2. It is necessary to download the file containing the particle flux (https://drive.google.com/file/d/16BHZksUYniZ5w_Vg9jZYT5K5iQEjy4jt/view) and add it to the folder where all the simulation files are located.
2. It is necessary to download the file containing the particle flux (https://drive.google.com/file/d/16BHZksUYniZ5w_Vg9jZYT5K5iQEjy4jt/view)
and add it to the folder where all the simulation files are located.
3. Create a folder (e.g., build). Execute 'cmake ..' and then 'make' in the created folder to load and compile the files.
3. Create a folder (e.g., build). Execute 'cmake ..' and then 'make' in the created folder to load and
compile the files.
4. Copy the input.in file to the build folder.
5. The simulation may be run in the build folder using the command ./sim -m input.in.
6. The 'construction.cc' file contains the most important part, which is the construction of the atmosphere and the detector. This file is commented with the lines that are considered important. Any changes to the atmosphere or the detector should be made by modifying this file.
6. The 'construction.cc' file contains the most important part, which is the construction of the atmosphere
and the detector. This file is commented with the lines that are considered important. Any changes to the
atmosphere or the detector should be made by modifying this file.
7. The 'detector.cc' file contains instructions for storing particle information in a file named 'allparticles.dat'. Currently, 'allparticles.dat' stores the particle type, momentum, and position in the detector.
7. The 'detector.cc' file contains instructions for storing particle information in a file named
'allparticles.dat'. Currently, 'allparticles.dat' stores the particle type, momentum, and position in the
