Gamma-ray Astronomy: Implications for Fundamental Physics
Javier Rico

TL;DR
Gamma-ray astronomy uses space and ground-based telescopes to study cosmic accelerators, cosmic rays, dark matter, and fundamental physics, providing insights into high-energy astrophysical processes and the universe's evolution.
Contribution
This review summarizes recent advances in gamma-ray astronomy, highlighting how current instruments contribute to understanding cosmic rays, dark matter, and fundamental physics.
Findings
Detection of diverse gamma-ray sources and emitters.
Constraints on dark matter annihilation signals.
Measurements of the cosmic electron-positron spectrum.
Abstract
Gamma-ray Astronomy studies cosmic accelerators through their electromagnetic radiation in the energy range between ~100 MeV and ~100 TeV. The present most sensitive observations in this energy band are performed, from space, by the Large Area Telescope onboard the Fermi satellite and, from Earth, by the Imaging Air Cherenkov Telescopes MAGIC, H.E.S.S. and VERITAS. These instruments have revolutionized the field of Gamma-ray Astronomy, discovering different populations of gamma-ray emitters and studying in detail the non-thermal astrophysical processes producing this high-energy radiation. The scientific objectives of these observatories include also questions of fundamental physics. With gamma-ray instruments we study the origin of Galactic cosmic rays, testing the hypothesis or whether they are mainly produced in supernova explosions. Also, we obtain the most sensitive measurement of…
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Taxonomy
TopicsAstrophysics and Cosmic Phenomena · Dark Matter and Cosmic Phenomena · Neutrino Physics Research
