Equilateral Completion in Floretion Triangular Coordinates: Locality, Product Points, and Reflection Symmetry
Abstract
We study nondegenerate equilateral triangles whose vertices are centroids of the 4n order-n floretion tiles. Scaled integer triangular coordinates give exact equilateral completions and, by an obstruction modulo $3$, show that all three vertices have the same tile orientation. In particular, the complete triangle family and its synchronized local cyclic subfamily have respective sizes |En|=(4n(4n−1))/12, |Ln|=(7n−4n)/3, so the local proportion tends to zero. Our principal new result answers the radial-homogeneity question left open in the preceding revision: for every order, the number of triangles containing a given tile is given by an exact affine formula in its squared scaled centroid radius. Although the two tile orientations have different formulas, their attainable squared radii belong to disjoint residue classes modulo $3$, yielding a single radial-incidence law on the full centroid set. We also determine local and nonlocal vertex incidences and obtain circular-shell and squared-radius moment identities. The unsigned vertex product defines an algebraic product point. By a rigidity theorem of Ma and Zhang, the multiplication-generated triangles are precisely the nontrivial global cyclic orbits; combining this with our geometric shell classification, we show that the product point is the origin exactly when the Euclidean triangle center is the origin. Further results enumerate central-vertex, no-e, and main-axis families, derive Fibonacci and finite-state recurrences for product-centered and reflection-restricted classes, and characterize pairwise anticommutation.
Related
- Bitwise Triangular Coordinates for Central Products of Quaternion Groups: Floretion Base Vectors, Digitwise S3-Actions, and Centralizer Tiles
- Equilateral dimension of the Heisenberg group fHn
- Petty's equilateral-set conjecture in dimension five
- Uniform convergence of canonical discrete uniformization on equilateral approximations
- Equilateral sets in ℓpn beyond n+1: Linear excess and dimension cost
BibTeX
@misc{dement2026equilateral,
title = {{Equilateral Completion in Floretion Triangular Coordinates: Locality, Product Points, and Reflection Symmetry}},
author = {Creighton Dement},
howpublished = {arXiv},
year = {2026},
month = oct,
doi = {10.48550/arxiv.2608.15925},
eprint = {2608.15925},
archivePrefix = {arXiv},
url = {https://arxiv.org/abs/2608.15925},
}
RIS
TY - UNPB
TI - Equilateral Completion in Floretion Triangular Coordinates: Locality, Product Points, and Reflection Symmetry
AU - Creighton Dement
PY - 2026
DA - 2026/10/29
PB - arXiv
DO - 10.48550/arxiv.2608.15925
UR - https://arxiv.org/abs/2608.15925
AB - We study nondegenerate equilateral triangles whose vertices are centroids of the 4^n order-n floretion tiles. Scaled integer triangular coordinates give exact equilateral completions and, by an obstruction modulo $3$, show that all three vertices have the same tile orientation. In particular, the complete triangle family and its synchronized local cyclic subfamily have respective sizes |E_n|=(4^n(4^n−1))/12, |L_n|=(7^n−4^n)/3, so the local proportion tends to zero. Our principal new result answers the radial-homogeneity question left open in the preceding revision: for every order, the number of triangles containing a given tile is given by an exact affine formula in its squared scaled centroid radius. Although the two tile orientations have different formulas, their attainable squared radii belong to disjoint residue classes modulo $3$, yielding a single radial-incidence law on the full centroid set. We also determine local and nonlocal vertex incidences and obtain circular-shell and squared-radius moment identities. The unsigned vertex product defines an algebraic product point. By a rigidity theorem of Ma and Zhang, the multiplication-generated triangles are precisely the nontrivial global cyclic orbits; combining this with our geometric shell classification, we show that the product point is the origin exactly when the Euclidean triangle center is the origin. Further results enumerate central-vertex, no-e, and main-axis families, derive Fibonacci and finite-state recurrences for product-centered and reflection-restricted classes, and characterize pairwise anticommutation.
ER -