Beyond Classical Sieve Theory: Epistemological and Mathematical Clarification of Goldbach's Conjecture in Arithmetic Index Theory (AIT)

This technical note provides a comprehensive mathematical and epistemological clarification of traditional objections raised against the resolution of Goldbach’s conjecture via Arithmetic Index Theory (AIT). The present note is not intended to reproduce the full derivations contained in the preceding AIT manuscripts [1, 2]. Its purpose is to isolate classical objections that recur in external discussions and identify precisely which mathematical object each objection addresses. By clarifying the strict macro-micro decoupling, we establish that classical sieve obstacles—such as Selberg’s parity barrier, inclusion-exclusion remainder explosions O(2^π(√N)), and Mertens logarithmic decay—are methodological artifacts of discrete measure theory. We demonstrate that the continuous envelope Z∗_d (2N) = 0.2286 ·N^(2/3) is an absolute, structural lower-bound that formally minorizes the discrete survival function P_d(m) and the Goldbach Comet’s lower boundary, remaining independent of the stochastic expectations of Hardy-Littlewood. Keywords: Goldbach’s Conjecture, Arithmetic Index Theory (AIT), Sieve Theory, Selberg’s Parity Barrier, Macro-Micro Decoupling, Structural Lower-Bound.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-30
DOI
https://doi.org/10.5281/zenodo.23047661
Primary Topic
Analytic Number Theory Research
Type
article
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Beyond Classical Sieve Theory: Epistemological and Mathematical Clarification of Goldbach's Conjecture in Arithmetic Index Theory (AIT)

Hedi ZARKOUNA
Zenodo (CERN European Organization for Nuclear Research)
Analytic Number Theory Research
article

Beyond Classical Sieve Theory: Epistemological and Mathematical Clarification of Goldbach's Conjecture in Arithmetic Index Theory (AIT)

Hedi ZARKOUNA
article en

Abstract

This technical note provides a comprehensive mathematical and epistemological clarification of traditional objections raised against the resolution of Goldbach’s conjecture via Arithmetic Index Theory (AIT). The present note is not intended to reproduce the full derivations contained in the preceding AIT manuscripts [1, 2]. Its purpose is to isolate classical objections that recur in external discussions and identify precisely which mathematical object each objection addresses. By clarifying the strict macro-micro decoupling, we establish that classical sieve obstacles—such as Selberg’s parity barrier, inclusion-exclusion remainder explosions O(2^π(√N)), and Mertens logarithmic decay—are methodological artifacts of discrete measure theory. We demonstrate that the continuous envelope Z∗_d (2N) = 0.2286 ·N^(2/3) is an absolute, structural lower-bound that formally minorizes the discrete survival function P_d(m) and the Goldbach Comet’s lower boundary, remaining independent of the stochastic expectations of Hardy-Littlewood. Keywords: Goldbach’s Conjecture, Arithmetic Index Theory (AIT), Sieve Theory, Selberg’s Parity Barrier, Macro-Micro Decoupling, Structural Lower-Bound.

Zenodo (CERN European Organization for Nuclear Research)
Reduced inequalities
Openalex Percentile: Top 4%
Analytic Number Theory Research
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Beyond Classical Sieve Theory: Epistemological and Mathematical Clarification of Goldbach's Conjecture in Arithmetic Index Theory (AIT) — Hedi ZARKOUNA · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS