General Electric Company

Ge Inspection Technologies, Gmbh

Microsoft Technology Licensing, LLC

Via Technologies, Inc.

State Grid Corporation of China

Beijing Kedong Power Control System Co., Ltd

Nari Group Corporation

Li Tao

Guiju Song

Kevin George Harding

Clark Alexander Bendall

Thomas Karpen

Xinjun Wan

Lei Wang

Wei Wang

Tao Wang

Zheng Chen

Wei-Ying Ma

Qian Zhang

Hua-Jun Zeng

Jie Liu

Dong Hui Liu

Steven Robert Hayashi

Lin Zhang

Ning Yang

Shu Ching Quek

Lin Cheng

Hao Lai

Xian Wei Zhang

Xiaoming Sun

Peter James Fritz

Bin Ye

Kun Tao

Hao Xu

Ming Jia

Chunyan Wang

Xinwei Yang

Haining Wang

Yannan Huang

Xin Chang

Shukuan Xu

Wujun Dong

Jiajun Gu

Raul Munoz Medina

Yonghui Liu

Yana Zhang Williams

James Joseph Hoffman

Wentao Lv

Shulu Wan

Xiaopeng Yuan

Junliang Lv

Yujian Wu

Chuncheng Gao

Yin Fang

Shuhong Shi

Yang Ke

Yong Dai

Mingzhu Yuan

Charles Walter Muekmore

Xian Zhao

Ji-Dong Wang

Xiang Tan

Shoubao Li

Peiyu Xi

It involves the field of power trading technology and a method for microservice transformation of power trading function comprising the following steps: (1) divide the function in extranet trading cloud into many multiple individual micro services and divide the function in intranet trading cloud into multiple individual micro services; (2) register a node information for each individual micro service in service registry when service deployment starts; (3) extranet users and intranet users enter into extranet trading cloud and intranet trading cloud respectively through PC terminal or mobile terminal, obtain the actual network address that needs to be served from service registry, send a request to the requested service, and perform related business operation.

Method of micro-service transformation for power trading functions

A mobile radiography system is disclosed, which includes a radiation source for radiating a plurality of beams; a detector for detecting the plurality of beams from the radiation source; a controller for determining an angular difference between the radiation source and the detector; and a positioning device mounted with the radiation source for recognizing a position of the detector relative to the radiation source based on the angular difference between the radiation source and the detector to align the radiation source to the detector. A method of aligning a mobile radiography system including a radiation source and a detector is also disclosed.

Mobile radiography system and method for aligning mobile radiography system

The present invention provides an X-ray equipment and an alignment method thereof. The X-ray equipment comprises a tube, a detector, an LED array, a camera and a display. The LED array is fixed relative to a detection center of the detector, and has a predefined geometric center; the camera is fixed relative to a center of the tube, for photographing the LED array; the display is connected to the camera, for displaying images photographed by the camera, wherein when the center of the tube is aligned with the detection center of the detector, the geometric center of the LED array is located on a specific pixel unit on the display.

X-ray equipment and alignment method of X-ray equipment

A probe system includes an imager and an inspection light source. The probe system is configured to operate in an inspection mode and a measurement mode. During inspection mode, the inspection light source is enabled. During measurement mode, the inspection light source is disabled, and a structured-light pattern is projected. The probe system is further configured to capture at least one measurement mode image. In the at least one measurement mode image, the structured-light pattern is projected onto an object. The probe system is configured to utilize pixel values from the at least one measurement mode image to determine at least one geometric dimension of the object. A probe system configured to detect relative movement between a probe and the object between captures of two or more of a plurality of images is also provided.

System aspects for a probe system that utilizes structured-light

A graphics card, a multi-screen display system and a synchronous display method are disclosed. The disclosed method includes the following steps. Firstly, first clock signals are provided in parallel in response to a first clock signal transferred from a motherboard. A second clock signal is generated according to one of the first clock signals that are provided in parallel, wherein the oscillation frequency of the first clock signals is larger than the oscillating frequency of the second clock signal. Then, a set of display clocks are generated based on the second clock signal. The set of display clocks control the display of a set of screens, for synchronous multi-screen display.

Graphics card, multi-screen display system and synchronous display method

A measurement system comprising a light source unit, a projection unit and an optics unit is disclosed. The light source unit is configured to generate a plurality of modulated phase shifted light beams. The projection unit is configured to reflect the modulated phase shifted light beams onto an object surface. The optics unit is configured to capture the modulated phase shifted light beams from the object surface. The measurement system further comprises a photodetector and a processor. The photodetector is configured to receive the modulated phase shifted light beams from the optics unit to generate electrical signals. The processor is configured to retrieve position information of the object surface based on the electrical signals from the photodetector. A measurement method is also presented.

Measurement systems and methods

A system and method for inspecting a wind turbine for indications is disclosed. The method includes providing an inspection system spaced from the wind turbine, appraise a rotor blade of the wind turbine, and inspecting the rotor blade for indications. The inspection system includes an observation system and an inspection device, the observation system including an appraisal device and an automated scanning device, the appraisal device configured to provide an image of at least a portion of the rotor blade, the automated scanning device configured to rotate about at least one axis, shifting the image.

System and method for wind turbine inspection

A system for determining an object distance z includes a plurality of light emitters. A group of at least one of the plurality of light emitters includes an emitter group, and the pattern projected when one emitter group is emitting includes a fringe set. The light pattern of one fringe set exhibits a phase-shift relative to the light patterns of the other fringe sets, and the phase-shift varies as the distance from the origin of the plurality of fringe sets varies. The system further includes a processing unit that is configured to compute a ripple metric value associated with each of a plurality of possible z values. The processing unit is further configured to determine an approximated z value using the computed ripple metric values. A probe system is also provided. The probe system is configured to project a plurality of fringe sets from the probe onto an object. The light pattern of one fringe set exhibits a phase-shift relative to the light patterns of the other fringe sets, and the phase-shift varies as the distance from the origin of the plurality of fringe sets varies. The probe system is further configured to compute a ripple metric value associated with each of a plurality of possible z values, where z is an object distance. The probe system is also configured to determine an approximated z value using the computed ripple metric values. A method for determining an object distance z is also provided.

System and method to determine an object distance from a reference point to a point on the object surface

A probe includes an insertion tube and a plurality of light emitters disposed on the distal end of the insertion tube. The probe further includes at least one intensity modulating element through which light from the plurality of light emitters is passed to project a plurality of fringe sets onto a surface. Each of the plurality of fringe sets intern have a structured-light pattern that is projected when one emitter group of at least one of the plurality of light emitters is emitting. The probe further includes an imager for obtaining at least one image of the surface and a processing unit that is configured to perform phase-shift analysis on the at least one image. A method for projecting a plurality of fringe sets suitable for phase-shift analysis on a surface using a probe is also presented.

Fringe projection system and method for a probe suitable for phase-shift analysis

A probe is presented that includes a light source, a coherent fiber bundle, and a pattern selector. The pattern selector is disposed between the light source and the proximal end of the coherent fiber bundle. The pattern selector includes at least one patterned zone through which light from the light source passes to project at least one fringe set onto a surface. Each of the at least one fringe sets has a structured-light pattern. The probe further includes an imager for obtaining at least one image of the surface and a processing unit that is configured to perform phase-shift analysis on the at least one image. A method for projecting a plurality of fringe sets suitable for phase-shift analysis on a surface using a probe is presented.

Fringe projection system and method for a probe using a coherent fiber bundle

One aspect relates to clustering a group of objects of a first object type based on a relative importance using links extending between objects of the first object type and certain objects of the second object type. In one embodiment, the first object type is a Web page object type and the second type is a user object type.

Object clustering using inter-layer links

Growing community of inventors

Shanghai, China

Li Tao