AT mine overpass capability of ground-vehicle mine detection system

被引:0
|
作者
Maksimovic, V [1 ]
Tsopelas, P [1 ]
Makowsky, L [1 ]
Bishop, S [1 ]
Gugino, P [1 ]
Wiggins, C [1 ]
机构
[1] Northrop Grumman Mission Syst, Arlington, VA 22203 USA
关键词
overpass; pressure fused; antitank mine; ground vehicle mine detection system; unmanned ground vehicle; UGV;
D O I
10.1117/12.544209
中图分类号
TH7 [仪器、仪表];
学科分类号
0804 ; 080401 ; 081102 ;
摘要
An overpass solution for antitank pressure-fused mines was developed and demonstrated for a teleoperated, four-wheeled experimental unmanned ground vehicle hosting a mine detection system using a downlooking ground-penetrating radar. The capability to overpass pressure-activated antitank mines is one way to protect the vehicle. The requirement was to make the vehicle overpass capable by giving it an average footprint pressure of no more than 5 psi using commercially available equipment and without requiring any vehicle modification. An overpass solution was developed and demonstrated using low-pressure, minimal casing rigidity tires that produce a uniformly low ground pressure and enable the vehicle to exert: less than the minimum force required to activate the large majority of pressure-fused antitank mines. Overpass requirements are discussed in terms of antitank mine threats, pressure plate size, activation forces, and ground pressure distribution uniformity. A variable-load tire footprint pressure measurement system and laboratory were developed and laboratory evaluation of a number of tire candidates was completed. Laboratory results were demonstrated through field performance demos of the selected low-pressure tire. Results present the successful overpass of various threat representative antitank mines with the pressure plate elevations/exposures at various positions relative to local grade.
引用
收藏
页码:1219 / 1230
页数:12
相关论文
共 50 条
  • [41] Multi-sensor system for mine detection
    Steinway, WJ
    Duvoisin, HA
    Tomassi, MS
    Thomas, JE
    Betts, G
    Morris, C
    Kahn, B
    Stern, P
    Krywick, S
    Johnson, K
    Dennis, K
    Simoneaux, W
    Blood, B
    IGARSS '98 - 1998 INTERNATIONAL GEOSCIENCE AND REMOTE SENSING SYMPOSIUM, PROCEEDINGS VOLS 1-5: SENSING AND MANAGING THE ENVIRONMENT, 1998, : 228 - 230
  • [42] Research on Hydraulic Pressure Detection System for Mine
    Zhang, Dengpan
    Han, Xu
    Gao, Zhiqiang
    MECHATRONICS AND INDUSTRIAL INFORMATICS, PTS 1-4, 2013, 321-324 : 1477 - 1481
  • [43] Sensorics of the German mine detection system MMSR
    Bittorf, C
    Laukemper, J
    DETECTION OF EXPLOSIVES AND LANDMINES: METHODS AND FIELD EXPERIENCES, 2002, 66 : 203 - 216
  • [44] Strategy and Development of Mine Detection Robot System
    Jin, Yeonsub
    Ko, Deokhyun
    Seok, Jushin
    Lee, Woosub
    Kang, Sungchul
    2013 13TH INTERNATIONAL CONFERENCE ON CONTROL, AUTOMATION AND SYSTEMS (ICCAS 2013), 2013, : 1691 - 1693
  • [45] Ground standoff mine detection system (GSTAMIDS) engineering, manufacturing and development (EMD) Block O
    Pressley, JRR
    Pabst, D
    Sower, G
    Nee, L
    Green, B
    Howard, P
    DETECTION AND REMEDIATION TECHNOLOGIES FOR MINES AND MINELIKE TARGETS VI, PTS 1 AND 2, 2001, 4394 : 1190 - 1200
  • [46] Development of a ground penetrating radar system for large-depth disaster detection in coal mine
    Xu, Xianlei
    Peng, Suping
    Yang, Feng
    JOURNAL OF APPLIED GEOPHYSICS, 2018, 158 : 41 - 47
  • [47] Specialised mine service vehicle
    Engineers Australia, 1995, 67 (07):
  • [48] GROUND TESTING FOR MINE SITES
    Plastow, Colin
    CANADIAN MINING JOURNAL, 2011, 132 (08) : 26 - 27
  • [49] AERODYNAMIC EFFECTS OF SHAPE, CAMBER, PITCH, AND GROUND PROXIMITY ON IDEALIZED GROUND-VEHICLE BODIES
    GEORGE, AR
    JOURNAL OF FLUIDS ENGINEERING-TRANSACTIONS OF THE ASME, 1981, 103 (04): : 631 - 638
  • [50] Optimizing ground-vehicle vibration qualification for state-of-art instrumentation
    Silver, W
    INSTITUTE OF ENVIRONMENTAL SCIENCES 1996 PROCEEDINGS - PRODUCT RELIABILITY DESIGN, TEST, AND EVALUATION, 1996, : 360 - 365