AbstractWe show that quantum correlations as quantified by quantum discord can characterize quantum phase transitions by exhibiting nontrivial long-range decay as a function of distance in spin systems. This is rather different from the behavior of pairwise entanglement, which is typically short-ranged even in critical systems. In particular, we find a clear change in the decay rate of quantum discord as the system crosses a quantum critical point. We illustrate this phenomenon for first-order, second-order, and infinite-order quantum phase transitions, indicating that pairwise quantum discord is an appealing quantum correlation function for condensed matter systems
Long-range interactions exhibit surprising features which have been less explored so far. Here, stud...
We investigate the pairwise quantum correlation, characterized by quantum entanglement (QE) and quan...
By using the method of exact diagonalization, we investigate the quantum correlation measured by qu...
AbstractWe show that quantum correlations as quantified by quantum discord can characterize quantum ...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
We investigate evolution of quantum correlations in ensembles of two-qubit nuclear spin systems via ...
We investigate evolution of quantum correlations in ensembles of two-qubit nuclear spin systems via ...
We study the quantum discord (QD) and the classical correlations (CC) in a reference model for stron...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
The dynamic of pairwise correlations, including quantum entanglement (QE) and discord (QD) with geom...
Long-range interactions exhibit surprising features which have been less explored so far. Here, stud...
We investigate the pairwise quantum correlation, characterized by quantum entanglement (QE) and quan...
By using the method of exact diagonalization, we investigate the quantum correlation measured by qu...
AbstractWe show that quantum correlations as quantified by quantum discord can characterize quantum ...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
We investigate evolution of quantum correlations in ensembles of two-qubit nuclear spin systems via ...
We investigate evolution of quantum correlations in ensembles of two-qubit nuclear spin systems via ...
We study the quantum discord (QD) and the classical correlations (CC) in a reference model for stron...
In quantum statistical mechanics, finite-temperature phase transitions are typically governed by cla...
The dynamic of pairwise correlations, including quantum entanglement (QE) and discord (QD) with geom...
Long-range interactions exhibit surprising features which have been less explored so far. Here, stud...
We investigate the pairwise quantum correlation, characterized by quantum entanglement (QE) and quan...
By using the method of exact diagonalization, we investigate the quantum correlation measured by qu...