This computational study investigates coset resolution and scan laws in a 48-element framework, indicating geometric limitations of 4D topological information.
This preprint presents a claim-bounded computational study of a 48-element discrete symbolic framework organized on H_4/600-cell geometry. The paper isolates three reproducible structural results. First, the 120-vertex state space naturally partitions into a five-fold 24-cell resolution attached to a distinguished binary tetrahedral (BT24) core (index 120/24=5). Second, the 24-element core order aligns with a canonical six-block BT24 ordering, governed by invariant within-block patterns and specific boundary transitions. Third, we establish exact planar scan laws for two 24-element grid readings. Furthermore, we quantify the strict limits of single-grid projection: an exhaustive combinatorial search over all 252 five-row split layouts proves that a single 5 × 10 planar matrix cannot fully recover the 4D core order, strictly bounding the maximum overlap at 16/24. This geometric limitation necessitates multiple distinct scan protocols to preserve 4D topological information. The contribution is a mathematically rigorous statement of coset resolution, exact scan laws, and projective limits, leaving broader physical and historical interpretations open.
No takes yet. Share an insight, caveat, or question.
Ken et al. (2026) studied this question.
Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context: