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Kevin Gilmore

Researcher at National Institute of Standards and Technology

Publications -  22
Citations -  576

Kevin Gilmore is an academic researcher from National Institute of Standards and Technology. The author has contributed to research in topics: Penning trap & Ion. The author has an hindex of 8, co-authored 16 publications receiving 344 citations. Previous affiliations of Kevin Gilmore include University of Colorado Boulder.

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Verification of a Many-Ion Simulator of the Dicke Model Through Slow Quenches across a Phase Transition

TL;DR: The implementation of the Dicke model in fully controllable trapped ion arrays can open a path for the generation of highly entangled states useful for enhanced metrology and the observation of scrambling and quantum chaos in a many-body system.
Posted Content

Realization of real-time fault-tolerant quantum error correction

TL;DR: In this article, a ten qubit QCCD trapped-ion quantum computer is used to encode a single logical qubit using the color code, first proposed by Steane~\cite{steane1996error}.
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Near Ground-State Cooling of Two-Dimensional Trapped-Ion Crystals with More than 100 Ions

TL;DR: The measured cooling rate is faster than that predicted by single particle theory, consistent with a quantum many-body calculation, and will greatly improve the performance of large trapped ion crystals in quantum information and metrology applications.
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Quantum-enhanced sensing of displacements and electric fields with large trapped-ion crystals

TL;DR: In this paper, a many-body quantum-enhanced sensor was used to detect weak displacements and electric fields using a large crystal of 150$ trapped ions, where the center of mass vibrational mode of the crystal serves as high-Q mechanical oscillator and the collective electronic spin as the measurement device.
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Amplitude Sensing below the Zero-Point Fluctuations with a Two-Dimensional Trapped-Ion Mechanical Oscillator.

TL;DR: A technique to measure the amplitude of a center-of-mass (c.m.) motion of a two-dimensional ion crystal of ∼100 ions can enable the detection of extremely weak forces and electric fields, providing an opportunity to probe quantum sensing limits and search for physics beyond the standard model.