The Charged Particle Detection System of the SRD Module onboard the China Space Station

被引:0
|
作者
Jin, Wen [1 ]
Wei, Wenshan [1 ]
Chen, Lian [2 ]
Wen, Wanxin [3 ]
Jin, Ge [1 ,4 ]
机构
[1] Univ Sci & Technol China, State Key Lab Particle Detect & Elect, Hefei 230026, Peoples R China
[2] Lanzhou Univ, Sch Nucl Sci & Technol, Lanzhou 730000, Gansu, Peoples R China
[3] Soochow Univ, Sch Radiat Med & Protect, Suzhou 215123, Peoples R China
[4] Hefei Natl Lab, Hefei, Peoples R China
关键词
Radiation environment; Particle identification; Delta E-E detector; LET; Dose rate; Readout electronics; RADIATION-DOSIMETRY; EXPLORATION; MISSIONS;
D O I
10.1016/j.nima.2024.169463
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
The radiation field environment outside the Earth varies greatly with space location and the cycle of solar activity, and the radiation environment near the space station's orbit is much more complex than that on the Earth's surface. Various high-energy cosmic ray particles and secondary particles produced by them and the bulkhead of the space station greatly impact the health of astronauts and the working conditions of instruments. Each aircraft is always equipped with some dedicated radiation monitoring instruments to assess the exposure risk for astronauts, and to analyze the causes of instrument failures. The Space Radiation Detector Module (SRDM) is working in the China Space Station (CSS) to measure the radiation environment inside, including two parts: the Charged Particle Detection System (CPDS) and the Neutron Detection System (NDS). The CPDS, which is the main content of this paper, contains a detector unit, that consists of three silicon detectors a BGO calorimeter, and the corresponding readout electronics unit of the detector unit. Ground test results show that the detection system can detect various charged particles from hydrogen to nitrogen ions with an energy resolution of less than 15%. The actual measurement results for a period in orbit show that the main types of charged particles in the cabin are protons and alpha particles, with measured energies ranging from 0.8 to 265.2 MeV for protons and from 1.0 to 61.6 MeV/A for alpha particles(where A is the mass number), and linear energy density (LET) range mainly from 1.0 to 612.4 keV/mu m. The radiation environment data measured in CSS can provide an important reference value for the exposure risk, life science experiments, and the status of instruments on board.
引用
收藏
页数:8
相关论文
共 50 条
  • [41] Space station freedom electric power system photovoltaic power module integrated launch package
    Nathanson, T.
    Clemens, D.
    Spatz, R.
    Kirch, L.
    Collection of Technical Papers - AIAA/ASME Structures, Structural Dynamics and Materials Conference, 1990,
  • [42] An early warning system for payloads’ operations in the European International Space Station (ISS) Columbus module
    A. Bade
    E. Wolf
    H. Lühdorff
    F. Annaloro
    M. Ferrino
    CEAS Space Journal, 2019, 11 : 247 - 254
  • [44] Performance of Laser Time-Frequency Transfer System in China Space Station
    Wu, Zhibo
    Geng, Renfang
    Tang, Kai
    Meng, Wendong
    Zhang, Haifeng
    Cheng, Zhien
    Xiao, Aimin
    Gao, Shuaihe
    Wang, Xiao
    Huang, Yong
    Zhang, Zhongping
    ACTA OPTICA SINICA, 2025, 45 (06)
  • [45] China Successfully Tested Propulsion System of Space Station's Lab Capsules
    SUO Xuan
    Aerospace China, 2018, (03) : 61 - 61
  • [46] Test Method for SADA's Servo Control System of China Space Station
    Zhao, Zhen
    Chen, Guoping
    Zhao, Then
    Wang, Bi
    2019 IEEE 10TH INTERNATIONAL CONFERENCE ON MECHANICAL AND AEROSPACE ENGINEERING (ICMAE 2019), 2019, : 297 - 301
  • [47] Proposal of Intelligent Inventory System for Space Station with IC Tag - Near Real-Time Onboard Inventory Management
    Shimada, Kazuhito
    Fujii, Yusaku
    ADVANCES IN PRECISION INSTRUMENTATION AND MEASUREMENT, 2012, 103 : 68 - +
  • [48] The 8πLP project at LNL:: a 4π light charged particle detection system
    Cinausero, M
    Fioretto, E
    Prete, G
    Brondi, A
    La Rana, G
    Moro, R
    Ordine, A
    Vardaci, E
    Boiano, A
    Fabris, D
    Nebbia, G
    Viesti, G
    Caldogno, M
    Lunardon, M
    Blasi, P
    Gelli, N
    Lucarelli, F
    NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION A-ACCELERATORS SPECTROMETERS DETECTORS AND ASSOCIATED EQUIPMENT, 1998, 409 (1-3): : 432 - 433
  • [49] Test of the photon detection system for the LHCb RICH Upgrade in a charged particle beam
    Baszczyk, M. K.
    Benettoni, M.
    Calabrese, R.
    Cardinale, R.
    Carniti, P.
    Cassina, L.
    Cavallero, G.
    Cojocariu, L.
    Ramusino, A. Cotta
    D'Ambrosio, C.
    Dorosz, P. A.
    Easo, S.
    Eisenhardt, S.
    Fiorini, M.
    Frei, C.
    Gambetta, S.
    Gibson, V.
    Gotti, C.
    Harnew, N.
    He, J.
    Keizer, F.
    Kucewicz, W.
    Maciuc, F.
    Maino, M.
    Malaguti, R.
    Matteuzzi, C.
    McCann, M.
    Morris, A.
    Muheim, F.
    Papanestis, A.
    Pessina, G.
    Petrolini, A.
    Piedigrossi, D.
    Pistone, A.
    Placinta, V. M.
    Sigurdsson, S.
    Simi, G.
    Smith, J.
    Spradlin, P.
    Tomassetti, L.
    Wotton, S. A.
    JOURNAL OF INSTRUMENTATION, 2017, 12
  • [50] Analytical calculation of space charge aberrations in an imaging system of a charged particle optical column
    Jiang, Xinrong
    Kruit, P.
    Guangzi Xuebao/Acta Photonica Sinica, 1996, 25 (06):