In this paper, we report numerical calculations of the localization length in a non-interacting one-dimensional tight-binding model at zero tem¬perature, holding a correlated disorder model with an algebraic power-spectrum (de Moura-Lyra model). Our calculations were based on a Kernel Polynomial implementation of the Thouless formula for the inverse localization length of a general nearest-neighbor 1D tight-binding model with open boundaries. Our results confirm the delocalization of all eigenstates in de Moura-Lyra model for α > 1 and a localization length which diverges as ξ ∝ (1 – α)–1 for α → 1–, at all energies in the weak disorder limit (as previously seen in [12])
We consider a tight-binding model on the regular honeycomb lattice with uncorrelated on-site disorde...
Restricted AccessA localization criterion is derived by using the self-consistent determination of t...
We propose a new approach to probing ergodicity and its breakdown in one-dimensional quantum many-bo...
In this paper, we report numerical calculations of the localization length in a non-interacting one-...
In the previous work, we investigated the correlation-induced localization-delocalization transition...
We investigated numerically localization properties of electron eigenstates in a chain with long-ran...
In the present work, we investigated the correlation-induced localization-delocalization transition ...
We consider a two-parameter one-dimensional Hamiltonian with uncorrelated diagonal disorder and nonr...
We perform both analytical and numerical studies of the one-dimensional tight-binding Hamiltonian wi...
We show that the electronic states in a one-dimensional (1D) Anderson model of diagonal disorder wit...
We focus on tight-binding Hamiltonians on a regular one-dimensional lattice with non-random long-ran...
In this paper we introduce the spectral approach to delocalization in infinite disordered systems an...
In one-dimension and for discrete uncorrelated random potentials, such as tight binding models, all ...
While Anderson localisation is largely well-understood, its description has traditionally been rath...
In an early work by Dunlap et al. (1990) it was conjectured, using a matrix-transfer approach, that ...
We consider a tight-binding model on the regular honeycomb lattice with uncorrelated on-site disorde...
Restricted AccessA localization criterion is derived by using the self-consistent determination of t...
We propose a new approach to probing ergodicity and its breakdown in one-dimensional quantum many-bo...
In this paper, we report numerical calculations of the localization length in a non-interacting one-...
In the previous work, we investigated the correlation-induced localization-delocalization transition...
We investigated numerically localization properties of electron eigenstates in a chain with long-ran...
In the present work, we investigated the correlation-induced localization-delocalization transition ...
We consider a two-parameter one-dimensional Hamiltonian with uncorrelated diagonal disorder and nonr...
We perform both analytical and numerical studies of the one-dimensional tight-binding Hamiltonian wi...
We show that the electronic states in a one-dimensional (1D) Anderson model of diagonal disorder wit...
We focus on tight-binding Hamiltonians on a regular one-dimensional lattice with non-random long-ran...
In this paper we introduce the spectral approach to delocalization in infinite disordered systems an...
In one-dimension and for discrete uncorrelated random potentials, such as tight binding models, all ...
While Anderson localisation is largely well-understood, its description has traditionally been rath...
In an early work by Dunlap et al. (1990) it was conjectured, using a matrix-transfer approach, that ...
We consider a tight-binding model on the regular honeycomb lattice with uncorrelated on-site disorde...
Restricted AccessA localization criterion is derived by using the self-consistent determination of t...
We propose a new approach to probing ergodicity and its breakdown in one-dimensional quantum many-bo...