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2026
99.ÌýCollective three-body interactions enable a robust quantum speedup
Physical Review Research, vol. 8, no. 3, pp. L032025, (August, 2026),
Zhang, Chu, Luo, Maruko, Bohr, Thompson, and Rey

98.ÌýLieb-Mattis States for Robust Entangled Differential Phase Sensing
Physical Review X, vol. 16, no. 2, pp. 021052, (June, 2026),
Kaubruegger, Fallas Padilla, Shankar, Hotter, Muleady, Bringewatt, Baamara, Abbasgholinejad, Gorshkov, Mølmer, Thompson, and Rey

97.ÌýA chip-scale atomic beam for nonclassical light
Science Advances, vol. 12, no. 23, pp. eaec3179, (June, 2026),
Larsen, Hensley, Martinez, Staron, McGehee, Kitching, and Thompson

2025
96.ÌýSimulation of topological superconductors and their competing orders using photon-mediated interactions
arXiv, (December, 2025),
Chu, Kwan, Song, Chew, Thompson, and Rey

95.ÌýRealization of three- and four-body interactions between momentum states in a cavity
Science, vol. 390, no. 6776, pp. 925–929, (November, 2025),
Luo, Zhang, Maruko, Bohr, Chu, Rey, and Thompson

94.ÌýSolitons in Arbitrary Dimensions Stabilized by Photon-Mediated Interactions
Physical Review Letters, vol. 135, no. 17, pp. 173402, (October, 2025),
Zhang, Chu, Luo, Thompson, and Rey

93.ÌýSymmetry-Protected Topological Optical Lattice Clock
PRX Quantum, vol. 6, no. 3, pp. 030322, (August, 2025),
Xu, Chu, Kim, Thompson, Ye, Esslinger, and Rey

92.ÌýTime-Resolved Spectral Gap Spectroscopy in a Quantum Simulator of Fermionic Superfluidity inside an Optical Cavity
Physical Review Letters, vol. 134, no. 18, pp. 183404, (May, 2025),
Young, Song, Chu, Barberena, Niu, Schäfer, Lewis-Swan, Rey, and Thompson

91.ÌýA dissipation-induced superradiant transition in a strontium cavity-QED system
Science Advances, vol. 11, no. 17, pp. eadu5799, (April, 2025),
Song, Barberena, Young, Chaparro, Chu, Agarwal, Niu, Young, Rey, and Thompson

90.ÌýHamiltonian engineering of collective XYZ spin models in an optical cavity
Nature Physics, pp. 1–8, (April, 2025),
Luo, Zhang, Chu, Maruko, Rey, and Thompson

89.ÌýContinuous recoil-driven lasing and cavity frequency pinning with laser-cooled atoms
Nature Physics, pp. 1–7, (April, 2025),
Schäfer, Niu, Cline, Young, Song, Ritsch, and Thompson

88.ÌýMany-Body Gap Protection against Motional Dephasing of an Optical Clock Transition
Physical Review Letters, vol. 134, no. 11, pp. 113403, (March, 2025),
Niu, Schäfer, Zhang, Wagner, Taylor, Young, Song, Chu, Rey, and Thompson

87.ÌýEngineering One Axis Twisting via a Dissipative Berry Phase Using Strong Symmetries
Physical Review Letters, vol. 134, no. 4, pp. 040801, (January, 2025),
Young, Chaparro, Piñeiro Orioli, Thompson, and Rey

86.ÌýContinuous Collective Strong Coupling of Strontium Atoms to a High Finesse Ring Cavity
Physical Review Letters, vol. 134, no. 1, pp. 013403, (January, 2025),
Cline, Schäfer, Niu, Young, Yoon, and Thompson

2024
85.ÌýEntanglement Generation in Weakly Driven Arrays of Multilevel Atoms via Dipolar Interactions
Physical Review Letters, vol. 133, no. 23, pp. 233003, (December, 2024),
Agarwal, Orioli, Thompson, and Rey

84.ÌýEntangled matter waves for quantum enhanced sensing
Phys. Rev. A, vol. 110, no. 4, pp. L041301, (October, 2024),
Wilson, Reilly, Zhang, Luo, Chu, Thompson, Rey, and Holland

83.ÌýTrade-offs between unitary and measurement induced spin squeezing in cavity QED
Phys. Rev. Res., vol. 6, no. 3, pp. L032037, (August, 2024),
Barberena, Chu, Thompson, and Rey

82.ÌýMomentum-exchange interactions in a Bragg atom interferometer suppress Doppler dephasing
Science, vol. 384, no. 6695, pp. 551–556, (May, 2024),
Luo, Zhang, Koh, Wilson, Chu, Holland, Rey, and Thompson

81.ÌýObserving dynamical phases of BCS superconductors in a cavity QED simulator
Nature, vol. 625, no. 7996, pp. 679–684, (January, 2024),
Young, Chu, Song, Barberena, Wellnitz, Niu, Schäfer, Lewis-Swan, Rey, and Thompson

80.ÌýDirect comparison of two spin-squeezed optical clock ensembles at the 10−17 level
Nature Physics, vol. 20, no. 2, pp. 208–213, (January, 2024),
Robinson, Miklos, Tso, Kennedy, Bothwell, Kedar, Thompson, and Ye

2023
79.ÌýControl and amplification of Bloch oscillations via photon-mediated interactions
Physical Review Research, vol. 5, no. 3, pp. L032039, (September, 2023),
Zhang, Chu, Luo, Thompson, and Rey

78.ÌýUltra narrow linewidth frequency reference via measurement and feedback
Comptes Rendus. Physique, vol. 24, no. S3, pp. 1–14, (June, 2023),
Barberena, Lewis-Swan, Rey, and Thompson

77.ÌýPhoton-mediated correlated hopping in a synthetic ladder
Physical Review Research, vol. 5, no. 2, pp. L022034, (May, 2023),
Chu, Orioli, Barberena, Thompson, and Rey

76.ÌýBosonic Pair Production and Squeezing for Optical Phase Measurements in Long-Lived Dipoles Coupled to a Cavity
Physical Review Letters, vol. 130, no. 11, pp. 113202, (March, 2023),
Sundar, Barberena, Orioli, Chu, Thompson, Rey, and Lewis-Swan

75.ÌýOpportunities and Limitations in Broadband Sensing
Physical Review Applied, vol. 19, no. 1, pp. 014029, (January, 2023),
Polloreno, Beckey, Levin, Shlosberg, Thompson, Foss-Feig, Hayes, and Smith

2022
74.ÌýResonant light enhances phase coherence in a cavity QED simulator of fermionic superfluidity
Physical Review Research, vol. 4, no. 4, pp. L042032, (November, 2022),
Kelly, Thompson, Rey, and Marino

73.ÌýEntanglement-enhanced matter-wave interferometry in a high-finesse cavity
Nature, vol. 610, no. 7932, pp. 472–477, (October, 2022),
Greve, Luo, Wu, and Thompson

72.ÌýEntropy transfer from a quantum particle to a classical coherent light field
Physical Review Research, vol. 4, no. 1, pp. 013218, (March, 2022),
Bartolotta, Jäger, Reilly, Norcia, Thompson, Smith, and Holland

71.ÌýEmergent Dark States from Superradiant Dynamics in Multilevel Atoms in a Cavity
Physical Review X, vol. 12, no. 1, pp. 011054, (March, 2022),
Piñeiro Orioli, Thompson, and Rey

2021
70.ÌýQuantum Enhanced Cavity QED Interferometer with Partially Delocalized Atoms in Lattices
Physical Review Letters, vol. 127, no. 21, pp. 210401, (November, 2021),
Chu, He, Thompson, and Rey

69.ÌýCavity-QED measurements of the Sr 87 millihertz optical clock transition and determination of its natural linewidth
Physical Review Research, vol. 3, no. 2, pp. 023152, (May, 2021),
Muniz, Young, Cline, and Thompson

68.ÌýCavity-QED Quantum Simulator of Dynamical Phases of a Bardeen-Cooper-Schrieffer Superconductor
Physical Review Letters, vol. 126, no. 17, pp. 173601, (April, 2021),
Lewis-Swan, Barberena, Cline, Young, Thompson, and Rey

67.ÌýSite-dependent selection of atoms for homogeneous atom-cavity coupling
arXiv, (April, 2021),
Wu, Greve, Luo, and Thompson

2020
66.ÌýAtom-light entanglement for precise field sensing in the optical domain
Physical Review A, vol. 102, no. 5, pp. 052615, (November, 2020),
Barberena, Lewis-Swan, Thompson, and Rey

65.ÌýFacilitating spin squeezing generated by collective dynamics with single-particle decoherence
Physical Review A, vol. 102, no. 5, pp. 051701, (November, 2020),
Tucker, Barberena, Lewis-Swan, Thompson, Restrepo, and Rey

64.ÌýProtocol for Precise Field Sensing in the Optical Domain with Cold Atoms in a Cavity
Physical Review Letters, vol. 124, no. 19, pp. 193602, (May, 2020),
Lewis-Swan, Barberena, Muniz, Cline, Young, Thompson, and Rey

63.ÌýExploring dynamical phase transitions with cold atoms in an optical cavity
Nature, vol. 580, no. 7805, pp. 602–607, (April, 2020),
Muniz, Barberena, Lewis-Swan, Young, Cline, Rey, and Thompson

2019
62.ÌýLaser cooling with adiabatic transfer on a Raman transition
New Journal of Physics, vol. 21, no. 7, pp. 073045, (July, 2019),
Greve, Wu, and Thompson

61.ÌýContinuous Real-Time Tracking of a Quantum Phase Below the Standard Quantum Limit
Physical Review Letters, vol. 122, no. 23, pp. 233602, (June, 2019),
Shankar, Greve, Wu, Thompson, and Holland

60.ÌýDriven-dissipative quantum dynamics in ultra-long-lived dipoles in an optical cavity
Physical Review A, vol. 99, no. 5, pp. 053411, (May, 2019),
Barberena, Lewis-Swan, Thompson, and Rey

59.ÌýAn active optical frequency reference using a pulsed superradiant laser
Optical, Opto-Atomic, and Entanglement-Enhanced Precision Metrology, pp. 78, (March, 2019),
Muniz Silva, Cline, Thompson, and Norcia

2018
58.ÌýRobust Spin Squeezing via Photon-Mediated Interactions on an Optical Clock Transition
Physical Review Letters, vol. 121, no. 7, pp. 070403, (August, 2018),
Lewis-Swan, Norcia, Cline, Thompson, and Rey

57.ÌýLaser cooling by sawtooth-wave adiabatic passage
Physical Review A, vol. 98, no. 2, pp. 023404, (August, 2018),
Bartolotta, Norcia, Cline, Thompson, and Holland

56.ÌýCavity-mediated collective spin-exchange interactions in a strontium superradiant laser
Science, vol. 361, no. 6399, pp. 259–262, (July, 2018),
Norcia, Lewis-Swan, Cline, Zhu, Rey, and Thompson

55.ÌýA Robust Narrow-Line Magneto-Optical Trap using Adiabatic Transfer
arXiv, (June, 2018),
Muniz, Norcia, Cline, and Thompson

54.ÌýFrequency Measurements of Superradiance from the Strontium Clock Transition
Physical Review X, vol. 8, no. 2, pp. 021036, (May, 2018),
Norcia, Cline, Muniz, Robinson, Hutson, Goban, Marti, Ye, and Thompson

53.ÌýNarrow-line laser cooling by adiabatic transfer
New Journal of Physics, vol. 20, no. 2, pp. 023021, (February, 2018),
Norcia, Cline, Bartolotta, Holland, and Thompson

2017
52.ÌýRole of atoms in atomic gravitational-wave detectors
Physical Review A, vol. 96, no. 4, pp. 042118, (October, 2017),
Norcia, Cline, and Thompson

51.ÌýMagnetically Induced Optical Transparency on a Forbidden Transition in Strontium for Cavity-Enhanced Spectroscopy
Physical Review Letters, vol. 118, no. 26, pp. 263601, (June, 2017),
Winchester, Norcia, Cline, and Thompson

50.ÌýPhase synchronization inside a superradiant laser
Physical Review A, vol. 95, pp. 033808, (March, 2017),
Weiner, Cox, Bohnet, and Thompson

2016
49.ÌýSpatially homogeneous entanglement for matter-wave interferometry created with time-averaged measurements
Physical Review A, vol. 94, no. 6, pp. 061601, (December, 2016),
Cox, Greve, Wu, and Thompson

48.ÌýSteady-state superradiance with Rydberg polaritons
arXiv, (November, 2016),
Gong, Xu, Foss-Feig, Thompson, Rey, Holland, and Gorshkov

47.ÌýSuperradiance on the millihertz linewidth strontium clock transition
Science Advances, vol. 2, no. 10, pp. e1601231, (October, 2016),
Norcia, Winchester, Cline, and Thompson

46.ÌýCold-Strontium Laser in the Superradiant Crossover Regime
Physical Review X, vol. 6, no. 1, pp. 011025, (March, 2016),
Norcia, and Thompson

45.ÌýDeterministic Squeezed States with Collective Measurements and Feedback
Physical Review Letters, vol. 116, no. 9, pp. 093602, (March, 2016),
Cox, Greve, Weiner, and Thompson

44.ÌýStrong coupling on a forbidden transition in strontium and nondestructive atom counting
Physical Review A, vol. 93, no. 2, pp. 023804, (February, 2016),
Norcia, and Thompson

43.ÌýSimple laser stabilization to the strontium 88Sr transition at 707 nm
Review of Scientific Instruments, vol. 87, no. 2, pp. 023110, (February, 2016),
Norcia, and Thompson

2015
42.ÌýGenerating entanglement between atomic spins with low-noise probing of an optical cavity
2015 Joint Conference of the IEEE International Frequency Control Symposium & the European Frequency and Time Forum, pp. 351–356, (April, 2015),
Cox, Weiner, Greve, and Thompson

41.ÌýAtomic doughnuts from single photons
Nature, vol. 519, no. 7544, pp. 420–421, (March, 2015),
Thompson

2014
40.ÌýReducing collective quantum state rotation errors with reversible dephasing
Applied Physics Letters, vol. 105, no. 26, pp. 261102, (December, 2014),
Cox, Norcia, Weiner, Bohnet, and Thompson

39.ÌýPhase diagram for injection locking a superradiant laser
Physical Review A, vol. 90, no. 5, pp. 053845, (November, 2014),
Cox, Weiner, and Thompson

38.ÌýSynchronization of Two Ensembles of Atoms
Physical Review Letters, vol. 113, no. 15, pp. 154101, (October, 2014),
Xu, Tieri, Fine, Thompson, and Holland

37.ÌýReduced spin measurement back-action for a phase sensitivity ten times beyond the standard quantum limit
Nature Photonics, vol. 8, no. 9, pp. 731–736, (September, 2014),
Bohnet, Cox, Norcia, Weiner, Chen, and Thompson

36.ÌýCavity-aided nondemolition measurements for atom counting and spin squeezing
Physical Review A, vol. 89, no. 4, pp. 043837, (April, 2014),
Chen, Bohnet, Weiner, Cox, and Thompson

35.ÌýLinear-response theory for superradiant lasers
Physical Review A, vol. 89, no. 1, pp. 013806, (January, 2014),
Bohnet, Chen, Weiner, Cox, and Thompson

2013
34.ÌýA quasi-continuous superradiant Raman laser with < 1 intracavity photon
EPJ Web of Conferences, vol. 57, pp. 03003, (August, 2013),
Bohnet, Chen, Weiner, Cox, Meiser, Holland, and Thompson

33.ÌýActive and passive sensing of collective atomic coherence in a superradiant laser
Physical Review A, vol. 88, no. 1, pp. 013826, (July, 2013),
Bohnet, Chen, Weiner, Cox, and Thompson

2012
32.ÌýSuperradiant Raman laser magnetometer
Applied Physics Letters, vol. 101, no. 26, pp. 261107, (December, 2012),
Weiner, Cox, Bohnet, Chen, and Thompson

31.ÌýRelaxation Oscillations, Stability, and Cavity Feedback in a Superradiant Raman Laser
Physical Review Letters, vol. 109, no. 25, pp. 253602, (December, 2012),
Bohnet, Chen, Weiner, Cox, and Thompson

30.ÌýSteady-State Many-Body Entanglement of Hot Reactive Fermions
Physical Review Letters, vol. 109, no. 23, pp. 230501, (December, 2012),
Foss-Feig, Daley, Thompson, and Rey

29.ÌýGeneral formalism for evaluating the impact of phase noise on Bloch vector rotations
Physical Review A, vol. 86, no. 3, pp. 032313, (September, 2012),
Chen, Bohnet, Weiner, and Thompson

28.ÌýA steady-state superradiant laser with less than one intracavity photon
Nature, vol. 484, no. 7392, pp. 78–81, (April, 2012),
Bohnet, Chen, Weiner, Meiser, Holland, and Thompson

27.ÌýA low phase noise microwave source for atomic spin squeezing experiments in 87Rb
Review of Scientific Instruments, vol. 83, no. 4, pp. 044701, (April, 2012),
Chen, Bohnet, Weiner, and Thompson

2011
26.ÌýConditional Spin Squeezing of a Large Ensemble via the Vacuum Rabi Splitting
Physical Review Letters, vol. 106, pp. 133601, (April, 2011),
Chen, Bohnet, Sankar, Dai, and Thompson

2007
25.ÌýExternal-feedback laser cooling of molecular gases
Physical Review A, vol. 75, no. 5, pp. 051405, (May, 2007),
Vuletić, Thompson, Black, and Simon

24.ÌýInterfacing Collective Atomic Excitations and Single Photons
Physical Review Letters, vol. 98, pp. 183601, (May, 2007),
Simon, Tanji, Thompson, and Vuletic

2006
23.ÌýInfluence of grating parameters on the linewidths of external-cavity diode lasers
20 December 2006 # Vol. 45, No. 36 # APPLIED OPTICS, vol. 45, no. 36, pp. 9191, (December, 2006),
Loh, Lin, Teper, Cetina, Simon, Thompson, and Vuletic

22.ÌýA High-Brightness Source of Narrowband, Identical-Photon Pairs
Science, vol. 313, no. 5783, pp. 74–77, (July, 2006),
Thompson, Simon, Loh, and Vuletić

2005
21.ÌýA direct test of E= mc2
Nature, vol. 438, no. 7071, pp. 1096–1097, (December, 2005),
Rainville, Thompson, Myers, Brown, Dewey, Kessler Jr, Deslattes, Börner, Jentschel, Mutti, and Pritchard, David E

20.ÌýOn-Demand Superradiant Conversion of Atomic Spin Gratings into Single Photons with High Efficiency
Physical Review Letters, vol. 95, no. 13, pp. 133601, (September, 2005),
Black, Thompson, and Vuletić

19.ÌýAtomic Samples in Resonators: Forces, Photons, Feedback
AIP Conf. Proc., vol. 770, pp. 175–183, (May, 2005),
Thompson, Black, and Vuletic

18.ÌýCollective light forces on atoms in resonators
Journal of Physics B: Atomic, Molecular and Optical Physics, vol. 38, no. 9, pp. S605, (April, 2005),
Black, Thompson, and Vuletic

2004
17.ÌýCyclotron frequency shifts arising from polarization forces
Nature, vol. 430, no. 6995, pp. 58–61, (July, 2004),
Thompson, Rainville, and Pritchard

16.ÌýAn Ion Balance for Ultra-High-Precision Atomic Mass Measurements
Science, vol. 303, no. 5656, pp. 334–338, (January, 2004),
Rainville, Thompson, and Pritchard

2003
15.ÌýTwo-Ion Control and Polarization Forces for Precise Mass Comparisons
PhD, Massachusetts Institute of Technology, (September, 2003),
Thompson

14.ÌýTwo ions in one trap: ultra-high precision mass spectrometry?
IEEE Transactions on Instrumentation and Measurement, vol. 52, no. 2, pp. 292–296, (April, 2003),
Rainville, Thompson, and Pritchard

2002
13.ÌýSingle-ion mass spectrometry at 100 ppt and beyond
Canadian Journal of Physics, vol. 80, no. 11, pp. 1329–1336, (November, 2002),
Rainville, Thompson, and Pritchard

12.ÌýMass Spectrometry at 100 Parts Per Trillion
Trapped Particles and Fundamental Physics, pp. 245–258, (, 2002),
Pritchard, and Thompson

11.ÌýTwo ions in one trap: ultra-high precision mass spectrometry?
Conference Digest Conference on Precision Electromagnetic Measurements, pp. 318–319, (, 2002),
Rainville, Thompson, and Pritchard

2001
10.ÌýSingle ion mass spectrometry and the fine structure constant
AIP Conference Proceedings, pp. 73–85, (January, 2001),
Pritchard

9.ÌýPrecise Measurements of the Masses of Cs, Rb and Na — A New Route to the Fine Structure Constant
Atomic Physics at Accelerators: Mass Spectrometry, pp. 177–187, (, 2001),
Rainville, Bradley, Porto, Thompson, and Pritchard

2000
8.ÌýLamb shift, fine structure and hyperfine structure in helium like ions by fast beam laser spectroscopy
Hyperfine Interactions, vol. 127, pp. 323–328, (August, 2000),
Myers, Thompson, Margolis, Silver, and Tarbutt

1999
7.ÌýPenning Trap Measurements of the Masses of 133Cs, 87,85Rb, and 23Na with Uncertainties l0.2 ppb
Physical Review Letters, vol. 83, no. 22, pp. 4510–4513, (November, 1999),
Bradley, Porto, Rainville, Thompson, and Pritchard

6.ÌýPrecision Measurement of the 1 s 2 p P 3 2 − P 1 3 Fine Structure Interval in Heliumlike Fluorine
Physical Review Letters, vol. 82, no. 21, pp. 4200–4203, (May, 1999),
Myers, Margolis, Thompson, Farmer, Silver, and Tarbutt

1998
5.ÌýMeasurements of the 1 s 2 s 1 S 0 – 1 s 2 p 3 P 1 , 0 transitions in heliumlike nitrogen
Physical Review A, vol. 57, no. 1, pp. 180–188, (January, 1998),
Thompson, Howie, and Myers

1997
4.ÌýMeasurement of the 1s2s [sup 1]S[sub 0]−1s2p [sup 3]P[sub 0,1] transitions in heliumlike nitrogen by fast-beam laser spectroscopy
The fourteenth international conference on the application of accelerators in research and industry, pp. 141–144, (February, 1997),
Myers, Thompson, Howie, Gavathas, Claussen, and Silver

1996
3.ÌýHyperfine-Induced 1Ìýs 2Ìýs 1 S 0 -1Ìýs 2Ìýp 3 P 0 Transition and Fine-Structure Measurement in Heliumlike Nitrogen
Physical Review Letters, vol. 76, no. 26, pp. 4899–4902, (June, 1996),
Myers, Howie, Thompson, and Silver

2.ÌýOperation of a radio-frequency ion source in a tandem electrostatic accelerator
Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, vol. 372, no. 1–2, pp. 280–282, (March, 1996),
Myers, Thompson, Allen, Barber, Brown, Griffin, Schmidt, and Trimble

1995
1.ÌýMeasurement of the 1 s 2 s S 1 − 1 s 2 p P 1 3 Interval in Heliumlike Nitrogen
Physical Review Letters, vol. 75, no. 20, pp. 3637–3640, (November, 1995),
Myers, Thompson, Gavathas, Claussen, Silver, and Howie


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