Asymptotic Hcabdlog's conjecture

Let b2b\geq 2 be fixed. Define

R1,1(N):=p1,p2NN=p1+p2(p2,b3b)=1logp1logp2\mathcal{R}_{1,1}(N):=\sum_{\substack{p_1,\overleftarrow{p_2}\leq N\N=p_1+\overleftarrow{p_2}\\(\overleftarrow{p_2},b^3-b)=1}}\log p_1\log p_2

and

S2(N):=pb3b\pN(1+1p1)pb3b\pN(11(p1)2).\mathfrak{S}_2(N):=\prod_{\substack{p\mid b^3-b\p\mid N}}\left(1+\frac{1}{p-1}\right)\prod_{\substack{p\mid b^3-b\p\nmid N}}\left(1-\frac{1}{(p-1)^2}\right).

Also let #B(N)\#\mathfrak{B}(N) denote the number of admissible integer representations encoded by the source's set B(N)\mathfrak{B}(N). Asymptotic Hcabdlog's conjecture. For fixed b2b\geq 2, every sufficiently large odd integer NN is representable as a prime plus a reversed prime, and, for any A>0A>0,

R1,1(N)S2(N)#B(N).\mathcal{R}_{1,1}(N)\sim\mathfrak{S}_2(N)\#\mathfrak{B}(N).

This is obtained from the major arcs of the circle method and is described as an asymptotic form of Hcabdlog's conjecture. The supplied text does not provide a full definition of B(N)\mathfrak{B}(N).

Sources & referencesView supporting material

Primary source

Michael Harm and Daniel R. Johnston, “The reverse Goldbach problem and a refined Zsiflaw–Legeis theorem”, arXiv:2605.21876 (2026).

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