The effect of atmospheric attenuation on inclined cosmic ray air showers
arXiv:astro-ph/0110237 · doi:10.1016/S0927-6505(02)00150-0
Abstract
The increasing cosmic ray statistics collected by present experiments and the future prospects with new large arrays demand accurate calculations of the extensive air shower parameters. The energy of the primary particle is estimated by ground arrays fitting a lateral distribution function (LDF) to the particle densities at a given observing level. However, the lack of appropriate parameterization for these distributions, able to reproduce the data collected from all arrival directions, makes it difficult the experimental analysis. Starting from analytical LDF for vertical showers we study the atmospheric depth dependence of the shower parameters, which is necessary to obtain the corresponding particle density distributions for inclined showers. In our approach both geometrical and atmospheric attenuation effects producing a lateral asymmetry in non-vertical showers are included. The resulting electron and muon LDF fit very well the Monte Carlo simulated data at all zenith angles.
35 pages, 12 eps figures; a new section containing comparison with experimental data added, to appear in Astroparticle Physics
References in corpus (1)
Cited by in corpus (9)
- A Macroscopic Description of Coherent Geo-Magnetic Radiation from Cosmic Ray Air Showers
- Radio Emission from Cosmic Ray Air Showers: Coherent Geosynchrotron Radiation
- Universality of electron-positron distributions in extensive air showers
- Radio emission from cosmic ray air showers: Monte Carlo simulations
- High Energy Physics in the Atmosphere: Phenomenology of Cosmic Ray Air Showers
- Characterisation of the electromagnetic component in ultra-high energy inclined air showers
- Refractive displacement of the radio-emission footprint of inclined air showers simulated with CoREAS
- The center of lateral iso-density contours for inclined cosmic air showers
- Numerical Simulation of Radio Signal from Extended Air Showers