Simulation of cascades caused by UHE and EHE neutrinos in dense media
Igor Zheleznykh, Leonid Dedenko, Grigorii Dedenko, Anna Mironovich

TL;DR
This paper presents a new simulation method for ultra-high and extremely high energy neutrino-induced cascades in dense media, incorporating fluctuations and the Landau-Pomeranchuk-Migdal effect, useful for acoustic and radio signal calculations.
Contribution
It introduces an original one-dimensional cascade simulation program combining GEANT4 and a precomputed library for energies below 1000 GeV, accounting for key physical effects.
Findings
Validated cascade longitudinal distributions using GEANT4.
Created a library of cascade characteristics for efficient simulations.
Enabled accurate modeling of neutrino-induced signals in dense media.
Abstract
A method of simulation of particle cascades induced by ultra-high (>10 eV) and extremely high (>10 eV) energy neutrinos in water or other dense medium has been elaborated. The lateral spread of high-energy particles in cascades due to Coulomb scattering is negligible. So it is possible to use an approximation of the one-dimensional development of the UHE (or EHE) cascade if energies of particles in it higher than 10-100 GeV. An original program of the one-dimensional development of UHE and EHE cascades in dense media taking into account fluctuations and the Landau-Pomeranchuk-Migdal effect has been elaborated. The GEANT4 package has been used when particle energies are below 1000 GeV, for example, or less to calculate correctly the longitudinal distribution of an energy deposition by charge particles in a cascade. In advance the library of longitudinal characteristics of…
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Taxonomy
TopicsAstrophysics and Cosmic Phenomena · Neutrino Physics Research · Particle accelerators and beam dynamics
