RT
Rodolphe Le Targat
physics.atom-phphysics.opticsquant-phphysics.ins-detcond-mat.mtrl-scicond-mat.quant-gasgr-qchep-phastro-ph.COastro-ph.HE
On Valency
published · living versionsW_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
W_xzhemjv5·v1published
Preprints & journals
48 papers in the corpus · 2004–2026International Optical Clock Comparison Using the European Optical Fiber Network2604.27963v2 · Marco Pizzocaro, Clara Zyskind, Anne Amy-Klein et al.2026 · 1 citationPhys. Rev. Research 8, 033250 (2026)
First observation and measurement of the bosonic transition in an optical lattice clock2512.04920v2 · Clara Zyskind, Thomas Laupretre, Haosen Shang et al.2025 · 0 citationsarXiv
Validation of optical pathlength stability in a LISA test-bench demonstrator2511.16749v2 · Shivani Harer, Maxime Vincent, Hubert Halloin et al.2025 · 0 citationsarXiv
Influence of a magnetic field on the frequency of a laser stabilized to molecular iodine2506.00342v1 · Jonathan Gillot, Joannes Barbarat, Charles Philippe et al.2025 · 1 citationApplied Physics B (2024) 130:100
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 fractional frequency instability2504.06213v1 · Joannes Barbarat, Erik Benkler, Marcin Bober et al.2025 · 3 citationsarXiv
First-order thermal insensitivity of the frequency of a narrow spectral hole in a crystal2411.14440v1 · S. Zhang, S. Seidelin, R. Le Targat et al.2024 · 5 citationsPhys. Rev. A 107, 013518 (2023)
Anomalous Subkelvin Thermal Frequency Shifts of Ultranarrow Linewidth Solid State Emitters.39547167 · Lin, X, Hartman, M T, Pointard, B et al.2024 · 6 citationsPhysical review letters. 2024;133(18):183803
International comparison of optical frequencies with transportable optical lattice clocks2410.22973v1 · International Clock, Oscillator Networking, Erik Benkler et al.2024 · 4 citationsarXiv
Near-to mid-IR spectral purity transfer with a tunable frequency comb: methanol frequency metrology over a record frequency span2310.17955v2 · D B A Tran (LPL), Olivier Lopez, M Manceau (LPL) et al.2023 · 11 citationsAPL Photonics 9, 030801 (2024)
Search for vector dark matter in microwave cavities with Rydberg atoms2305.11671v2 · Jordan Gu'e, Aur'elien Hees, J'erome Lodewyck et al.2023 · 7 citationsarXiv
Limitations due to residual interference in a fiber-based optical frequency reference at 1.55 m2201.07468v2 · Karim Manamanni (LPL), Tatiana Steshchenko (LPL), Fabrice Wiotte (LPL) et al.2022 · 0 citationsarXiv
Precision measurements of electric-field-induced frequency displacements of an ultranarrow optical transition in ions in a solid2101.10169v2 · S. Zhang, N. Luci'c, N. Galland et al.2021 · 10 citations[J]. Applied Physics Letters, 2020, 117(22): 221102
Universal formalism for data sharing and processing in clock comparison networks2010.10324v2 · J'erome Lodewyck, Rodolphe Le Targat, Paul-Eric Pottie et al.2020 · 10 citationsPhys. Rev. Research 2, 043269 (2020)
Inhomogeneous response of an ion ensemble from mechanical stress2004.04951v1 · S. Zhang, N. Galland, N. Luci'c et al.2020 · 13 citationsPhysical Review Research 2, 013306 (2020)
Double-heterodyne probing for an ultra-stable laser based on spectral hole burning in a rare-earth-doped crystal.32236035 · Galland, N, Lučić, N, Zhang, S et al.2020 · 21 citationsOptics letters. 2020;45(7):1930-1933
Accurate laser frequency locking to optical frequency combs under low-signal-to-noise-ratio conditions.32259984 · Guo, C, Favier, M, Galland, N et al.2020 · 8 citationsThe Review of scientific instruments. 2020;91(3):033202
Mechanical tunability of an ultra-narrow spectral feature with uniaxial stress1912.10885v1 · N. Galland, N. Lucic, B. Fang et al.2019 · 24 citationsPhys. Rev. Applied 13, 044022 (2020)
A new experiment to test parity symmetry in cold chiral molecules using vibrational spectroscopy1912.06054v1 · A Cournol (LPL), M. Manceau (LPL), M. Pierens (LPL) et al.2019 · 48 citationsQuantum Electronics, Turpion, 2019, 49 (3), pp.288-292
Direct comparisons of European primary and secondary frequency standards via satellite techniques1910.06736v1 · F. Riedel, A. Al-Masoudi, E. Benkler et al.2019 · 38 citationsarXiv
High-precision methanol spectroscopy with a widely tunable SI-traceable frequency-comb-based mid-infrared QCL1907.11310v1 · R. Santagata (LPL, SYRTE), D. Tran (LPL) et al.2019 · 67 citationsOptica, Optical Society of America (OSA), 2019, 6 (4), pp.411
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 fractional frequency uncertainty1906.11495v2 · Moustafa Abdel-Hafiz, Piotr Ablewski, Ali Al-Masoudi et al.2019 · 14 citationsarXiv
New bounds on dark matter coupling from a global network of optical atomic clocks.30539146 · Wcisło, P, Ablewski, P, Beloy, K et al.2019 · 159 citationsScience advances. 2018;4(12):eaau4869
Dispersive heterodyne probing method for laser frequency stabilization based on spectral hole burning in rare-earth doped crystals.28788976 · Gobron, O, Jung, K, Galland, N et al.2018 · 36 citationsOptics express. 2017;25(13):15539-15548
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
A noise-immune cavity-assisted non-destructive detection for an optical lattice clock in the quantum regime1703.04609v1 · G. Vallet, E. Bookjans, U. Eismann et al.2017 · 51 citationsarXiv
First international comparison of fountain primary frequency standards via a long distance optical fiber link1703.02892v2 · J. Gu'ena, S. Weyers, M. Abgrall et al.2017 · 83 citationsMetrologia 54 (2017) 348
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
Semi-classical Dynamics of Superradiant Rayleigh Scattering in a Bose-Einstein Condensate1608.00425v1 · J. H. Muller, D. Witthaut, R. le Targat et al.2016 · 10 citationsJournal of Modern Optics, Volume 63, Issue 18, pages 1886-1897, 2016 Special Issue: 20 years of Bose-Einstein Condensates: Current trends and applications of ultracold quantum gases
Optical to microwave clock frequency ratios with a nearly continuous strontium optical lattice clock1605.03878v1 · J'erome Lodewyck, S\lawomir Bilicki, Eva Bookjans et al.2016 · 102 citationsMetrologia 53, 1123 (2016)
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
Comparing a mercury optical lattice clock with microwave and optical frequency standards1603.02026v2 · R Tyumenev, M Favier, S Bilicki et al.2016 · 85 citationsNew Journal of Physics, 18 113002 (2016)
Atomic fountains and optical clocks at SYRTE: status and perspectives1507.04623v1 · M. Abgrall, B. Chupin, L. De Sarlo et al.2015 · 53 citationsComptes Rendus Physique Volume 16, Issue 5, June 2015, Pages 461 to 470
Polarizabilities of the 87Sr Clock Transition1503.09167v1 · C Shi (SYRTE), J.-L Robyr (SYRTE), U Eismann (SYRTE) et al.2015 · 37 citationsPhys. Rev. A 92, 012516 (2015)
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)
Spectral purity transfer between optical wavelengths at the level1311.4378v1 · Daniele Nicolodi, B'eengere Argence, Wei Zhang et al.2013 · 132 citationsarXiv
Creation of quantum-degenerate gases of ytterbium in a compact 2D-/3D-magneto-optical trap setup.23635183 · Dörscher, Sören, Thobe, Alexander, Hundt, Bastian et al.2013 · 62 citationsThe Review of scientific instruments. 2013;84(4):043109
Experimental realization of an optical second with strontium lattice clocks.23839206 · Le Targat, R, Lorini, L, Le Coq, Y et al.2014 · 250 citationsNature communications. 2013;4:2109
Quantum simulation of frustrated classical magnetism in triangular optical lattices.21778359 · Struck, J, Ölschläger, C, Le Targat, R et al.2011 · 669 citationsScience (New York, N.Y.). 2011;333(6045):996-9
Rayleigh superradiance and dynamic Bragg gratings in an end-pumped Bose-Einstein condensate0810.5690v1 · A. Hilliard, F. Kaminski, R. le Targat et al.2008 · 38 citationsarXiv
New limits on coupling of fundamental constants to gravity using 87Sr optical lattice clocks.18518019 · Blatt, S, Ludlow, A D, Campbell, G K et al.2008 · 333 citationsPhysical review letters. 2008;100(14):140801
An Optical Lattice Clock with Spin-polarized 87Sr Atoms0710.0086v1 · Xavier Baillard (SYRTE), Mathilde Fouch'e (SYRTE), Rodolphe Le Targat (SYRTE) et al.2007 · 112 citationsarXiv
Accuracy evaluation of an optical lattice clock with bosonic atoms.17603578 · Baillard, Xavier, Fouché, Mathilde, Le Targat, Rodolphe et al.2007 · 100 citationsOptics letters. 2007;32(13):1812-4
Accurate optical lattice clock with 87Sr atoms.17026019 · Le Targat, Rodolphe, Baillard, Xavier, Fouché, Mathilde et al.2007 · 134 citationsPhysical review letters. 2006;97(13):130801
Hyperpolarizability effects in a Sr optical lattice clock.16605730 · Brusch, Anders, Le Targat, Rodolphe, Baillard, Xavier et al.2006 · 120 citationsPhysical review letters. 2006;96(10):103003
75%-efficiency blue generation from an intracavity PPKTP frequency doublerphysics/0408031v1 · Rodolphe Le Targat (SYRTE), Jean-Jacques Zondy (SYRTE), Pierre Lemonde (SYRTE)2004 · 107 citationsarXiv
Career total: 236 works. 48 are in this corpus.
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