Exploring the Properties of Choked Gamma-Ray Bursts with IceCube's High Energy Neutrinos
Peter B. Denton, Irene Tamborra

TL;DR
This study models the neutrino emission from different types of gamma-ray bursts associated with core-collapse supernovae, using IceCube data to constrain jet and progenitor properties, revealing most jets are choked and neutrinos are key probes.
Contribution
It introduces a detailed jet physics model within the internal-shock GRB framework, linking neutrino observations to constraining supernova progenitor and jet characteristics.
Findings
IceCube data limits suggest up to 1% of CCSNe have jets.
Most astrophysical jets in CCSNe are choked and do not produce gamma-ray signals.
Neutrinos are effective probes for understanding GRB physics and the CCSN-GRB connection.
Abstract
Long duration gamma-ray bursts (GRBs) have often been considered as the natural evolution of some core-collapse supernova (CCSN) progenitors. However, the fraction of CCSNe linked to astrophysical jets and their properties are still poorly constrained. While any successful astrophysical jet harbored in a CCSN should produce high energy neutrinos, photons may be able to successfully escape the stellar envelope only for a fraction of progenitors, possibly leading to the existence of high-luminosity, low-luminosity and not-electromagnetically bright ("choked") GRBs. By postulating a CCSN-GRB connection, we accurately model the jet physics within the internal-shock GRB model and assume scaling relations for the GRB parameters that depend on the Lorentz boost factor . The IceCube high energy neutrino flux is then employed as an upper limit of the neutrino background from…
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