Inclusión de la Universidad de Nariño en la Colaboración LAGO (Latin American Giant Observatory) a través del Diseño, Construcción, e Instalación de un Tanque - Detector Cherenkov Inclusion of the University of Nariño in the LAGO Collaboration (Latin American Giant Observatory) through the Design, Construction, and Installation of a Water Cherenkov Detector
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Abstract
In this research work entitled Inclusion of the University of Nariño in the LAGO (Latin American Giant Observatory) Collaboration, through the design, construction and installation of a water Cherenkov detector, the main advances carried out are here presented. We want to highlight the inclusion of the University of Nariño in the LAGO Collaboration through the signing of an Agreement of Understanding signed by all the staff involved. It was also possible to determine the flow of particles at ground level in San Juan de Pasto, as well as to strengthen academic relations with the different LAGO Collaboration work groups in Colombia and Latin America. During the project execution time, the designs for the installation of a water Cherenkov detector were determined, the components for the installation of the tank were acquired and the electronics that made the acquisition of data possible were implemented, respect to this last aspect, we used the new LAGO electronics relating to the use of the RED-Pitaya electronic card. The experiment, once fully installed, will also serve as a learning laboratory in data analysis for students of physics and engineering.
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Asorey, H., & Dasso, S. (2016). LAGO: the latin american giant observatory. PoS, 7-15.
Allard, D., Allekotte, I., Alvarez, C., Asorey, H., Barros, H., Bertou, X., ... & Murrieta, T. (2008). Use of water-Cherenkov detectors
to detect gamma ray bursts at the Large Aperture GRB Observatory (LAGO). Nuclear Instruments and Methods in Physics Research
Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 595(1), 70-72.
Durán, M. S. (2011). Instalación de un detector Cherenkov de agua para la detecci´on de trazas de rayos cósmicos a 956 metros sobre el
nivel del mar.
Velarde, A., Ticona, R., Miranda, P., Rivera, H., & Quispe, J. (2009). Proyecto lago bolivia. Revista Boliviana de F´ısica, 15(15), 32-38.
https://docplayer.es/95131037-Propuesta-para-el-desarrollo-de-la-comunidad-virtual-
lago-large-aperture-gamma-ray-burst-observatory.html
Nu˜nez, L. A., Quiñonez, F., & Cano, C. A. S. (2013). Validación del linaje de los datos de la colaboración LAGO. Instalaciones Sierra
Negra y Chacaltaya. Iteckne, 10 (1).
Velarde, A., Ticona, R., Miranda, P., Rivera, H., & Quispe, J.. (2009). PROYECTO LAGO BOLIVIA. Revista Boliviana de Física,
(15), 32-38. Recuperado en 11 de julio de 2019, de http://www.scielo.org.bo/scielo.php?script=sci_arttext&
pid=S1562-38232009000100006&lng=es&tlng=es.
Aguilar, L. R. T. Simulaci´oon de Cascadas Áereas Extensas en CORSIKA para la Colaboration LAGO en Guatemala.
Aglietta, M., Alessandro, B., Antonioli, P., Arneodo, F., Bergamasco, L., Fauth, A. C., ... & Cini, G. (1993). UHE cosmic ray event
reconstruction by the electromagnetic detector of EAS-TOP. Nuclear Instruments and Methods in Physics Research Section A: Accelerators,
Spectrometers, Detectors and Associated Equipment, 336(1-2), 310-321.