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1. CaloCube: A novel calorimeter for high-energy cosmic rays in space

Author

Cattaneo, P.W., Adriani, O., Albergo, S., Auditore, L., Basti, A., Berti, E., Bigongiari, G., Bonechi, L., Bonechi, S., Bongi, M., Bonvicini, V., Bottai, S., Brogi, P., Carotenuto, G., Castellini, G., D'Alessandro, R., Detti, S., Fasoli, M., Finetti, N., Italiano, A., Lenzi, P., Maestro, P., Marrocchesi, P.S., Miritello, M., Mori, N., Olmi, M., Orzan, G., Pacini, L., Papini, P., Pellegriti, M.G., Rappoldi, A., Ricciarini, S., Rossella, M., Spillantini, P., Starodubtsev, O., Stolzi, F., Suh, J.E., Sulaj, A., Tiberio, A., Tricomi, A., Trifirò, A., Trimarchi, M., Vannuccini, E., Vedda, A., Zampa, G., Zampa, N., Zerbo, B., Cattaneo, P, Adriani, O, Albergo, S, Auditore, L, Basti, A, Berti, E, Bigongiari, G, Bonechi, L, Bonechi, S, Bongi, M, Bonvicini, V, Bottai, S, Brogi, P, Carotenuto, G, Castellini, G, D'Alessandro, R, Detti, S, Fasoli, M, Finetti, N, Italiano, A, Lenzi, P, Maestro, P, Marrocchesi, P, Mori, N, Olmi, M, Orzan, G, Pacini, L, Papini, P, Pellegriti, M, Rappoldi, A, Ricciarini, S, Rossella, M, Sciutto, A, Spillantini, P, Starodubtsev, O, Stolzi, F, Suh, J, Sulaj, A, Tiberio, A, Tricomi, A, Trifirò, A, Trimarchi, M, Vannuccini, E, Vedda, A, Zampa, G, and Zampa, N

Subjects
Scintillators and scintillating fibres and light guide, Physics - Instrumentation and Detectors, Physics::Instrumentation and Detectors, FOS: Physical sciences, Cosmic ray, 01 natural sciences, 030218 nuclear medicine & medical imaging, 03 medical and health sciences, Calorimeters, 0302 clinical medicine, Optics, 0103 physical sciences, Ultra-high-energy cosmic ray, Scintillators and scintillating fibres and light guides, Detectors and Experimental Techniques, Calorimeter methods, Absorption (electromagnetic radiation), physics.ins-det, Instrumentation, Mathematical Physics, Physics, Calorimeter, Large Hadron Collider, Calorimeter methods, Calorimeters, Scintillators and scintillating fibres and light guides, Space instrumentation, Instrumentation, Mathematical Physics, 010308 nuclear & particles physics, business.industry, Resolution (electron density), Instrumentation and Detectors (physics.ins-det), Space instrumentation, FIS/01 - FISICA SPERIMENTALE, Calorimeter method, Particle, Granularity, business, Infrastructure for advanced calorimeters [14]
Abstract

In order to extend the direct observation of high-energy cosmic rays up to the PeV region, highly performing calorimeters with large geometrical acceptance and high energy resolution are required. Within the constraint of the total mass of the apparatus, crucial for a space mission, the calorimeters must be optimized with respect to their geometrical acceptance, granularity and absorption depth. CaloCube is a homogeneous calorimeter with cubic geometry, to maximise the acceptance being sensitive to particles from every direction in space; granularity is obtained by relying on small cubic scintillating crystals as active elements. Different scintillating materials have been studied. The crystal sizes and spacing among them have been optimized with respect to the energy resolution. A prototype, based on CsI(Tl) cubic crystals, has been constructed and tested with particle beams. Some results of tests with different beams at CERN are presented., Comment: Seven pages, seven pictures. Proceedings of INSTR17 Novosibirsk

Published
2017

2. Calocube - A highly segmented calorimeter for a space based experiment

Author

S. Bottai, N. Daddi, S. B. Ricciarini, P. Spillantini, P. Papini, E. Vannuccini, Maria Miritello, A. Gregorio, G.F. Rappazzo, Marina Trimarchi, Alessia Tricomi, L. Pacini, G. Pauletta, O. Starodubtsev, R. D' Alessandro, G. Carotenuto, Anna Vedda, A. Tiberio, O. Adriani, M. Chiari, P. W. Cattaneo, A. Basti, A. Rappoldi, V. Bonvicini, N. Zampa, M. Bongi, Paolo Brogi, Antoniangelo Agnesi, Sebastiano Albergo, G. Castellini, S. Detti, L. Santi, Lucrezia Auditore, Lorenzo Bonechi, P. S. Marrocchesi, Mauro Fasoli, A. Sulaj, N. Finetti, Paolo Maestro, Antonio Trifiro, Federico Pirzio, J. E. Suh, B. Zerbo, S. Bonechi, G. Zampa, D. Cauz, Gabriele Bigongiari, Eugenio Berti, Piergiulio Lenzi, Nicola Mori, Maria Giuseppina Bisogni, Marco Grassi, Marco Incagli, Riccardo Paoletti and Giovanni Signorelli, D'Alessandro, R., Adriani, O., Agnesi, A., Albergo, S., Auditore, L., Basti, A., Berti, E., Bigongiari, G., Bonechi, L., Bonechi, S., Bongi, M., Bonvicini, V., Bottai, S., Brogi, P., Carotenuto, G., Castellini, G., Cattaneo, P. W., Cauz, D., Chiari, M., Daddi, N., Detti, S., Fasoli, M., Finetti, N., Gregorio, Anna, Lenzi, P., Maestro, P., Marrocchesi, P. S., Miritello, M., Mori, N., Pacini, L., Papini, P., Pauletta, G., Pirzio, F., Rappazzo, G. F., Rappoldi, A., Ricciarini, S., Santi, L. G., Spillantini, P., Starodubtsev, O., Suh, J. E., Sulaj, A., Tiberio, A., Tricomi, A., Trifiro, A., Trimarchi, M., Vannuccini, E., Vedda, A., Zampa, Gianluigi, Zampa, Nicola, Zerbo, B., D'Alessandro, R, Adriani, O, Agnesi, A, Albergo, S, Auditore, L, Basti, A, Berti, E, Bigongiari, G, Bonechi, L, Bonechi, S, Bongi, M, Bonvicini, V, Bottai, S, Brogi, P, Carotenuto, G, Castellini, G, Cattaneo, P, Cauz, D, Chiari, M, Daddi, N, Detti, S, Fasoli, M, Finetti, N, Gregorio, A, Lenzi, P, Maestro, P, Marrocchesi, P, Miritello, M, Mori, N, Pacini, L, Papini, P, Pauletta, G, Pirzio, F, Rappazzo, G, Rappoldi, A, Ricciarini, S, Santi, L, Spillantini, P, Starodubtsev, O, Suh, J, Sulaj, A, Tiberio, A, Tricomi, A, Trifiro, A, Trimarchi, M, Vannuccini, E, Vedda, A, Zampa, G, Zampa, N, and Zerbo, B

Subjects
Physics, Calorimeter, Nuclear and High Energy Physics, Astroparticle, Crystals, Instrumentation, Calorimeter (particle physics), 010308 nuclear & particles physics, Detector, Cosmic ray, Space (mathematics), 01 natural sciences, Particle identification, Nuclear physics, Acceleration, 0103 physical sciences, Crystal, 010306 general physics, Energy (signal processing)
Abstract

Future research in High Energy Cosmic Ray Physics concerns fundamental questions on their origin, acceleration mechanism, and composition. Unambiguous measurements of the energy spectra and of the composition of cosmic rays at the “knee” region could provide some of the answers to the above questions. Only ground based observations, which rely on sophisticated models describing high energy interactions in the earth׳s atmosphere, have been possible so far due to the extremely low particle rates at these energies. A calorimeter based space experiment can provide not only flux measurements but also energy spectra and particle identification, especially when coupled to a dE/dx measuring detector, and thus overcome some of the limitations plaguing ground based experiments. For this to be possible very large acceptances are needed if enough statistic is to be collected in a reasonable time. This contrasts with the lightness and compactness requirements for space based experiments. A novel idea in calorimetry is discussed here which addresses these issues while limiting the mass and volume of the detector. In fact a small prototype is currently being built and tested with ions. In this paper the results obtained will be presented in light of the simulations performed.

Published
2016

3. CALOCUBE: An approach to high-granularity and homogenous calorimetry for space based detectors

Author

Anna Vedda, G. Castellini, M. Trimarchi, Paolo Brogi, P. Cumani, A. Rappoldi, Gabriele Bigongiari, A Lamberto, Mauro Fasoli, P. Spillantini, Maria Miritello, Eugenio Berti, Nicola Mori, B. Zerbo, S. Bottai, V. Bonvicini, G. Pauletta, A. Gregorio, Lucrezia Auditore, O. Adriani, S. Bonechi, Raffaello D'Alessandro, P. Lenzi, S. Detti, P. S. Marrocchesi, S. B. Ricciarini, A. Sulaj, M. Bongi, P. Papini, E. Vannuccini, Antonio Cassese, G.F. Rappazzo, N. Zampa, O. Starodubtsev, G. Carotenuto, Antonio Trifiro, A Mezzasalma, A. Tiberio, G. Zampa, Sebastiano Albergo, Maria Grazia Bagliesi, P. W. Cattaneo, Mirko Boezio, D. Cauz, Lorenzo Bonechi, Paolo Maestro, Bongi, M., Adriani, O., Albergo, S., Auditore, L., Bagliesi, M. G., Berti, E., Bigongiari, G., Boezio, M., Bonechi, L., Bonechi, S., Bonvicini, V., Bottai, S., Brogi, P., Carotenuto, G., Cassese, A., Castellini, G., Cattaneo, P. W., Cauz, D., Cumani, Paolo, D'Alessandro, R., Detti, S., Fasoli, M., Gregorio, Anna, Lamberto, A., Lenzi, P., Maestro, P., Marrocchesi, P. S., Mezzasalma, A., Miritello, M., Mori, N., Papini, P., Pauletta, G., Rappazzo, G. F., Rappoldi, A., Ricciarini, S., Spillantini, P., Starodubtsev, O., Sulaj, A., Tiberio, A., Trifirò, A., Trimarchi, M., Vannuccini, E., Vedda, A., Zampa, G., Zampa, N., Zerbo, B., Bongi, M, Adriani, O, Albergo, S, Auditore, L, Bagliesi, M, Berti, E, Bigongiari, G, Boezio, M, Bonechi, L, Bonechi, S, Bonvicini, V, Bottai, S, Brogi, P, Carotenuto, G, Cassese, A, Castellini, G, Cattaneo, P, Cauz, D, Cumani, P, D'Alessandro, R, Detti, S, Fasoli, M, Gregorio, A, Lamberto, A, Lenzi, P, Maestro, P, Marrocchesi, P, Mezzasalma, A, Miritello, M, Mori, N, Papini, P, Pauletta, G, Rappazzo, G, Rappoldi, A, Ricciarini, S, Spillantini, P, Starodubtsev, O, Sulaj, A, Tiberio, A, Trifirò, A, Trimarchi, M, Vannuccini, E, Vedda, A, Zampa, G, Zampa, N, and Zerbo, B

Subjects
History, Physics::Instrumentation and Detectors, Gamma ray, Interaction length, Budget control, Geometry, Electromagnetic particle, FIS/07 - FISICA APPLICATA (A BENI CULTURALI, AMBIENTALI, BIOLOGIA E MEDICINA), Calorimetry, Particle detector, Radiation length, Particle identification, Education, Physics and Astronomy (all), Cesium iodide, Optics, Gamma rays, Particles (particulate matter) Absorption depths, Energy resolutions, Geometrical dimensions, Radiation lengths, Space experiments, Space-based detector, Energy resolution, High energy physics, Detectors and Experimental Techniques, Physics, Calorimeter, Spectrometer, Calorimeter (particle physics), business.industry, Space experiment, Computer Science Applications, Computational physics, Measuring instrument, ComputingMethodologies_DOCUMENTANDTEXTPROCESSING, Particles (particulate matter) Absorption depth, Geometrical dimension, Granularity, business
Abstract

Future space experiments dedicated to the observation of high-energy gamma and cosmic rays will increasingly rely on a highly performing calorimetry apparatus, and their physics performance will be primarily determined by the geometrical dimensions and the energy resolution of the calorimeter deployed. Thus it is extremely important to optimize its geometrical acceptance, the granularity, and its absorption depth for the measurement of the particle energy with respect to the total mass of the apparatus which is the most important constraint for a space launch. The proposed design tries to satisfy these criteria while staying within a total mass budget of about 1.6 tons. Calocube is a homogeneous calorimeter instrumented with Cesium iodide (CsI) crystals, whose geometry is cubic and isotropic, so as to detect particles arriving from every direction in space, thus maximizing the acceptance, granularity is obtained by filling the cubic volume with small cubic CsI crystals. The total radiation length in any direction is more than adequate for optimal electromagnetic particle identification and energy measurement, whilst the interaction length is at least suficient to allow a precise reconstruction of hadronic showers. Optimal values for the size of the crystals and spacing among them have been studied. The design forms the basis of a three-year R&D; activity which has been approved and financed by INFN. An overall description of the system, as well as results from preliminary tests on particle beams will be described.

Published
2015

4. On-orbit operations and offline data processing of CALET onboard the ISS.

Author

Asaoka, Y., Ozawa, S., Torii, S., Adriani, O., Akaike, Y., Asano, K., Bagliesi, M.G., Bigongiari, G., Binns, W.R., Bonechi, S., Bongi, M., Brogi, P., Buckley, J.H., Cannady, N., Castellini, G., Checchia, C., Cherry, M.L., Collazuol, G., Di Felice, V., and Ebisawa, K.

Subjects
*CALORIMETERS, *CALORIMETER calibration, *COSMIC rays, *GAMMA rays
Abstract

The CALorimetric Electron Telescope (CALET), launched for installation on the International Space Station (ISS) in August, 2015, has been accumulating scientific data since October, 2015. CALET is intended to perform long-duration observations of high-energy cosmic rays onboard the ISS. CALET directly measures the cosmic-ray electron spectrum in the energy range of 1 GeV to 20 TeV with a 2% energy resolution above 30 GeV. In addition, the instrument can measure the spectrum of gamma rays well into the TeV range, and the spectra of protons and nuclei up to a PeV. In order to operate the CALET onboard ISS, JAXA Ground Support Equipment (JAXA-GSE) and the Waseda CALET Operations Center (WCOC) have been established at JAXA and Waseda University, respectively. Scientific operations using CALET are planned at WCOC, taking into account orbital variations of geomagnetic rigidity cutoff. Scheduled command sequences are used to control the CALET observation modes on orbit. Calibration data acquisition by, for example, recording pedestal and penetrating particle events, a low-energy electron trigger mode operating at high geomagnetic latitude, a low-energy gamma-ray trigger mode operating at low geomagnetic latitude, and an ultra heavy trigger mode, are scheduled around the ISS orbit while maintaining maximum exposure to high-energy electrons and other high-energy shower events by always having the high-energy trigger mode active. The WCOC also prepares and distributes CALET flight data to collaborators in Italy and the United States. As of August 31, 2017, the total observation time is 689 days with a live time fraction of the total time of  ∼ 84%. Nearly 450 million events are collected with a high-energy ( E  > 10 GeV) trigger. In addition, calibration data acquisition and low-energy trigger modes, as well as an ultra-heavy trigger mode, are consistently scheduled around the ISS orbit. By combining all operation modes with the excellent-quality on-orbit data collected thus far, it is expected that a five-year observation period will provide a wealth of new and interesting results. [ABSTRACT FROM AUTHOR]

Published
2018
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5. CaloCube: An isotropic spaceborne calorimeter for high-energy cosmic rays. Optimization of the detector performance for protons and nuclei.

Author

Adriani, O., Albergo, S., Auditore, L., Basti, A., Berti, E., Bigongiari, G., Bonechi, L., Bonechi, S., Bongi, M., Bonvicini, V., Bottai, S., Brogi, P., Carotenuto, G., Castellini, G., Cattaneo, P.W., Daddi, N., D’Alessandro, R., Detti, S., Finetti, N., and Italiano, A.

Subjects
*CALORIMETERS, *COSMIC rays, *PROTONS, *GALACTIC nuclei, *ISOTROPIC properties, *SCINTILLATORS
Abstract

The direct detection of high-energy cosmic rays up to the PeV region is one of the major challenges for the next generation of space-borne cosmic-ray detectors. The physics performance will be primarily determined by their geometrical acceptance and energy resolution. CaloCube is a homogeneous calorimeter whose geometry allows an almost isotropic response, so as to detect particles arriving from every direction in space, thus maximizing the acceptance. A comparative study of different scintillating materials and mechanical structures has been performed by means of Monte Carlo simulation. The scintillation-Cherenkov dual read-out technique has been also considered and its benefit evaluated. [ABSTRACT FROM AUTHOR]

Published
2017
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6. Energy calibration of CALET onboard the International Space Station.

Author

Asaoka, Y., Akaike, Y., Komiya, Y., Miyata, R., Torii, S., Adriani, O., Asano, K., Bagliesi, M.G., Bigongiari, G., Binns, W.R., Bonechi, S., Bongi, M., Brogi, P., Buckley, J.H., Cannady, N., Castellini, G., Checchia, C., Cherry, M.L., Collazuol, G., and Di Felice, V.

Subjects
*TELESCOPES, *ELECTRON spectroscopy, *COSMIC rays, *CALORIMETERS
Abstract

In August 2015, the CALorimetric Electron Telescope (CALET), designed for long exposure observations of high energy cosmic rays, docked with the International Space Station (ISS) and shortly thereafter began to collect data. CALET will measure the cosmic ray electron spectrum over the energy range of 1 GeV to 20 TeV with a very high resolution of 2% above 100 GeV, based on a dedicated instrument incorporating an exceptionally thick 30 radiation-length calorimeter with both total absorption and imaging (TASC and IMC) units. Each TASC readout channel must be carefully calibrated over the extremely wide dynamic range of CALET that spans six orders of magnitude in order to obtain a degree of calibration accuracy matching the resolution of energy measurements. These calibrations consist of calculating the conversion factors between ADC units and energy deposits, ensuring linearity over each gain range, and providing a seamless transition between neighboring gain ranges. This paper describes these calibration methods in detail, along with the resulting data and associated accuracies. The results presented in this paper show that a sufficient accuracy was achieved for the calibrations of each channel in order to obtain a suitable resolution over the entire dynamic range of the electron spectrum measurement. [ABSTRACT FROM AUTHOR]

Published
2017
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7. CaloCube: A new-concept calorimeter for the detection of high-energy cosmic rays in space.

Author

Vannuccini, E., Adriani, O., Agnesi, A., Albergo, S., Auditore, L., Basti, A., Berti, E., Bigongiari, G., Bonechi, L., Bonechi, S., Bongi, M., Bonvicini, V., Bottai, S., Brogi, P., Carotenuto, G., Castellini, G., Cattaneo, P.W., D'Alessandro, R., Detti, S., and Fasoli, M.

Subjects
*COSMIC rays, *NUCLEAR counters, *GEOMETRIC analysis, *CALORIMETERS, *NUCLEAR physics experiments
Abstract

The direct observation of high-energy cosmic rays, up to the PeV region, will increasingly rely on highly performing calorimeters, and the physics performance will be primarily determined by their geometrical acceptance and energy resolution. Thus, it is extremely important to optimize their geometrical design, granularity, and absorption depth, with respect to the total mass of the apparatus, which is among the most important constraints for a space mission. Calocube is a homogeneous calorimeter whose basic geometry is cubic and isotropic, so as to detect particles arriving from every direction in space, thus maximizing the acceptance; granularity is obtained by filling the cubic volume with small cubic scintillating crystals. This design forms the basis of a three-year R & D activity which has been approved and financed by INFN. A comparative study of different scintillating materials has been performed. Optimal values for the size of the crystals and spacing among them have been studied. Different geometries, besides the cubic one, and the possibility to implement dual-readout techniques have been investigated. A prototype, instrumented with CsI(Tl) cubic crystals, has been constructed and tested with particle beams. An overview of the obtained results will be presented and the perspectives for future space experiments will be discussed. [ABSTRACT FROM AUTHOR]

Published
2017
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8. Calocube—A highly segmented calorimeter for a space based experiment.

Author

D׳Alessandro, R., Adriani, O., Agnesi, A., Albergo, S., Auditore, L., Basti, A., Berti, E., Bigongiari, G., Bonechi, L., Bonechi, S., Bongi, M., Bonvicini, V., Bottai, S., Brogi, P., Carotenuto, G., Castellini, G., Cattaneo, P.W., Cauz, D., Chiari, M., and Daddi, N.

Subjects
*COSMIC rays, *CALORIMETRY, *ACCELERATION (Mechanics), *PARTICLES (Nuclear physics), *PROTOTYPES
Abstract

Future research in High Energy Cosmic Ray Physics concerns fundamental questions on their origin, acceleration mechanism, and composition. Unambiguous measurements of the energy spectra and of the composition of cosmic rays at the “knee” region could provide some of the answers to the above questions. Only ground based observations, which rely on sophisticated models describing high energy interactions in the earth׳s atmosphere, have been possible so far due to the extremely low particle rates at these energies. A calorimeter based space experiment can provide not only flux measurements but also energy spectra and particle identification, especially when coupled to a dE/dx measuring detector, and thus overcome some of the limitations plaguing ground based experiments. For this to be possible very large acceptances are needed if enough statistic is to be collected in a reasonable time. This contrasts with the lightness and compactness requirements for space based experiments. A novel idea in calorimetry is discussed here which addresses these issues while limiting the mass and volume of the detector. In fact a small prototype is currently being built and tested with ions. In this paper the results obtained will be presented in light of the simulations performed. [ABSTRACT FROM AUTHOR]

Published
2016
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9. CaloCube: A new concept calorimeter for the detection of high energy cosmic rays in space

Author

E Berti, O Adriani, S Albergo, G Ambrosi, L Auditore, A Basti, G Bigongiari, L Bonechi, S Bonechi, M Bongi, V Bonvicini, S Bottai, P Brogi, G Cappello, P W Cattaneo, R D Alessandro, S Detti, M Duranti, M Fasoli, N Finetti, V Formato, M Ionica, A Italiano, P Lenzi, P Maestro, P S Marrocchesi, N Mori, G Orzan, M Olmi, L Pacini, P Papini, A Rappoldi, S Ricciarini, A Sciuto, G Silvestre, O Starodubtsev, F Stolzi, J E Suh, A Sulaj, A Tiberio, A Tricomi, A Trifirò, M Trimarchi, E Vannuccini, A Vedda, G Zampa, N Zampa, Berti, E, Adriani, O, Albergo, S, Ambrosi, G, Auditore, L, Basti, A, Bigongiari, G, Bonechi, L, Bonechi, S, Bongi, M, Bonvicini, V, Bottai, S, Brogi, P, Cappello, G, Cattaneo, P, Alessandro, R, Detti, S, Duranti, M, Fasoli, M, Finetti, N, Formato, V, Ionica, M, Italiano, A, Lenzi, P, Maestro, P, Marrocchesi, P, Mori, N, Orzan, G, Olmi, M, Pacini, L, Papini, P, Rappoldi, A, Ricciarini, S, Sciuto, A, Silvestre, G, Starodubtsev, O, Stolzi, F, Suh, J, Sulaj, A, Tiberio, A, Tricomi, A, Trifir, A, Trimarchi, M, Vannuccini, E, Vedda, A, Zampa, G, and Zampa, N

Subjects
Energy resolutions, History, Calorimeters, CsI, Physics::Instrumentation and Detectors, calorimeter, energy resolution, High Energy Physics::Experiment, High energy physics, Cosmic rays, Computer Science Applications, Education, crystal
Abstract

Given the good performances in terms of geometrical acceptance and energy resolution, calorimeters are the best suited detectors to measure high energy cosmic rays directly in space. However, in order to exploit this potential, the design of calorimeters must be carefully optimized to take into account all limitations related to space missions, due mainly to the mass of the experimental apparatus. CaloCube is a three years R&D project, approved and financed by INFN in 2014, aiming to optimize the design of a space-borne calorimeter by the use of a cubic, homogeneous and isotropic geometry. In order to maximize detector performances with respect to the total mass of the apparatus, comparative studies on different scintillating materials, different sizes of crystals and different spacings among them have been performed making use of Monte Carlo simulations. In parallel to this activity, several prototypes instrumented with CsI:Tl cubic crystals have been constructed and tested with particle beams (muons, electrons, protons and ions). Both simulations and prototypes showed that the CaloCube design leads to a good particle energy resolution (< 2% for electromagnetic showers, < 40% for hadronic showers) and a good effective geometric factor (> 3:5 m2 sr for electromagnetic showers, > 2:5 m2 sr for hadronic showers). Thanks to these performances, in 5 years of operation it would be possible to measure the ux of electrons+positrons up to some tens of TeV and the uxes of protons and nuclei up to some units of PeV/nucleon, hence extending these measurements by at least one order of magnitude in energy compared to the experiments currently operating in space.

Published
2019

10. CaloCube: A new-concept calorimeter for the detection of high-energy cosmic rays in space

Author

Anna Vedda, E. Vannuccini, P. Papini, G. Castellini, O. Adriani, Raffaello D'Alessandro, Lorenzo Bonechi, A. Basti, P. W. Cattaneo, A. Sulaj, O. Starodubtsev, Gianluigi Zampa, G. Orzan, P. Spillantini, A. Tricomi, Maria Miritello, Antoniangelo Agnesi, L. Auditore, S. Albergo, J. E. Suh, M. Olmi, Emilio Berti, Mauro Fasoli, Nicola Mori, B. Zerbo, M. Bongi, S. Bonechi, Paolo Maestro, M. Trimarchi, S. B. Ricciarini, P. Lenzi, Gabriele Bigongiari, P. S. Marrocchesi, Paolo Brogi, Federico Pirzio, N. Finetti, A. Rappoldi, N. Zampa, G. Carotenuto, A. Tiberio, S. Detti, V. Bonvicini, S. Bottai, A. Trifiro, F. Stolzi, L. Pacini, M. G. Pellegriti, Vannuccini, E, Adriani, O, Agnesi, A, Albergo, S, Auditore, L, Basti, A, Berti, E, Bigongiari, G, Bonechi, L, Bonechi, S, Bongi, M, Bonvicini, V, Bottai, S, Brogi, P, Carotenuto, G, Castellini, G, Cattaneo, P, D'Alessandro, R, Detti, S, Fasoli, M, Finetti, N, Lenzi, P, Maestro, P, Marrocchesi, P, Miritello, M, Mori, N, Orzan, G, Olmi, M, Pacini, L, Papini, P, Pellegriti, M, Pirzio, F, Rappoldi, A, Ricciarini, S, Spillantini, P, Starodubtsev, O, Stolzi, F, Suh, J, Sulaj, A, Tiberio, A, Tricomi, A, Trifiro, A, Trimarchi, M, Vedda, A, Zampa, G, Zampa, N, and Zerbo, B

Subjects
Scintillating crystal, Nuclear and High Energy Physics, Physics::Instrumentation and Detectors, FIS/07 - FISICA APPLICATA (A BENI CULTURALI, AMBIENTALI, BIOLOGIA E MEDICINA), Cosmic ray, Space (mathematics), 01 natural sciences, Scintillating crystals, 0103 physical sciences, Ultra-high-energy cosmic ray, Absorption (electromagnetic radiation), 010303 astronomy & astrophysics, Cosmic rays, Instrumentation, Nuclear and High Energy Physic, Physics, Calorimeter, Basis (linear algebra), 010308 nuclear & particles physics, Isotropy, Computational physics, FIS/01 - FISICA SPERIMENTALE, Granularity
Abstract

The direct observation of high-energy cosmic rays, up to the PeV region, will increasingly rely on highly performing calorimeters, and the physics performance will be primarily determined by their geometrical acceptance and energy resolution. Thus, it is extremely important to optimize their geometrical design, granularity, and absorption depth, with respect to the total mass of the apparatus, which is among the most important constraints for a space mission. Calocube is a homogeneous calorimeter whose basic geometry is cubic and isotropic, so as to detect particles arriving from every direction in space, thus maximizing the acceptance; granularity is obtained by filling the cubic volume with small cubic scintillating crystals. This design forms the basis of a three-year R & D activity which has been approved and financed by INFN. A comparative study of different scintillating materials has been performed. Optimal values for the size of the crystals and spacing among them have been studied. Different geometries, besides the cubic one, and the possibility to implement dual-readout techniques have been investigated. A prototype, instrumented with CsI(Tl) cubic crystals, has been constructed and tested with particle beams. An overview of the obtained results will be presented and the perspectives for future space experiments will be discussed.

Published
2017

11. CaloCube: an innovative homogeneous calorimeter for the next-generation space experiments

Author

L. Pacini, N. Finetti, N. Daddi, Raffaello D'Alessandro, F. Stolzi, Anna Vedda, Antonio Agnesi, J. E. Suh, A. Sulaj, M. Olmi, Paolo Maestro, Sebastiano Albergo, Gigi Cappello, A. Basti, S. Bonechi, P. W. Cattaneo, O. Adriani, Emanuele Berti, G. Orzan, P. Lenzi, M. G. Pellegriti, Lucrezia Auditore, P. Spillantini, Maria Miritello, G. Zampa, S. Detti, M. Chiari, Lorenzo Bonechi, M. Bongi, Antonio Trifiro, P. S. Marrocchesi, Gabriele Bigongiari, Alessia Tricomi, Paolo Brogi, S. B. Ricciarini, Federico Pirzio, P. Papini, E. Vannuccini, G. Castellini, O. Starodubtsev, G. Carotenuto, M. Trimarchi, V. Bonvicini, A. Tiberio, Nicola Mori, N. Zampa, S. Bottai, A. Rappoldi, Mauro Fasoli, Pacini, L, Adriani, O, Agnesi, A, Albergo, S, Auditore, L, Basti, A, Berti, E, Bigongiari, G, Bonechi, L, Bonechi, S, Bongi, M, Bonvicini, V, Bottai, S, Brogi, P, Cappello, G, Carotenuto, G, Castellini, G, Cattaneo, P, Chiari, M, Daddi, N, Dalessandro, R, Detti, S, Fasoli, M, Finetti, N, Lenzi, P, Maestro, P, Marrocchesi, P, Miritello, M, Mori, N, Orzan, G, Olmi, M, Papini, P, Pellegriti, M, Pirzio, F, Rappoldi, A, Ricciarini, S, Spillantini, P, Starodubtsev, O, Stolzi, F, Suh, J, Sulaj, A, Tiberio, A, Tricomi, A, Trifiro, A, Trimarchi, M, Vannuccini, E, Vedda, A, Zampa, G, and Zampa, N

Subjects
Physics, History, business.industry, Physics::Instrumentation and Detectors, Isotropy, Monte Carlo method, Detector, Space launch, Computer Science Applications, Education, Calorimeter, Physics and Astronomy (all), Quality (physics), FIS/01 - FISICA SPERIMENTALE, Particle, Aerospace engineering, Detectors and Experimental Techniques, business, Energy (signal processing)
Abstract

The direct measurement of the cosmic-ray spectrum, up to the knee region, is one of the instrumental challenges for next generation space experiments. The main issue for these measurements is a steeply falling spectrum with increasing energy, so the physics performance of the space calorimeters are primarily determined by their geometrical acceptance and energy resolution. CaloCube is a three-year R&D; project, approved and financed by INFN in 2014, aiming to optimize the design of a space-born calorimeter. The peculiarity of the design of CaloCube is its capability of detecting particles coming from any direction, and not only those on its upper surface. To ensure that the quality of the measurement does not depend on the arrival direction of the particles, the calorimeter will be designed as homogeneous and isotropic as possible. In addition, to achieve a high discrimination power for hadrons and nuclei with respect to electrons, the sensitive elements of the calorimeter need to have a fine 3-D sampling capability. In order to optimize the detector performances with respect to the total mass of the apparatus, which is the most important constraint for a space launch, a comparative study of different scintillating materials has been performed using detailed Monte Carlo simulation based on the FLUKA package. In parallel to simulation studies, a prototype consisting in 14 layers of 3 x 3 CsI(Tl) crystals per layer has been assembled and tested with particle beams. An overview of the obtained results during the first two years of the project will be presented and the future of the detector will be discussed too.

Published
2017

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