Character of eigenstates of the 3D disordered Anderson Hamiltonian
arXiv:0801.1610 · doi:10.1103/PhysRevB.77.115131
Abstract
We study numerically the character of electron eigenstates of the three dimensional disordered Anderson model. Analysis of the statistics of inverse participation ratio as well as numerical evaluation of the electron-hole correlation function confirm that there are no localized states below the mobility edge, as well as no metallic state in the tail of the conductive band. We discuss also finite size effects observed in the analysis of all the discussed quantities.
arXiv comment7 pages, 9 figures, resubmitted to Physical Review B
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- Electronic States in One, Two, and Three Dimensional Highly Amorphous Materials: A Tight Binding Treatment
- Integrability of the diffusion pole in the diagrammatic description of noninteracting electrons in a random potential
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