The All-sky Medium Energy Gamma-ray Observatory eXplorer (AMEGO-X) is designed to identify and characterize gamma rays from extreme explosions and accelerators. The main science themes include supermassive black holes and their connections to neutrinos and cosmic rays; binary neutron star mergers and the relativistic jets they produce; cosmic ray particle acceleration sources including galactic supernovae; continuous monitoring of other astrophysical events and sources over the full sky in this important energy range. AMEGO-X will probe the medium energy gamma-ray band using a single instrument with sensitivity up to an order of magnitude greater than previous telescopes in the energy range 100 keV to 1 GeV that can be only realized in space. During its 3-year baseline mission, AMEGO-X will observe nearly the entire sky every two orbits, building up a sensitive all-sky map of gamma-ray sources and emissions. AMEGO-X was submitted in the recent 2021 NASA MIDEX announcement of opportunity.
S. Agayeva, V. Aivazyan, S. Alishov, M. Almualla, C. Andrade, Sarah Antier, J. M. Bai, A. Baransky, S. Basa, P. Bendjoya, Z. Benkhaldoun, S. Beradze, D. Berezin, U. Bhardwaj, M. Blazek, O. Burkhonov, E. Burns, S. Caudill, N. Christensen, F. Colas, A. Coleiro, W. Corradi, M. Coughlin, T. Culino, D. Darson, D. Datashvili, G. de Wasseige, T. Dietrich, F. Dolon, D. Dornic, J. Dubouil, J.-G. Ducoin, P.-A. Duverne, A. Esamdin, A. Fouad, F. Guo, V. Godunova, P. Gokuldass, N. Guessoum, E. Gurbanov, R. Hainich, E. Hasanov, P. Hello, T. Hussenot-Desenonges, R. Inasaridze, A. Iskandar, E.E.O. Ishida, N. Ismailov, T. Jegou du Laz, D.A. Kann, G. Kapanadze, S. Karpov, R.W. Kiendrebeogo, A. Klotz, N. Kochiashvili, A. Kaeouach, J.-P. Kneib, W. Kou, K. Kruiswijk, S. Lombardo, M. Lamoureux, N. Leroy, A. Le Van Su, J. Mao, M. Masek, T. Midavaine, A. Moeller, D. Morris, R. Natsvlishvili, F. Navarete, S. Nissanke, K. Noonan, K. Noysena, N.B. Orange, J. Peloton, M. Pilloix, T. Pradier, M. Prouza, G. Raaijmakers, Y. Rajabov, J.-P. Rivet, Y. Romanyuk, L. Rousselot, F. Ruenger, V. Rupchandani, T. Sadibekova, N. Sasaki, A. Simon, K. Smith, O. Sokoliuk, X. Song, A. Takey, Y. Tillayev, I. Tosta e Melo, D. Turpin, A. de Ugarte Postigo, M. Vardosanidze, X.F. Wang, D. Vernet, Z. Vidadi, J. Zhu, Y. Zhu
GRANDMA is a world-wide collaboration with the primary scientific goal of studying gravitational-wave sources, discovering their electromagnetic counterparts and characterizing their emission. GRANDMA involves astronomers, astrophysicists, gravitational-wave physicists, and theorists. GRANDMA is now a truly global network of telescopes, with (so far) 30 telescopes in both hemispheres. It incorporates a citizen science programme (Kilonova-Catcher) which constitutes an opportunity to spread the interest in time-domain astronomy. The telescope network is an heterogeneous set of already-existing observing facilities that operate coordinated as a single observatory. Within the network there are wide-field imagers that can observe large areas of the sky to search for optical counterparts, narrow-field instruments that do targeted searches within a predefined list of host-galaxy candidates, and larger telescopes that are devoted to characterization and follow-up of the identified counterparts. Here we present an overview of GRANDMA after the third observing run of the LIGO/VIRGO gravitational-wave observatories in 2019 − 2020 and its ongoing preparation for the forthcoming fourth observational campaign (O4). Additionally, we review the potential of GRANDMA for the discovery and follow-up of other types of astronomical transients.
BurstCube aims to expand sky coverage in order to detect, localize, and rapidly disseminate information about gamma-ray bursts (GRBs). BurstCube is a ’6U’ CubeSat with an instrument comprised of 4 Cesium Iodide (CsI) scintillators coupled to arrays of Silicon photo-multipliers (SiPMs) and will be sensitive to gamma-rays between 50 keV and 1 MeV. BurstCube will assist current observatories, such as Swift and Fermi, in the detection of GRBs as well as provide astronomical context to gravitational wave (GW) events detected by LIGO, Virgo, and KAGRA. BurstCube is currently in its development phase with a launch readiness date in early 2022.
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