Graduation Term
Spring 2026
Degree Name
Master of Science (MS)
Department
Department of Mathematics
Committee Chair
Amin Bahmanian
Committee Member
Sunil Chebolu
Committee Member
Papa Sissokho
Committee Member
Charlotte Ure
Abstract
Let [n] = {1, ..., n}. A hypercube H of order n and dimension d is a d-dimensional array whose nᵈ cells are indexed by [n]ᵈ. A hyperplane in H is obtained by fixing one coordinate, while allowing the remaining d–1 coordinates to vary. We wish to color each cell of H from a palette of nd-1 colors such that each hyperplane is polychromatic.
Our main result is the following. Let n be sufficiently large. There exists a symmetric coloring of the d-dimensional hypercubes of order n whose all hyperplanes are polychromatic if and only if:
n ≢ s (mod d) where 0 < s ≤ d/2
We show that a d-dimensional symmetric layer-rainbow Latin hypercube of order n is equivalent to a 1-factorization of ∪ᵢ₌₁ᵈ (i–1)! S(d,i) Kₙⁱ. Using a network flow argument and a generalization of Baranyai's theorem, we reduce the problem to solving the system of equations:
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a1,i + 2a2,i + ... + d ad,i = n for i ∈ {1, ..., nᵈ⁻¹}
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Σi=1(nᵈ⁻¹) ak,i = S(d,k)(k–1)! C(n,k) for k ∈ {1, ..., d}
The case d = 2 corresponds to very well-known objects known as symmetric Latin squares.
Access Type
Thesis-Open Access
Recommended Citation
Neiburger, Levi, "Symmetry in Latin Hypercubes" (2026). Theses and Dissertations. 2271.
https://ir.library.illinoisstate.edu/etd/2271