NewEvery arXiv paper, its researchers & institutions — mapped.
papers

Publications (29)

quant-ph2024

Quantum entanglement enables single-shot trajectory sensing for weakly interacting particles

Zachary E. Chin, David R. Leibrandt, Isaac L. Chuang

physics.atom-ph2015

Laser frequency stabilization based on steady-state spectral-hole burning in Eu$^{3+}$:Y$_2$SiO$_5$

Shon Cook, Till Rosenband, David R. Leibrandt

physics.atom-ph2025

High-Stability Single-Ion Clock with $5.5\times10^{-19}$ Systematic Uncertainty

Mason C. Marshall, Daniel A. Rodriguez Castillo, Willa J. Arthur-Dworschack +10

physics.atom-ph2020

Frequency Ratio Measurements with 18-digit Accuracy Using a Network of Optical Clocks

Boulder Atomic Clock Optical Network, Collaboration, : +35

physics.atom-ph2013

Absolute and relative stability of an optical frequency reference based on spectral hole burning in Eu$^{3+}$:Y$_2$SiO$_5$

David R. Leibrandt, Michael J. Thorpe, Chin-Wen Chou +3

quant-ph2009

Cavity sideband cooling of a single trapped ion

David R. Leibrandt, Jaroslaw Labaziewicz, Vladan Vuletic +1

hep-ex2023

Quantum Sensors for High Energy Physics

Aaron Chou, Kent Irwin, Reina H. Maruyama +39

physics.atom-ph2022

Scalable quantum logic spectroscopy

Kaifeng Cui, Jose Valencia, Kevin T. Boyce +2

physics.atom-ph2013

Shifts of optical frequency references based on spectral-hole burning in Eu:Y2SiO5

Michael J. Thorpe, David R. Leibrandt, Till Rosenband

quant-ph2006

Electron impact ionization loading of a surface electrode ion trap

Kenneth R. Brown, Robert J. Clark, Jaroslaw Labaziewicz +3

quant-ph2020

Quantum entanglement between an atom and a molecule

Yiheng Lin, David R. Leibrandt, Dietrich Leibfried +1

quant-ph2026

Autonomous multi-ion optical clock with on-chip integrated photonic light delivery

Tharon D. Morrison, Joonhyuk Kwon, Matthew A. Delaney +4

physics.ins-det2015

An open source digital servo for AMO physics experiments

David R. Leibrandt, Jason Heidecker

physics.atom-ph2024

Prospects of a thousand-ion Sn$^{2+}$ Coulomb-crystal clock with sub-$10^{-19}$ inaccuracy

David R. Leibrandt, Sergey G. Porsev, Charles Cheung +1

physics.atom-ph2023

Enhancing Divalent Optical Atomic Clocks with the $^{1}\mathrm{S}_0$$\leftrightarrow$$^{3}\mathrm{P}_{2}$ Transition

Matthew A. Bohman, Sergey G. Porsev, David B. Hume +2

physics.optics2020

Optical Atomic Clock Comparison through Turbulent Air

Martha I. Bodine, Jean-Daniel Deschênes, Isaac H. Khader +32

physics.optics2012

A cavity-stabilized laser with acceleration sensitivity below $10^{-12}$/g

David R. Leibrandt, James C. Bergquist, Till Rosenband

astro-ph.IM2022

Cold Atoms in Space: Community Workshop Summary and Proposed Road-Map

Ivan Alonso, Cristiano Alpigiani, Brett Altschul +246

physics.atom-ph2024

Quantum state tracking and control of a single molecular ion in a thermal environment

Yu Liu, Julian Schmidt, Zhimin Liu +3

physics.optics2011

Field-test of a robust, portable, frequency-stable laser

David R. Leibrandt, Michael J. Thorpe, James C. Bergquist +1

quant-ph2007

Laser ablation loading of a surface-electrode ion trap

David R. Leibrandt, Robert J. Clark, Jaroslaw Labaziewicz +4

physics.atom-ph2022

Rotational spectroscopy of a single molecular ion at sub part-per-trillion resolution

Alejandra L. Collopy, Julian Schmidt, Dietrich Leibfried +2

physics.atom-ph2017

Preparation and coherent manipulation of pure quantum states of a single molecular ion

Chin-wen Chou, Christoph Kurz, David B. Hume +3

physics.atom-ph2025

High-fidelity quantum state control of a polar molecular ion in a cryogenic environment

Dalton Chaffee, Baruch Margulis, April Sheffield +5

physics.optics2024

Cryogenic sapphire optical reference cavity with crystalline coatings at $\mathrm{ 1 \times 10^{-16}}$ fractional instability

Jose Valencia, George Iskander, Nicholas V. Nardelli +2

quant-ph2026

Molecular Quantum Control Algorithm Design by Reinforcement Learning

Anastasia Pipi, Xuecheng Tao, Arianna Wu +2

physics.atom-ph2016

Probing beyond the laser coherence time in optical clock comparisons

David B. Hume, David R. Leibrandt

physics.atom-ph2021

Optical coherence between atomic species at the second scale: improved clock comparisons via differential spectroscopy

May E. Kim, William F. McGrew, Nicholas V. Nardelli +9

physics.atom-ph2025

Atomic clock frequency ratios with fractional uncertainty $\leq 3.2 \times 10^{-18}$

Alexander Aeppli, Willa J. Arthur-Dworschack, Kyle Beloy +24