address this problem with subject-typed claim licensing, which separates weaker conclusions about the requested subject from positive but non-substitutive credit about another subject. We instantiate this idea in SCOPE-Routing for preference-conditioned multigraph routing. Non-authors reproducibly apply the declared semantics; held-out review yields fewer reference-relative upward deviations than unstructured review, while the difference from a strong evidence checklist remains unresolved; and a controlled routing study shows that score-optimal and claim-eligible methods can differ while valid hybrid-system credit is preserved. These results motivate treating claim strength and scientific subject as distinct dimensions of evidence-based evaluation.
Artificial Intelligence (cs.AI)
arXiv:2609.33505 [cs.AI]
(or arXiv:2609.33505v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2609.33505 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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