We study the eigenstates of a paradigmatic model of many-body localization in the Fock basis constructed out of the natural orbitals. By numerically studying the participation ratio, we identify a sharp crossover between different phases at a disorder strength close to the disorder strength at which subdiffusive behaviour sets in, significantly below the many-body localization transition. We repeat the analysis in the conventionally used computational basis, and show that many-body localized eigenstates are much stronger localized in the Fock basis constructed out of the natural orbitals than in the computational basis
We consider some aspects of a standard model employed in studies of many-body localization: interact...
We study classical percolation models in Fock space as proxies for the quantum many-body localizatio...
Translationally invariant flatband Hamiltonians with interactions lead to a many-body localization t...
We study the eigenstates of a paradigmatic model of many-body localization in the Fock basis constru...
We consider the problem of many-body localization on Fock space, focusing on the essential features ...
We adopt a geometric perspective on Fock space to provide two complementary insights into the eigens...
A canonical model for many-body localization (MBL) is studied, of interacting spinless fermions on a...
In the presence of strong enough disorder one-dimensional systems of interacting spinless fermions a...
Many-body localization (MBL) addresses the absence of thermalization in interacting quantum systems,...
We generalize Page's result on the entanglement entropy of random pure states to the many-body eigen...
Many-body eigenstates beyond the Gaussian approximation can be constructed in terms of local integra...
Many-body localisation (MBL) in closed quantum systems can often be understood in terms of the fract...
We study interacting fermions in one dimension subject to random, uncorrelated onsite disorder, a pa...
We review recent developments in the study of out-of-equilibrium topological states of matter in iso...
When pushed out of equilibrium, generic interacting quantum systems equilibrate locally and are expe...
We consider some aspects of a standard model employed in studies of many-body localization: interact...
We study classical percolation models in Fock space as proxies for the quantum many-body localizatio...
Translationally invariant flatband Hamiltonians with interactions lead to a many-body localization t...
We study the eigenstates of a paradigmatic model of many-body localization in the Fock basis constru...
We consider the problem of many-body localization on Fock space, focusing on the essential features ...
We adopt a geometric perspective on Fock space to provide two complementary insights into the eigens...
A canonical model for many-body localization (MBL) is studied, of interacting spinless fermions on a...
In the presence of strong enough disorder one-dimensional systems of interacting spinless fermions a...
Many-body localization (MBL) addresses the absence of thermalization in interacting quantum systems,...
We generalize Page's result on the entanglement entropy of random pure states to the many-body eigen...
Many-body eigenstates beyond the Gaussian approximation can be constructed in terms of local integra...
Many-body localisation (MBL) in closed quantum systems can often be understood in terms of the fract...
We study interacting fermions in one dimension subject to random, uncorrelated onsite disorder, a pa...
We review recent developments in the study of out-of-equilibrium topological states of matter in iso...
When pushed out of equilibrium, generic interacting quantum systems equilibrate locally and are expe...
We consider some aspects of a standard model employed in studies of many-body localization: interact...
We study classical percolation models in Fock space as proxies for the quantum many-body localizatio...
Translationally invariant flatband Hamiltonians with interactions lead to a many-body localization t...