Ge Medical Systems Global Technology Company, LLC

Ge Precision Healthcare LLC

General Electric Company

Chinese Academy of Sciences

Beijing University of Technology

Beijing Didi Infinity Technology and Development Co., Ltd.

Beijing Ten Dimensions Technology Co., Ltd.

Yuqing Li

Fusheng Li

Chunyu Wang

Wen Gao

Hao Chen

Qiang Zhang

Jie Liu

Chen Zhang

Yong Xu

Chao Zhu

Zhi Li

Chao Guo

Ping Yuan

Jinfeng Wang

Zhen Shen

Ming Yue

Peng Zhao

Yi Xie

Jinfeng Li

Weining Xi

Li Wan

Feiyue Wang

Gang Xiong

Hang Gao

Weiqiang Liu

Yang Meng

Huimin He

Shaobo Gu

Peng Qi

Xiuqin Shang

Yongtao Tan

Jianqiang Yang

Zhenghong Wang

Zhiye Lu

Meihua Zhao

Xisong Dong

Zhengpeng Wu

Dan Chuang

Yunfa Wang

Hongjing Sun

Wenwen Xiu

Yingjie Jia

Diansong Cao

Hongguo Zhang

Yantao Yin

Bingkun Xue

Chuanfu Zhang

The present application provides a suspension device and an X-ray imaging system. The suspension device is configured to bear a tube device of an X-ray imaging system. The suspension device includes a plurality of sleeves and a guide rail assembly. Cross-sections of the plurality of sleeves have substantially the same shape but different sizes. The plurality of sleeves are sequentially arranged. The guide rail assembly is provided between at least one sleeve and another sleeve adjacent thereto. The guide rail assembly includes a protruding member extending along a surface of the at least one sleeve and a sliding member provided on the another sleeve and engaging with the protruding member. The sliding member is capable of moving relative to the protruding member so as to drive the sleeves to move relative to each other.

Suspension device and x-ray imaging system

Provided in the present application are an assistance system and method for a suspension device, and an X-ray imaging system. The suspension device includes a tube device, a tube controller, a motion driving device and an assistance system. The motion driving device is capable of driving the suspension device to move along a first coordinate system. The assistance system includes a measurement device and a control device. The measurement device is disposed between the tube device and the tube controller so as to obtain an initial force of an operator, wherein the initial force includes the magnitude and direction of a force along a second coordinate system in which the measurement device is located. The control device includes a calibration unit and a calculation unit. The calibration unit is used for calibrating the initial force to obtain a calibrated force. The calculation unit is used for performing a coordinate transformation on the calibrated force to obtain a torque value corresponding to the first coordinate system, and sending the torque value to the motion driving device to enable the motion driving device to provide assistance on the basis of the torque value.

Assistance system and method for suspension device, and x-ray imaging system

The present application provides an X-ray imaging system and a collision prevention method therefor. The X-ray imaging system includes a tube device, at least one sensor, and a controller. The tube device is capable of moving to a preset position so as to emit an X-ray. The at least one sensor is mounted on at least one surface of the tube device. The at least one sensor is configured to acquire a feedback signal within a preset sensing region. The controller is connected to the at least one sensor and the tube device, and the controller includes a determination module and a control module. The determination module is configured to determine, on the basis of the feedback signal, whether an obstacle is present in the preset sensing region and acquire position information of the obstacle. The control module is configured to control motion of the tube device on the basis of the position information of the obstacle.

X-ray imaging system and collision prevention method therefor

A two-step diffusion method for preparing high-performance dual-main-phase sintered mischmetal-iron-boron magnet belongs to the preparing technical field of rare earth permanent magnet materials. The compositions of the two main phase alloys are RE-Fe&#x2014;B (RE is Nd or Pr) and (Nd, MM)-Fe&#x2014;B (MM is mischmetal), respectively. First, PrHoFe strip-casting alloy is used as a diffusion source. Next, a PrHo-rich layer is uniformly coated on the surface of (Nd, MM)-Fe&#x2014;B hydrogen decrepitation powders. The higher anisotropic fields of PrFeB and HoFeB are used to improve the coercivity. Then, the ZrCu strip-casting alloy is used as a diffusion source. A Zr-rich layer is uniformly coated on the surface of the powders after the first-step diffusion, which prevents the growth of the MM-rich main phase grains during the sintering process and the inter-diffusion between the two main phases, thus obtaining high coercivity.

Two-step diffusion method for preparing high-performance dual-main-phase sintered mischmetal-iron-boron magnet

A neural network-based error compensation method for 3D printing includes: compensating an input model by a deformation network/inverse deformation network constructed and trained according to a 3D printing deformation function/inverse deformation function, and performing the 3D printing based on the compensated model. Training samples of the deformation network/inverse deformation network include to-be-printed model samples and printed model samples. The deformation network constructed according to the 3D printing deformation function is marked as a first network. During training of the first network, the to-be-printed model samples are used as real input models, and the printed model samples are used as real output models. The inverse deformation network constructed according to the 3D printing inverse deformation function is marked as a second network. During training of the second network, the printed model samples are used as real input models, and the to-be-printed model samples are used as real output models.

Neural network-based error compensation method, system and device for 3D printing

A collision avoidance system and collision avoidance method for a detection bed are described. The collision avoidance system comprises stress sensors for measuring a stress caused by supporting a bed face of the detection bed and outputting stress data; a collector, which is connected with the stress sensors and is configured to collect the stress data output by each of the stress sensors; a judging processor, which is connected with the collector and is configured to judge whether the collected stress data monotonically changes within a preset time; and a controller connected with the judging processor, the controller controlling the bed face of the detection bed so that it stops moving when the judging processor determines that the collected stress data monotonically changes within the preset time.

Collision avoidance system and collision avoidance method for detection bed

A detector support device is described comprising a bracket, slide and detector trays, a connector and a cable. The connector comprises detector and cable interfaces, wherein the detector interface is installed on the detector tray to connect to the detector, and an accommodation cavity, in which the cable interface is located, is opened from an upper surface of the slide tray. A first fixing portion fixed to a bottom wall of the accommodation cavity and a first bending portion extending from the first fixing portion to a first end of the cable are also provided between the first end and a second end of the cable, the first end of the cable extends out of the slide tray so as to be connected to an external connector, and the second end of the cable is connected to the cable interface.

Detector supporting apparatus and an X-ray imaging device

The present disclosure relates to an electronic device configured to send a service request of a service to a remote server; receive an authority from the remote server; and control, according to the authority, an on-board device mounted on a target vehicle that is assigned by the remote server to provide the service to a user associated with the electronic device.

Systems and methods for using mobile devices to control on-board devices of vehicles

Rad table with floating table top

An embodiment of the present invention discloses a LED lamp as well as a X-Ray device and a collimator comprising the LED lamp. The LED lamp comprises a single LED chip serving as the light-emitting member of the LED lamp for emitting light beams; and a convex lens mounted in front of the LED chip for converging the light beams emitted from the LED chip. Embodiments of the invention can save power, reduce cost, and facilitate mass production and assembly.

LED lamp and an X-ray device and a collimator comprising the LED lamp

An auto grid moving apparatus for an X ray imaging device is provided. The apparatus includes: a grid; a grid holder on which the grid is disposed; a fixing base; and a double sided timing belt geared with at least two timing wheels at the two ends of the timing belt on the inner side face of the timing belt and geared with the grid holder at the outer side face of the timing belt, wherein one of the timing wheels has a motor disposed thereon, the motor being configured to drive the timing wheel to move the timing belt and to drive the grid holder to move.

Auto grid moving device for diagnostic X ray table

A panel support device for detachably supporting an X-ray receiving panel includes a support plate configured to be in contact with the surface of the panel opposite to an X-ray receiving surface of the panel while the panel is mounted, a locking member for locking the panel on the support plate while the panel is mounted, and a drive device for driving the locking member so that the locking member is withdrawn from a locking position when the panel approaches the support plate and the locking member returns to the locking position when the panel comes in contact with the support plate in a process for mounting the panel.

Panel support device and X-ray apparatus

With a view to providing an X-ray irradiator capable of detecting a relative rotational angle of a collimator box with respect to an X-ray tube, the X-ray irradiator comprises: an X-ray tube having a flange formed around an X-ray output window; a collimator box having an entry plate formed with an X-ray incidence window, the collimator box accommodating a collimator in the interior thereof; a ring provided on the entry plate so as to surround the X-ray incidence window, the ring receiving therein the flange of the X-ray tube and having a plurality of slots formed radially through the ring; a plurality of tongue pieces being inserted through the slots from outside to inside of the ring and holding down a back side of the flange; and sensor device provided inside the flange to detect a relative rotational angle of the collimator box with respect to the flange.

X-ray irradiator and X-ray imaging apparatus

With a view to providing an X-ray imaging apparatus having a projector-collimator capable of adjusting an irradiation position of a light beam easily and accurately, a first luminous flux is made a luminous flux present within an orthogonal plate orthogonal to a y-axis direction which is an orthogonal direction and a second luminous flux present within the orthogonal plane is reflected and moved within the orthogonal plane to produce a light beam. Consequently, an irradiation position of the light beam over a subject can be adjusted in an independent manner by movement &#x394;y in the orthogonal direction with use of a first screw and movement &#x394;x within the orthogonal plane with use of a second crew. As a result, adjustment of an X-ray irradiation field position by an operator can be effected not only easily but also with a high accuracy.

X-ray imaging apparatus

An X-ray diaphragm including plural sets of X-ray absorbing plates, each of the plural sets including four of X-ray absorbing plates, the four X-ray absorbing plates in each of the plural sets being arranged such that two of the four plates and the other two are positioned respectively in two directions perpendicular to each other to define a quadrangular aperture and that adjacent ones thereof respectively overlap each other partially at four corners of the aperture, the apertures in the plural sets of X-ray absorbing plates being coaxial and analogous apertures positioned and increasing in size in order in an X-ray irradiating direction, and a support device for supporting the plural sets of the plates such that the plates located on the same sides in the plural sets are supported respectively by the support device throughout the plural sets.

X-ray diaphragm, X-ray irradiator, and X-ray imaging apparatus

Growing community of inventors

Beijing, China

Yuqing Li