Defines a 6-dimensional hyperrectangle and explores its combinatorial properties, indicating potential connections to particle physics.
This paper defines a 6-dimensional structure by adding a 4-valued discrete label axis Q to the 5-dimensional hyperrectangle, and derives combinatorial properties from its configuration structure. The main body (§1–§9) establishes: element counts via the general formula f_j(k) = C(k,j)·2^(k-j), spin classification into 8 types (s = 0, 1/2, 1, 3/2, 2, 5/2, 3, 7/2) from non-zero axis counts, Q-label transition enumeration (9 states), spin-1 configuration counting (13 states), spin-2 (3 types) and spin-3 (1 type) configurations, sign product P(n)=(-1)^n, and signed area M(σ) from R-axis-containing faces. §10 presents an interpretation example mapping 62 of 63 derived states to SM+gravity particles. v3: Complete rewrite — all results re-derived self-containedly, definitions separated from physical interpretation, spin extended to 8 types (n=0,1,2,3), Table B with explicit state counts for SM-unmapped configurations.
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Noriaki Kihara (2026) studied this question.
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