Trace explosives detection for finding landmines

被引:4
|
作者
Desilets, S [1 ]
Haley, LV [1 ]
Thekkadath, U [1 ]
机构
[1] Def Res Estab Valcartier, Val Belair, PQ G3J 1X5, Canada
关键词
mine detection; explosive detector; gas detectors; ion mobility; soil analyzer; explosive; trace explosive; trace explosive detection; soil; analysis;
D O I
10.1117/12.324218
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Trace Explosive Detectors (TED) technologies have been investigated as a means of confirming the presence of a landmine at a given location. A field trial was performed with a landmine detector prototype based on Ion Mobility Spectrometry. The system was based on the detection of the explosives in soil and had a detection limit of 0.4 ppb w/w for TNT and 7.4 ppb why for RDX. The minefield was composed of 51 sites on wich the detector performance was evaluated. For most freshly buried sites it was found that the level of explosive was below the detection limit of the prototype. In addition, a quantitative analysis of the residual explosive transfer to the soil by hands was performed. Results showed that the level transfered by hands was in most cases below 0.1 ppb for TNT and at 0.8 ppb w/w or below for RDX. However, it was found that the explosive level contained in the soil increased with time to a level around 2-8 ppb w/w for TNT, ten month after the landmine burial. These rough tests have yielded some preliminary results concerning the level of explosives detectable after the burial of landmines and the dynamics of the explosive level build up in the soil with time.
引用
收藏
页码:441 / 452
页数:12
相关论文
共 50 条
  • [21] Standoff trace detection of explosives with Infrared Hyperspectral Imagery
    Fuchs, F.
    Hugger, S.
    Jarvis, J. -P.
    Yang, Q. K.
    Zaum, F.
    Ostendorf, R.
    Schilling, Ch
    Bronner, W.
    Driad, R.
    Aidam, R.
    Wagner, J.
    MICRO- AND NANOTECHNOLOGY SENSORS, SYSTEMS, AND APPLICATIONS VII, 2015, 9467
  • [22] Trace Detection of Explosives Using Metal Oxide Catalysts
    Rossi, Andrew S.
    Ricci, Peter
    Gregory, Otto J.
    IEEE SENSORS JOURNAL, 2019, 19 (13) : 4773 - 4780
  • [23] Application of fluorescence sensing technology in trace detection of explosives
    Li, Lu
    Lyu, Xin
    Liang, Saibo
    Liu, Zhanfang
    DYES AND PIGMENTS, 2023, 220
  • [24] TRACE EXPLOSIVES DETECTION BY MICRO DIFFERENTIAL THERMAL ANALYSIS
    Olsen, Jesper
    Senesac, Larry
    Thundat, Thomas
    Boisen, Anja
    2011 IEEE 24TH INTERNATIONAL CONFERENCE ON MICRO ELECTRO MECHANICAL SYSTEMS (MEMS), 2011, : 984 - 987
  • [25] Trace detection of explosives by Surface Enhanced Raman Spectroscopy
    Almaviva, S.
    Botti, S.
    Cantarini, L.
    Palucci, A.
    Puiu, A.
    Rufoloni, A.
    Landstrom, L.
    Romolo, F. S.
    OPTICS AND PHOTONICS FOR COUNTERTERRORISM, CRIME FIGHTING, AND DEFENCE VIII, 2012, 8546
  • [26] Trace detection of components emanating from hidden explosives
    Kolla, P
    DETECTION OF EXPLOSIVES AND LANDMINES: METHODS AND FIELD EXPERIENCES, 2002, 66 : 77 - 81
  • [27] Trace explosives detection using zinc oxide nanowires
    Caron, Zachary
    Mallin, Daniel
    Champlin, Mitchell
    Gregory, Otto
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2015, 250
  • [28] Thermal control of organic semiconductors for trace detection of explosives
    Ogugu, Edward B.
    Gillanders, Ross N.
    Mohammed, Salam
    Turnbull, Graham A.
    PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 2023, 25 (43) : 29548 - 29555
  • [29] Development of a trace explosives detection portal for personnel screening
    Parmeter, JE
    Linker, KL
    Rhykerd, CL
    Bouchier, FA
    Hannum, DW
    32ND ANNUAL 1998 INTERNATIONAL CARNAHAN CONFERENCE ON SECURITY TECHNOLOGY, 1998, : 47 - 49
  • [30] Digital micromirror devices in Raman trace detection of explosives
    Glimtoft, Martin
    Svanqvist, Mattias
    Agren, Matilda
    Nordberg, Markus
    Ostmark, Henric
    DETECTION AND SENSING OF MINES, EXPLOSIVE OBJECTS, AND OBSCURED TARGETS XXI, 2016, 9823