The e-ASTROGAM gamma-ray space mission
arXiv:1608.03739 · doi:10.1117/12.2231601
Abstract
The e-ASTROGAM is a gamma-ray space mission to be proposed as the M5 Medium-size mission of the European Space Agency. It is dedicated to the observation of the Universe with unprecedented sensitivity in the energy range 0.2 - 100 MeV, extending up to GeV energies, together with a groundbreaking polarization capability. It is designed to substantially improve the COMPTEL and Fermi sensitivities in the MeV-GeV energy range and to open new windows of opportunity for astrophysical and fundamental physics space research. e-ASTROGAM will operate as an open astronomical observatory, with a core science focused on (1) the activity from extreme particle accelerators, including gamma-ray bursts and active galactic nuclei and the link of jet astrophysics to the new astronomy of gravitational waves, neutrinos, ultra-high energy cosmic rays, (2) the high-energy mysteries of the Galactic center and inner Galaxy, including the activity of the supermassive black hole, the Fermi Bubbles, the origin of the Galactic positrons, and the search for dark matter signatures in a new energy window; (3) nucleosynthesis and chemical evolution, including the life cycle of elements produced by supernovae in the Milky Way and the Local Group of galaxies. e-ASTROGAM will be ideal for the study of high-energy sources in general, including pulsars and pulsar wind nebulae, accreting neutron stars and black holes, novae, supernova remnants, and magnetars. And it will also provide important contributions to solar and terrestrial physics. The e-ASTROGAM telescope is optimized for the simultaneous detection of Compton and pair-producing gamma-ray events over a large spectral band. It is based on a very high technology readiness level for all subsystems and includes many innovative features for the detectors and associated electronics.
11 pages, 5 figures, published in the proceedings of SPIE Astronomical Telescopes and Instrumentation: Ultraviolet to Gamma Ray conference, Edinburgh 2016. Addition of an acknowledgment statement in version 2
References in corpus (11)
- The Large Area Telescope on the Fermi Gamma-ray Space Telescope Mission
- Design Concepts for the Cherenkov Telescope Array
- Observations of the Crab Nebula with H.E.S.S
- The 70 Month Swift-BAT All-Sky Hard X-Ray Survey
- The AGILE Mission
- Performance of the MAGIC stereo system obtained with Crab Nebula data
- SPI/INTEGRAL in-flight performance
- The Anti-Coincidence Detector for the GLAST Large Area Telescope
- Multiwavelength Astronomy and CTA: X-rays
- The radiation environment in a Low Earth Orbit: the case of BeppoSAX
- BoGEMMS: the Bologna Geant4 multi-mission simulator
Cited by in corpus (19)
- The Fermi Large Area Telescope as a Galactic Supernovae Axionscope
- High-Energy Gamma Rays from the Milky Way: Three-Dimensional Spatial Models for the Cosmic-Ray and Radiation Field Densities in the Interstellar Medium
- Pulsar wind nebulae with bow shocks: non-thermal radiation and cosmic ray leptons
- Gamma-ray Blazars Within the First 2 Billion Years
- The process in the light of an improved understanding of supernova neutrino spectra
- Gamma Rays From Dark Matter Subhalos Revisited: Refining the Predictions and Constraints
- Radioactive -Ray Emissions from Neutron Star Mergers
- High-energy gamma-ray activity from V404 Cygni detected by AGILE during the 2015 June outburst
- Gamma-Ray Emission Produced by -process Elements from Neutron Star Mergers
- The SNR Puppis A Revisited with Seven Years of Fermi Large Area Telescope Observations
- Sub-GeV Dark Matter Shining at Future MeV Gamma-Ray Telescopes
- Inductive spikes in the Crab Nebula - a theory of gamma-ray flares
- Searching for Axion-Like Particles from Core-Collapse Supernovae with Fermi LAT's Low Energy Technique
- Imaging Polarimeter for a Sub-MeV Gamma-Ray All-Sky Survey using an Electron-Tracking Compton Camera
- Novel Spectral Features in MeV Gamma Rays from Dark Matter
- CTA in the Context of Searches for Particle Dark Matter - a glimpse
- Fundamental Physics With Cosmic High-Energy Gamma Rays
- Linear Polarimetry with conversions
- e-ASTROGAM mission: a major step forward for gamma-ray polarimetry