Quantum Kibble–Zurek mechanism and critical dynamics on a programmable Rydberg simulator
Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations 1 . These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties...
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| Published in | Nature (London) Vol. 568; no. 7751; pp. 207 - 211 |
|---|---|
| Main Authors | , , , , , , , , , , , , , , |
| Format | Journal Article |
| Language | English |
| Published |
London
Nature Publishing Group UK
01.04.2019
Nature Publishing Group |
| Subjects | |
| Online Access | Get full text |
| ISSN | 0028-0836 1476-4687 1476-4687 |
| DOI | 10.1038/s41586-019-1070-1 |
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| Abstract | Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations
1
. These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose–Einstein condensates
2
–
5
, understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge
6
. Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble–Zurek mechanism (QKZM)
7
–
9
for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models
10
,
11
, providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories
12
,
13
and applications to quantum optimization
14
,
15
.
A Rydberg atom quantum simulator with programmable interactions is used to experimentally verify the quantum Kibble–Zurek mechanism through the growth of spatial correlations during quantum phase transitions. |
|---|---|
| AbstractList | Not provided. Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations 1 . These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose–Einstein condensates 2 – 5 , understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge 6 . Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble–Zurek mechanism (QKZM) 7 – 9 for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models 10 , 11 , providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories 12 , 13 and applications to quantum optimization 14 , 15 . A Rydberg atom quantum simulator with programmable interactions is used to experimentally verify the quantum Kibble–Zurek mechanism through the growth of spatial correlations during quantum phase transitions. Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations1. These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose-Einstein condensates2-5, understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge6. Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble-Zurek mechanism (QKZM)7-9 for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models10,11, providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories12,13 and applications to quantum optimization14,15.Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations1. These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose-Einstein condensates2-5, understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge6. Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble-Zurek mechanism (QKZM)7-9 for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models10,11, providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories12,13 and applications to quantum optimization14,15. Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations.sup.1. These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose-Einstein condensates.sup.2-5, understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge.sup.6. Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble-Zurek mechanism (QKZM).sup.7-9 for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models.sup.10,11, providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories.sup.12,13 and applications to quantum optimization.sup.14,15. A Rydberg atom quantum simulator with programmable interactions is used to experimentally verify the quantum Kibble-Zurek mechanism through the growth of spatial correlations during quantum phase transitions. Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations1. These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose-Einstein condensates2-5, understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge6. Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble-Zurek mechanism (QKZM)7-9 for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models10,11, providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories12,13 and applications to quantum optimization14,15. Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations.sup.1. These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose-Einstein condensates.sup.2-5, understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge.sup.6. Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble-Zurek mechanism (QKZM).sup.7-9 for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models.sup.10,11, providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories.sup.12,13 and applications to quantum optimization.sup.14,15. Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations . These fluctuations play a dominant part in the quantum critical region surrounding the transition point, where the dynamics is governed by the universal properties associated with the QPT. Although time-dependent phenomena associated with classical, thermally driven phase transitions have been extensively studied in systems ranging from the early Universe to Bose-Einstein condensates , understanding critical real-time dynamics in isolated, non-equilibrium quantum systems remains a challenge . Here we use a Rydberg atom quantum simulator with programmable interactions to study the quantum critical dynamics associated with several distinct QPTs. By studying the growth of spatial correlations when crossing the QPT, we experimentally verify the quantum Kibble-Zurek mechanism (QKZM) for an Ising-type QPT, explore scaling universality and observe corrections beyond QKZM predictions. This approach is subsequently used to measure the critical exponents associated with chiral clock models , providing new insights into exotic systems that were not previously understood and opening the door to precision studies of critical phenomena, simulations of lattice gauge theories and applications to quantum optimization . |
| Audience | Academic |
| Author | Keesling, Alexander Lukin, Mikhail D. Pichler, Hannes Schwartz, Sylvain Endres, Manuel Sachdev, Subir Vuletić, Vladan Choi, Soonwon Zoller, Peter Samajdar, Rhine Silvi, Pietro Omran, Ahmed Greiner, Markus Levine, Harry Bernien, Hannes |
| Author_xml | – sequence: 1 givenname: Alexander surname: Keesling fullname: Keesling, Alexander organization: Department of Physics, Harvard University – sequence: 2 givenname: Ahmed surname: Omran fullname: Omran, Ahmed organization: Department of Physics, Harvard University – sequence: 3 givenname: Harry surname: Levine fullname: Levine, Harry organization: Department of Physics, Harvard University – sequence: 4 givenname: Hannes surname: Bernien fullname: Bernien, Hannes organization: Department of Physics, Harvard University – sequence: 5 givenname: Hannes surname: Pichler fullname: Pichler, Hannes organization: Department of Physics, Harvard University, ITAMP, Harvard-Smithsonian Center for Astrophysics – sequence: 6 givenname: Soonwon surname: Choi fullname: Choi, Soonwon organization: Department of Physics, Harvard University – sequence: 7 givenname: Rhine surname: Samajdar fullname: Samajdar, Rhine organization: Department of Physics, Harvard University – sequence: 8 givenname: Sylvain surname: Schwartz fullname: Schwartz, Sylvain organization: Laboratoire Kastler Brossel, ENS, CNRS, Sorbonne Université, Collège de France – sequence: 9 givenname: Pietro surname: Silvi fullname: Silvi, Pietro organization: Institute for Quantum Optics and Quantum Information, Austrian Academy of Sciences, Center for Quantum Physics, University of Innsbruck – sequence: 10 givenname: Subir surname: Sachdev fullname: Sachdev, Subir organization: Department of Physics, Harvard University – sequence: 11 givenname: Peter surname: Zoller fullname: Zoller, Peter organization: Institute for Quantum Optics and Quantum Information, Austrian Academy of Sciences, Center for Quantum Physics, University of Innsbruck – sequence: 12 givenname: Manuel surname: Endres fullname: Endres, Manuel organization: Division of Physics, Mathematics and Astronomy, California Institute of Technology – sequence: 13 givenname: Markus surname: Greiner fullname: Greiner, Markus organization: Department of Physics, Harvard University – sequence: 14 givenname: Vladan surname: Vuletić fullname: Vuletić, Vladan organization: Department of Physics and Research Laboratory of Electronics, Massachusetts Institute of Technology – sequence: 15 givenname: Mikhail D. surname: Lukin fullname: Lukin, Mikhail D. email: lukin@physics.harvard.edu organization: Department of Physics, Harvard University |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/30936552$$D View this record in MEDLINE/PubMed https://www.osti.gov/biblio/1613070$$D View this record in Osti.gov |
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| Snippet | Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations
1
. These fluctuations play... Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations . These fluctuations play a... Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations.sup.1. These fluctuations... Quantum phase transitions (QPTs) involve transformations between different states of matter that are driven by quantum fluctuations1. These fluctuations play a... Not provided. |
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| SubjectTerms | 639/766/119/2795 639/766/483/3926 Computer simulation Critical phenomena Dynamics Excited state chemistry Humanities and Social Sciences Ising model Letter multidisciplinary Phase transitions Phase transitions (Physics) Physics research Quantum mechanics Quantum phenomena Scaling Science Science & Technology - Other Topics Science (multidisciplinary) Symmetry Time dependence Transition points Universe |
| Title | Quantum Kibble–Zurek mechanism and critical dynamics on a programmable Rydberg simulator |
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