Nuctech Company Limited

Tsinghua University

Beijing Didi Infinity Technology and Development Co., Ltd.

Beijing Sifang Automation Co., Ltd.

Nutech Company Limited

Nuctech Jiangsu Company Limited

Hui Meng

Shangmin Sun

Quanwei Song

Nan Jiang

Jianmin Li

Yuan He

Yu Hu

Yuan Ma

Jinning Liang

Zhongrong Yang

Xuping Fan

Jinguo Cao

Zhiqiang Chen

Li Ni Zhang

Yuanjing Li

Yaohong Liu

Ying Li

Qiang Li

Yulan Li

Li Zhang

Chunguang Zong

Bin Hu

Weifeng Yu

Jingyu Gu

Qiangqiang Wang

Zhiheng Wang

Junping Shi

Zhaohui Wu

Hejun Zhou

Shudong Wang

Hongqi Li

Yiwei Guo

Tianming Zhang

Chengxin Cao

Taolue Xue

Guiting Dai

Tianyu Chen

Duoqing Zhou

Shunchang Feng

Zaolin Han

Guanwen Hu

Lixiang Guo

Jiaming He

The present disclosure provides methods and systems for vehicle verification. The method may include receiving vehicle verification information related to a vehicle to be verified from a client, wherein the vehicle verification information includes a plurality of images acquired by the client via an imaging device, and the vehicle verification information responds to at least one vehicle verification instruction. The method may further include determining a verification result of the vehicle based on the vehicle verification information.

Methods and systems for vehicle verification

The present disclosure relates to a security inspection device and a transfer method, and the security inspection device includes an arm frame, provided with detectors, and configured to form an inspection channel, a first compartment, internally provided with a radiation source and connected with the arm frame, a protection wall, connected with the first compartment or the arm frame, and configured to perform radiation protection for an object to be protected, and a tire, configured to enable the security inspection device to move relative to the ground, and the arm frame, the first compartment and the protection wall are set to be transported together in a connected state.

Security inspection device and transfer method therefor

A vehicle detection system includes a transverse detector arm, two vertical detector arms, a radiation source, a plurality of transverse detectors, and a plurality of vertical detectors. The transverse detector arm may be disposed on the ground. Two vertical detector arms are disposed at both ends of the transverse detector arm. The radiation source is located above the transverse detector arm. A plurality of transverse detectors are disposed within the transverse detector arm and are laid along a length direction of the transverse detector arm for receiving ray emitted by the radiation source. The plurality of vertical detectors are symmetrically disposed on the two vertical detector arms, and each of the vertical detectors is disposed towards a center point of the radiation source for receiving ray emitted by the radiation source.

Vehicle detection system

The present disclosure relates to mobile radiographic inspection systems and lifting devices for mobile radiographic inspection systems, including those, for example, in the field of radiographic detection of large objects such as containers. In one illustrative implementation, the present disclosure describes a lifting device for a mobile radiographic inspection system, the device comprising a driving motor and at least two screw lifters, wherein the driving motor is connected to each of the screw lifters via a transmission, and a lower end of a lifting rod of the screw lifter is configured to connect with a radiographic inspection device. In implementations, the lifting device may further comprise a mounting assembly, which is adapted to connect the lifting device to a vehicle body of the mobile radiographic inspection system.

Mobile radiographic inspection system and lifting device for mobile radiographic inspection system

The present invention discloses a vehicle inspection system, comprising: an inspection passage; a vehicle dragging system arranged in the inspection passage, wherein the vehicle dragging system comprises a first dragging means and a second dragging means, which are sequentially arranged along a vehicle dragging direction, and in the vehicle dragging direction, the first dragging means is arranged at the upstream of the second dragging means, and a separating section is arranged between the first dragging means and the second dragging means, so that the first dragging means and the second dragging means are separated by a preset distance in the vehicle dragging direction; and a radiographic inspection system, wherein at least a part of paths of the beams of the radiographic inspection system passes through the separating section between the first dragging means and the second dragging means.

Vehicle inspection system

The present invention relates to an electrical connector, comprising a connector main body () and screws (). The connector main body () includes a housing (), a multi-socket wire connection structure (), a multi-socket plug-in connection structure (), and a multi-socket wire disconnection structure (). The screws () are preferably set screws, which comprise a guide structure (), a thread structure (), a fall-off prevention structure (), and a wrenching structure (). The present invention has advantages of high connection density, ease of wiring connection, high efficiency, being shock-resistant, loosening-proof and reliable, while meeting the IEC 60603-2 standard.

Electrical connector

Disclosed is a relocatable vehicle inspection system. The relocatable vehicle inspection system includes a radiation source for radiating radials; a detection array for receiving the radials from the radiation source, so that an image of the cargo on the vehicle to be inspected may be obtained; a moving device on which the radiation source and the detection array are disposed; and a ramp-platform device. The ramp-platform device includes first and second intermediate parts (); first, second, third and fourth ramp parts (); first, second, third and fourth transitional parts (). The first and second transitional parts can be foldably or removably connected to the first intermediate part, and the third and fourth transitional parts can be foldably or removably connected to the second intermediate part. The said ramp-platform device can be placed onto or removed away from the moving device under disassembling and folding conditions.

On-board relocatable vehicle inspection system having ramp-platform device

Disclosed is a ramp-platform device for an on-board relocatable small vehicle inspection system. The ramp-platform device includes a connection frame having a rectangular shape and defining therein an inner space, first and second intermediate parts which are disposed in parallel with each other and at two opposite sides of the connection frame, first to fourth ramp parts having a substantially triangle shaped longitudinal section. The first and second ramp parts are removably connected to the two opposite ends of the first intermediate part separately, and the third and fourth ramp parts are removably connected to the two opposite ends of the second intermediate part separately. The height of a top end of the first to the fourth ramp parts is substantially equal to the height of the first and second intermediate parts. When it is not in use, the ramp-platform device may be placed on the scanning vehicle of the moving device in a disassembling and folding conditions, and when it is under inspection, the vehicle to be inspected is raised to a predetermined height by assembling and spreading the ramp-platform device, so that a chassis and wheels of the small vehicle may be entered into the scanning range to achieve the inspection of each part of the small vehicle.

Ramp-platform device and an on-board relocatable vehicle inspection system having the same

Disclosed is an arm frame structure for a radiation imaging system, comprising a first upright column, a mounting frame, and first and second collimators mounted on said first upright column, and first and second detector devices. Said first and second collimators are arranged to be symmetrical with respect to a plane therebetween to divide a ray beam emitted from a radiation source into first and second beams emitted symmetrically. Said first and second detector devices are symmetrically mounted on the mounting frame with respect to the plane P and are arranged to be far away from said first and second collimators to receive the first and second beams, respectively. This invention further provides a radiation imaging system including the arm frame structure.

Arm frame structure and scan apparatus having the same

A vehicle-carried radiation inspection system has a simple structure with advantages of convenient operation, little scanning blind area and reliable safety performance. The system includes a loading vehicle, a lifting device mounted to the loading vehicle and a radiation scanning inspection device fixedly mounted to the lifting device so as to ascend/descend together with the lifting device. The lifting device is configured to enable the lifting device and the radiation scanning inspection device as a whole to be apart from the ground by a predetermined safety distance when the loading vehicle is moving, and to enable the minimum distance therebetween during inspection to be less than the predetermined safety distance. The radiation scanning inspection device may be switched between higher and lower positions as required with the ascending/descending of its combination with the lifting device.

Vehicle-carried radiation inspection system and lifting device used therein

Growing community of inventors

Beijing, China

Hui Meng