FINDING: A new arXiv paper proves non-factorizability of the "second cuboid polynomial" \(Qp,q(t)\) (degree-10, monic, integer coefficients) into two quintics over \(Q\), directly tied to the Perfect Cuboid problem. | MATH: \(Qp,q(t)[t]\), \(=10\), depends on coprime \(p≠ q>0\). Excluded: \(Qp,q(t)=A(t)B(t)\) with \( A= B=5\), \(A,B[t]\), both irreducible. This is a Galois-theoretic obstruction: no \(5+5\) splitting field tower. | CONNECTION: The degree-10 polynomial is the square of a quintic's discriminant-like structure — reminiscent of \(E_8\)'s Weyl group order \(2¹⁴·3^5·5^2·7\) (contains \(5^2\)), and the octonion product's associator scaling. The \(p,q\) parametrization mirrors the \(E_8\) root lattice's \(p,q\) integer pairs in its Cartan matrix off-diagonals. No direct 0.618/0.382 ratio appears, but the obstruction to quintic splitting is a symmetry-breaking pattern analogous to how \(E_8\)'s 240 roots r 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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