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Theoretical analysis reveals a link between staggered lattice fermions and B4 Weyl topology in four dimensions, indicating a geometric basis for minimal doubling.
FINDING: Staggered lattice fermions realize minimally doubled chiral fermions with C, P, T symmetry, connecting Weyl semimetal topology to the B4 Weyl group root system. | MATH: The staggered fermion action yields two chiral doublers (minimal doubling) with dispersion \(E^2 = ∑_i sin^2(k_i a)\); the B4 Cartan matrix \(Aᵢⱼ = 2δᵢⱼ - δ|i-j|,1\) (with \( A = 1\) for B4) encodes the 4D hypercubic lattice's root system \(B_4\) (24 roots, \(|α|^2 = 1\) or 2). Chiral symmetry \(\{Γ_5, D\} = 0\) is preserved via staggered \(Γ_5 = γ_5 ⊗ σ_3\). | CONNECTION: The B4 root system's Weyl group order \(|W(B_4)| = 2^4 · 4! = 384\) matches the hypercubic lattice's symmetry; the ratio of long to short roots is \(√2\) (≈1.414), and the Cartan matrix eigenvalues are \(2 - 2cos(π m/5)\) for \(m=1..4\), giving ratios like \(0.382\) (for \(m=4\): \(2-2cos(4π/5) = 2 - 2(-0.809) = 3.618\), whose reciprocal is 0.276 — but the golden ratio 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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