We establish a non-perturbative, constructive spectral framework for the semilocal Weilquadratic form on compactly supported Sobolev subspaces Hm0 ([−L,L]) (m ∈ {1, 2, . . . , 8}),certified via 256-bit arbitrary-precision ball arithmetic (flint.arb) up to the macroscopicscale L = 7.00 (X = e2L = e14 ≈ 1, 202, 604.28, spanning 93,371 active prime powers). Weprove five foundational results: (1) Under the Darboux-Sonine transformation g = ( ddx−12)f,the singular pole mode ex/2 is annihilated identically, and the resulting Birman-Schwingercompact operator KBS(L) maintains a strictly positive coercivity margin μBS(L) := 1 −λmax(KBS(L)) > 0, collapsing spectral conditioning by up to 32.17×. (2) On higher-orderconforming subspaces H30 ([−L,L]), the high-degree conditioning drop is eliminated (yieldinga 5.70 × 107× conditioning gain), and the unrestricted ground state of the Weil operatorlocks asymptotically onto the exact ultraspherical soliton ΦHm0 (ξ) = Cm(1−ξ2)m with cosinesimilarity cos(vmin(L),ΦHm0 ) → 1.000000. (3) We prove the closed-form Poisson-BesselFourier identity ˆΦHm0 (ω) = Cm√L2m+1m!(ωL)m jm(ωL), pinpoint the exact nodal resonance scaleL∗ = z3,21/γ1 ≈ 4.994851 where the primary Riemann zero contribution vanishes identically(|ˆΦH30 (γ1)|2 = 1.22×10−25), and establish the Multi-Zero Non-Resonance Rescue Principle:because the Riemann zeros are algebraically incommensurable, the incommensurable zerosγ2, γ3 rescue strict positivity (λmin(L∗) = 6.2631 × 10−13 > 0), enforcing a uniform positivelower floor F3(L) ≥ 0.0692 > 0 for all L ∈ [1.0, 20.0]. (4) Under the projective conecoordinate u = s/(2L) ∈ [0, 1], the soliton autocorrelation factorizes as Pm(u) = (1 −u)2m+1Qm(u), vanishing to 7th order (1 − u)7 at u = 1 for m = 3. Taking the radialEuler dilation derivative yields the Projective Cone-Flow equation L ddLCΦ = −uP′m(u) =(1−u)2mRm(u), establishing that prime powers enter the expanding horizon with C6-smoothzero impulse. Evaluating the pure Prime-SideWeil energy using zero Riemann zeta zerosat L = 7.00 reveals an exact 13-decimal cancellation between the pole (+62.146919), theprime sum (−57.538276), and the Archimedean form (−4.608643), leaving a strictly positivefloor Wprime = +8.725054588 × 10−13 > 0, matching the 100-zero spectral Bessel sum to8 decimal digits. Finally, the projective cone opening angle θcone(L) = arccos(λmax) > 0remains strictly positive across all 93,371 primes, proving that the spatial Paley-Wiener coneand the Archimedean cone remain strictly non-intersecting. (5) Along the coupled orderscaletrajectory m(L) ∼ L, the ultraspherical soliton converges to an asymptotic Gaussianwavepacket ΦHm0 (x) → ( 2mπL2 )1/4 exp(−mx2/L2) while its autocorrelation vanishes to order2m + 1 (up to 17th order at m = 8). Pure prime-side evaluation along m = round(L)across L ∈ [1.0, 7.0] preserves 1.000000 prime-to-zero duality down to 4.248 × 10−20 atL = 7.00, m = 7. Furthermore, the complete orthogonal Gegenbauer soliton basis Ψ3,k(ξ) =γ3,k(1−ξ2)3C(13/2)k (ξ) diagonalizes H30 ([−L,L]) with strict L2 orthonormality, and its multimodeGegenbauer-Weil matrix W3,K(L) possesses a strictly positive, well-ordered eigenvaluehierarchy 0 < λ0(L) < λ1(L) < λ2(L) < λ3(L) across all scales, proving that excited statescouple to higher Riemann zero frequencies.
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Qamar Munawer (2026) studied this question.
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