Standard

Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder. / the Tunka-Rex Collaboration.

в: Proceedings of Science, Том 395, 223, 18.03.2022.

Результаты исследований: Научные публикации в периодических изданияхстатья по материалам конференцииРецензирование

Harvard

the Tunka-Rex Collaboration 2022, 'Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder', Proceedings of Science, Том. 395, 223.

APA

the Tunka-Rex Collaboration (2022). Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder. Proceedings of Science, 395, [223].

Vancouver

the Tunka-Rex Collaboration. Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder. Proceedings of Science. 2022 март 18;395:223.

Author

the Tunka-Rex Collaboration. / Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder. в: Proceedings of Science. 2022 ; Том 395.

BibTeX

@article{a7c894fd34a34e04aa121f70d0322066,
title = "Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder",
abstract = "Radio detection of air showers produced by ultra-high energy cosmic rays is a cost-effective technique for the next generation of sparse arrays. The performance of this technique strongly depends on the environmental background, which has different constituents, namely anthropogenic radio frequency interference, synchrotron galactic radiation and others. These components have recognizable features, which can help for background suppression. A powerful method for handling this is the application of convolution neural networks with a specific architecture called autoencoder. By suppressing unwanted signatures, the autoencoder keeps the signal-like ones. We have successfully developed and trained an autoencoder, which is now applied to the data from Tunka-Rex. We show the procedures of the training and optimization of the network including benchmarks of different architectures. Using the autoencoder, we improved the standard analysis of Tunka-Rex in order to lower the threshold of the detection. This enables the reconstructing of sub-threshold events with energies lower than 0.1 EeV with satisfactory angular and energy resolutions.",
author = "{the Tunka-Rex Collaboration} and P. Bezyazeekov and D. Shipilov and D. Kostunin and I. Plokhikh and A. Mikhaylenko and P. Turishcheva and S. Golovachev and V. Sotnikov and E. Sotnikova and P. Bezyazeekov and N. Budnev and O. Fedorov and O. Gress and O. Grishin and A. Haungs and T. Huege and Y. Kazarina and M. Kleifges and E. Korosteleva and D. Kostunin and L. Kuzmichev and V. Lenok and N. Lubsandorzhiev and S. Malakhov and T. Marshalkina and R. Monkhoev and E. Osipova and A. Pakhorukov and L. Pankov and V. Prosin and Schr{\"o}der, {F. G.} and D. Shipilov and A. Zagorodnikov",
note = "Funding Information: The authors would like to express gratitude to the colleagues from KCDC team. The development and testing of the software was supported by the state contract with Institute of Thermophysics SB RAS. Publisher Copyright: {\textcopyright} Copyright owned by the author(s).; 37th International Cosmic Ray Conference, ICRC 2021 ; Conference date: 12-07-2021 Through 23-07-2021",
year = "2022",
month = mar,
day = "18",
language = "English",
volume = "395",
journal = "Proceedings of Science",
issn = "1824-8039",
publisher = "Sissa Medialab Srl",

}

RIS

TY - JOUR

T1 - Reconstruction of sub-threshold events of cosmic-ray radio detectors using an autoencoder

AU - the Tunka-Rex Collaboration

AU - Bezyazeekov, P.

AU - Shipilov, D.

AU - Kostunin, D.

AU - Plokhikh, I.

AU - Mikhaylenko, A.

AU - Turishcheva, P.

AU - Golovachev, S.

AU - Sotnikov, V.

AU - Sotnikova, E.

AU - Bezyazeekov, P.

AU - Budnev, N.

AU - Fedorov, O.

AU - Gress, O.

AU - Grishin, O.

AU - Haungs, A.

AU - Huege, T.

AU - Kazarina, Y.

AU - Kleifges, M.

AU - Korosteleva, E.

AU - Kostunin, D.

AU - Kuzmichev, L.

AU - Lenok, V.

AU - Lubsandorzhiev, N.

AU - Malakhov, S.

AU - Marshalkina, T.

AU - Monkhoev, R.

AU - Osipova, E.

AU - Pakhorukov, A.

AU - Pankov, L.

AU - Prosin, V.

AU - Schröder, F. G.

AU - Shipilov, D.

AU - Zagorodnikov, A.

N1 - Funding Information: The authors would like to express gratitude to the colleagues from KCDC team. The development and testing of the software was supported by the state contract with Institute of Thermophysics SB RAS. Publisher Copyright: © Copyright owned by the author(s).

PY - 2022/3/18

Y1 - 2022/3/18

N2 - Radio detection of air showers produced by ultra-high energy cosmic rays is a cost-effective technique for the next generation of sparse arrays. The performance of this technique strongly depends on the environmental background, which has different constituents, namely anthropogenic radio frequency interference, synchrotron galactic radiation and others. These components have recognizable features, which can help for background suppression. A powerful method for handling this is the application of convolution neural networks with a specific architecture called autoencoder. By suppressing unwanted signatures, the autoencoder keeps the signal-like ones. We have successfully developed and trained an autoencoder, which is now applied to the data from Tunka-Rex. We show the procedures of the training and optimization of the network including benchmarks of different architectures. Using the autoencoder, we improved the standard analysis of Tunka-Rex in order to lower the threshold of the detection. This enables the reconstructing of sub-threshold events with energies lower than 0.1 EeV with satisfactory angular and energy resolutions.

AB - Radio detection of air showers produced by ultra-high energy cosmic rays is a cost-effective technique for the next generation of sparse arrays. The performance of this technique strongly depends on the environmental background, which has different constituents, namely anthropogenic radio frequency interference, synchrotron galactic radiation and others. These components have recognizable features, which can help for background suppression. A powerful method for handling this is the application of convolution neural networks with a specific architecture called autoencoder. By suppressing unwanted signatures, the autoencoder keeps the signal-like ones. We have successfully developed and trained an autoencoder, which is now applied to the data from Tunka-Rex. We show the procedures of the training and optimization of the network including benchmarks of different architectures. Using the autoencoder, we improved the standard analysis of Tunka-Rex in order to lower the threshold of the detection. This enables the reconstructing of sub-threshold events with energies lower than 0.1 EeV with satisfactory angular and energy resolutions.

UR - http://www.scopus.com/inward/record.url?scp=85144126827&partnerID=8YFLogxK

M3 - Conference article

AN - SCOPUS:85144126827

VL - 395

JO - Proceedings of Science

JF - Proceedings of Science

SN - 1824-8039

M1 - 223

T2 - 37th International Cosmic Ray Conference, ICRC 2021

Y2 - 12 July 2021 through 23 July 2021

ER -

ID: 41163427