This documentation offers a proof of the Goldbach Conjecture in even integers, indicating significant density findings.
# Overview This record releases **Goldbach Conjecture Proof v3.5** as a **two-PDF set**: - **Main paper:** *Goldbach Conjecture Proof v3.5* - **Companion note (closure module):** *Goldbach Density–0 v3.5* The program is **explicitly scope-managed**:it separates an **unconditional “most-window” layer** from **scenario-based global closure**,and isolates the **density–0 exceptional-window closure** into an independent variational module. Date: **February 21, 2026** Version: **v3.5** # Contents This record contains two PDF files: 1) `Goldbach_Conjecture_Proof_v3.5_final.pdf` 2) `Goldbach_Density0_v3.5_final.pdf` # Main claims (what is proved here) ## (A) Unconditional layer (proved)The main paper establishes a **most-window / density-1** Goldbach validity statement in the calibrated window framework.Formally, for “good windows” (in the sense of the program’s acceptance tests), the set of even integers \(2n\) in the windowthat admit a Goldbach representation \(2n=p+q\) has **density \(1\)** inside the window. This layer is designed to be robust under:- window rescaling within the admissible policy class,- renormalized entropy/energy comparisons,- and a log-regularized boundary analysis at \(s=2\) (no simple-pole claim). ## (B) Scenario layer (optional, clearly marked)A **global eventual Goldbach** statement (existence of a finite threshold \(K_0\) such that every even \(2n≥ K_0\) is Goldbach)is derived only under an explicit **strong-mixing scenario** (uniform minorization / gap / quantitative inputs),presented as a separate, assumption-labeled module. This scenario layer is *not* part of the unconditional claims unless the stated hypotheses are invoked. # Companion note: Density–0 closure (what it does) The companion note proves that the set of **exceptional windows** can be controlled in **logarithmic density**:it provides a variational closure mechanism showing that weakly mixed or “bad” windows form a set of(logarithmic) density \(0\), under the note’s stated hypotheses. Key features:- a modern variational structure (including \(Γ\)-convergence style arguments),- equicoercivity driven by an entropy term \(∫ ρlogρ\),- and a quantitative upgrade from total-variation control to pointwise positivity on the relevant “good” set. ## What is not claimed (explicit)The companion note **does not claim** a fully unconditional global proof of the Goldbach conjecture.Its role is a **closure module** controlling exceptional windows at logarithmic density \(0\). # Technical highlights (high-level) - **Entropy–spectral framework:** a Markov/variational control of Goldbach representations via an entropy functional and a calibrated “global energy” proxy on admissible windows. - **Band-limited comparison discipline:** kernel comparisons are performed on matched support / typical sets, avoiding polynomial collapse in entrywise band comparisons. - **Log-regularized boundary at \(s=2\):** the Mellin–trace interface is treated with logarithmic regularization; no claim of a simple pole at \(s=2\) is used in v3.5. # Relation to the RH/rigidity proof set (external references) Some background “rigidity program” inputs are cited from the following Zenodo record: - **Four-paper set (Published February 18, 2026 | Version v4.0r)** Record DOI: **10.5281/zenodo.18684367** Included PDFs: *Density-0 Proof v4.0*, *RH Circle A v4.0*, *RH Guide v1.3r*, *Selberg Class Extension v1.1*. This Goldbach program does not require the RH set for its unconditional “most-window” layer,but references it for structural analogies and calibrated constants where explicitly noted. # Suggested citation B. Lee, *Goldbach Conjecture Proof v3.5 (Main + Density–0 Companion)*, Zenodo, 2026, Version v3.5. # Keywords Goldbach conjecture; additive prime problems; entropy method; spectral gap; Markov chains; variational closure;\(Γ\)-convergence; logarithmic density; exceptional sets; Tauberian regularization; sieve heuristics.
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Byoungwoo Lee (2026) studied this question.
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