Twisted pair correlation conjecture

About 2 years old · traced to

Let n=qan=q^a be a prime power, define γ~=(log⁡T)/(2π) γ\widetilde\gamma=(\log T)/(2\pi)\,\gamma, and let C(R)\mathfrak C(\mathbb R) be the set of continuous L1(R)L^1(\mathbb R) functions rr whose Fourier transform r^\hat r is integrable and Lipschitz continuous with r^′(a)≪∣a∣−3\hat r'(a)\ll|a|^{-3}. Let En=(a−1)log⁡q/log⁡T+1/log⁡T\mathcal E_n=(a-1)\log q/\log T+1/\log T, and define mnm_n by

mn(α)={1,α<−1−Λ(n)/log⁡T,(log⁡T/Λ(n))(−α−1),−1−Λ(n)/log⁡T≤α<−1,0,−1≤α<1−log⁡n/log⁡T,(log⁡T/Λ(n))(α−1+log⁡n/log⁡T),1−log⁡n/log⁡T≤α<1−(log⁡n−Λ(n))/log⁡T,1,α≥1−(log⁡n−Λ(n))/log⁡T.m_n(\alpha)=\begin{cases}1,&\alpha<-1-\Lambda(n)/\log T,\\(\log T/\Lambda(n))(-\alpha-1),&-1-\Lambda(n)/\log T\leq\alpha<-1,\\0,&-1\leq\alpha<1-\log n/\log T,\\(\log T/\Lambda(n))(\alpha-1+\log n/\log T),&1-\log n/\log T\leq\alpha<1-(\log n-\Lambda(n))/\log T,\\1,&\alpha\geq1-(\log n-\Lambda(n))/\log T. \end{cases}

Twisted pair correlation conjecture. Fix ε>0\varepsilon>0 and let r∈C(R)r\in\mathfrak C(\mathbb R). Uniformly for all prime powers n=qa≤T1−εn=q^a\leq T^{1-\varepsilon},

−(T2πΛ(n)n)−1∑T≤γ,γ′≤2Tniγr(γ~−γ~′)=∫Rr^(α)+r^(−α−log⁡n/log⁡T)2(δ(α)+mn(α)) dα+O(En).-\left(\frac{T}{2\pi}\frac{\Lambda(n)}{\sqrt n}\right)^{-1}\sum_{T\leq\gamma,\gamma'\leq2T}n^{i\gamma}r(\widetilde\gamma-\widetilde\gamma')=\int_{\mathbb R}\frac{\hat r(\alpha)+\hat r(-\alpha-\log n/\log T)}2\bigl(\delta(\alpha)+m_n(\alpha)\bigr)\,d\alpha+O(\mathcal E_n).

This weaker, integrated formulation follows from the strong twisted pair correlation conjecture by convolution with a suitable kernel. It is introduced because it is the form needed for the later argument; the source supports it conditionally from the strong conjecture but does not establish it in full.

References

Primary source

Alessandro Fazzari and Maxim Gerspach, “The third moment of the logarithm of zeta and a twisted pair correlation conjecture”, arXiv:2412.20099 (2024).

Progress summary

Never refreshed

Nothing recorded yet. Refresh searches the literature and the public web for attempts on this problem, and writes the first summary here.

Solutions 0

No solutions have been posted yet.