Unified Shell Matrix Framework
This paper introduces the Unified Shell Matrix Framework, an alternative mathematical architecture constructed on a modular, non-spatial base-9 coordinate grid (Z_9). The framework establishes an absolute zero-entropy apex origin at coordinate 0.0, a structural center operator axle at 4.5, and an operator matrix localized symmetrically along the σ = 0.5 Riemann Zeta critical line. By implementing a rigid 30-degree (π/6) structural angular displacement constraint, the framework maps an intrinsic, closed circular loop that eliminates modulo-9 seam discontinuities at macro-cycle boundaries. We model the internal system dynamics using bi-local hyperbolic tangent (tanh) displacement fields to regulate boundary velocity and prevent spatial divergence. Furthermore, we formalize a boundary constraint tensor whose determinant vanishes (det(B) → 0) exactly at the unique number-theoretic boundaries of 1.125 and 7.875, which are derived from scaling the Quasi-Riemann Hypothesis strip limits (1/8 and 7/8) into our base-9 matrix. This vanishing condition generates an insurmountable potential barrier that safely converts translational kinetic energy into rotational momentum. At the completion of a 9-spin macro-cycle, the cumulative angular displacement reaches exactly 270 degrees (3π/2). At this boundary intersection, the cumulative spatial summation matrix (Δ_9) simplifies to a purely skewsymmetric tensor, triggering a non-spatial capacitor shunt that collapses the spatial phasespace volume to zero. This mathematical mechanism returns the state vector to a zeroentropy absolute ground state, shifts the decimal point to initiate the next macro-scale cycle (0.0 → 1.0), and provides a stable, conservative geometric model for the non-trivial zeros of the Riemann Zeta function. AI Collaboration Disclosure: This research manuscript was developed with assistance from collaborative AI tools, which provided structural text layout, drafting support, and mathematical verification during the formatting and preparation of the framework.
Authors
- Lydia Nigussie
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-10-30
- DOI
- https://doi.org/10.5281/zenodo.23791610
- Primary Topic
- Analytic Number Theory Research
- Type
- article
- Field-Weighted Citation Impact
- 0.00