Fixed-shift Sathe–Selberg asymptotic for integers
Establish, for every fixed sequence of k distinct non-negative integers h₁,…,h_k and every real number R with 0<R<2, the uniform asymptotic formula ∑_{n≤N} z^{Ω(n+h₁)+⋯+Ω(n+h_k)} = G(z)^k N(log N)^{k(z−1)} + O(N(log N)^{k(Re z−1)−1}) for |z|≤R and N≥2.
References
By \cref{Selberg1954_Chowla}, we conjecture that that uniformly for $|z|\leq R$ and $N\ge2$, we have \begin{equation}\label{Sathe_Selberg_Chowla} \sum_{n\leq N} z{\Omega(n+h_1)+\cdots + \Omega(n+h_k)} = G(z)k N(\log N){k(z-1)} + O\big(N (\log N){k(Re z-1)-1} \big). \end{equation}
Sathe_Selberg_Chowla:
Similarly, by \cref{Selberg1954_Chowla_prime}, we conjecture that that uniformly for $|z|\leq R$ and $N\ge2$, we have \begin{equation}\label{Sathe_Selberg_Chowla_prime} \sum_{p\leq N} z{\Omega(p+h_1)+\cdots + \Omega(p+h_k)} = G(z)k N(\log N){k(z-1)-1} + O\big(N (\log N){k(Re z-1)-2} \big). \end{equation}
Sathe_Selberg_Chowla_prime: