Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Bulletin of the American Physical Society

Towards two-dimensional quantum gases of ultracold NaCs molecules

Niccolò Bigagli, Aden Z. Lam, Ian Stevenson, Sebastian Will

Published May 30, 2019• 0 citations
OpenAlex

Related papers

Towards strongly correlated 2D gases of ultracold dipolar NaCs molecules

Claire Warner, Niccolò Bigagli, Aden Z. Lam +2 more

Bulletin of the American Physical Society•Jun 3, 2020•0 citations

Pulsed Laser Depletion Spectroscopy of Ultracold NaCs Molecules

Patrick Zabawa, Amy Wakim, Amanda J. Neukirch +5 more

Bulletin of the American Physical Society•May 26, 2010•0 citations

Ultracold Gas of Dipolar NaCs Ground State Molecules

Ian Stevenson, Aden Z. Lam, Niccolò Bigagli +4 more

We report on the creation of bosonic NaCs molecules in their absolute rovibrational ground state via stimulated Raman adiabatic passage. We create ultracold gases with up to 22 000 dipolar NaCs molecules at a temperature of 300(50) nK and a peak density of 1.0(4)×10^{12} cm^{-3}. We demonstrate comprehensive quantum state control by preparing the molecules in a specific electronic, vibrational, rotational, and hyperfine state. We measure the ground state ac polarizability at 1064 nm along with the two-body loss rate, which we find to be universal. Employing the tunability and strength of the permanent electric dipole moment of NaCs, we induce dipole moments of up to 2.6 D at a dc electric field of 2.1(2) kV/cm and demonstrate strong microwave coupling between the two lowest rotational states with a Rabi frequency of 2π×45 MHz. A large electric dipole moment, accessible at relatively small electric fields, makes ultracold gases of NaCs molecules well suited for the exploration of strongly interacting phases of dipolar quantum matter.

arXiv:2206.00652•Physical Review Letters•Mar 16, 2023•64 citations

Ultracold Quantum Gases

Dan Stamper-Kurn

AAS•Dec 1, 2006•2 citations

High phase-space density gas of NaCs Feshbach molecules

Aden Z. Lam, Niccolò Bigagli, Claire Warner +5 more

We report on the creation of ultracold gases of bosonic Feshbach molecules of NaCs.The molecules are associated from overlapping gases of Na and Cs using a Feshbach resonance at 864.12(5) G.We characterize the Feshbach resonance using bound-state spectroscopy, in conjunction with a coupled-channel calculation.By varying the temperature and atom numbers of the initial atomic mixtures, we demonstrate the association of NaCs gases over a wide dynamic range of molecule numbers and temperatures, reaching 70 nK for our coldest systems and a phase-space density near 0.1.This is an important stepping stone for the creation of degenerate gases of strongly dipolar NaCs molecules in their absolute ground state.

arXiv:2202.03355•Physical Review Research•Apr 25, 2022•24 citations

Ultracold Quantum Gases: Key Experimental Techniques

S. A. Hopkins, Simon L. Cornish

Cold atoms•Mar 18, 2013•0 citations
We report on the creation of bosonic NaCs molecules in their absolute rovibrational ground state via stimulated Raman adiabatic passage. We create ultracold gases with up to 22 000 dipolar NaCs molecules at a temperature of 300(50) nK and a peak density of 1.0(4)×10^{12} cm^{-3}. We demonstrate comprehensive quantum state control by preparing the molecules in a specific electronic, vibrational, rotational, and hyperfine state. We measure the ground state ac polarizability at 1064 nm along with the two-body loss rate, which we find to be universal. Employing the tunability and strength of the permanent electric dipole moment of NaCs, we induce dipole moments of up to 2.6 D at a dc electric field of 2.1(2) kV/cm and demonstrate strong microwave coupling between the two lowest rotational states with a Rabi frequency of 2π×45 MHz. A large electric dipole moment, accessible at relatively small electric fields, makes ultracold gases of NaCs molecules well suited for the exploration of strongly interacting phases of dipolar quantum matter.
We report on the creation of ultracold gases of bosonic Feshbach molecules of NaCs.The molecules are associated from overlapping gases of Na and Cs using a Feshbach resonance at 864.12(5) G.We characterize the Feshbach resonance using bound-state spectroscopy, in conjunction with a coupled-channel calculation.By varying the temperature and atom numbers of the initial atomic mixtures, we demonstrate the association of NaCs gases over a wide dynamic range of molecule numbers and temperatures, reaching 70 nK for our coldest systems and a phase-space density near 0.1.This is an important stepping stone for the creation of degenerate gases of strongly dipolar NaCs molecules in their absolute ground state.