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Research
LevLab aims to elucidate the interplay between superfluidity, crystallinity, magnetism, disorder, and dimensionality in complex quantum matter using novel techniques developed to: 1) use high-spin dipolar gases for exploring topological quantum matter, see Dysprosium Quantum Gases; 2) manipulate ultracold atoms near cryogenic surfaces for high-resolution, high-sensitivity imaging of transport in, e.g., unconventional superconductors and topological insulators, see The SQCRAMscope; 3) realize quantum neural networks and quantum liquid crystal, superglass, and spin glass phases in a many-body, multimode cavity QED context, see Many-Body Cavity QED.
News & Events
A new nonequilibrium state of matter. To appear in Phys Rev Applied. ... Read More
We created the first spin-orbit-coupled dipolar Fermi gas with Dy! Read about it in PR... Read More
Digital Micromirror Devices (DMD) provide a robust platform with which to implement dig... Read More
Paper on the reconfigurable atom chip trapping of atoms near cryogenic materials publis... Read More
Lev publishes proposal for atom chip microscopy of transport in topological insulators ... Read More
Spin glass and Hopefield neural network in multimode cQED paper appears in... Read More
Paper on Dy optical dipole trapping at magic wavelengths published in... Read More
Theory paper on soft quantum matter in multimode cavity QED published in... Read More
LevLab is part of the winning MURI team lead by Chris Monroe at the JQI for development... Read More
Announcing the world's first Dysprosium magneto-optical trap (MOT)! ... Read More
