Proves conductance and spectral gap bounds for the Goldbach conjecture, highlighting new mixing properties.
# Overview (v4.2) This record releases **Goldbach v4.2**, a two-paper set plus a 1-page referee ledger and an optional verification-only artifact. - **Main paper (proved layer):** a reusable *prime-band intersection transfer principle* turning BV/BDH-type short-interval mean-square inputs into polylog lower bounds for conductance, spectral gap, and log-Sobolev constants of a natural Goldbach sum-chain on **most windows**. This yields a standard dyadic “exceptions have natural density 0” corollary.- **Companion note (Density0):** a self-contained variational closure proving that *weakly-mixed windows have logarithmic-density 0*, conditional on a per-window energy-gap hypothesis (EG).- **Ledger:** a one-page “proved vs optional” summary for referees.- **Optional artifact (ZIP):** a verification-only skeleton implementing the *interface* for an external all-window certificate (H3⋆) used only in the optional hybrid-closure module. # Files in this record 1. `Goldbach_Main_v4.2.pdf` 2. `Goldbach_Density0_v4.2.pdf` 3. `Goldbach_Ledger_v4.2.pdf` 4. `Goldbach_H3star_Artifact_v4.2.zip` (optional; interface only) # Claims (scope / hygiene) **Proved (unconditional in-paper):**- TP0: Transfer principle (TB1–TB4 ⇒ polylog conductance/gap/LSI ⇒ KL decay ⇒ windowed positivity).- E0: Most-window polylog mixing/entropy closure.- C0: Dyadic exceptional-set bound (natural density 0 on dyadic scales).- M0: Mellin–trace identity in the absolutely convergent region Re(s) > 2. **Not proved / not claimed in the proved layer:**- No unconditional global threshold K0 (“all even N ≥ K0”) is claimed.- Any all-window / eventual closure is treated as an **optional external acceptance test**. # Companion note (Density0) The companion note proves module D0 (density–0 closure for weakly-mixed windows) **conditional on (EG)**. It does not claim a global Goldbach theorem or an unconditional threshold. # Optional hybrid closure (interface only) The main paper includes an optional “hybrid closure” statement:if Goldbach is verified for all even N ≤ B_ver and if an external certificate supplies all-window bounds implying W(N) > 0 for all even N ≥ K_an, then Goldbach holds globally with K0 = max{B_ver, K_an}.This is an interface specification only; it is not part of the proved layer. # Reproducibility / artifact (ZIP) `Goldbach_H3star_Artifact_v4.2.zip` is a verification-only skeleton:- It defines a certificate schema and an auditor that recomputes recorded minima and checks file digests and coverage rules.- The certificate must match `paper_id = v4.2`. # Suggested citation Lee Byoungwoo, “A Spectral–Entropy Framework for the Goldbach Conjecture: Mellin–Trace Bridge, Prime-Band Conductance, and Polylog-Uniform Mixing on Most Windows”, v4.2 (Zenodo record).
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Byoungwoo Lee (2026) studied this question.
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