Quantum bose and Fermi gases of dysprosium : production and initial study

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Abstract/Contents

Abstract
Advancements in quantum manipulation of ultracold atomic gases are opening a new frontier in the quest to better understand strongly correlated matter. By exploiting the long-ranged and anisotropic character of the dipole-dipole interaction in ultracold gases, we hope to simulate or create novel forms of quantum matter. Quantum dilute gases of the most magnetic element, dysprosium, provide an important platform to study this dipolar physics. We present details of experiments that produce strongly dipolar Bose-Einstein condensates of Dy164 and Dy162, as well as the first dipolar degenerate Fermi gas of Dy161 (0.2 x Fermi temperature) in low magnetic field. Particularly, we demonstrated for the first time the direct evaporative cooling of single component ultracold fermions (Dy161) to Fermi degeneracy, predicted by universal dipolar scattering theory. Due to its large spin multiplicity in the ground state, large effective gauge fields for simulating, e.g., the quantum Hall effect, may be synthesized by exploiting the Dy atomic structure. Moreover, as a non-S-state atom, Dy is predicted to be an ideal candidate for spin-orbit coupling experiments in ultracold gases since the Raman dressing would be largely free from the incoherent scattering problems induced by the additional laser beams.

Description

Type of resource text
Form electronic; electronic resource; remote
Extent 1 online resource.
Publication date 2014
Issuance monographic
Language English

Creators/Contributors

Associated with Lu, Mingwu
Associated with Stanford University, Department of Applied Physics.
Primary advisor Lev, Benjamin
Thesis advisor Lev, Benjamin
Thesis advisor Hollberg, Leo (Leo William)
Thesis advisor Mabuchi, Hideo
Advisor Hollberg, Leo (Leo William)
Advisor Mabuchi, Hideo

Subjects

Genre Theses

Bibliographic information

Statement of responsibility Mingwu Lu.
Note Submitted to the Department of Applied Physics.
Thesis Thesis (Ph.D.)--Stanford University, 2014.
Location electronic resource

Access conditions

Copyright
© 2014 by Mingwu Lu
License
This work is licensed under a Creative Commons Attribution Non Commercial 3.0 Unported license (CC BY-NC).

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