Compact transportable 171Yb+ single-ion optical fully automated clock with 4.9E-16 relative instability
Timur Abbasov, Konstantin Makarenko, Ivan Sherstov, Mikhail Axenov,, Ilya Zalivako, Ilya Semerikov, Alexander Borisenko, Ksenia Khabarova, Nikolay, Kolachevsky, Sergey Chepurov, Alexei Taichenachev, Sergey Bagaev, and Anton, Tausenev

TL;DR
This paper reports the development of a compact, transportable 171Yb+ single-ion optical clock achieving a relative instability of 4.9E-16 at 1000 seconds, combining high precision with portability.
Contribution
It introduces a fully automated, compact optical clock based on a single 171Yb+ ion with demonstrated high stability and low weight, suitable for practical applications.
Findings
Achieved 4.9E-16 relative instability at 1000 s
Device weighs 298.1 kg and consumes 2.766 kW
Maintained stability during optical-to-RF signal transformation
Abstract
The paper describes the results achieved in the development of the compact transportable fully automated optical clock based on a single 171Yb+ ion in a radiofrequency (RF) quadrupole trap. The resulted measurements demonstrated the 4.9E-16 output RF signal relative instability on 1000 s integration time with 298.1 kg weight, 0.921 volume, and 2.766 kW input power consumption of the device. A transformation of the ultrastable optical signal into the RF range was performed via the optical frequency comb with a supercontinuum fiber laser generator. The transformation was conducted without loss of initial stability and accuracy characteristics of the signal.
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsAdvanced Frequency and Time Standards · Advanced Fiber Laser Technologies · Atomic and Subatomic Physics Research
