Patterson-Sullivan distributions and quantum ergodicity
arXiv:math/0601776 · doi:10.1007/s00023-006-0311-7
Abstract
We relate two types of phase space distributions associated to eigenfunctions of the Laplacian on a compact hyperbolic surface : (1) Wigner distributions $\int_{S^*\X} a dW_{ir_j}=< Op(a)ϕ_{ir_j}, ϕ_{ir_j}>_{L^2(\X)}$, which arise in quantum chaos. They are invariant under the wave group. (2) Patterson-Sullivan distributions , which are the residues of the dynamical zeta-functions $\lcal(s; a): = \sum_γ\frac{e^{-sL_γ}}{1-e^{-L_γ}} \int_{γ_0} a$ (where the sum runs over closed geodesics) at the poles . They are invariant under the geodesic flow. We prove that these distributions (when suitably normalized) are asymptotically equal as . We also give exact relations between them. This correspondence gives a new relation between classical and quantum dynamics on a hyperbolic surface, and consequently a formulation of quantum ergodicity in terms of classical ergodic theory.
54 pages, no figures. Added some references
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