4.2 Article

Engineering generalized Gibbs ensembles with trapped ions

Journal

PHYSICAL REVIEW RESEARCH
Volume 3, Issue 3, Pages -

Publisher

AMER PHYSICAL SOC
DOI: 10.1103/PhysRevResearch.3.033142

Keywords

-

Funding

  1. ETH Zurich
  2. European Research Council (ERC) under the European Union's Horizon 2020 research and innovation programme [818195]
  3. Swiss National Science Foundation through the National Centre of Competence in Research for Quantum Science and Technology (QSIT) [51NF40160591]
  4. Alexander von Humboldt foundation
  5. German Science Foundation [CRC TR 183, A01]
  6. Gordon and Betty Moore Foundation's EPIC initiative [GBMF4545]
  7. European Research Council synergy UQUAM project
  8. Slovenian Research Agency [A01, TR CRC 183, J1-2463, P1-0044]
  9. L'Oreal-Unesco national scholarship For women in science
  10. NeTex program of University of Cologne
  11. Swiss National Science Foundation [BSCGI0 157834, PZ00P2_186040]
  12. Swiss National Science Foundation (SNF) [PZ00P2_186040, BSCGI0_157834] Funding Source: Swiss National Science Foundation (SNF)
  13. European Research Council (ERC) [818195] Funding Source: European Research Council (ERC)

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The concept of generalized Gibbs ensembles (GGEs) describes steady states of integrable models and can also be stabilized in nearly integrable quantum systems. A weakly dissipative dynamics driving towards a steady-state GGE has been proposed and is implementable in systems of trapped ions. By engineering the desired dissipation through couplings, detection of GGEs in open systems and quantum simulation of driven-dissipative many-body problems become feasible.
The concept of generalized Gibbs ensembles (GGEs) has been introduced to describe steady states of integrable models. Recent advances show that GGEs can also be stabilized in nearly integrable quantum systems when driven by external fields and open. Here, we present a weakly dissipative dynamics that drives towards a steady-state GGE and is realistic to implement in systems of trapped ions. We outline the engineering of the desired dissipation by a combination of couplings which can be realized with ion-trap setups and discuss the experimental observables needed to detect a deviation from a thermal state. We present a mixed-species motional mode engineering technique in an array of microtraps and demonstrate the possibility to use sympathetic cooling to constructmany-body dissipators. Our paper provides a blueprint for experimental observation of GGEs in open systems and opens an avenue for quantum simulation of driven-dissipative quantum many-body problems.

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