Technology roadmap for cold-atoms based quantum inertial sensor in space

Sven Abend; Baptiste Allard; Aidan S. Arnold; Ticijana Ban; Liam Barry; Baptiste Battelier; Ahmad Bawamia; Quentin Beaufils; Simon Bernon; Andrea Bertoldi; Alexis Bonnin; Philippe Bouyer; Alexandre Bresson; Oliver S. Burrow; Benjamin Canuel; Bruno Desruelle; Giannis Drougakis; René Forsberg; Naceur Gaaloul; Alexandre Gauguet; Matthias Gersemann; Paul F. Griffin; Hendrik Heine; Victoria A. Henderson; Waldemar Herr; Simon Kanthak; Markus Krutzik; Maike D. Lachmann; Roland Lammegger; Werner Magnes; Gaetano Mileti; Morgan W. Mitchell; Sergio Mottini; Dimitris Papazoglou; Franck Pereira dos Santos; Achim Peters; Ernst Rasel; Erling Riis; Christian Schubert; Stephan Tobias Seidel; Guglielmo M. Tino; Mathias Van Den Bossche; Wolf von Klitzing; Andreas Wicht; Marcin Witkowski; Nassim Zahzam; Michał Zawada

doi:10.1116/5.0098119

Technology roadmap for cold-atoms based quantum inertial sensor in space

Sven Abend, Baptiste Allard, Aidan S. Arnold, Ticijana Ban, Liam Barry, Baptiste Battelier, Ahmad Bawamia, Quentin Beaufils, Simon Bernon, Andrea Bertoldi, Alexis Bonnin, Philippe Bouyer, Alexandre Bresson, Oliver S. Burrow, Benjamin Canuel, Bruno Desruelle, Giannis Drougakis, René Forsberg, Naceur Gaaloul, Alexandre GauguetMatthias Gersemann, Paul F. Griffin, Hendrik Heine, Victoria A. Henderson, Waldemar Herr, Simon Kanthak, Markus Krutzik, Maike D. Lachmann, Roland Lammegger, Werner Magnes, Gaetano Mileti, Morgan W. Mitchell, Sergio Mottini, Dimitris Papazoglou, Franck Pereira dos Santos, Achim Peters, Ernst Rasel, Erling Riis, Christian Schubert, Stephan Tobias Seidel, Guglielmo M. Tino, Mathias Van Den Bossche, Wolf von Klitzing, Andreas Wicht, Marcin Witkowski, Nassim Zahzam, Michał Zawada

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Abstract

Recent developments in quantum technology have resulted in a new generation of sensors for measuring inertial quantities, such as acceleration and rotation. These sensors can exhibit unprecedented sensitivity and accuracy when operated in space, where the free-fall interrogation time can be extended at will and where the environment noise is minimal. European laboratories have played a leading role in this field by developing concepts and tools to operate these quantum sensors in relevant environment, such as parabolic flights, free-fall towers, or sounding rockets. With the recent achievement of Bose–Einstein condensation on the International Space Station, the challenge is now to reach a technology readiness level sufficiently high at both component and system levels to provide “off the shelf” payload for future generations of space missions in geodesy or fundamental physics. In this roadmap, we provide an extensive review on the status of all common parts, needs, and subsystems for the application of atom-based interferometers in space, in order to push for the development of generic technology components.

Original language	English
Article number	019201
Number of pages	31
Journal	AVS Quantum Science
Volume	5
Issue number	1
DOIs	https://doi.org/10.1116/5.0098119
Publication status	Published - 20 Mar 2023

Funding

Members of Leibniz Universität Hannover, Institut für Quantenoptik acknowledge financial support from the German Space Agency (DLR) with funds provided by the Federal Ministry for Economic Affairs and Climate Action (BMWK) due to an enactment of the German Bundestag under Grant No. DLR 50WM1952 “QUANTUS-V Fallturm,” 50WM2250A “QUANTUS+,” 50WP1431 “QUANTUS-IV MAIUS,” 50WM1947 “KACTUS II,” 50RK1957 “QGyro,” 50NA2106 “QGyro+,” 50WM2060 “CARIOQA,” 50WM1861 “CAL,” 50WM2253A “AI-quadrat” and from “Niedersächsisches Vorab” through the “Quantum- and Nano-Metrology (QUANOMET)” initiative within the project QT3. Additionally, they acknowledge support by the Deutsche Forschungsgemeinschaft (DFG, German Research Foundation)—project-ID 434617780–SFB 1464 TerraQ within the projects A01, A02, A03,—Project-ID 274200144—SFB 1227 DQ-mat within the Projects A05, B07, B09, and under Germany's Excellence Strategy—project-ID 390837967—EXC-2123 Quantum Frontiers. Members of LP2N, LCAR, LNE-SYRTE, and iXBlue acknowledge support from CNES support for ICE and through R&T program. LP2N and iXBlue are affiliated to the Naquidis Center for Quantum technologies. Members of LP2N acknowledge financial support from the “Agence Nationale pour la Recherche” (grant EOSBECMR No. ANR-18-CE91-0003-01 and grant MIGA No. ANR-11-EQPX-0028). P.B. acknowledges support by the Dutch National Growth Fund (NGF), as part of the Quantum Delta NL programme. M.W.M. acknowledges support from NextGenerationEU (PRTR-C17.I1), Generalitat de Catalunya Severo Ochoa: Center of Excellence CEX2019-000910-S, CERCA program, AGAUR Grant No. 2017-SGR-1354, project SAPONARIA (PID2021-123813NB-I00) funded by MCIN/AEI/10.13039/501100011033/FEDER, Fundació Privada Cellex; Fundació Mir-Puig.

Keywords

electrical and electronic engineering
computational theory and mathematics
physical and theoretical chemistry
computer networks and communications
condensed matter physics
atomic and molecular physics, and optics
electronic, optical and magnetic materials

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10.1116/5.0098119Licence: CC BY 4.0

Abend-etal-AVSQS-2023-Technology-roadmap-for-cold-atoms-based-quantumFinal published version, 4.05 MBLicence: CC BY 4.0

Cite this

Abend, S., Allard, B., Arnold, A. S., Ban, T., Barry, L., Battelier, B., Bawamia, A., Beaufils, Q., Bernon, S., Bertoldi, A., Bonnin, A., Bouyer, P., Bresson, A., Burrow, O. S., Canuel, B., Desruelle, B., Drougakis, G., Forsberg, R., Gaaloul, N., ... Zawada, M. (2023). Technology roadmap for cold-atoms based quantum inertial sensor in space. AVS Quantum Science, 5(1), Article 019201. https://doi.org/10.1116/5.0098119

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abstract = "Recent developments in quantum technology have resulted in a new generation of sensors for measuring inertial quantities, such as acceleration and rotation. These sensors can exhibit unprecedented sensitivity and accuracy when operated in space, where the free-fall interrogation time can be extended at will and where the environment noise is minimal. European laboratories have played a leading role in this field by developing concepts and tools to operate these quantum sensors in relevant environment, such as parabolic flights, free-fall towers, or sounding rockets. With the recent achievement of Bose–Einstein condensation on the International Space Station, the challenge is now to reach a technology readiness level sufficiently high at both component and system levels to provide “off the shelf” payload for future generations of space missions in geodesy or fundamental physics. In this roadmap, we provide an extensive review on the status of all common parts, needs, and subsystems for the application of atom-based interferometers in space, in order to push for the development of generic technology components.",

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Abend, S, Allard, B, Arnold, AS, Ban, T, Barry, L, Battelier, B, Bawamia, A, Beaufils, Q, Bernon, S, Bertoldi, A, Bonnin, A, Bouyer, P, Bresson, A, Burrow, OS, Canuel, B, Desruelle, B, Drougakis, G, Forsberg, R, Gaaloul, N, Gauguet, A, Gersemann, M, Griffin, PF, Heine, H, Henderson, VA, Herr, W, Kanthak, S, Krutzik, M, Lachmann, MD, Lammegger, R, Magnes, W, Mileti, G, Mitchell, MW, Mottini, S, Papazoglou, D, Pereira dos Santos, F, Peters, A, Rasel, E, Riis, E, Schubert, C, Seidel, ST, Tino, GM, Van Den Bossche, M, von Klitzing, W, Wicht, A, Witkowski, M, Zahzam, N & Zawada, M 2023, 'Technology roadmap for cold-atoms based quantum inertial sensor in space', AVS Quantum Science, vol. 5, no. 1, 019201. https://doi.org/10.1116/5.0098119

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T1 - Technology roadmap for cold-atoms based quantum inertial sensor in space

AU - Abend, Sven

AU - Allard, Baptiste

AU - Arnold, Aidan S.

AU - Ban, Ticijana

AU - Barry, Liam

AU - Battelier, Baptiste

AU - Bawamia, Ahmad

AU - Beaufils, Quentin

AU - Bernon, Simon

AU - Bertoldi, Andrea

AU - Bonnin, Alexis

AU - Bouyer, Philippe

AU - Bresson, Alexandre

AU - Burrow, Oliver S.

AU - Canuel, Benjamin

AU - Desruelle, Bruno

AU - Drougakis, Giannis

AU - Forsberg, René

AU - Gaaloul, Naceur

AU - Gauguet, Alexandre

AU - Gersemann, Matthias

AU - Griffin, Paul F.

AU - Heine, Hendrik

AU - Henderson, Victoria A.

AU - Herr, Waldemar

AU - Kanthak, Simon

AU - Krutzik, Markus

AU - Lachmann, Maike D.

AU - Lammegger, Roland

AU - Magnes, Werner

AU - Mileti, Gaetano

AU - Mitchell, Morgan W.

AU - Mottini, Sergio

AU - Papazoglou, Dimitris

AU - Pereira dos Santos, Franck

AU - Peters, Achim

AU - Rasel, Ernst

AU - Riis, Erling

AU - Schubert, Christian

AU - Seidel, Stephan Tobias

AU - Tino, Guglielmo M.

AU - Van Den Bossche, Mathias

AU - von Klitzing, Wolf

AU - Wicht, Andreas

AU - Witkowski, Marcin

AU - Zahzam, Nassim

AU - Zawada, Michał

PY - 2023/3/20

Y1 - 2023/3/20

N2 - Recent developments in quantum technology have resulted in a new generation of sensors for measuring inertial quantities, such as acceleration and rotation. These sensors can exhibit unprecedented sensitivity and accuracy when operated in space, where the free-fall interrogation time can be extended at will and where the environment noise is minimal. European laboratories have played a leading role in this field by developing concepts and tools to operate these quantum sensors in relevant environment, such as parabolic flights, free-fall towers, or sounding rockets. With the recent achievement of Bose–Einstein condensation on the International Space Station, the challenge is now to reach a technology readiness level sufficiently high at both component and system levels to provide “off the shelf” payload for future generations of space missions in geodesy or fundamental physics. In this roadmap, we provide an extensive review on the status of all common parts, needs, and subsystems for the application of atom-based interferometers in space, in order to push for the development of generic technology components.

AB - Recent developments in quantum technology have resulted in a new generation of sensors for measuring inertial quantities, such as acceleration and rotation. These sensors can exhibit unprecedented sensitivity and accuracy when operated in space, where the free-fall interrogation time can be extended at will and where the environment noise is minimal. European laboratories have played a leading role in this field by developing concepts and tools to operate these quantum sensors in relevant environment, such as parabolic flights, free-fall towers, or sounding rockets. With the recent achievement of Bose–Einstein condensation on the International Space Station, the challenge is now to reach a technology readiness level sufficiently high at both component and system levels to provide “off the shelf” payload for future generations of space missions in geodesy or fundamental physics. In this roadmap, we provide an extensive review on the status of all common parts, needs, and subsystems for the application of atom-based interferometers in space, in order to push for the development of generic technology components.

KW - electrical and electronic engineering

KW - computational theory and mathematics

KW - physical and theoretical chemistry

KW - computer networks and communications

KW - condensed matter physics

KW - atomic and molecular physics, and optics

KW - electronic, optical and magnetic materials

U2 - 10.1116/5.0098119

DO - 10.1116/5.0098119

M3 - Article

SN - 2639-0213

VL - 5

JO - AVS Quantum Science

JF - AVS Quantum Science

IS - 1

M1 - 019201

ER -

Technology roadmap for cold-atoms based quantum inertial sensor in space

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