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arXiv:2010.08351astro-ph.HE

Cosmic Ray Extremely Distributed Observatory

Piotr Homola, Dmitriy Beznosko, Gopal Bhatta, Lukasz Bibrzycki, Michalina Borczynska, Lukasz Bratek, Nikolai Budnev, Dariusz Burakowski, David E. Alvarez-Castillo, Kevin Almeida Cheminant, Aleksander Cwikla, Punsiri Dam-o, Niraj Dhital, Alan R. Duffy, Piotr Glownia, Krzysztof Gorzkiewicz, Dariusz Gora, Alok C. Gupta, Zuzana Hlavkova, Martin Homola, Joanna Jalocha, Robert Kaminski, Michal Karbowiak, Marcin Kasztelan, Renata Kierepko, Marek Knap, Peter Kovacs, Szymon Kulinski, Bartosz Lozowski, Marek Magrys, Mikhail V. Medvedev, Justyna Medrala, Jerzy W. Mietelski, Justyna Miszczyk, Alona Mozgova, Antonio Napolitano, Vahab Nazari, Y. Jack Ng, Michal Niedzwiecki, Cristina Oancea, Boguslaw Ogan, Gabriela Opila, Krzysztof Oziomek, Maciej Pawlik, Marcin Piekarczyk, Bozena Poncyliusz, Jerzy Pryga, Matias Rosas, Krzysztof Rzecki, Jilberto Zamora-Saa, Katarzyna Smelcerz, Karel Smolek, Weronika Stanek, Jaroslaw Stasielak, Slawomir Stuglik, Jolanta Sulma, Oleksandr Sushchov, Manana Svanidze, Kyle Tam, Arman Tursunov, Jose M. Vaquero, Tadeusz Wibig, Krzysztof W. Wozniak

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Abstract

The Cosmic Ray Extremely Distributed Observatory (CREDO) is a newly formed, global collaboration dedicated to observing and studying cosmic rays (CR) and cosmic ray ensembles (CRE): groups of a minimum of two CR with a common primary interaction vertex or the same parent particle. The CREDO program embraces testing known CR and CRE scenarios, and preparing to observe unexpected physics, it is also suitable for multi-messenger and multi-mission applications. Perfectly matched to CREDO capabilities, CRE could be formed both within classical models (e.g. as products of photon-photon interactions), and exotic scenarios (e.g. as results of decay of Super Heavy Dark Matter particles). Their fronts might be significantly extended in space and time, and they might include cosmic rays of energies spanning the whole cosmic ray energy spectrum, with a footprint composed of at least two extensive air showers with correlated arrival directions and arrival times. Since CRE are mostly expected to be spread over large areas and, because of the expected wide energy range of the contributing particles, CRE detection might only be feasible when using available cosmic ray infrastructure collectively, i.e. as a globally extended network of detectors. Thus, with this review article, the CREDO Collaboration invites the astroparticle physics community to actively join or to contribute to the research dedicated to CRE, and in particular to share any cosmic ray data useful for the specific CRE detection strategies.

arXiv comments
59 pages, 23 figures
Journal reference
Symmetry 2020, 12(11), 1835
DOI
doi:10.3390/sym12111835
Subjects
astro-ph.HEHigh Energy Astrophysical Phenomena astro-ph.IMInstrumentation and Methods for Astrophysics

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    • >Crucial to their plans was making cheap, tabletop γ-ray detectors that they could install in dozens of sites. On a related note: there's a citizen science experiment that uses a volunteer-run array of old smartphones with taped over cameras to detect particle showers caused by…

      orbital-decayView on HNParent context

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