DOI: 10.57760/sciencedb.space.03519
title: testing data of CE7 MEPD
title: 嫦娥七号中能质子探测器测试数据

description: Geometric factor related data: geometry of down.txt, geometry of up.txt. Calculated by GEANT4 simulation, the first line represents the number of energy levels, and the second line represents the geometric factor values. Energy Scale Data: Medium Energy Proton Direction 1 Linear_1 Roads.txt, Medium Energy Proton Direction 1 Linear_2 Roads.txt, Medium Energy Proton Direction 2 Linear_1 Roads.txt, Medium Energy Proton Direction 2 Linear_2 Roads.txt. Obtained from the calibration of Huairou Electron Accelerator and the proton calibration of Xinjiang Institute of Physics and Chemistry, the first column represents the ADC value, and the second column represents the particle deposition energy keV. Proton electron equivalent energy: proton electron equivalent energy. txt, the first line represents the electron incident energy keV, and the second line represents the proton incident energy keV The mapping relationship between the incident energy and deposition energy of protons and electrons in the instrument: Comparison of deposition energy and incident energy in electronic. txt, and comparison of deposition energy and incident energy in proton. txt. According to GEANT4 simulation, the first row shows the incident particle energy keV, and the second row shows the deposition energy keV. The variation of deposition energy when protons are incident at different angles: the deposition energy of protons at different incident energies is 0deg. txt, the deposition energy of protons at different incident energies is 5deg. txt, the deposition energy of protons at different incident energies is 10deg. txt, and the deposition energy of protons at different incident energies is 20deg. txt. The first row is the incident particle energy keV, and the second row is the deposition energy keV, obtained by GEANT4 simulation. The deviation of deposition energy when protons are incident at different angles: the deposition energy deviation of protons at different incident energies is 5deg. txt, the deposition energy deviation of protons at different incident energies is 10deg. txt, and the deposition energy deviation of protons at different incident energies is 20deg. txt. The first line represents the incident particle energy keV, and the second line represents the proportion of deposition energy deviation obtained from GEANT4 simulation. The response of particles with different energies in the first amplification circuit: e-xxkeV_first path.txt, where xx is the electron energy. The first column is the ADC value of the deposited signal, and the second column is the normalized count. Electron Accelerator Obtained The response of particles with different energy levels in the second amplification circuit: MxxkeV_ first path. txt, where M is the particle type and xx is the electron energy. The first column is the ADC value of the deposited signal, and the second column is the normalized count. Electron accelerator and Xinjiang proton accelerator obtained 
description: Geometric factor related data: geometry of down.txt, geometry of up.txt. Calculated by GEANT4 simulation, the first line represents the number of energy levels, and the second line represents the geometric factor values. Energy Scale Data: Medium Energy Proton Direction 1 Linear_1 Roads.txt, Medium Energy Proton Direction 1 Linear_2 Roads.txt, Medium Energy Proton Direction 2 Linear_1 Roads.txt, Medium Energy Proton Direction 2 Linear_2 Roads.txt. Obtained from the calibration of Huairou Electron Accelerator and the proton calibration of Xinjiang Institute of Physics and Chemistry, the first column represents the ADC value, and the second column represents the particle deposition energy keV. Proton electron equivalent energy: proton electron equivalent energy. txt, the first line represents the electron incident energy keV, and the second line represents the proton incident energy keV The mapping relationship between the incident energy and deposition energy of protons and electrons in the instrument: Comparison of deposition energy and incident energy in electronic. txt, and comparison of deposition energy and incident energy in proton. txt. According to GEANT4 simulation, the first row shows the incident particle energy keV, and the second row shows the deposition energy keV. The variation of deposition energy when protons are incident at different angles: the deposition energy of protons at different incident energies is 0deg. txt, the deposition energy of protons at different incident energies is 5deg. txt, the deposition energy of protons at different incident energies is 10deg. txt, and the deposition energy of protons at different incident energies is 20deg. txt. The first row is the incident particle energy keV, and the second row is the deposition energy keV, obtained by GEANT4 simulation. The deviation of deposition energy when protons are incident at different angles: the deposition energy deviation of protons at different incident energies is 5deg. txt, the deposition energy deviation of protons at different incident energies is 10deg. txt, and the deposition energy deviation of protons at different incident energies is 20deg. txt. The first line represents the incident particle energy keV, and the second line represents the proportion of deposition energy deviation obtained from GEANT4 simulation. The response of particles with different energies in the first amplification circuit: e-xxkeV_first path.txt, where xx is the electron energy. The first column is the ADC value of the deposited signal, and the second column is the normalized count. Electron Accelerator Obtained The response of particles with different energy levels in the second amplification circuit: MxxkeV_ first path. txt, where M is the particle type and xx is the electron energy. The first column is the ADC value of the deposited signal, and the second column is the normalized count. Electron accelerator and Xinjiang proton accelerator obtained