Determining age of high-explosive to support nuclear warhead dismantlement verification

被引:3
作者
Huang Meng [1 ]
Zhu Jianyu [2 ]
Wu Jun [2 ]
Li Rui [3 ]
机构
[1] Inst Appl Phys & Computat Math, Beijing 100094, Peoples R China
[2] China Acad Engn Phys, Ctr Strateg Studies, Beijing 100088, Peoples R China
[3] China Acad Engn Phys, Software Ctr High Performance Numer Simulat, Beijing 100088, Peoples R China
关键词
Nuclear warhead dismantlement; Source authentication of explosive; Monte Carlo simulation; C-14; abundance;
D O I
10.1016/j.apradiso.2018.10.010
中图分类号
O61 [无机化学];
学科分类号
070301 ; 081704 ;
摘要
The future international nuclear disarmament may involve the dismantlement of nuclear warheads. After the dismantlement of a nuclear warhead, the separated explosive needs authentication that it comes from the dismantled nuclear warhead. In this paper, the Monte Carlo numerical simulation method was used to study the feasibility and result of determining the source of the explosive by analyzing the nuclide abundances of the explosive and determining the age of the explosive (calculated since the explosive was placed in the nuclear warhead). First, the JMCT software was used to analyze the nuclei produced by the neutron reactions in the explosive of the nuclear warhead. As a result, it was found that C-14 is the most promising to be used to determine the source of the explosive. Second, the relationships between the average abundance of C-14 and the age of the explosive, the spatial distribution of the C-14 abundance in the explosive were calculated by using the JMCT software. Finally, it is found that, compared to the WgPu warheads (nuclear warheads with weapons-grade plutonium cores), the C-14 abundances of the explosives of the WgU warheads (nuclear warheads with weapons grade uranium cores) are much lower (the ages of the explosives are the same), and it is more difficult to measure the latter; for the WgPu warheads with the structures based on Model 3 and Model 4 (the warhead models employed were proposed by Steve Fetter), it can be determined that whether the separated explosives come from the dismantled nuclear warheads or are common ones (or the fake ones prepared by the verified party) after the dismantlement of the nuclear warheads by measuring the C-14 abundances in the explosives (including the average abundances and the spatial distributions of the abundances) and determining the ages of the explosives, which realizes the source authentication of the explosives.
引用
收藏
页码:11 / 17
页数:7
相关论文
共 24 条
[1]   GEANT4-a simulation toolkit [J].
Agostinelli, S ;
Allison, J ;
Amako, K ;
Apostolakis, J ;
Araujo, H ;
Arce, P ;
Asai, M ;
Axen, D ;
Banerjee, S ;
Barrand, G ;
Behner, F ;
Bellagamba, L ;
Boudreau, J ;
Broglia, L ;
Brunengo, A ;
Burkhardt, H ;
Chauvie, S ;
Chuma, J ;
Chytracek, R ;
Cooperman, G ;
Cosmo, G ;
Degtyarenko, P ;
Dell'Acqua, A ;
Depaola, G ;
Dietrich, D ;
Enami, R ;
Feliciello, A ;
Ferguson, C ;
Fesefeldt, H ;
Folger, G ;
Foppiano, F ;
Forti, A ;
Garelli, S ;
Giani, S ;
Giannitrapani, R ;
Gibin, D ;
Cadenas, JJG ;
González, I ;
Abril, GG ;
Greeniaus, G ;
Greiner, W ;
Grichine, V ;
Grossheim, A ;
Guatelli, S ;
Gumplinger, P ;
Hamatsu, R ;
Hashimoto, K ;
Hasui, H ;
Heikkinen, A ;
Howard, A .
NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION A-ACCELERATORS SPECTROMETERS DETECTORS AND ASSOCIATED EQUIPMENT, 2003, 506 (03) :250-303
[2]   Geant4 developments and applications [J].
Allison, J ;
Amako, K ;
Apostolakis, J ;
Araujo, H ;
Dubois, PA ;
Asai, M ;
Barrand, G ;
Capra, R ;
Chauvie, S ;
Chytracek, R ;
Cirrone, GAP ;
Cooperman, G ;
Cosmo, G ;
Cuttone, G ;
Daquino, GG ;
Donszelmann, M ;
Dressel, M ;
Folger, G ;
Foppiano, F ;
Generowicz, J ;
Grichine, V ;
Guatelli, S ;
Gumplinger, P ;
Heikkinen, A ;
Hrivnacova, I ;
Howard, A ;
Incerti, S ;
Ivanchenko, V ;
Johnson, T ;
Jones, F ;
Koi, T ;
Kokoulin, R ;
Kossov, M ;
Kurashige, H ;
Lara, V ;
Larsson, S ;
Lei, F ;
Link, O ;
Longo, F ;
Maire, M ;
Mantero, A ;
Mascialino, B ;
McLaren, I ;
Lorenzo, PM ;
Minamimoto, K ;
Murakami, K ;
Nieminen, P ;
Pandola, L ;
Parlati, S ;
Peralta, L .
IEEE TRANSACTIONS ON NUCLEAR SCIENCE, 2006, 53 (01) :270-278
[3]  
Deming L.I., 1999, WORLD SCI, V9, P25
[4]  
[邓力 Deng Li], 2014, [原子能科学技术, Atomic Energy Science and Technology], V48, P1061
[5]  
Dong Ke-Jun, 2006, Wuli, V35, P508
[6]  
Fetter S., 1993, Science Global Security, V3, P237, DOI [https://doi.org/10.1080/08929889308426386, DOI 10.1080/08929889308426386]
[7]  
Fetter Steve., 1990, Science and Global Security, V1, P225, DOI [DOI 10.1080/08929889008426333, http://dx.doi.org/10.1080/08929889008426333]
[8]   Nuclear Archaeology for Heavy-Water-Moderated Plutonium Production Reactors [J].
Gasner, Alex ;
Glaser, Alexander .
SCIENCE & GLOBAL SECURITY, 2011, 19 (03) :223-233
[9]   A zero-knowledge protocol for nuclear warhead verification [J].
Glaser, Alexander ;
Barak, Boaz ;
Goldston, Robert J. .
NATURE, 2014, 510 (7506) :497-502
[10]  
Hauck D. K, 2013, BENEFITS PRESENCE FI