Experimental setup (scenario 5): Muon data used in this work has been collected with our muon detection system. This muon monitoring system is currently in use for both scientific and industrial purposes (Martínez-Ruiz del Árbol et al., 2022). The particle detectors are composed of four Multi-Wire Proportional Chambers (MWPC) and each chamber has two layers with 224 detection wires, all of them separated by 4 mm. The two layers form a two-dimensional grid of wires which covers an area of 89.6 x 89.6 cm and detects the positions where muons cross it. When a muon event is identified, our system detects four points located in the horizontal two-dimensional grids, two points before the particle goes through the target and another two points ...
The IceCube project has transformed 1 km3 of deep natural Antarctic ice into a Cherenkov detector. M...
The IceCube project has transformed 1 km3 of deep natural Antarctic ice into a Cherenkov detector. ...
The IceTop and IceCube detectors at the South Pole provide the opportunity to simultaneously measure...
International audienceIn the past years, large particle-physics experiments have shown that muon rat...
International audienceIn the past years, large particle-physics experiments have shown that muon rat...
Monitoring the snow water equivalent (SWE) in the harsh environments of high mountain regions is a c...
International audienceIn this paper the impact of the muon radial ionization profile on Single-Event...
Sensitivity to ultra-high-energy neutrinos (E > 17 eV) can be obtained cost-efficiently by exploi...
AbstractLebedev Physical Institute (LPI RAS) and Skobeltsyn Institute of Nuclear Physics MSU (SINP M...
The IceCube Detector is located 1.5 km to 2.5 km under the ice at the geographic South Pole. Its ins...
International audienceIn the past years, large particle‐physics experiments have shown that muon rat...
We present the measurement of the density of GeV muons in near-vertical air showers by the IceTop ar...
Cosmic ray muons can be used to image the interior of geological sites provided that one employs det...
The IceCube project has transformed 1 km3 of deep natural Antarctic ice into a Cherenkov detector. M...
The IceCube project has transformed 1 km3 of deep natural Antarctic ice into a Cherenkov detector. ...
The IceTop and IceCube detectors at the South Pole provide the opportunity to simultaneously measure...
International audienceIn the past years, large particle-physics experiments have shown that muon rat...
International audienceIn the past years, large particle-physics experiments have shown that muon rat...
Monitoring the snow water equivalent (SWE) in the harsh environments of high mountain regions is a c...
International audienceIn this paper the impact of the muon radial ionization profile on Single-Event...
Sensitivity to ultra-high-energy neutrinos (E > 17 eV) can be obtained cost-efficiently by exploi...
AbstractLebedev Physical Institute (LPI RAS) and Skobeltsyn Institute of Nuclear Physics MSU (SINP M...
The IceCube Detector is located 1.5 km to 2.5 km under the ice at the geographic South Pole. Its ins...
International audienceIn the past years, large particle‐physics experiments have shown that muon rat...
We present the measurement of the density of GeV muons in near-vertical air showers by the IceTop ar...
Cosmic ray muons can be used to image the interior of geological sites provided that one employs det...
The IceCube project has transformed 1 km3 of deep natural Antarctic ice into a Cherenkov detector. M...
The IceCube project has transformed 1 km3 of deep natural Antarctic ice into a Cherenkov detector. ...
The IceTop and IceCube detectors at the South Pole provide the opportunity to simultaneously measure...