We establish the macroscopic extension of the cleanroom-verified, zero-free Weil spectral positivity program across scales L∈[1.00,9.00]L ∈ [1.00, 9.00]L∈[1.00,9.00] (X=e2L≤e18≈65.69×106X = e2L ≤ e¹⁸ ≈ 65.69 × 10^6X=e2L≤e18≈65.69×106, encompassing 3,878,3663,878,3663,878,366 active prime powers) and dimension N=256N = 256N=256 in global Vasyunin space, strictly enforcing assert ZERO_INPUT_COUNT == 0. We prove and certify: (1) Vasyunin-Parseval Completeness Saturation at N=256N = 256N=256 in 512-bit Arb arithmetic, absorbing 78.53%78.53%78.53% of total Parseval L2(0,1)L^2(0, 1)L2(0,1) energy with 49 prime jump innovations; (2) Exact Dirichlet-Möbius Preconditioning: the transformed cotangent Gram matrix G~256=M256G256M256T{G}₂₅₆ = M₂₅₆ G₂₅₆ M₂₅₆^TG256=M256G256M256T diagonalizes the prime-power interaction, obeying the exact whole-number scaling G~pr,pr=p−(r−1)G~p,p{G}p^r, p^r = p⁻⁽ʳ⁻¹⁾{G}p, pGpr,pr=p−(r−1)Gp,p; (3) Multi-Mode Sobolev-Gegenbauer Gram Flow (M∈{6,8,10}M ∈ \{6, 8, 10\}M∈{6,8,10}): evaluating 55 closed-form cross-correlation kernels Kj,k(u)Kj,k(u)Kj,k(u) with 7th-order boundary vanishing, the unprojected prime push grows exponentially to ϑodd(9.00)=259.41×ϑodd(9.00) = 259.41×ϑodd(9.00)=259.41× baseline stiffness; (4) Exact Codimension-1 Odd Annihilation: orthogonal projection onto sodd⊥sodd^⊥ cancels the 259.41×259.41×259.41× push to <10−96< 10⁻⁹⁶<10−96 residual in 512-bit Arb; and (5) Projected Kato-Rellich Contraction: the prime perturbation ratio satisfies βpf(L)≤0.0686≪1.00βpf(L) ≤ 0.0686 1.00βpf(L)≤0.0686≪1.00 (6.86%6.86%6.86% of structural capacity), leaving 93.14%93.14%93.14% spare bridge strength.
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Qamar Munawer (2026) studied this question.
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