Global Prime-Free Vasyunin-Dedekind Cotangent Factorization, 7th-Order Smooth Prime Threshold Entry, and Riemannian Bicone Nodal Waist Geometry

We establish a global, prime-free operator-theoretic and geometric foundation for the Riemann Hypothesis by combining the Vasyunin-Dedekind cotangent sum factorization on L2(0,1)L^2(0, 1)L2(0,1), a 7th-order smooth prime threshold entry theorem on H03([−L,L])H_0^3([-L, L])H03([−L,L]), the Differential Geometry of the Riemann Zeta Function on a Double-Cone (Bicone) surface across the first 50 nontrivial zeros, and a cleanroom dual-methodology verification under a hard Zero-Free Firewall (assert ZERO_INPUT_COUNT == 0). In Methodology A, we compute the global Vasyunin Gram matrix GNG_NGN for N≤128N \le 128N≤128 in 512-bit Flint Arb arithmetic: across 1,259 coprime pairs, Dedekind reciprocity is verified to 10−15010^{-150}10−150, resolving the Nyman-Beurling distance dNB2(128)=0.27170046d_{NB}^2(128) = 0.27170046dNB2(128)=0.27170046 across 57 prime innovation steps with certified logarithmic decay. In Methodology B, we prove the Parity-Split Pole Theorem: decomposing into even and odd Jacobi modes (1−ξ2)3Pn(6,6)(ξ)(1 - \xi^2)^3 P_n^{(6,6)}(\xi)(1−ξ2)3Pn(6,6)(ξ), the s=1s = 1s=1 pole is positive definite rank-1 on even modes and negative definite rank-1 on odd modes (Ppole,odd=−0.5ssTP_{\mathrm{pole, odd}} = -0.5 \mathbf{s}\mathbf{s}^TPpole,odd=−0.5ssT). Projecting onto the codimension-1 odd subspace Voddpf:=sodd⊥\mathcal{V}_{\mathrm{odd}}^{\mathrm{pf}} := \mathbf{s}_{\mathrm{odd}}^\perpVoddpf:=sodd⊥, the eLe^LeL Prime Number Theorem divergence is annihilated identically (<10−98< 10^{-98}<10−98), leaving pure Archimedean-prime positivity (λmin⁡≥10.4751>0\lambda_{\min} \ge 10.4751 > 0λmin≥10.4751>0). Finally, we model the critical line as a double-cone rcore(t)=0.35∣t∣r_{\mathrm{core}}(t) = 0.35 |t|rcore(t)=0.35∣t∣ undergoing 50x linear expansion; modulated by ∣ζ(1/2+it)∣|\zeta(1/2 + it)|∣ζ(1/2+it)∣, the surface pinches cleanly to r=0r = 0r=0 (R1/2<10−73R_{1/2} < 10^{-73}R1/2<10−73) at all 50 zeros (S1/2=20,870.29S_{1/2} = 20,870.29S1/2=20,870.29, Atotal=649,818.56\mathcal{A}_{\mathrm{total}} = 649,818.56Atotal=649,818.56), whereas off-axis cross-sections (σ=0.55\sigma = 0.55σ=0.55) open an unpinched collar (R≥0.1923>0R \ge 0.1923 > 0R≥0.1923>0).

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Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-31
DOI
https://doi.org/10.5281/zenodo.23839463
Primary Topic
Analytic Number Theory Research
Type
preprint
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Global Prime-Free Vasyunin-Dedekind Cotangent Factorization, 7th-Order Smooth Prime Threshold Entry, and Riemannian Bicone Nodal Waist Geometry

Qamar Munawer
Zenodo (CERN European Organization for Nuclear Research)
Analytic Number Theory Research
preprint

Global Prime-Free Vasyunin-Dedekind Cotangent Factorization, 7th-Order Smooth Prime Threshold Entry, and Riemannian Bicone Nodal Waist Geometry

Qamar Munawer
preprint en

Abstract

We establish a global, prime-free operator-theoretic and geometric foundation for the Riemann Hypothesis by combining the Vasyunin-Dedekind cotangent sum factorization on L2(0,1)L^2(0, 1)L2(0,1), a 7th-order smooth prime threshold entry theorem on H03([−L,L])H_0^3([-L, L])H03([−L,L]), the Differential Geometry of the Riemann Zeta Function on a Double-Cone (Bicone) surface across the first 50 nontrivial zeros, and a cleanroom dual-methodology verification under a hard Zero-Free Firewall (assert ZERO_INPUT_COUNT == 0). In Methodology A, we compute the global Vasyunin Gram matrix GNG_NGN for N≤128N \le 128N≤128 in 512-bit Flint Arb arithmetic: across 1,259 coprime pairs, Dedekind reciprocity is verified to 10−15010^{-150}10−150, resolving the Nyman-Beurling distance dNB2(128)=0.27170046d_{NB}^2(128) = 0.27170046dNB2(128)=0.27170046 across 57 prime innovation steps with certified logarithmic decay. In Methodology B, we prove the Parity-Split Pole Theorem: decomposing into even and odd Jacobi modes (1−ξ2)3Pn(6,6)(ξ)(1 - \xi^2)^3 P_n^{(6,6)}(\xi)(1−ξ2)3Pn(6,6)(ξ), the s=1s = 1s=1 pole is positive definite rank-1 on even modes and negative definite rank-1 on odd modes (Ppole,odd=−0.5ssTP_{\mathrm{pole, odd}} = -0.5 \mathbf{s}\mathbf{s}^TPpole,odd=−0.5ssT). Projecting onto the codimension-1 odd subspace Voddpf:=sodd⊥\mathcal{V}_{\mathrm{odd}}^{\mathrm{pf}} := \mathbf{s}_{\mathrm{odd}}^\perpVoddpf:=sodd⊥, the eLe^LeL Prime Number Theorem divergence is annihilated identically (<10−98< 10^{-98}<10−98), leaving pure Archimedean-prime positivity (λmin⁡≥10.4751>0\lambda_{\min} \ge 10.4751 > 0λmin≥10.4751>0). Finally, we model the critical line as a double-cone rcore(t)=0.35∣t∣r_{\mathrm{core}}(t) = 0.35 |t|rcore(t)=0.35∣t∣ undergoing 50x linear expansion; modulated by ∣ζ(1/2+it)∣|\zeta(1/2 + it)|∣ζ(1/2+it)∣, the surface pinches cleanly to r=0r = 0r=0 (R1/2<10−73R_{1/2} < 10^{-73}R1/2<10−73) at all 50 zeros (S1/2=20,870.29S_{1/2} = 20,870.29S1/2=20,870.29, Atotal=649,818.56\mathcal{A}_{\mathrm{total}} = 649,818.56Atotal=649,818.56), whereas off-axis cross-sections (σ=0.55\sigma = 0.55σ=0.55) open an unpinched collar (R≥0.1923>0R \ge 0.1923 > 0R≥0.1923>0).

Zenodo (CERN European Organization for Nuclear Research)
Brandenburg University of Technology Cottbus-Senftenberg (DE)
Analytic Number Theory Research
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