Neutron attenuation in some polymer composite material

被引:9
作者
Cherkashina, N. I. [1 ]
Pavlenko, V. I. [1 ]
Shkaplerov, A. N. [2 ]
Kuritsyn, A. A. [2 ]
Sidelnikov, R. V. [1 ]
Popova, E. V. [2 ]
Umnova, L. A. [2 ]
Domarev, S. N. [1 ]
机构
[1] Belgorod State Technol Univ, Kostyukov Str 46, Belgorod 308012, Russia
[2] Yu A Gagarin Res & Test Cosmonaut Training Ctr, Moscow, Russia
关键词
Cosmic radiation; Radiation protection; Composite material; Radiation resistance; Absorbed dose; SHIELDING PROPERTIES;
D O I
10.1016/j.asr.2023.12.003
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
The scientific paper presents studies of the radiation-protective features of a polymer composite material for protection against space radiation based on poly-tetra-fluoro-ethylene, Bi2O3 bismuth oxide, WC tungsten carbide, B4C boron carbide, TiH1.7 titanium hydride shot. The composite provides for a high degree of protection against ionizing radiation, including protection against exposure to secondary neutrons: macroscopic fast neutrons removal cross-section (E > 2 MeV) 0.1331-0.1414 cm(-1), thermal-velocity neutrons removal cross-section (E < 0.4 eV), cm(-1) 0.1183-0.1257 cm(-1). A shield made of the tailored composition of the proposed 6 cm thick polymer composite attenuates the intensity of neutron radiation by more than 50 % at energies from 0.1 to 5 MeV, in particular, the greatest attenuation of the neutron radiation intensity occurs at an energy of 0.1 MeV with a sharp increase in attenuation when passing through a 2 cm thick shield and complete absorption occurs passing through a 6 cm thick shield. This material can be used to protect astronauts and radio-electronic equipment from the effects of adverse or harmful space factors, including exposure to secondary neutrons, and this material can also be used to protect crews of ships with mobile nuclear reactors such as atomic submarines and nuclear-powered icebreakers.
引用
收藏
页码:2638 / 2651
页数:14
相关论文
共 51 条
[1]  
Abdulrahman S T., 2020, Micro and Nanostructured Composite Materials for Neutron Shielding Applications, P1, DOI DOI 10.1016/B978-0-12-819459-1.00001-5
[2]   Structure and thermophysical properties of polytetrafluoroethylene-aluminum composite materials produced by explosive pressing [J].
Adamenko, N. A. ;
Kazurov, A. V. ;
Savin, D. V. ;
Agafonova, G. V. .
IX INTERNATIONAL MULTIDISCIPLINARY SCIENTIFIC AND RESEARCH CONFERENCE MODERN ISSUES IN SCIENCE AND TECHNOLOGY / WORKSHOP ADVANCED TECHNOLOGIES IN AEROSPACE, MECHANICAL AND AUTOMATION ENGINEERING, 2018, 450
[3]  
Akopova A.B., 1992, Space Research, V30, P243
[4]   Investigation on Concrete Neutron Shielding Properties Filled by B4C, CdO, and BN Microparticles [J].
Alipour, Meysam ;
Saadi, Mohsen Kheradmand ;
Rohani, Ali Akbar .
MOSCOW UNIVERSITY PHYSICS BULLETIN, 2019, 74 (06) :608-613
[5]   Nuclear shielding properties of Ni-, Fe-, Pb-, and W-based alloys [J].
Alzahrani, Jamila S. ;
Alrowaili, Z. A. ;
Eke, Canel ;
Mahmoud, Zakaria M. M. ;
Mutuwong, C. ;
Al-Buriahi, M. S. .
RADIATION PHYSICS AND CHEMISTRY, 2022, 195
[6]   High alloyed new stainless steel shielding material for gamma and fast neutron radiation [J].
Aygun, Bunyamin .
NUCLEAR ENGINEERING AND TECHNOLOGY, 2020, 52 (03) :647-653
[7]   Radiation shielding properties of poly (methyl methacrylate)/colemanite composite for the use in mixed irradiation fields of neutrons and gamma rays [J].
Bel, Tayfun ;
Arslan, Cuneyt ;
Baydogan, Nilgun .
MATERIALS CHEMISTRY AND PHYSICS, 2019, 221 :58-67
[8]   Effect of particle size of mineral fillers on polymer-matrix composite shielding materials against ionizing electromagnetic radiation [J].
Belgin, E. Eren ;
Aycik, G. A. .
JOURNAL OF RADIOANALYTICAL AND NUCLEAR CHEMISTRY, 2017, 311 (03) :1953-1961
[9]   Monte Carlo studies on neutron interactions in radiobiological experiments [J].
Beni, Mehrdad Shahmohammadi ;
Hau, Tak Cheong ;
Krstic, D. ;
Nikezic, D. ;
Yu, K. N. .
PLOS ONE, 2017, 12 (07)
[10]   Neutron dosimetry in low-earth orbit using passive detectors [J].
Benton, ER ;
Benton, EV ;
Frank, AL .
RADIATION MEASUREMENTS, 2001, 33 (03) :255-263