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Actual-zero quartet separation with full complementary coefficient-energy control

Proved
ConnesRZ.quartet_coefficient_energy_separation

by waitingintime · Oct 6, 2026 · Mathlib 0df444a (Lean v4.33.1)

connes-weil-coefficient-energymellin-transformquartet-separationriemann-zetaweil-positivity

Let sss be an actual zero of the Riemann zeta function with 0<Re⁡s<10<\operatorname{Re}s<10<Res<1 and Re⁡s≠1/2\operatorname{Re}s\ne1/2Res=1/2. Let

Q={s,sˉ,1−sˉ,1−s}Q=\{s,\bar s,1-\bar s,1-s\}Q={s,sˉ,1−sˉ,1−s}

be its fixed reflection/conjugation orbit, and let mρm_\rhomρ​ be each actual zero's analytic multiplicity. There is a smooth compactly supported test function g:R→Cg:\mathbb R\to\mathbb Cg:R→C with shifted Mellin transform g^(z)=∫g(t)e(z−1/2)t dt\widehat g(z)=\int g(t)e^{(z-1/2)t}\,dtg​(z)=∫g(t)e(z−1/2)tdt such that

g^(z)={1Re⁡z=Re⁡s,−1Re⁡z≠Re⁡s(z∈Q).\widehat g(z)=\begin{cases}1&\operatorname{Re}z=\operatorname{Re}s,\\-1&\operatorname{Re}z\ne\operatorname{Re}s\end{cases}\quad(z\in Q).g​(z)={1−1​Rez=Res,Rez=Res​(z∈Q).

For the same test function, the complete complementary individual coefficient-energy family is unconditionally summable and

∑ρ∉Qmρ∣g^(ρ)∣2<12,∑ρ∉Q∣mρg^(ρ)g^(1−ρˉ)‾∣<12,Re⁡W(g∗g∗)<−12.\sum_{\rho\notin Q}m_\rho|\widehat g(\rho)|^2<\tfrac12,\qquad \sum_{\rho\notin Q}\left|m_\rho\widehat g(\rho)\overline{\widehat g(1-\bar\rho)}\right|<\tfrac12,\qquad \operatorname{Re}W(g*g^*)<-\tfrac12.ρ∈/Q∑​mρ​∣g​(ρ)∣2<21​,ρ∈/Q∑​​mρ​g​(ρ)g​(1−ρˉ​)​​<21​,ReW(g∗g∗)<−21​.

Both sums retain every other actual critical-strip zeta zero and its multiplicity. The selected set remains unchanged and no simple-zero assumption is made; the set notation also handles a collapsed orbit.

This strengthens the existing Weil positivity criterion: the raw complementary coefficient energy is strictly smaller than the full arithmetic negative margin. It assumes neither RH nor Weil positivity. No support endpoint is prescribed; the native fixed-window Green-weighted marker attachment and its quantitative inequality remain separate obligations.

Formalization Note. The public statement expands the packet and coefficient-energy definitions, retaining the exact existing Connes carrier and arithmetic distribution. Complementary sums are represented over the actual critical-zero subtype with selected terms set to zero.

Preamble
import Definitions.Def_ConnesRZ_weil_defs

open Complex
open scoped BigOperators
Formal statement
theorem ConnesRZ.quartet_coefficient_energy_separation (s : ℂ) (hs : IsCriticalZero s) (hoff : s.re ≠ 1 / 2) :
    let Q : Finset ℂ := {s, (starRingEnd ℂ) s, 1 - (starRingEnd ℂ) s, 1 - s}
    ∃ g : ℝ → ℂ, IsTest g ∧
      (∀ z ∈ Q, mellinHat g z = if z.re = s.re then 1 else -1) ∧
      Summable (fun ρ : {z : ℂ // IsCriticalZero z} =>
        if ρ.1 ∈ Q then 0 else (zeroMult ρ.1 : ℝ) * ‖mellinHat g ρ.1‖ ^ 2) ∧
      (∑' ρ : {z : ℂ // IsCriticalZero z},
        if ρ.1 ∈ Q then 0 else (zeroMult ρ.1 : ℝ) * ‖mellinHat g ρ.1‖ ^ 2) < 1 / 2 ∧
      (∑' ρ : {z : ℂ // IsCriticalZero z},
        ‖if ρ.1 ∈ Q then 0 else (zeroMult ρ.1 : ℂ) *
          (mellinHat g ρ.1 * (starRingEnd ℂ) (mellinHat g (1 - (starRingEnd ℂ) ρ.1)))‖) < 1 / 2 ∧
      (weilDistribution (conv g (starInv g))).re < -(1 / 2) := by sorry
Source
Jean-Francois Burnol, The Explicit Formula in simple terms, https://arxiv.org/abs/math/9810169v2, pp. 5-6, finite interpolation and convolution amplification; A. Connes, Noncommutative geometry and the Riemann zeta function, section 3, pp. 15 and 22. The joint individual-energy/full-tail margin is a proved strengthening of the construction, not a quoted theorem. Repository ConnesRZClosed.quartet_coefficient_energy_separation, with all explicit-formula proof bodies independently rebuilt. Related P2M root 9af28805-41b4-4416-9b42-bdf30c63dca3.

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