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Julia R. K. Cline

Researcher at University of Colorado Boulder

Publications -  27
Citations -  854

Julia R. K. Cline is an academic researcher from University of Colorado Boulder. The author has contributed to research in topics: Laser linewidth & Optical cavity. The author has an hindex of 11, co-authored 24 publications receiving 548 citations. Previous affiliations of Julia R. K. Cline include National Institute of Standards and Technology.

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Exploring dynamical phase transitions with cold atoms in an optical cavity

TL;DR: This system uses an ensemble of about a million strontium-88 atoms in an optical cavity to simulate a collective Lipkin–Meshkov–Glick model, an iconic model in quantum magnetism, and reports the observation of distinct dynamical phases of matter in this system.
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Superradiance on the millihertz linewidth strontium clock transition.

TL;DR: In this article, the authors demonstrate and characterize super-radiant emission from the millihertz linewidth clock transition in an ensemble of laser-cooled 87Sr atoms trapped within a high-finesse optical cavity.
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Cavity-mediated collective spin-exchange interactions in a strontium superradiant laser.

TL;DR: A flexible alternative to existing atomic simulators in a system consisting of strontium atoms placed in an optical cavity, which leads to one-axis twisting dynamics, the emergence of a many-body energy gap, and gap protection of the optical coherence against certain sources of decoherence.
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Frequency Measurements of Superradiance from the Strontium Clock Transition

TL;DR: The frequency stability of superradiant light emitted from an optical clock transition in cold strontium atoms surpasses that of active microwave atomic clocks, paving the way for a next generation of high-precision optical frequency references to be used outside the laboratory environment as mentioned in this paper.
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Robust Spin Squeezing via Photon-Mediated Interactions on an Optical Clock Transition

TL;DR: This work proposes an alternative scheme which generates a squeezed state that is protected from collective emission, and investigates its sensitivity to realistic sources of experimental noise and imperfections.