AbstractWe present an explicit construction of a family of steady state density matrices for an open integrable spin-1 chain with bilinear and biquadratic interactions, also known as the Lai–Sutherland model, driven far from equilibrium by means of two oppositely polarizing Markovian dissipation channels localized at the boundary. The steady state solution exhibits n+1 fold degeneracy, for a chain of length n, due to existence of (strong) Liouvillian U(1) symmetry. The latter can be exploited to introduce a chemical potential and define a grand canonical nonequilibrium steady state ensemble. The matrix product form of the solution entails an infinitely-dimensional representation of a non-trivial Lie algebra (semidirect product of sl2 and a ...
We consider the open isotropic spin-1/2 Heisenberg quantum spin chain with a finite number N of site...
We investigate the non-equilibrium steady state (NESS) in an open quantum XXZ chain attached at the ...
J.T. acknowledges support by the Institute for Basic Science in Republic of Korea (No. IBS-R024-Y2)....
We present an explicit construction of a family of steady state density matrices for an open integra...
AbstractWe present an explicit construction of a family of steady state density matrices for an open...
We find novel site-dependent Lax operators in terms of which we demonstrate exact solvability of a d...
The theory of open quantum systems, i.e. physical systems coupled to an environment with which they ...
We investigate a dissipatively driven XYZ spin-1/2 chain in the Zeno limit of strong dissipation, de...
We construct an explicit matrix product ansatz for the steady state of a boundary driven $XY\!Z$ spi...
Using Lindblad dynamics we study quantum spin systems with dissipative boundary dynamics that genera...
In this minireview we will discuss recent progress in the analytical study of current-carrying non-e...
Using the Lindblad master equation approach, we investigate the structure of steady-state solutions ...
Using the Lindblad master equation approach, we investigate the structure of steady-state solutions ...
In this minireview we will discuss recent progress in the analytical study of current-carrying non-e...
We consider the integrable family of symmetric boundary-driven interacting particle systems that ari...
We consider the open isotropic spin-1/2 Heisenberg quantum spin chain with a finite number N of site...
We investigate the non-equilibrium steady state (NESS) in an open quantum XXZ chain attached at the ...
J.T. acknowledges support by the Institute for Basic Science in Republic of Korea (No. IBS-R024-Y2)....
We present an explicit construction of a family of steady state density matrices for an open integra...
AbstractWe present an explicit construction of a family of steady state density matrices for an open...
We find novel site-dependent Lax operators in terms of which we demonstrate exact solvability of a d...
The theory of open quantum systems, i.e. physical systems coupled to an environment with which they ...
We investigate a dissipatively driven XYZ spin-1/2 chain in the Zeno limit of strong dissipation, de...
We construct an explicit matrix product ansatz for the steady state of a boundary driven $XY\!Z$ spi...
Using Lindblad dynamics we study quantum spin systems with dissipative boundary dynamics that genera...
In this minireview we will discuss recent progress in the analytical study of current-carrying non-e...
Using the Lindblad master equation approach, we investigate the structure of steady-state solutions ...
Using the Lindblad master equation approach, we investigate the structure of steady-state solutions ...
In this minireview we will discuss recent progress in the analytical study of current-carrying non-e...
We consider the integrable family of symmetric boundary-driven interacting particle systems that ari...
We consider the open isotropic spin-1/2 Heisenberg quantum spin chain with a finite number N of site...
We investigate the non-equilibrium steady state (NESS) in an open quantum XXZ chain attached at the ...
J.T. acknowledges support by the Institute for Basic Science in Republic of Korea (No. IBS-R024-Y2)....