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Analysis

This preprint introduces a significant hypothesis regarding the convergence behavior of generative systems under fixed constraints. The focus on observable phenomena and a replication-ready experimental protocol is commendable, promoting transparency and independent verification. By intentionally omitting proprietary implementation details, the authors encourage broad adoption and validation of the Axiomatic Convergence Hypothesis (ACH) across diverse models and tasks. The paper's contribution lies in its rigorous definition of axiomatic convergence, its taxonomy distinguishing output and structural convergence, and its provision of falsifiable predictions. The introduction of completeness indices further strengthens the formalism. This work has the potential to advance our understanding of generative AI systems and their behavior under controlled conditions.
Reference

The paper defines “axiomatic convergence” as a measurable reduction in inter-run and inter-model variability when generation is repeatedly performed under stable invariants and evaluation rules applied consistently across repeated trials.

Analysis

This preprint introduces the Axiomatic Convergence Hypothesis (ACH), focusing on the observable convergence behavior of generative systems under fixed constraints. The paper's strength lies in its rigorous definition of "axiomatic convergence" and the provision of a replication-ready experimental protocol. By intentionally omitting proprietary details, the authors encourage independent validation across various models and tasks. The identification of falsifiable predictions, such as variance decay and threshold effects, enhances the scientific rigor. However, the lack of specific implementation details might make initial replication challenging for researchers unfamiliar with constraint-governed generative systems. The introduction of completeness indices (Ċ_cat, Ċ_mass, Ċ_abs) in version v1.2.1 further refines the constraint-regime formalism.
Reference

The paper defines “axiomatic convergence” as a measurable reduction in inter-run and inter-model variability when generation is repeatedly performed under stable invariants and evaluation rules applied consistently across repeated trials.