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Bibliographic Details
Main Authors: Bühler, Tabea, Fabre, Aurélien, Bolognini, Gaia, Xue, Zeyang, Zwettler, Timo, Del Pace, Giulia, Brantut, Jean-Philippe
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2511.08510
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author Bühler, Tabea
Fabre, Aurélien
Bolognini, Gaia
Xue, Zeyang
Zwettler, Timo
Del Pace, Giulia
Brantut, Jean-Philippe
author_facet Bühler, Tabea
Fabre, Aurélien
Bolognini, Gaia
Xue, Zeyang
Zwettler, Timo
Del Pace, Giulia
Brantut, Jean-Philippe
contents We demonstrate high-resolution in-situ imaging of density-wave ordering induced by cavity-mediated interactions in a unitary Fermi gas. We observe long-range spatial correlations throughout the formation of density waves, both for adiabatic preparation and following a quench, with a pattern controlled by the cavity mode structure. Our single-shot microscopic images together with the real-time readout of the cavity photons provide access to atom-photon correlations. We use this capability to investigate order fluctuations as a function of time following a quench and to directly confirm the correspondence between optical and atomic observables. Our system opens rich perspectives, from local patterning to correlation measurements in long-range interacting quantum gases.
format Preprint
id arxiv_https___arxiv_org_abs_2511_08510
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Microscopy of cavity-induced density-wave ordering in ultracold gases
Bühler, Tabea
Fabre, Aurélien
Bolognini, Gaia
Xue, Zeyang
Zwettler, Timo
Del Pace, Giulia
Brantut, Jean-Philippe
Quantum Gases
We demonstrate high-resolution in-situ imaging of density-wave ordering induced by cavity-mediated interactions in a unitary Fermi gas. We observe long-range spatial correlations throughout the formation of density waves, both for adiabatic preparation and following a quench, with a pattern controlled by the cavity mode structure. Our single-shot microscopic images together with the real-time readout of the cavity photons provide access to atom-photon correlations. We use this capability to investigate order fluctuations as a function of time following a quench and to directly confirm the correspondence between optical and atomic observables. Our system opens rich perspectives, from local patterning to correlation measurements in long-range interacting quantum gases.
title Microscopy of cavity-induced density-wave ordering in ultracold gases
topic Quantum Gases
url https://arxiv.org/abs/2511.08510