학술논문

QUBIC: the Q & U Bolometric Interferometer for Cosmology
Document Type
Working Paper
Author
Battistelli, E. S.Ade, P.Alberro, J. G.Almela, A.Amico, G.Arnaldi, L. H.Auguste, D.Aumont, J.Azzoni, S.Banfi, S.Battaglia, P.Baù, A.Bèlier, B.Bennett, D.Bergè, L.Bernard, J. -Ph.Bersanelli, M.Bigot-Sazy, M. -A.Bleurvacq, N.Bonaparte, J.Bonis, J.Bottani, A.Bunn, E.Burke, D.Buzi, D.Buzzelli, A.Cavaliere, F.Chanial, P.Chapron, C.Charlassier, R.Columbro, F.Coppi, G.Coppolecchia, A.D'Alessandro, G.de Bernardis, P.De Gasperis, G.De Leo, M.De Petris, M.Dheilly, S.Di Donato, A.Dumoulin, L.Etchegoyen, A.Fasciszewski, A.Ferreyro, L. P.Fracchia, D.Franceschet, C.Lerena, M. M. GamboaGanga, K.Garcìa, B.Redondo, M. E. GarcìaGaspard, M.Gault, A.Gayer, D.Gervasi, M.Giard, M.Gilles, V.Giraud-Heraud, Y.Berisso, M. GòmezGonzàlez, M.Gradziel, M.Grandsire, L.Hamilton, J. -Ch.Harari, D.Haynes, V.Henrot-Versillè, S.Hoang, D. T.Incardona, F.Jules, E.Kaplan, J.Korotkov, A.Kristukat, C.Lamagna, L.Loucatos, S.Louis, T.Luterstein, R.Maffei, B.Marnieros, S.Marty, W.Masi, S.Mattei, A.May, A.McCulloch, M.Medina, M. C.Mele, L.Melhuish, S.Mennella, A.Montier, L.Mousset, L.Mundo, L. M.Murphy, J. A.Murphy, J. D.Nati, F.Olivieri, E.Oriol, C.O'Sullivan, C.Paiella, A.Pajot, F.Passerini, A.Pastoriza, H.Pelosi, A.Perbost, C.Perciballi, M.Pezzotta, F.Piacentini, F.Piat, M.Piccirillo, L.Pisano, G.Platino, M.Polenta, G.Prèle, D.Puddu, R.Rambaud, D.Ringegni, P.Romero, G. E.Salatino, M.Salum, J. M.Schillaci, A.Scòccola, C.Scully, S.Spinelli, S.Stankowiak, G.Stolpovskiy, M.Suarez, F.Tartari, A.Thermeau, J. -P.Timbie, P.Tomasi, M.Torchinsky, S.Tristram, M.Tucker, C.Tucker, G.Vanneste, S.Viganò, D.Vittorio, N.Voisin, F.Watson, B.Wicek, F.Zannoni, M.Zullo, A.
Source
Subject
Astrophysics - Instrumentation and Methods for Astrophysics
Astrophysics - Cosmology and Nongalactic Astrophysics
Language
Abstract
The Q & U Bolometric Interferometer for Cosmology, QUBIC, is an innovative experiment designed to measure the polarization of the Cosmic Microwave Background and in particular the signature left therein by the inflationary expansion of the Universe. The expected signal is extremely faint, thus extreme sensitivity and systematic control are necessary in order to attempt this measurement. QUBIC addresses these requirements using an innovative approach combining the sensitivity of Transition Edge Sensor cryogenic bolometers, with the deep control of systematics characteristic of interferometers. This makes QUBIC unique with respect to others classical imagers experiments devoted to the CMB polarization. In this contribution we report a description of the QUBIC instrument including recent achievements and the demonstration of the bolometric interferometry performed in lab. QUBIC will be deployed at the observation site in Alto Chorrillos, in Argentina at the end of 2019.
Comment: Accepted for publication in the Journal of Low Temperature Physics