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    • 1. 发明授权
    • Cargo security inspection system and method
    • 货物安全检查制度和方法
    • US07499522B2
    • 2009-03-03
    • US11801272
    • 2007-05-08
    • Zhiqiang ChenLi ZhangKejun KangHaifeng HuYuanjing LiYinong LiuHewei GaoZiran ZhaoYuxiang XingYongshun XiaoJianmin Li
    • Zhiqiang ChenLi ZhangKejun KangHaifeng HuYuanjing LiYinong LiuHewei GaoZiran ZhaoYuxiang XingYongshun XiaoJianmin Li
    • G01N23/04
    • G01N23/04G06T7/0004
    • A cargo security inspection system inspecting an object moving through the system, including: a mechanical conveyance unit carrying, conveying, and defining a travel path of the object in the system; a radiation-generating unit generating ray beams for transmitting through the object; and a data collecting unit collecting transmission data about the rays having already transmitted through the object and processing the transmission data; wherein the travel path includes at least two linear sub-paths at an angle relative to each other; the data collecting unit includes at least two detector arrays receiving ray beams, each detector array corresponding to one linear sub-path, a receiving plane of each of the detector arrays disposed parallel to its corresponding linear sub-path; and in use, the radiation-generating and data collecting units remain stationary, and the object travels along its travel path and only translates on the at least two linear sub-paths without any rotation.
    • 检查通过系统移动的物体的货物安全检查系统,包括:机械传送单元,承载,传送和限定系统中物体的行进路径; 辐射产生单元,其产生用于透过物体的射线束; 以及数据收集单元,收集关于已经通过对象发送的射线的发送数据,并处理发送数据; 其中所述行进路径包括相对于彼此成一定角度的至少两个线性子路径; 所述数据收集单元包括至少两个接收射线束的检测器阵列,每个检测器阵列对应于一个线性子路径,每个检测器阵列的接收平面平行于其对应的线性子路径设置; 并且在使用中,辐射产生和数据收集单元保持静止,并且物体沿其行进路径行进,并且仅在至少两个线性子路径上平移而没有任何旋转。
    • 2. 发明申请
    • Cargo security inspection system and method
    • 货物安全检查制度和方法
    • US20080075226A1
    • 2008-03-27
    • US11801272
    • 2007-05-08
    • Zhiqiang ChenLi ZhangKejun KangHaifeng HuYuanjing LiYinong LiuHewei GaoZiran ZhaoYuxiang XingYongshun XiaoJianmin Li
    • Zhiqiang ChenLi ZhangKejun KangHaifeng HuYuanjing LiYinong LiuHewei GaoZiran ZhaoYuxiang XingYongshun XiaoJianmin Li
    • G01N23/00
    • G01N23/04G06T7/0004
    • A cargo security inspection system inspecting an object moving through the system, including: a mechanical conveyance unit carrying, conveying, and defining a travel path of the object in the system; a radiation-generating unit generating ray beams for transmitting through the object; and a data collecting unit collecting transmission data about the rays having already transmitted through the object and processing the transmission data; wherein the travel path includes at least two linear sub-paths at an angle relative to each other; the data collecting unit includes at least two detector arrays receiving ray beams, each detector array corresponding to one linear sub-path, a receiving plane of each of the detector arrays disposed parallel to its corresponding linear sub-path; and in use, the radiation-generating and data collecting units remain stationary, and the object travels along its travel path and only translates on the at least two linear sub-paths without any rotation.
    • 检查通过系统移动的物体的货物安全检查系统,包括:机械传送单元,承载,传送和限定系统中物体的行进路径; 辐射产生单元,其产生用于透过物体的射线束; 以及数据收集单元,收集关于已经通过对象发送的射线的发送数据,并处理发送数据; 其中所述行进路径包括相对于彼此成一定角度的至少两个线性子路径; 数据采集​​单元包括至少两个接收射线束的检测器阵列,每个检测器阵列对应于一个线性子路径,每个检测器阵列的接收平面平行于其对应的线性子路径设置; 并且在使用中,辐射产生和数据收集单元保持静止,并且物体沿其行进路径行进,并且仅在至少两个线性子路径上平移而没有任何旋转。
    • 9. 发明授权
    • Method and device for monitoring position of radioactive materials in vehicles
    • US07239245B2
    • 2007-07-03
    • US10944432
    • 2004-09-17
    • Kejun KangWenhuan GaoXiaobing WangJianmin LiYu HeYinong LiuYuanjing Li
    • Kejun KangWenhuan GaoXiaobing WangJianmin LiYu HeYinong LiuYuanjing Li
    • G08B17/12
    • G01V5/0075G01N23/00
    • A method and device for monitoring the position of radioactive materials in vehicles relates to a technical field of monitoring of radioactive materials. The method comprises following steps: powering on a monitoring device, after initializing, the device automatically enters into background mode to acquire and process gamma and neutron detection data so as to obtain and update a background count rate in real time, and an image surveillance system enters into surveillance state; occupancy detector detects that a vehicle enters into monitoring channel, meanwhile the monitoring device automatically enters into occupancy mode, and performs data acquisition process for gamma and neutron detection under the occupancy mode in accordance with the time required by an alarm algorithm, so as to obtain respective total count rates; speed detector detects the times T1 and T2 for the vehicle when it reaches two points with a distance L, and then calculates out the vehicle's speed V; obtaining an alarm threshold by using a special algorithm on the basis of alarming algorithm, particularly, the background count rate updated in real time, and sending an alarm signal when the total count rate exceeds the alarm threshold; transmitting the alarm signal to the image surveillance system via a control interface to notify it of starting to record, meanwhile sending an alarm command to an audio and visual alarm system to inform it of giving out an alarm; with the help of the results of radioactivity detection, speed detection and image capturing, a local computer specifies the position where the radioactive material(s) locate(s) with methods of horizontal and vertical positioning. The present invention can easily and quickly specify the very vehicle and the exact position the radioactive material(s) locate(s) so that the radioactive material(s) can be conveniently isolated and processed subsequently. In this way, time spent on detection has been greatly reduced and lots of human power has been saved.
    • 10. 发明申请
    • Method and device for monitoring position of radioactive materials in vehicles
    • US20050105681A1
    • 2005-05-19
    • US10944432
    • 2004-09-17
    • Kejun KangWenhuan GaoXiaobing WangJianmin LiYu HeYinong LiuYuanjing Li
    • Kejun KangWenhuan GaoXiaobing WangJianmin LiYu HeYinong LiuYuanjing Li
    • G01N23/00G01N23/04
    • G01V5/0075G01N23/00
    • A method and device for monitoring the position of radioactive materials in vehicles relates to a technical field of monitoring of radioactive materials. The method comprises following steps: powering on a monitoring device, after initializing, the device automatically enters into background mode to acquire and process gamma and neutron detection data so as to obtain and update a background count rate in real time, and an image surveillance system enters into surveillance state; occupancy detector detects that a vehicle enters into monitoring channel, meanwhile the monitoring device automatically enters into occupancy mode, and performs data acquisition process for gamma and neutron detection under the occupancy mode in accordance with the time required by an alarm algorithm, so as to obtain respective total count rates; speed detector detects the times T1 and T2 for the vehicle when it reaches two points with a distance L, and then calculates out the vehicle's speed V; obtaining an alarm threshold by using a special algorithm on the basis of alarming algorithm, particularly, the background count rate updated in real time, and sending an alarm signal when the total count rate exceeds the alarm threshold; transmitting the alarm signal to the image surveillance system via a control interface to notify it of starting to record, meanwhile sending an alarm command to an audio and visual alarm system to inform it of giving out an alarm; with the help of the results of radioactivity detection, speed detection and image capturing, a local computer specifies the position where the radioactive material(s) locate(s) with methods of horizontal and vertical positioning. The present invention can easily and quickly specify the very vehicle and the exact position the radioactive material(s) locate(s) so that the radioactive material(s) can be conveniently isolated and processed subsequently. In this way, time spent on detection has been greatly reduced and lots of human power has been saved.