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John H Burke
John H Burke
DARPA
Verified email at darpa.mil
Title
Cited by
Cited by
Year
Compact optical atomic clock based on a two-photon transition in rubidium
KW Martin, G Phelps, ND Lemke, MS Bigelow, B Stuhl, M Wojcik, M Holt, ...
Physical Review Applied 9 (1), 014019, 2018
1232018
Suspension of atoms using optical pulses, and application to gravimetry
KJ Hughes, JHT Burke, CA Sackett
Physical Review Letters 102 (15), 150403, 2009
682009
Confinement effects in a guided-wave atom interferometer with millimeter-scale arm separation
JHT Burke, B Deissler, KJ Hughes, CA Sackett
Physical Review A 78 (2), 023619, 2008
602008
Measurement of the ac Stark shift with a guided matter-wave interferometer
B Deissler, KJ Hughes, JHT Burke, CA Sackett
Physical Review A 77 (3), 031604, 2008
492008
Scalable Bose-Einstein-condensate Sagnac interferometer in a linear trap
JHT Burke, CA Sackett
Physical Review A 80 (6), 061603, 2009
482009
Advances toward fieldable atom interferometers
FA Narducci, AT Black, JH Burke
Advances in Physics: X 7 (1), 1946426, 2022
402022
Compact implementation of a scanning transfer cavity lock
JHT Burke, O Garcia, KJ Hughes, B Livedalen, CA Sackett
Review of Scientific Instruments 76 (11), 2005
382005
High-fidelity manipulation of a Bose-Einstein condensate using an optical standing wave
KJ Hughes, B Deissler, JHT Burke, CA Sackett
Physical Review A 76 (3), 035601, 2007
372007
Pressure broadening and frequency shift of the 5S1/2→ 5D5/2 and 5S1/2→ 7S1/2 two photon transitions in 85Rb by the noble gases and N2
ND Zameroski, GD Hager, CJ Erickson, JH Burke
Journal of Physics B: Atomic, Molecular and Optical Physics 47 (22), 225205, 2014
342014
Frequency shifts due to Stark effects on a rubidium two-photon transition
KW Martin, B Stuhl, J Eugenio, MS Safronova, G Phelps, JH Burke, ...
Physical Review A 100 (2), 023417, 2019
332019
Impact of improved oscillator stability on LEO-based satellite navigation
RS Cassel, DR Scherer, DR Wilburne, JE Hirschauer, JH Burke
Proceedings of the 2022 international technical meeting of the institute of …, 2022
242022
Compact Optical Clock with 5×10−13 Instability at 1 s
G Phelps, N Lemke, C Erickson, J Burke, K Martin
Navigation: Journal of The Institute of Navigation 65 (1), 49-54, 2018
182018
Extreme adiabatic expansion in micro-gravity: modeling for the cold atomic laboratory
CA Sackett, TC Lam, JC Stickney, JH Burke
Microgravity Science and Technology 30, 155-163, 2018
132018
Ex vacuo atom chip Bose-Einstein condensate
MB Squires, SE Olson, B Kasch, JA Stickney, CJ Erickson, JAR Crow, ...
Applied Physics Letters 109 (26), 2016
132016
Three-dimensional imaging of trapped cold atoms with a light field microscope
GE Lott, MA Marciniak, JH Burke
Applied Optics 56 (31), 8738-8745, 2017
102017
Charge carrier screening in photoexcited epitaxial semiconductor nanorods revealed by transient x-ray absorption linear dichroism
TC Rossi, CP Dykstra, TN Haddock, R Wallick, JH Burke, CM Gentle, ...
Nano Letters 21 (22), 9534-9542, 2021
52021
The optical rubidium atomic frequency standard at AFRL
ND Lemke, G Phelps, JH Burke, K Martin, MS Bigelow
2017 Joint Conference of the European Frequency and Time Forum and IEEE …, 2017
42017
A compact, high-performance all optical atomic clock based on telecom lasers
JH Burke, ND Lemke, GR Phelps, KW Martin
Slow Light, Fast Light, and Opto-Atomic Precision Metrology IX 9763, 5-10, 2016
42016
A compact optical rubidium atomic frequency standard
GR Phelps, ND Lemke, KW Martin, CJ Erickson, JH Burke
Proceedings of the 47th Annual Precise Time and Time Interval Systems and …, 2016
42016
Improvements and Applications of a Guided-Wave Bose Einstein Condensate Interferometer
JH Burke
University of Virginia, 2010
42010
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Articles 1–20