TY - JOUR
T1 - Gamma-ray astrophysics in the MeV range
T2 - The ASTROGAM concept and beyond
AU - De Angelis, Alessandro
AU - Tatischeff, Vincent
AU - Argan, Andrea
AU - Brandt, Søren
AU - Bulgarelli, Andrea
AU - Bykov, Andrei
AU - Costantini, Elisa
AU - Silva, Rui Curado da
AU - Grenier, Isabelle A.
AU - Hanlon, Lorraine
AU - Hartmann, Dieter
AU - Hernanz, Margarida
AU - Kanbach, Gottfried
AU - Kuvvetli, Irfan
AU - Laurent, Philippe
AU - Mazziotta, Mario N.
AU - McEnery, Julie
AU - Morselli, Aldo
AU - Nakazawa, Kazuhiro
AU - Oberlack, Uwe
AU - Pearce, Mark
AU - Rico, Javier
AU - Tavani, Marco
AU - Ballmoos, Peter von
AU - Walter, Roland
AU - Wu, Xin
AU - Zane, Silvia
AU - Zdziarski, Andrzej
AU - Zoglauer, Andreas
N1 - Publisher Copyright:
© 2021, The Author(s).
PY - 2021
Y1 - 2021
N2 - The energy range between about 100 keV and 1 GeV is of interest for a vast class of astrophysical topics. In particular, (1) it is the missing ingredient for understanding extreme processes in the multi-messenger era; (2) it allows localizing cosmic-ray interactions with background material and radiation in the Universe, and spotting the reprocessing of these particles; (3) last but not least, gamma-ray emission lines trace the formation of elements in the Galaxy and beyond. In addition, studying the still largely unexplored MeV domain of astronomy would provide for a rich observatory science, including the study of compact objects, solar- and Earth-science, as well as fundamental physics. The technological development of silicon microstrip detectors makes it possible now to detect MeV photons in space with high efficiency and low background. During the last decade, a concept of detector (“ASTROGAM”) has been proposed to fulfil these goals, based on a silicon hodoscope, a 3D position-sensitive calorimeter, and an anticoincidence detector. In this paper we stress the importance of a medium size (M-class) space mission, dubbed “ASTROMEV”, to fulfil these objectives.
AB - The energy range between about 100 keV and 1 GeV is of interest for a vast class of astrophysical topics. In particular, (1) it is the missing ingredient for understanding extreme processes in the multi-messenger era; (2) it allows localizing cosmic-ray interactions with background material and radiation in the Universe, and spotting the reprocessing of these particles; (3) last but not least, gamma-ray emission lines trace the formation of elements in the Galaxy and beyond. In addition, studying the still largely unexplored MeV domain of astronomy would provide for a rich observatory science, including the study of compact objects, solar- and Earth-science, as well as fundamental physics. The technological development of silicon microstrip detectors makes it possible now to detect MeV photons in space with high efficiency and low background. During the last decade, a concept of detector (“ASTROGAM”) has been proposed to fulfil these goals, based on a silicon hodoscope, a 3D position-sensitive calorimeter, and an anticoincidence detector. In this paper we stress the importance of a medium size (M-class) space mission, dubbed “ASTROMEV”, to fulfil these objectives.
KW - Gamma-ray astronomy
KW - High-energy astrophysics
KW - Multi-messenger astronomy
U2 - 10.1007/s10686-021-09706-y
DO - 10.1007/s10686-021-09706-y
M3 - Journal article
AN - SCOPUS:85106861818
SN - 0922-6435
VL - 51
SP - 1225
EP - 1254
JO - Experimental Astronomy
JF - Experimental Astronomy
ER -