Bohigas–Giannoni–Schmit conjecture for chaotic spectral statistics

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Let a classical system be chaotic, and consider its quantum eigenvalues on the scale of the mean level spacing. Let λ\lambda denote the spectral parameter tending to infinity. The relevant random-matrix ensemble is determined by the system's symmetries, including time-reversal invariance and spin.

Bohigas–Giannoni–Schmit conjecture. The eigenvalues are distributed like the eigenvalues of Hermitian random matrices, with the following limiting ensembles: without time-reversal invariance, the Gaussian Unitary Ensemble (GUE), characterised by quadratic level repulsion; with time-reversal invariance and integer spin, the Gaussian Orthogonal Ensemble (GOE), characterised by linear level repulsion; and with time-reversal invariance and half-integer spin, the Gaussian Symplectic Ensemble (GSE), characterised by quartic level repulsion.

This conjecture is the random-matrix counterpart to the Poisson-statistics prediction for integrable systems. The source states the symmetry-dependent alternatives but gives no resolution, so the conjecture remains open here.

References

Primary source

Jay Jorgenson, Lejla Smajlović and Holger Then, “On the distribution of eigenvalues of Maass forms on certain moonshine groups”, arXiv:1301.1574 (2017).

Additional references

2 papers in this index state this conjecture (2003–2013). The statement above is taken from the most recent of them; the others are arXiv:math-ph/0305048.

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