Generalized hyper-Ramsey-Bordé matter-wave interferometry: Quantum engineering of robust atomic sensors with composite pulses

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Generalized hyper-Ramsey-Bordé matter-wave interferometry: Quantum engineering of robust atomic sensors with composite pulses. / Zanon-Willette, T.; Wilkowski, D.; Lefevre, R. et al.

In: Physical Review Research, Vol. 4, No. 2, L022065, 06.2022.

Research output: Contribution to journal › Article › peer-review

BibTeX

@article{6af11fbe6376475faa995f59fc496d30,

title = "Generalized hyper-Ramsey-Bord{\'e} matter-wave interferometry: Quantum engineering of robust atomic sensors with composite pulses",

abstract = "A new class of atomic interferences using ultranarrow optical transitions are pushing quantum engineering control to a very high level of precision for the next generation of sensors and quantum gate operations. In such context, we propose a new quantum engineering approach to Ramsey-Bord{\'e} interferometry introducing multiple composite laser pulses with tailored pulse duration, Rabi field amplitude, frequency detuning and laser phase step. We explore quantum metrology with hyper-Ramsey and hyper-Hahn-Ramsey clocks below the 10-18 level of fractional accuracy by fine-tuning control of light excitation parameters leading to spinor interferences protected against light-shift coupled to laser-probe field variation. We review cooperative composite pulse protocols to generate robust Ramsey-Bord{\'e}, Mach-Zehnder, and double-loop atomic sensors shielded against measurement distortion related to Doppler and light shifts coupled to pulse area errors. Fault-tolerant autobalanced hyperinterferometers are introduced eliminating several technical laser pulse defects that can occur during the entire probing interrogation protocol. Quantum sensors with composite pulses and ultracold atomic sources should offer a new level of high accuracy in the detection of acceleration and rotation inducing phase shifts, a strong improvement in tests of fundamental physics with hyperclocks while paving the way to a new conception of atomic interferometers tracking space-time gravitational waves with very high sensitivity.",

author = "T. Zanon-Willette and D. Wilkowski and R. Lefevre and Taichenachev, {A. V.} and Yudin, {V. I.}",

note = "Funding Information: T.Z.-W. deeply thanks F. Pereira dos Santos, M. Cadoret, O. Prudnikov, E. Arimondo, and S.-Y. Lan for constructive comments about atomic interferometry, M. Glass-Maujean for a careful reading of the manuscript and J. Ye for exciting discussion. T.Z.-W. would here express a very deep acknowledgment to C. J. Bord{\'e} for interest in this work. V.I.Y. was supported by the Russian Foundation for Basic Research (Grants No. 20-02-00505 and No. 20-52-12024) and Ministry of Education and Science of the Russian Federation (Grant No. FSUS-2020-0036). A.V.T. acknowledges financial support from Russian Science Foundation through the Grant No. 20-12-00081. T.Z.-W. acknowledges Sorbonne Universit{\'e} and MajuLab for supporting a twelve months visiting research associate professorship at center for quantum technologies (CQT) in Singapore. D.W. acknowledges CQT/MoE funding Grant No. R-710-002-016-271, and the NRF/QEP funding Grant No. NRF2021-QEP2-03-P01. Publisher Copyright: {\textcopyright} 2022 authors. Published by the American Physical Society.",

year = "2022",

month = jun,

doi = "10.1103/PhysRevResearch.4.023222",

language = "English",

volume = "4",

journal = "Physical Review Research",

issn = "2643-1564",

publisher = "American Physical Society",

number = "2",

}

RIS

TY - JOUR

T1 - Generalized hyper-Ramsey-Bordé matter-wave interferometry: Quantum engineering of robust atomic sensors with composite pulses

AU - Zanon-Willette, T.

AU - Wilkowski, D.

AU - Lefevre, R.

AU - Taichenachev, A. V.

AU - Yudin, V. I.

N1 - Funding Information: T.Z.-W. deeply thanks F. Pereira dos Santos, M. Cadoret, O. Prudnikov, E. Arimondo, and S.-Y. Lan for constructive comments about atomic interferometry, M. Glass-Maujean for a careful reading of the manuscript and J. Ye for exciting discussion. T.Z.-W. would here express a very deep acknowledgment to C. J. Bordé for interest in this work. V.I.Y. was supported by the Russian Foundation for Basic Research (Grants No. 20-02-00505 and No. 20-52-12024) and Ministry of Education and Science of the Russian Federation (Grant No. FSUS-2020-0036). A.V.T. acknowledges financial support from Russian Science Foundation through the Grant No. 20-12-00081. T.Z.-W. acknowledges Sorbonne Université and MajuLab for supporting a twelve months visiting research associate professorship at center for quantum technologies (CQT) in Singapore. D.W. acknowledges CQT/MoE funding Grant No. R-710-002-016-271, and the NRF/QEP funding Grant No. NRF2021-QEP2-03-P01. Publisher Copyright: © 2022 authors. Published by the American Physical Society.

PY - 2022/6

Y1 - 2022/6

N2 - A new class of atomic interferences using ultranarrow optical transitions are pushing quantum engineering control to a very high level of precision for the next generation of sensors and quantum gate operations. In such context, we propose a new quantum engineering approach to Ramsey-Bordé interferometry introducing multiple composite laser pulses with tailored pulse duration, Rabi field amplitude, frequency detuning and laser phase step. We explore quantum metrology with hyper-Ramsey and hyper-Hahn-Ramsey clocks below the 10-18 level of fractional accuracy by fine-tuning control of light excitation parameters leading to spinor interferences protected against light-shift coupled to laser-probe field variation. We review cooperative composite pulse protocols to generate robust Ramsey-Bordé, Mach-Zehnder, and double-loop atomic sensors shielded against measurement distortion related to Doppler and light shifts coupled to pulse area errors. Fault-tolerant autobalanced hyperinterferometers are introduced eliminating several technical laser pulse defects that can occur during the entire probing interrogation protocol. Quantum sensors with composite pulses and ultracold atomic sources should offer a new level of high accuracy in the detection of acceleration and rotation inducing phase shifts, a strong improvement in tests of fundamental physics with hyperclocks while paving the way to a new conception of atomic interferometers tracking space-time gravitational waves with very high sensitivity.

AB - A new class of atomic interferences using ultranarrow optical transitions are pushing quantum engineering control to a very high level of precision for the next generation of sensors and quantum gate operations. In such context, we propose a new quantum engineering approach to Ramsey-Bordé interferometry introducing multiple composite laser pulses with tailored pulse duration, Rabi field amplitude, frequency detuning and laser phase step. We explore quantum metrology with hyper-Ramsey and hyper-Hahn-Ramsey clocks below the 10-18 level of fractional accuracy by fine-tuning control of light excitation parameters leading to spinor interferences protected against light-shift coupled to laser-probe field variation. We review cooperative composite pulse protocols to generate robust Ramsey-Bordé, Mach-Zehnder, and double-loop atomic sensors shielded against measurement distortion related to Doppler and light shifts coupled to pulse area errors. Fault-tolerant autobalanced hyperinterferometers are introduced eliminating several technical laser pulse defects that can occur during the entire probing interrogation protocol. Quantum sensors with composite pulses and ultracold atomic sources should offer a new level of high accuracy in the detection of acceleration and rotation inducing phase shifts, a strong improvement in tests of fundamental physics with hyperclocks while paving the way to a new conception of atomic interferometers tracking space-time gravitational waves with very high sensitivity.

UR - http://www.scopus.com/inward/record.url?scp=85134394202&partnerID=8YFLogxK

UR - https://www.mendeley.com/catalogue/3eeee706-6a0f-3e46-9433-09b67fa0ed2e/

U2 - 10.1103/PhysRevResearch.4.023222

DO - 10.1103/PhysRevResearch.4.023222

M3 - Article

AN - SCOPUS:85134394202

VL - 4

JO - Physical Review Research

JF - Physical Review Research

SN - 2643-1564

IS - 2

M1 - L022065

ER -

ID: 36759874