We review recent works that relate entanglement of random vectors to their localization properties. In particular, the linear entropy is related by a simple expression to the inverse participation ratio, while next orders of the entropy of entanglement contain information about e.g. the multifractal exponents. Numerical simulations show that these results can account for the entanglement present in wavefunctions of physical systems
Entanglement is usually quantified by von Neumann entropy, but its properties are much more complex ...
We provide a simple and predictive random-matrix framework that naturally generalizes Page's law for...
We consider Anderson localization and the associated metal-insulator transition for non-interacting ...
We relate the entropy of entanglement of ensembles of random vectors to their generalized fractal di...
This chapter addresses the question of quantum entanglement in disordered chains, focusing on the vo...
We derive exact expressions for the mean value of Meyer-Wallach entanglement Q for localized rando...
We present an entropy concept measuring quantum localization in dynamical systems based on time aver...
The entanglement and localization in eigenstates of strongly chaotic subsystems are studied as a fun...
We explore the relation between entanglement entropy of quantum many-body systems and the distributi...
Entanglement entropy provides a powerful characterization of two-dimensional gapped topolog- ical ph...
Physical interactions in quantum many-body systems are typically local: Individual constituents inte...
In this paper, we would like to systematically explore the implications of non-perturbative effects ...
Entanglement is the most unique and distinguishing feature of quantum mechanics, and is of fundament...
We present an introduction to the concept of localizable entanglement (LE) with special focus on its...
Motivated by the black hole firewall problem, we find highly entangled pairs of spatially localized ...
Entanglement is usually quantified by von Neumann entropy, but its properties are much more complex ...
We provide a simple and predictive random-matrix framework that naturally generalizes Page's law for...
We consider Anderson localization and the associated metal-insulator transition for non-interacting ...
We relate the entropy of entanglement of ensembles of random vectors to their generalized fractal di...
This chapter addresses the question of quantum entanglement in disordered chains, focusing on the vo...
We derive exact expressions for the mean value of Meyer-Wallach entanglement Q for localized rando...
We present an entropy concept measuring quantum localization in dynamical systems based on time aver...
The entanglement and localization in eigenstates of strongly chaotic subsystems are studied as a fun...
We explore the relation between entanglement entropy of quantum many-body systems and the distributi...
Entanglement entropy provides a powerful characterization of two-dimensional gapped topolog- ical ph...
Physical interactions in quantum many-body systems are typically local: Individual constituents inte...
In this paper, we would like to systematically explore the implications of non-perturbative effects ...
Entanglement is the most unique and distinguishing feature of quantum mechanics, and is of fundament...
We present an introduction to the concept of localizable entanglement (LE) with special focus on its...
Motivated by the black hole firewall problem, we find highly entangled pairs of spatially localized ...
Entanglement is usually quantified by von Neumann entropy, but its properties are much more complex ...
We provide a simple and predictive random-matrix framework that naturally generalizes Page's law for...
We consider Anderson localization and the associated metal-insulator transition for non-interacting ...