Localization for one-dimensional random potentials with large local fluctuations
arXiv:0807.0772 · doi:10.1088/1751-8113/41/47/475001
Abstract
We study the localization of wave functions for one-dimensional Schrödinger Hamiltonians with random potentials with short range correlations and large local fluctuations such that $\int\D{x} \smean{V(x)V(0)}=\infty$. A random supersymmetric Hamiltonian is also considered. Depending on how large the fluctuations of are, we find either new energy dependences of the localization length, , with or for , or superlocalization (decay of the wave functions faster than a simple exponential).
9 pages, LaTeX, 2 eps figures ; v2: Refs. added, small paragraph added p.4, additional table in conclusion
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- The generalized Lyapunov exponent for the one-dimensional Schrödinger equation with Cauchy disorder: some exact results
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