This paper establishes the Habiro ring H₎₊ = N ZN as a universal algebraic domain mediating between arithmetic, topology, and spectral theory. Four structural theorems are proved: Theorem A (Habiro Universality): The Bost–Connes embedding, the Garoufalidis–Scholze–Wheeler–Zagier regulator, and the cyclotomic Bloch regulator factor canonically through the Habiro ring, yielding a fully canonical passage from hyperbolic 3-manifold invariants to extremal KMS states via Artin reciprocity. Theorem B (Torsion-Blindness Unification): Three independent results—parity blindness, the κ-obstruction, and Betti class-group blindness—are shown to arise from a single cohomological principle: the annihilation of torsion under Betti realization. Theorem C (Common Chain-Descent Structure): Iwasawa towers, operator transfer dynamics, and quantum decoding hierarchies are identified as instances of a unified projective descent structure with bounded kernels and logarithmic depth. Theorem D (Product Formula Hierarchy): Eleven appearances of the product formula are organized as test-function specializations of the Weil explicit formula, establishing a universal trace identity framework. The central construction replaces prior noncanonical section-based arguments with a fully canonical chain: K₃ (K) Pic (HK) Cl (OK) Gal (HK/K) \extremal KMS states\, using Artin reciprocity and the symmetry-breaking structure of the Bost–Connes system. The paper distinguishes rigor levels explicitly: All theorems are proved Conjectures are clearly stated Heuristic interpretations (Section 9) are explicitly labeled Computational verification includes twelve derived results, including: Frobenius–Schur trichotomy realizations Mass hierarchy ratios in finite groups Arithmetic CP phase emergence Fontaine period ring connections The only open problem is a Hilbert space completion conjecture, which—under Connes’ spectral interpretation—would place spectral values on the critical line.
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Matthew Eltgroth
University of California, San Francisco
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Matthew Eltgroth (Mon,) studied this question.
synapsesocial.com/papers/69ccb7b016edfba7beb89cf6 — DOI: https://doi.org/10.5281/zenodo.19324506