Igusa–Denef–Loeser Strong Monodromy Conjecture

Let ff be a polynomial and let bf(s)b_f(s) denote its Bernstein–Sato polynomial. For fQ[x1,,xn]f\in\mathbb{Q}[x_1,\ldots,x_n], let Zf,p(s)Z_{f,p}(s) be its pp-adic zeta function. For fC[x1,,xn]f\in\mathbb{C}[x_1,\ldots,x_n], let Zf,topglobal(s)Z^{{\mathrm{global}}}_{f,\,\mathrm{top}}(s) be its global topological zeta function.

Strong Monodromy Conjecture.

  1. If fQ[x1,,xn]f\in\mathbb{Q}[x_1,\ldots,x_n], then, for all but finitely many primes pp, every pole s0s_0 of Zf,p(s)Z_{f,p}(s) has Re(s0)\operatorname{Re}(s_0) as a root of bf(s)b_f(s).
  2. If fC[x1,,xn]f\in\mathbb{C}[x_1,\ldots,x_n], then every pole s0s_0 of Zf,topglobal(s)Z^{{\mathrm{global}}}_{f,\,\mathrm{top}}(s) is a root of bf(s)b_f(s).

The conjecture predicts a relationship between poles of arithmetic and topological zeta functions and the Bernstein–Sato polynomial, linking arithmetic data with the geometry and monodromy of hypersurface singularities. The source proves the conjecture for hyperplane arrangements, while the general case remains open.

Sources & referencesView supporting material

Primary source

Dougal Davis and Ruijie Yang, “Multivariate V-filtrations and the Strong Monodromy Conjecture for hyperplane arrangements”, arXiv:2605.25314 (2026).

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