Litcius/Paper detail

Heavy decaying dark matter at future neutrino radio telescopes

Marco Chianese, Damiano F.G. Fiorillo, Rasmi Hajjar, Gennaro Miele, Stefano Morisi, Ninetta Saviano

2021Journal of Cosmology and Astroparticle Physics26 citationsDOIOpen Access PDF

Abstract

Abstract In the next decades, ultra-high-energy neutrinos in the EeV energy range will be potentially detected by next-generation neutrino telescopes. Although their primary goals are to observe cosmogenic neutrinos and to gain insight into extreme astrophysical environments, they can also indirectly probe the nature of dark matter. In this paper, we study the projected sensitivity of up-coming neutrino radio telescopes, such as RNO-G, GRAND and IceCube-gen2 radio array, to decaying dark matter scenarios. We investigate different dark matter decaying channels and masses, from 10 7 to 10 15 GeV. By assuming the observation of cosmogenic or newborn pulsar neutrinos, we forecast conservative constraints on the lifetime of heavy dark matter particles. We find that these limits are competitive with and highly complementary to previous multi-messenger analyses.

Topics & Concepts

PhysicsNeutrinoDark matterAstrophysicsHot dark matterPulsarScalar field dark matterLight dark matterParticle physicsAstronomyNeutrino detectorPhysics beyond the Standard ModelRange (aeronautics)Weakly interacting massive particlesWarm dark matterDark energyDark fluidSolar neutrino problemDark radiationCosmic background radiationCosmic microwave backgroundSensitivity (control systems)CosmologyStandard Model (mathematical formulation)Neutrino astronomyDark Matter and Cosmic PhenomenaAstrophysics and Cosmic PhenomenaNeutrino Physics Research