An Extension of the Guth–Maynard Additive‑Energy Estimate to 𝑁 > 𝑇 2 / 3
Authors/Creators
Description
Abstract This paper extends the Guth–Maynard additive‑energy estimate for large values of Dirichlet polynomials. Guth and Maynard proved that for T3/4≤N≤T, the additive energy of a large‑value set satisfies a three‑term bound. We show that the identical bound remains valid in the larger range T2/3<N≤T.
The proof retains the unreduced large‑gcd Cauchy product from Guth–Maynard’s Section 11 rather than collapsing its mixed term into a single monomial. In the small‑cardinality branch, the mixed term is interpolated between two existing target monomials using the exact inequality
As a consequence, the Third Guth–Maynard relation in the ANTEDB large‑value‑energy region extends from 1<τ<4/3 to 1<τ<3/2, including the endpoint τ=3/2 by a subdivision argument. We also identify 2/3 as the precise barrier for the coarse monomial‑domination mechanism used here; this is not a sharpness statement for the theorem itself. At one rational point in the new range we obtain a direct energy‑envelope gain of 23/400.
The scope of the paper is deliberately narrow. We do not claim a new global zero‑density estimate, an improvement of the Guth–Maynard cardinality theorem, or any statement concerning the Riemann Hypothesis. The contribution is a clean range extension of a published energy estimate, together with its translation into the Analytic Number Theory Exponent Database (ANTEDB).
Keywords Dirichlet polynomials; large values; additive energy; Guth–Maynard method; ANTEDB; large‑value‑energy region
Mathematical Status Main theorem: Guth–Maynard additive‑energy estimate extended to N>T2/3. Global zero‑density bounds: not claimed. Riemann Hypothesis: not obtained.
Files
BUILD_REPORT.txt
Files
(479.1 kB)
| Name | Size | Download all |
|---|---|---|
|
md5:d4a474c33f2941175aaf9c38ef3a89ce
|
1.5 kB | Preview Download |
|
md5:ce55f2db0c8a32a6a81e446af4641f9d
|
39.2 kB | Download |
|
md5:d339ecb4eb04c54034c32769d806d69b
|
267 Bytes | Download |
|
md5:6a8e3d87e6f7103c9f7ed105cd0184a3
|
3.0 kB | Preview Download |
|
md5:556f18fc1065a9bcc18461d0edc60165
|
1.7 kB | Preview Download |
|
md5:050a4b25ed612e4908351b942b7e24f2
|
418.7 kB | Preview Download |
|
md5:e339d3f718a2aec155d1faeb9809ca0b
|
1.0 kB | Preview Download |
|
md5:775b096a33108e7f606d1fad2b117ff1
|
6.2 kB | Preview Download |
|
md5:65d2ee94bdfde176d2a71c54b3afa612
|
3.7 kB | Download |
|
md5:4d1673b90e7be01937924049b95b95fa
|
261 Bytes | Preview Download |
|
md5:66dded858cf5e497b020f239e83d3fb1
|
3.6 kB | Download |
Additional details
Dates
- Issued
-
2026-03-07
References
- Titchmarsh, E. C. (1986). The Theory of the Riemann Zeta-function (2nd ed., revised by D. R. Heath-Brown). Oxford University Press. Edwards, H. M. (1974). Riemann's Zeta Function. Dover Publications. Báez-Duarte, L. (2003). A strengthening of the Nyman–Beurling criterion for the Riemann hypothesis. Rendiconti del Circolo Matematico di Palermo, 52(3), 375–380. https://doi.org/10.1007/s12215-003-0007-1 Conrey, J. B. (2003). The Riemann Hypothesis. Notices of the American Mathematical Society, 50(3), 341–353. Ivić, A. (1985). The Riemann Zeta-Function: Theory and Applications. Dover Publications.