Towards two-dimensional quantum gases of strongly dipolar molecules

POSTER

Abstract

In recent years, ultracold atoms have been successfully used to investigate strongly interacting quantum many-body systems. A new frontier is opened up by ultracold molecules. In particular, heteronuclear molecules in the rovibrational ground state with tunable dipolar interactions make the study of quantum systems with strong long-range interactions accessible and constitute a promising system for quantum simulation. At Columbia, we are constructing a new experimental setup geared to create and study novel phases in two-dimensional quantum systems of ultracold dipolar molecules. In a regime where repulsive dipolar interactions dominate, the emergence of a self-organised crystalline phase is predicted. Upon reducing the interaction strength, a quantum phase transition into a dipolar superfluid is expected, as well as the possible appearance of a supersolid. In our setup, we will use DC and AC electric fields to control the dipolar interactions. In addition, we will be able to observe 2D quantum phases via high resolution imaging.

*This research is supported by the Sloan Foundation.

Authors

  • Aden Lam

    • Columbia University
  • Niccolo Bigagli

    • Columbia University
  • Claire Warner

    • Columbia University
  • Darby Bates

    • Columbia University
  • Sebastian Will

    • Columbia University