Design and simulation of a muon detector to characterize geological overburden
Abstract
This study presents the design, construction, and simulation of a mobile muon detector tailored for geological overburden characterization. The detector employs plastic scintillator paddles with silicon photomultipliers (SiPMs) and a QuarkNet data acquisition system, offering a portable solution suitable for remote field deployment. The simulator’s modular aluminum frame allows for adjustable geometry and directional sensitivity, while its battery system supports over a week of autonomous operation. Preliminary experimental tests confirmed that its muon flux measurements were consistent with theoretical expectations. A comprehensive simulation framework using Geant4 and CORSIKA was developed to model detector response and overburden effects. Analytical and Monte Carlo methods were used to assess quadrant resolution and infer muon directionality. This work lays the foundation for future overburden mapping and supports the development of reconstruction algorithms for geological applications.
Article Details
Journal Info
Journal of Applied Physics
American Institute of Physics
Authors (7)
S. C. Tognini
Oak Ridge National Laboratory 1 , Oak Ridge, Tennessee 37831,
H. R. Gadey
Idaho National Laboratory 2 , Idaho Falls, Idaho 83415,
K. Deisenroth
Department of Physics, University at Buffalo 3 , Buffalo, New York 14260,
J. Bae
D. Byram
Pacific Northwest National Laboratory 4 , Richland, Washington 99354,
J. Hargraves
Pacific Northwest National Laboratory 4 , Richland, Washington 99354,
R. Cumberland
Oak Ridge National Laboratory 1 , Oak Ridge, Tennessee 37831,