Your browser does not allow JavaScript!
JavaScript is necessary for the proper functioning of this website. Please enable JavaScript or use a modern browser.
Open Science Slovenia
Open Science
DiKUL
slv
|
eng
Search
Browse
New in RUL
About RUL
In numbers
Help
Sign in
Strongly correlated non-equilibrium steady states with currents - quantum and classical picture
ID
Buča, Berislav
(
Author
),
ID
Prosen, Tomaž
(
Author
)
PDF - Presentation file,
Download
(928,00 KB)
MD5: 7F0E67632812D2F8CD42233CBBD1A0E9
URL - Source URL, Visit
https://link.springer.com/article/10.1140/epjst/e2018-00100-9
Image galllery
Abstract
In this minireview we will discuss recent progress in the analytical study of current-carrying non-equilibrium steady states (NESS) that can be constructed in terms of a matrix product ansatz. We will focus on one-dimensional exactly solvable strongly correlated cases, and will study both quantum models, and classical models which are deterministic in the bulk. The only source of classical stochasticity in the time-evolution will come from the boundaries of the system. Physically, these boundaries may be understood as Markovian baths, which drive the current through the system. The examples studied include the open XXZ Heisenberg spin chain, the open Hubbard model, and a classical integrable reversible cellular automaton, namely the Rule 54 of A. Bobenko et al. [A. Bobenko et al., Commun. Math. Phys. 158, 127 (1993)] with stochastic boundaries. The quantum NESS can be at least partially understood through the Yang–Baxter integrability structure of the underlying integrable bulk Hamiltonian, whereas for the Rule 54 model NESS seems to come from a seemingly unrelated integrability theory. In both the quantum and the classical case, the underlying matrix product ansatz defining the NESS also allows for construction of novel conservation laws of the bulk models themselves. In the classical case, a modification of the matrix product ansatz also allows for construction of states beyond the steady state (i.e., some of the decay modes – Liouvillian eigenvectors of the model). We hope that this article will help further the quest to unite different perspectives of integrability of NESS (of both quantum and classical models) into a single unified framework.
Language:
English
Keywords:
quantum mechanics
,
classical models
,
strongly correlated systems
,
non-equilibrium systems
Typology:
1.02 - Review Article
Organization:
FMF - Faculty of Mathematics and Physics
Publication status:
Published
Publication version:
Author Accepted Manuscript
Year:
2018
Number of pages:
Str. 421-444
Numbering:
Vol. 227, iss. 3/4
PID:
20.500.12556/RUL-104026
UDC:
530.145
ISSN on article:
1951-6355
DOI:
10.1140/epjst/e2018-00100-9
COBISS.SI-ID:
3249252
Publication date in RUL:
02.10.2018
Views:
1372
Downloads:
545
Metadata:
Cite this work
Plain text
BibTeX
EndNote XML
EndNote/Refer
RIS
ABNT
ACM Ref
AMA
APA
Chicago 17th Author-Date
Harvard
IEEE
ISO 690
MLA
Vancouver
:
Copy citation
Share:
Record is a part of a journal
Title:
The European physical journal
Shortened title:
Eur. phys. j., spec. top.
Publisher:
EDP Sciences, Springer
ISSN:
1951-6355
COBISS.SI-ID:
852475
Secondary language
Language:
Slovenian
Keywords:
kvantna mehanika
,
klasični modeli
,
močno korelirani sistemi
,
neravnovesni sistemi
Projects
Funder:
EC - European Commission
Funding programme:
H2020
Project number:
694544
Name:
Open many-body non-equilibrium systems
Acronym:
OMNES
Similar documents
Similar works from RUL:
Similar works from other Slovenian collections:
Back