zbMATH — the first resource for mathematics

Universality of the correlations between eigenvalues of large random matrices. (English) Zbl 1043.82534
Summary: The distribution of eigenvalues of random matrices appears in a number of physical situations, and it has been noticed that the resulting properties are universal, i.e. independent of specific details. Standard examples are provided by the universality of the conductance fluctuations from sample to sample in mesoscopic electronic systems, and by the spectrum of energy levels of a non-integrable classical hamiltonian (the so-called quantum chaos). The correlations between eigenvalues, measured on the appropriate scale, are described in all those cases by simple gaussian statistics. Similarly numerical experiments have revealed the universality of these correlations with respect to the probability measure of the random matrices. A simple renormalization group argument leads to a direct understanding of this universality; it is consequence of the attractive nature of a gaussian fixed point. Detailed calculations of these correlations are given for a general probability distribution (in which the logarithm of the probability is the trace of a polynomial of the matrix); the universality is shown to follow from an explicit asymptotic form of the orthogonal polynomials with respect to a non-gaussian measure. In addition it is found that the connected correlations, when suitably smoothed, exhibit, even when the eigenvalues are not in the scaling region, a higher level of universality than the density of states.

82B27 Critical phenomena in equilibrium statistical mechanics
33C90 Applications of hypergeometric functions
81Q50 Quantum chaos
81T17 Renormalization group methods applied to problems in quantum field theory
82B28 Renormalization group methods in equilibrium statistical mechanics
82B44 Disordered systems (random Ising models, random Schrödinger operators, etc.) in equilibrium statistical mechanics
Full Text: DOI
[1] Wigner, E.P.; Porter, C.E.; Mehta, M.L., Random matrices, (), 790, (1991), Academic Press New York, reprinted in
[2] Delande, D.; Gay, J.-C.; Delande, D.; Gay, J.-C., Phys. rev. lett., Phys. rev. lett., 57, 2877(E), (1986)
[3] Berry, M.V., (), 251
[4] Slevin, K.; Pichard, J.-L.; Mello, P.; Simons, B.D.; Szafer, A.; Altschuler, B.L., Universality in quantum chaotic spectra, Europhys. lett., 16, 649, (1993), MIT preprint
[5] Camarda, H.S., Phys. rev., A45, 579, (1992), see e.g. the recent work by
[6] David, F.; Kazakov, V.; Ambjörn, J.; Durhuus, B.; Fröhlich, J., Nucl. phys., Phys. lett., Nucl. phys., B257, 433, (1985)
[7] Brézin, E.; Kazakov, V.; Douglas, M.R.; Shenker, S.H.; Gross, D.J.; Migdal, A.A., Phys. lett., Nucl. phys., Phys. rev. lett., 64, 27, (1990)
[8] Bowick, M.; Brézin, E., Phys. lett., B268, 21, (1991)
[9] Wigner, E.P.; Porter, C.E., Statistical theories of spectra: fluctuations, (), 174, (1965), Academic Press New York, reprinted in
[10] Brézin, E.; Itzykson, C.; Parisi, G.; Zuber, J.-B., Commun. math. phys., 50, 35, (1978)
[11] Kamien, R.D.; Politzer, H.D.; Wise, M.B., Phys. rev. lett., 60, 1995, (1989)
[12] Nevai, P., Orthogonal polynomials on infinite intervals, (), 215
[13] Ambjørn, J.; Jurkiewicz, J.; Makeenko, Yu.M., Phys. lett., B251, 517, (1990)
[14] Brézin, E.; Zinn-Justin, J., Phys. lett., B288, 54, (1992)
[15] V. Periwal, Institute for Advanced Study, Princeton preprint (1992)
[16] J.-M. Daul, V.A. Kazakov and I.K. Kostov, CERN preprint, March 1993
This reference list is based on information provided by the publisher or from digital mathematics libraries. Its items are heuristically matched to zbMATH identifiers and may contain data conversion errors. It attempts to reflect the references listed in the original paper as accurately as possible without claiming the completeness or perfect precision of the matching.