用漂移室探测特殊核材料的宇宙射线介子层析成像系统

V. Anghel, J. Armitage, J. Botte, K. Boudjemline, D. Bryman, E. Charles, T. Cousins, A. Erlandson, G. Gallant, C. Jewett, G. Jonkmans, Z. Liu, S. Noel, G. Oakham, T. Stocki, M. Thompson, D. Waller
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引用次数: 16

摘要

走私非法特殊核材料和放射性材料是一个重大的安全问题。目前用于货物的辐射探测系统对屏蔽良好的核材料不敏感。我们正在开发的μ子散射层析成像(MST)方法可能是解决这一问题的一种方法。它是基于对宇宙射线诱导的μ子的多次散射的测量,这些μ子穿过铀和钚等高z物质。这是可能的,因为μ子具有高度穿透性。这项技术包括用放置在被探测物体周围的带电粒子跟踪探测器来测量这些μ子的角偏转。一个候选探测器是单线漂移室。它可以测量一个μ子的二维撞击位置。CRIPT(宇宙射线检测和被动断层扫描)合作对设计用于通过MST检测SNM的探测器进行了计算机模拟。我们还开发了图像重建算法,并模拟了不同设计的μ子光谱仪的性能和漂移室的响应。除了这些努力之外,合作还建立了三个正在测试的原型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cosmic ray muon tomography system using drift chambers for the detection of Special Nuclear Materials
The smuggling of illicit Special Nuclear Materials (SNM) and Radiological Materials (RM) is a major security concern. Current radiation detection systems for cargo are not sensitive to well-shielded nuclear materials. The Muon Scattering Tomography (MST) method that we are developing might be a solution to this problem. It is based on the measurement of multiple scattering of cosmic ray-induced muons, traversing high-Z materials such as uranium and plutonium. This is possible due to the muons' highly penetrating nature. The technique involves measuring the angular deflections of these muons with charged particle tracking detectors placed around the object to be probed. One candidate detector is the single wire drift chamber. It can measure the 2-D impact position of a muon. The CRIPT (Cosmic Ray Inspection and Passive Tomography) collaboration has performed computer simulations of detectors designed to detect SNM via MST. We have also worked on the development of image reconstruction algorithms, and simulated the performances of different muon spectrometer designs and the response of the drift chambers. In addition to these efforts, the collaboration has built three prototypes which are being tested.
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