The Taylor-coefficient limiting ratio conjecture for eta derivatives

Less than 1 year old · traced to

Let D!,ND_{!,N} be the determinant polynomial obtained by replacing each variable xj,kx_{j,k} in DND_N by xj,k/k!x_{j,k}/k!, and define

S!,N(a)=D!,N(xj,k↦η⟨j+k⟩(a))D!,N−1(xj,k↦η⟨j+k+2⟩(a)).S_{!,N}(a)=\frac{D_{!,N}\big(x_{j,k}\mapsto\eta^{\langle j+k\rangle}(a)\big)}{D_{!,N-1}\big(x_{j,k}\mapsto\eta^{\langle j+k+2\rangle}(a)\big)}.

The Taylor-coefficient limiting ratio conjecture. Except for countably many values of aa,

S!,N(a)⟶1S_{!,N}(a)\longrightarrow 1

as N→∞N\to\infty.

This modification uses factorially normalized, Taylor-like coefficients and is reported to converge more slowly than the first limiting ratio; it remains conjectural.

References

Primary source

Yuri Matiyasevich, “In Search of Approximate Polynomial Dependencies Among the Derivatives of the Alternating Zeta Function”, arXiv:2602.03408 (2026).

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.