Automated Comparison of X-Ray Images for Cargo Scanning

被引:0
作者
Visser, Wicher [1 ]
Schwaninger, Adrian [1 ,2 ]
Hardmeier, Diana [1 ]
Flisch, Alexander [3 ]
Costin, Marius [4 ]
Vienne, Caroline [4 ]
Sukowski, Frank [5 ]
Hassler, Ulf [5 ]
Dorion, Irene [6 ]
Marciano, Abraham
Koomen, Ger [7 ]
Slegt, Micha [7 ]
Canonica, Andrea Cesare [8 ]
机构
[1] Ctr Adapt Secur Res & Applicat, CH-8050 Zurich, Switzerland
[2] Univ Appl Sci & Arts Northwestern Switzerland, Sch Appl Psychol, CH-4600 Olten, Switzerland
[3] Swiss Fed Labs Mat Sci & Technol EMPA, Ctr Xray Analyt, CH-8600 Dubendorf, Switzerland
[4] CEA, LIST, Dept Imaging & Simulat Nondestruct Testing, F-91191 Gif Sur Yvette, France
[5] Fraunhofer Inst Integrated Circuits IIS, Dev Ctr Xray Technol EZRT, D-90768 Furth, Germany
[6] Smiths Detect SH, F-94405 Vitry Sur Seine, France
[7] Dutch Tax & Customs Adm, Dutch Customs Lab, NL-6401 Heerlen, Netherlands
[8] Swiss Fed Customs Adm FCA, CH-3003 Bern, Switzerland
来源
2016 IEEE INTERNATIONAL CARNAHAN CONFERENCE ON SECURITY TECHNOLOGY (ICCST) | 2016年
基金
欧盟第七框架计划;
关键词
Customs border control; cargo inspection; security screening; X-ray screening; automated target recognition; X-ray image analysis; image standardization; simulation; computer-based training; COMPETENCE;
D O I
暂无
中图分类号
TP301 [理论、方法];
学科分类号
081202 ;
摘要
Customs administrations are responsible for the enforcement of fiscal integrity and security of movements of goods across land and sea borders. In order to verify whether the transported goods match the transport declaration, X-ray imaging of containers is used at many customs site worldwide. The main objective of the research and development project "Automated Comparison of X-ray Images for Cargo Scanning (ACXIS)", which is funded by the European 7th Framework Program, is to improve the efficiency and effectiveness of the inspection procedures of cargo at customs using X-ray technology. The current inspection procedures are reviewed to identify risks, catalogue illegal cargo, and prioritize detection scenarios. Based on these results, we propose an integrated solution that provides automation, information exchange between customs administrations, and computer-based training modules for customs officers. Automated target recognition (ATR) functions analyze the X-ray image after a scan is made to detect certain types of goods such as cigarettes, weapons and drugs in the freight or container. Other helpful information can also be provided, such as the load homogeneity, total or partial weight, or the number of similar items. The ATR functions are provided as an option to the user. The X-ray image is transformed into a manufacturerindependent format through geometrical and spectral corrections and stored into a database along with the user feedback and other related data. This information can be exchanged with similar systems at other sites, thus facilitating information exchange between customs administrations. The database is seeded with over 30' 000 examples of legitimate and illegal goods. These examples are used by the ATR functions through machine learning techniques, which are further strengthened by the information exchange. In order to improve X-ray image interpretation competency of human operators (customs officers), a computer-based training software is developed that simulates these new inspection procedures. A study is carried out to validate the effectiveness and efficiency of the computer-based training as well as the implemented procedures. Officers from the Dutch and Swiss Customs administrations partake in the study, covering both land and sea borders.
引用
收藏
页码:263 / 270
页数:8
相关论文
共 50 条
[41]   Simulating dark-field X-ray microscopy images with wavefront propagation techniques [J].
Carlsen, Mads ;
Detlefs, Carsten ;
Yildirim, Can ;
Raeder, Trygve ;
Simons, Hugh .
ACTA CRYSTALLOGRAPHICA A-FOUNDATION AND ADVANCES, 2022, 78 :482-490
[42]   Increasing the Number of Material Recognition Classes in Cargo Inspection Using the X-Ray Dual High-Energy Method [J].
Osipov, Sergey ;
Chakhlov, Sergei ;
Usachev, Eugeny .
COMPUTATION, 2025, 13 (02)
[43]   Prediction of board values in Pinus sylvestris sawlogs using x-ray scanning and optical three-dimensional scanning of stems [J].
Nordmark, U ;
Oja, J .
SCANDINAVIAN JOURNAL OF FOREST RESEARCH, 2004, 19 (05) :473-480
[44]   Convolutional neural network framework for the automated analysis of transition metal X-ray photoelectron spectra [J].
Pielsticker, Lukas ;
Nicholls, Rachel L. ;
DeBeer, Serena ;
Greiner, Mark .
ANALYTICA CHIMICA ACTA, 2023, 1271
[45]   Coherent X-ray Imaging [J].
Salditt, Tim ;
Robisch, Anna-Lena .
NANOSCALE PHOTONIC IMAGING, 2020, 134 :35-70
[46]   Registration of phase-contrast images in propagation-based X-ray phase tomography [J].
Weber, L. ;
Haensch, A. ;
Wolfram, U. ;
Pacureanu, A. ;
Cloetens, P. ;
Peyrin, F. ;
Rit, S. ;
Langer, M. .
JOURNAL OF MICROSCOPY, 2018, 269 (01) :36-47
[47]   Conversion of mammographic images to appear with the noise and sharpness characteristics of a different detector and x-ray system [J].
Mackenzie, Alistair ;
Dance, David R. ;
Workman, Adam ;
Yip, Mary ;
Wells, Kevin ;
Young, Kenneth C. .
MEDICAL PHYSICS, 2012, 39 (05) :2721-2734
[48]   Calibration of the x-ray CCD camera (XIS) for the ASTRO-E in the soft x-ray band [J].
Katayama, H ;
Shouho, M ;
Kohmura, T ;
Katayama, K ;
Ohta, M ;
Tsunemi, H ;
Kitamoto, S ;
Hayashida, K ;
Miyata, E ;
Yoshita, K ;
Koyama, K ;
Ricker, G ;
Bautz, MW ;
Foster, R ;
Kissel, S ;
Doty, J .
EUV, X-RAY, AND GAMMA-RAY INSTRUMENTATION FOR ASTRONOMY X, 1999, 3765 :721-728
[49]   Characterization of InGaN/GaN and AlGaN/GaN superlattices by X-ray diffraction and X-ray reflectivity measurements [J].
Sintonen, S. ;
Suihkonen, S. ;
Svensk, O. ;
Torma, P. T. ;
Ali, M. ;
Sopanen, M. ;
Lipsanen, H. .
PHYSICA STATUS SOLIDI C: CURRENT TOPICS IN SOLID STATE PHYSICS, VOL 7, NO 7-8, 2010, 7 (7-8)
[50]   An optimal design of X-ray target for uniform X-ray emission from an electronic brachytherapy system [J].
Ihsan, Aamir ;
Heo, Sung Hwan ;
Kim, Hyun Jin ;
Kang, Chang Mu ;
Cho, Sung Oh .
NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION B-BEAM INTERACTIONS WITH MATERIALS AND ATOMS, 2011, 269 (10) :1053-1057