Theoretical analysis demonstrates geometric links between topological quantum error correction and SU(3) antidecuplet mass splitting, highlighting shared algebraic lattice symmetries.
FINDING: Topological quantum error correction leverages lattice symmetries and algebraic structures (root systems, Weyl groups) to encode logical qubits non-locally, with the hexaquark result revealing SU(3) antidecuplet mass-splitting governed by Gell-Mann–Okubo-type linearity. | MATH: Surface codes: stabilizer group \( S = X_v, Z_p \) on a square lattice; logical operators are non-contractible loops — homology classes \( H_1(torus) Z^2 \). Non-Abelian codes: anyons with fusion rules \( a × b = ∑_c N^cab c \), braiding matrices \( B \) satisfying Yang–Baxter \( R₁₂R₁₃R₂₃=R₂₃R₁₃R₁₂ \). Hexaquark: SU(3) antidecuplet mass formula \( M = M_0 + aY + b[I(I+1) - Y^2/4] \) — linear in hypercharge \( Y \), quadratic in isospin \( I \). | CONNECTION: Surface codes are defined on square lattices — crystallographic symmetry \( p4m \) (wallpaper group). Root system \( A_2 \) (hexagonal) underlies SU(3) — the hexaquark antidecuplet Author: Andrew Stewart Caldin, Independent Researcher, UK. Part of the E8 Intelligence Research series. Platform: e8intelligence.com
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Andrew Stewart Caldin (2026) studied this question.
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