The gluon condensation effect in the cosmic hadron spectra
arXiv:2002.06294
Abstract
Hardening of cosmic proton- and nuclei-spectra is explained by using the gluon condensation (GC) model, which states that a large amount of gluons in proton may condense near the high energy threshold. The results present the GC-effect as common origin of a series of anomalous astrophysical phenomena including the broken power-law in gamma-ray spectra, the excess in positron- and electron-spectra and hardening of proton- and nuclei-spectra.
arXiv comment25 pages, 9 figures; accepted for publication in JCAP
References in corpus (12)
- Galactic Cosmic Rays from Supernova Remnants: II Shock Acceleration of Gas and Dust
- Spectra of Cosmic Ray Protons and Helium Produced in Supernova Remnants
- Indications for a high-rigidity break in the cosmic-ray diffusion coefficient
- Signatures of a two million year old supernova in the spectra of cosmic ray protons, antiprotons and positrons
- transition form factors
- Exposing strangeness: projections for kaon electromagnetic form factors
- The chaotic effects in a nonlinear QCD evolution equation
- The gluon condensation at high energy hadron collisions
- Can a chaotic solution in the QCD evolution equation restrain high-energy collider physics?
- The Gluon condensation in high energy cosmic rays
- A possible evidence of the gluon condensation effect in cosmic positron and gamma-ray spectra
- Origin of hardening and universality of cosmic rays spectra in GV-PV rigidity region