Montgomery–Dyson conjecture on zeta zeros and random unitary matrices

Let TT be a height on the critical line for the Riemann zeta function, and let NN be the size of a random unitary matrix. The notation Nlog(T/(2π))N\approx \log(T/(2\pi)) relates the height to the matrix size. Montgomery–Dyson conjecture. The zeros of the Riemann zeta function at height TT on the critical line are statistically distributed like the eigenvalues of an N×NN\times N random unitary matrix around the unit circle, where

NlogT2π.N\approx \log\frac{T}{2\pi}.

This random-matrix model is intended to describe the statistical distribution of zeta zeros among Gram intervals and is supported by theoretical, heuristic, and numerical evidence; the source presents it as an established conjectural framework rather than a resolved theorem.

Sources & referencesView supporting material

Primary source

Cătălin Hanga and Christopher Hughes, “Probabilistic models for Gram's Law”, arXiv:1911.03190 (2020).

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