S. Bromley

发表

An optical lattice clock with accuracy and stability at the 10−18 level

Wei Zhang, J. Ye, M. Bishof, 2013, Nature.

Many-Body Physics in an Optical Lattice Clock

S. Bromley, 2018 .

Collective atomic scattering and motional effects in a dense coherent medium

S. Yelin, M. Lukin, J. Ye, 2016, Nature Communications.

Constraints on Ultralight Dark Matter with an Optical Lattice Clock

E. Oelker, Jun Ye, S. Bromley, 2018 .

Measurement of the 27Al+ and 87Sr absolute optical frequencies

E. Oelker, D. Leibrandt, Jun Ye, 2020 .

A motorized rotation mount for fast and reproducible optical polarization control

S. Cornish, S. Bromley, Adarsh P. Raghuram, 2022, 2212.11600.

Spectroscopic observation of SU(N)-symmetric interactions in Sr orbital magnetism

P. Zoller, M. S. Safronova, P. Zoller, 2014, Science.

10−18 Optical Atomic Clock Comparisons within the Boulder Atomic Clock Network

E. Oelker, D. Wineland, D. Leibrandt, 2020, 2020 Conference on Lasers and Electro-Optics (CLEO).

Robust storage qubits in ultracold polar molecules

S. Cornish, S. Bromley, J. Hutson, 2021, Nature Physics.

Molecule–molecule and atom–molecule collisions with ultracold RbCs molecules

S. Cornish, S. Bromley, J. Hutson, 2021, New Journal of Physics.

Measurement of the tune-out wavelength for Cs133 at 880 nm

S. Cornish, S. Bromley, A. D. Innes, 2021, Physical Review A.

Coherent manipulation of the internal state of ultracold 87Rb133Cs molecules with multiple microwave fields.

S. Cornish, S. Bromley, Jacob A. Blackmore, 2020, Physical chemistry chemical physics : PCCP.

Controlling the ac Stark effect of RbCs with dc electric and magnetic fields

S. Cornish, S. Bromley, J. Aldegunde, 2020, 2007.01762.

Spin–orbit-coupled fermions in an optical lattice clock

M. L. Wall, J. Ye, X. Zhang, 2016, Nature.

Holographic power-law traps for the efficient production of Bose-Einstein condensates

S. Bromley, G. Bruce, D. Cassettari, 2011, 1109.1502.

Loss of Ultracold ^{87}Rb^{133}Cs Molecules via Optical Excitation of Long-Lived Two-Body Collision Complexes.

S. Cornish, S. Bromley, Jacob A. Blackmore, 2020, Physical review letters.

JILA SrI optical lattice clock with uncertainty of 2.0×10−18

Jun Ye, Weston L. Tew, John M. Robinson, 2019, Metrologia.

A New Record in Atomic Clock Performance

M. Bishof, Jun Ye, B. Bloom, 2013 .

Dynamics of interacting fermions under spin–orbit coupling in an optical lattice clock

M. L. Wall, J. Ye, C. Salomon, 2017, 1708.02704.

Frequency ratio measurements at 18-digit accuracy using an optical clock network

E. Oelker, D. Leibrandt, D. Hume, 2021, Nature.

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

Copenhagen, Boulder, Beijing, 2020, 2005.14694.

Optical atomic clock comparison through turbulent air

Qc, Boulder, Co, 2020, Physical Review Research.

Second-scale rotational coherence and dipolar interactions in a gas of ultracold polar molecules

Zewen Zhang, S. Cornish, S. Bromley, 2023, 2306.02991.

A motorized rotation mount for the switching of an optical beam path in under 20 ms using polarization control

S. Cornish, S. Bromley, Adarsh P. Raghuram, 2023, Review of Scientific Instruments.

A New Generation of Atomic Clocks: Accuracy and Stability at the 10^{-18} Level

Jun Ye, Wei Zhang, Benjamin Bloom, 2013 .

Spectroscopic observation of SU(N)-symmetric interactions in Sr orbital magnetism

P. Zoller, M. Bishof, S. Bromley, 2014, Science.

Spin–orbit-coupled fermions in an optical lattice clock

S. Bromley, A. Rey, S. Kolkowitz, 2016, Nature.

Measurement of the tune-out wavelength for 133 Cs at 880 nm

S. Cornish, S. Bromley, A. D. Innes, 2021 .

Measuring Optical Frequency Ratios with Uncertainties Below 10 −17 via the Boulder Atomic Clock Network

E. Oelker, D. Wineland, D. Leibrandt, 2019 .

Measuring Optical Frequency Ratios with Uncertainties Below 10−17 via the Boulder Atomic Clock Network

E. Oelker, D. Wineland, D. Leibrandt, 2019, 2019 Conference on Lasers and Electro-Optics (CLEO).