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Uwe Sterr

0000-0001-5661-769X
physics.atom-phphysics.opticsquant-phphysics.ins-detcond-mat.quant-gasastro-ph.IMgr-qcastro-ph.COclockshep-ph

On Valency

published · living versions
W_m8dyztp2·v1 · currentpublished
Optical clock network tracks tidal variations of the gravity potential
with Kilian Stahl, Ingo Nosske, Chetan Vishwakarma, Tim Lücke +39
1 version

Preprints & journals

86 papers in the corpus · 1993–2026
Laser with 7×10−187\times10^{-18} stability2610.30532v1 · Ben Lewis, Zoey Z. Hu, Dahyeon Lee et al.2026 · 0 citationsarXiv
Photo-birefringent effects in crystalline AlGaAs mirror coatings.42596145 · Ma, Chun Yu, Yu, Jialiang, Legero, Thomas et al.2026 · 1 citationOptics express. 2026;34(14):25456-25468
Laser stabilized to a room temperature cavity with AlGaAs coatings reaching 4.2×10−174.2 \times 10^{-17} fractional frequency instability2607.01406v1 · Chun Yu Ma, Jialiang Yu, Steffen Sauer et al.2026 · 0 citationsarXiv
Lunar silicon cavity.42101994 · Ye, Jun, Hu, Zoey Z, Lewis, Ben et al.2026 · 0 citationsProceedings of the National Academy of Sciences of the United States of America. 2026;123(19):e2604438123
GdVO4 Raman laser of Lorentzian linewidth less than 3 Hz.41984667 · Mildren, R P, Benkler, E, Sterr, U et al.2026 · 0 citationsOptics letters. 2026;51(8):2116-2119
Lunar Silicon Cavity2602.06352v2 · Jun Ye, Zoey Z. Hu, Ben Lewis et al.2026 · 0 citationsarXiv
Frequency stability of 2.5×10−172.5\times10^{-17} in a Si cavity with AlGaAs crystalline mirrors2509.13503v1 · Dahyeon Lee, Zoey Z. Hu, Ben Lewis et al.2025 · 1 citationarXiv
The QTF-Backbone: Proposal for a Nationwide Optical Fibre Backbone in Germany for Quantum Technology and Time and Frequency Metrology2506.03998v3 · Tara Cubel Liebisch, Peter Kaufmann, Harald Schnatz et al.2025 · 0 citationsLiebisch, T.C., Kaufmann, P., Schnatz, H. et al. The QTF Backbone: proposal for a nationwide optical fibre backbone in Germany for quantum technology and time and frequency metrology. Eur. Phys. J. Spec. Top. 235, 3353-3387 (2026)
Coordinated international comparisons between optical clocks connected via fiber and satellite links2505.06763v1 · Thomas Lindvall, Marco Pizzocaro, Rachel M. Godun et al.2025 · 17 citationsOptica 12, 843 (2025)
Guidelines for designs for ultrastable laser with 10−17\mathbf{10^{-17}} fractional frequency instability2504.06213v1 · Joannes Barbarat, Erik Benkler, Marcin Bober et al.2025 · 3 citationsarXiv
Ultra-stable transportable ultraviolet clock laser using cancellation between photo-thermal and photo-birefringence noise.39815585 · Kraus, Benjamin, Herbers, Sofia, Nauk, Constantin et al.2025 · 7 citationsOptics letters. 2025;50(2):658-661
Ultrastable lasers: investigations of crystalline mirrors and closed cycle cooling at 124 K2404.02647v2 · C. Y. Ma, J. Yu, T. Legero et al.2024 · 7 citationsJ. Phys.: Conf. Ser. 2889, 012055 (2024)
Substrate-transferred GaAs/AlGaAs crystalline coatings for gravitational-wave detectors: A review of the state of the art2301.02687v1 · G. D. Cole, S. Ballmer, G. Billingsley et al.2023 · 25 citationsarXiv
Frequency stability of cryogenic silicon cavities with semiconductor crystalline coatings2210.14881v1 · Dhruv Kedar, Jialiang Yu, Eric Oelker et al.2022 · 62 citationsarXiv
Excess noise and photo-induced effects in highly reflective crystalline mirror coatings2210.15671v2 · Jialiang Yu, Dhruv Kedar, Sebastian Hafner et al.2022 · 39 citationsarXiv
Transportable clock laser system with an instability of 1.6 × 10-16.36240384 · Herbers, Sofia, Häfner, Sebastian, Dörscher, Sören et al.2022 · 44 citationsOptics letters. 2022;47(20):5441-5444
Ultimate stability of active optical frequency standards2205.14130v3 · Georgy A. Kazakov, Swadheen Dubey, Anna Bychek et al.2022 · 10 citationsarXiv
Simple and compact diode laser system stabilized to Doppler-broadened iodine lines at 633  nm.33361901 · Krause, F, Benkler, E, Nölleke, C et al.2020 · 5 citationsApplied optics. 2020;59(34):10808-10812
Optical frequency ratio of a 171Yb+{}^{171}\mathrm{Yb}^+ single-ion clock and a 87Sr{}^{87}\mathrm{Sr} lattice clock2009.05470v1 · Soren Dorscher, Nils Huntemann, Roman Schwarz et al.2020 · 55 citationsarXiv
End-to-end topology for fiber comb based optical frequency transfer at the 10-21 level: erratum.32403534 · Benkler, Erik, Lipphardt, Burghard, Puppe, Thomas et al.2020 · 6 citationsOptics express. 2020;28(10):15023-15024
Dynamic decoupling of laser phase noise in compound atomic clocks1911.13146v1 · Soren Dorscher, Ali Al-Masoudi, Marcin Bober et al.2019 · 0 citationsarXiv
Prospects and challenges for squeezing-enhanced optical atomic clocks1911.00882v2 · Marius Schulte, Christian Lisdat, Piet O. Schmidt et al.2019 · 56 citationsNature Communications 11, 5955 (2020)
Demonstration of a Timescale Based on a Stable Optical Carrier.31702265 · Milner, William R, Robinson, John M, Kennedy, Colin J et al.2019 · 82 citationsPhysical review letters. 2019;123(17):173201
Search for transient variations of the fine structure constant and dark matter using fiber-linked optical atomic clocks1907.02661v2 · B. M. Roberts, P. Delva, A. Al-Masoudi et al.2019 · 113 citationsNew J. Phys. 22, 093010 (2020)
Guidelines for developing optical clocks with 10−1810^{-18} fractional frequency uncertainty1906.11495v2 · Moustafa Abdel-Hafiz, Piotr Ablewski, Ali Al-Masoudi et al.2019 · 14 citationsarXiv
Optical clock intercomparison with 6×10−196\times 10^{-19} precision in one hour1902.02741v1 · E. Oelker, R. B. Hutson, C. J. Kennedy et al.2019 · 473 citationsNature Photonics 13, 714-719 (2019)
Crystalline optical cavity at 4 K with thermal noise limited instability and ultralow drift1812.03842v1 · John M. Robinson, Eric Oelker, William R. Milner et al.2018 · 174 citationsarXiv
A high-performance optical lattice clock based on bosonic atoms1803.03157v1 · Stefano Origlia, Mysore Srinivas Pramod, Stephan Schiller et al.2018 · 142 citationsPhys. Rev. A 98, 053443 (2018)
Lattice-induced photon scattering in an optical lattice clock1802.02945v2 · Soren Dorscher, Roman Schwarz, Ali Al-Masoudi et al.2018 · 60 citationsPhys. Rev. A 97, 063419 (2018)
Ultrastable Silicon Cavity in a Continuously Operating Closed-Cycle Cryostat at 4 K.29286721 · Zhang, W, Robinson, J M, Sonderhouse, L et al.2018 · 131 citationsPhysical review letters. 2017;119(24):243601
1.5  μm Lasers with Sub-10 mHz Linewidth.28707932 · Matei, D G, Legero, T, Häfner, S et al.2018 · 584 citationsPhysical review letters. 2017;118(26):263202
Test of Special Relativity Using a Fiber Network of Optical Clocks.28621983 · Delva, P, Lodewyck, J, Bilicki, S et al.2018 · 229 citationsPhysical review letters. 2017;118(22):221102
Geodesy and metrology with a transportable optical clock1705.04089v1 · Jacopo Grotti, Silvio Koller, Stefan Vogt et al.2017 · 496 citationsarXiv
Transportable Optical Lattice Clock with 7×10^-17 Uncertainty.28256845 · Koller, S B, Grotti, J, Vogt, St et al.2018 · 238 citationsPhysical review letters. 2017;118(7):073601
Ground-state properties of Ca2_2 from narrow line two-color photoassociation1702.00710v3 · Evgenij Pachomow, Veit Peter Dahlke, Eberhard Tiemann et al.2017 · 14 citationsPhys. Rev. A 95, 043422 (2017)
Ultra-stable clock laser system development towards space applications.27667640 · Świerad, Dariusz, Häfner, Sebastian, Vogt, Stefan et al.2019 · 68 citationsScientific reports. 2016;6:33973
A clock network for geodesy and fundamental science.27503795 · Lisdat, C, Grosche, G, Quintin, N et al.2018 · 463 citationsNature communications. 2016;7:12443
Development of a strontium optical lattice clock for the SOC mission on the ISS1603.06062v1 · S. Origlia, S. Schiller, M.S. Pramod et al.2016 · 19 citationsarXiv
Realization of a time-scale with an accurate optical lattice clock1511.03888v2 · C. Grebing, A. Al-Masoudi, S. Dorscher et al.2015 · 149 citationsOptica Vol. 3, Issue 6, pp. 563-569 (2016)
Noise and instability of an optical lattice clock1507.04949v2 · Ali Al-Masoudi, Soren Dorscher, Sebastian Hafner et al.2015 · 84 citationsarXiv
Nonlinear Zeeman effect in photoassociation spectra of 40^{40}Ca near the 3^3P1_1+1^1S0_0 asymptote1506.04004v1 · Eberhard Tiemann, Max Kahmann, Evgenij Pachomow et al.2015 · 2 citationsPhys. Rev. A 92, 023419 (2015)
8  ×  10⁻¹⁷ fractional laser frequency instability with a long room-temperature cavity.25927798 · Häfner, Sebastian, Falke, Stephan, Grebing, Christian et al.2016 · 286 citationsOptics letters. 2015;40(9):2112-5
On the relation between uncertainties of weighted frequency averages and the various types of Allan deviations1504.00466v3 · Erik Benkler, Christian Lisdat, Uwe Sterr2015 · 69 citationsMetrologia 52 (2015) 565-574
Development of a strontium optical lattice clock for the SOC mission on the ISS1503.08457v1 · K. Bongs, Y. Singh, L. Smith et al.2015 · 94 citationsComptes Rendus Physique 16, 553-564 (2015)
A compact, robust, and transportable ultra-stable laser with a fractional frequency instability of 1 × 10(-15.).25430098 · Chen, Qun-Feng, Nevsky, Alexander, Cardace, Marco et al.2015 · 69 citationsThe Review of scientific instruments. 2014;85(11):113107
A transportable strontium optical lattice clock1409.4572v2 · N. Poli, M. Schioppo, S. Vogt et al.2014 · 111 citationsarXiv
Ultrastable laser with average fractional frequency drift rate below 5 × 10⁻¹⁹/s.25166084 · Hagemann, Christian, Grebing, Christian, Lisdat, Christian et al.2015 · 78 citationsOptics letters. 2014;39(17):5102-5
Reduction of residual amplitude modulation to 1 × 10⁻⁶ for frequency modulation and laser stabilization.24686654 · Zhang, W, Martin, M J, Benko, C et al.2014 · 183 citationsOptics letters. 2014;39(7):1980-3
A strontium lattice clock with 3×10−173 \times 10^{-17} inaccuracy and its frequency1312.3419v2 · Stephan Falke, Nathan Lemke, Christian Grebing et al.2013 · 182 citationsNew J. Phys. 16, 073023 (2014)
High accuracy photoassociation of 40^{40}Ca near the 3P1+1S0{^3P_1}+{^1S_0} asymptote and its Zeeman effect1306.6473v1 · Max Kahmann, Eberhard Tiemann, Oliver Appel et al.2013 · 0 citationsarXiv
Career total: 280 works. 86 are in this corpus.Showing the 50 most recent.

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