Secondary beams at high-intensity electron accelerator facilities

Fuente: arXiv
Saved in:
Bibliographic Details
Main Authors: Battaglieri, Marco, Bianconi, Andrea, Bondí, Mariangela, De Vita, Raffaella, Fulci, Antonino, Gosta, Giulia, Grazzi, Stefano, Jo, Hyon-Suk, Lee, Changhui, Mandaglio, Giuseppe, Mascagna, Valerio, Nagorna, Tetiana, Pilloni, Alessandro, Spreafico, Marco, Tagliapietra, Luca J, Venturelli, Luca, Vittorini, Tommaso
Format: Preprint
Published: 2023
Subjects:
Online Access:
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1866907765629255680
author Battaglieri, Marco
Bianconi, Andrea
Bondí, Mariangela
De Vita, Raffaella
Fulci, Antonino
Gosta, Giulia
Grazzi, Stefano
Jo, Hyon-Suk
Lee, Changhui
Mandaglio, Giuseppe
Mascagna, Valerio
Nagorna, Tetiana
Pilloni, Alessandro
Spreafico, Marco
Tagliapietra, Luca J
Venturelli, Luca
Vittorini, Tommaso
author_facet Battaglieri, Marco
Bianconi, Andrea
Bondí, Mariangela
De Vita, Raffaella
Fulci, Antonino
Gosta, Giulia
Grazzi, Stefano
Jo, Hyon-Suk
Lee, Changhui
Mandaglio, Giuseppe
Mascagna, Valerio
Nagorna, Tetiana
Pilloni, Alessandro
Spreafico, Marco
Tagliapietra, Luca J
Venturelli, Luca
Vittorini, Tommaso
contents The interaction of a high-current $O$(100~\textmu A), medium energy $O$(10\,GeV) electron beam with a thick target $O$(1m) produces an overwhelming shower of standard matter particles in addition to hypothetical Light Dark Matter particles. While most of the radiation (gamma, electron/positron, and neutron) is contained in the thick target, deep penetrating particles (muons, neutrinos, and light dark matter particles) propagate over a long distance, producing high-intense secondary beams. Using sophisticated Monte Carlo simulations based on FLUKA and GEANT4, we explored the characteristics of secondary muons and neutrinos and (hypothetical) dark scalar particles produced by the interaction of Jefferson Lab 11 GeV intense electron beam with the experimental Hall-A beam dump. Considering the possible beam energy upgrade, this study was repeated for a 20 GeV CEBAF beam.
format Preprint
id arxiv_https___arxiv_org_abs_2311_08440
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Secondary beams at high-intensity electron accelerator facilities
Battaglieri, Marco
Bianconi, Andrea
Bondí, Mariangela
De Vita, Raffaella
Fulci, Antonino
Gosta, Giulia
Grazzi, Stefano
Jo, Hyon-Suk
Lee, Changhui
Mandaglio, Giuseppe
Mascagna, Valerio
Nagorna, Tetiana
Pilloni, Alessandro
Spreafico, Marco
Tagliapietra, Luca J
Venturelli, Luca
Vittorini, Tommaso
Accelerator Physics
High Energy Physics - Experiment
Nuclear Experiment
The interaction of a high-current $O$(100~\textmu A), medium energy $O$(10\,GeV) electron beam with a thick target $O$(1m) produces an overwhelming shower of standard matter particles in addition to hypothetical Light Dark Matter particles. While most of the radiation (gamma, electron/positron, and neutron) is contained in the thick target, deep penetrating particles (muons, neutrinos, and light dark matter particles) propagate over a long distance, producing high-intense secondary beams. Using sophisticated Monte Carlo simulations based on FLUKA and GEANT4, we explored the characteristics of secondary muons and neutrinos and (hypothetical) dark scalar particles produced by the interaction of Jefferson Lab 11 GeV intense electron beam with the experimental Hall-A beam dump. Considering the possible beam energy upgrade, this study was repeated for a 20 GeV CEBAF beam.
title Secondary beams at high-intensity electron accelerator facilities
topic Accelerator Physics
High Energy Physics - Experiment
Nuclear Experiment
url https://arxiv.org/abs/2311.08440