Nuctech Company Limited

International Business Machines Corporation

Boe Technology Group Co., Ltd.

Tsinghua University

Yunding Network Technology (beijing) Co., Ltd.

Chinese Academy of Sciences

Beijing Boe Display Technology Co., Ltd.

Ideapool Technology Co., Ltd.

Microsoft Technology Licensing, LLC

Chengdu Boe Optoelectronics Technology Co., Ltd.

Peking University

Chinese Academy of Medical Sciences

Yu He

Kun Zhao

Ming Ruan

Ping Liang

Xiao Feng Meng

Xiaobing Wang

Yuanjing Li

Bin Zhang

Qiang Zhang

Kejun Kang

Zhiqiang Chen

Wei Zhang

Peng Hui Jiang

Yue Li

Hua Peng

Dianzheng Dong

Kan Zhang

Guangxing Wang

Jian Li

Yinong Liu

Yaohong Liu

Qingjun Zhang

Jianmin Li

Feng Gao

Yi Li

Chuanxiang Tang

Yu Wang

Quanwei Song

Huaibi Chen

Huaping Tang

Nan Jiang

Xiangang Luo

Jianhua Tao

Dongsheng Zhang

Dongfeng Zhang

Wenjie Wang

Wenhuan Gao

Haihong Huang

Xue Bin Cong

Xingbo Tang

Huayi Zhang

Cheng Zeng

Jun Wei

Lixin Zhao

Jibum Yang

Weiqiang Guan

Licai Sun

Jinbo Yang

Shunquan Liu

Yanfeng Cao

Jingzhi Han

Kyle Matthew Miller

Jinhua Feng

Jun Lv

Taylor Alexis Guerra

Shaoyu Zhang

Hongyu Shao

Sihan Wu

Lia Johansen

Jianjun Yan

Yang Huangfu

Liya Zhu

Halhong Huang

Ziyun Lin

Liyuan Mou

Zhengui Nie

Xueyu Ouyang

Shanying Peng

Dongfong Zhang

Zhongqi Pu

Zhe Xin

Gaofeng Miao

Provided are illumination field non-uniformity detection system, detection method, correction method, and device provided. The system includes displacement control module, controlling displacement platform to drive photodetector and image sensor to move within illumination field; illumination signal acquisition module, controlling the photodetector to collect different response signals at various collecting frequencies within the illumination field and controlling the image sensor to collect response images within the illumination field; data processing module, obtaining, based on different response signals, multiple illumination fields with different light radiation intensities and light intensity distribution considered to be uniform; based on this, obtaining multiple corrected image sensor grayscale matrices; fitting the multiple corrected image sensor grayscale matrices to obtain parameter matrix; and non-uniformity detection module, correcting the response images based on the parameter matrix; and characterizing non-uniformity of light intensity distribution within the illumination field using non-uniform metrics of grayscale distribution of the corrected response images.

Illumination field non-uniformity detection system, detection method, correction method, and device

Systems and methods for generating dynamic quick actions for an application in a web browser. The dynamic quick actions correspond to various functions of an application accessible via a web browser sidebar interface. When a hover event is detected in association with an icon of the application, a quick-actions card is generated that includes quick actions of the application from which the user can select. For instance, a selection of a quick action triggers the web browser to execute an action that causes the application function to be performed. Thus, application functions are able to be surfaced and controlled via a single input device selection (e.g., a mouse click).

Dynamically configured quick actions in a sidebar

A flexible permanent magnetic material, a preparation method and an application thereof in magnetic biological effect products are provides, relating to the technical field of medical equipment. Raw materials of the flexible permanent magnetic material of the application include the following components in parts by weight: 0-70 parts of anisotropic neodymium iron boron powder and 0-40 parts of anisotropic samarium iron nitrogen powder and 3-20 parts of binder.

Flexible permanent magnetic material, preparation method and application thereof in magnetic biological effect products

Aggregated log index-based log record identification is provided by maintaining log files of a database system on a plurality log storage devices, the log files including log records of changes to database objects, indexing the log files to obtain a collection of log indexes, where the indexing includes, for each log storage device, indexing log records stored on the log storage device to obtain a respective log index, then based on a request, identifying log storage devices that store log records for servicing the request, the log storage devices storing log indexes, of the collection of log indexes, that index an aggregate set of log records on the log storage devices, obtaining the log indexes from the log storage devices, and aggregating the log indexes to provide an aggregated log index that provides an index of the aggregate set of log records on the log storage devices.

Log record identification using aggregated log indexes

A three-dimensional image player capable of real-time interaction is provided, including: a material management module, a rendering control module, an interaction control module, and a display control module; the material management module further includes an attribute parsing module for performing classification parsing on materials, the hardware environment, and the operating platform; the three-dimensional image player capable of real-time interaction, may use smart engine matching technology to match three-dimensional image of different formats and types with different engines, to realize the whole process capability of importing, rendering engine intelligent matching, loading, previewing, and interacting, and also it supports unique interactive experiences such as previewing, clicking, and effect presenting of three-dimensional image with interactive capabilities.

Three-dimensional image player capable of real-time interaction

A workload is generated to verify a system. The generating includes parsing one or more statements of an input test case to create one or more parsed structures. A comparison is performed of at least one parsed structure of the one or more parsed structures and at least one workload structure of at least one existing workload to identify one or more workload structures as matching the at least one parsed structure. Runtime data relating to at least the one or more workload structures identified as matching is obtained. The workload is created based on at least one matching workload structure of the one or more workload structures identified as matching, the at least one parsed structure of the one or more parsed structures and the runtime data.

Generating workloads for system verification

A coding method for space information in continuous dynamic images is provided, which includes the following steps: parsing and extracting space information data, constructing a space information data packet, and coding the space information data packet. According to the coding method in the present invention, the physical parameters, such as lens, position and orientation of a camera as well as space depth information in a plurality of continuous dynamic images can be recorded and stored in real time, and therefore, the coded and stored parameters of the camera and the space depth information are applied to virtual simulation and graphic vision enhancement scenarios, such that in many application scenarios, such as photographing movie and television, producing advertising, and personal video vlogs, abundant and integrated graphic text enhancement effects can be implanted, in real time, a plurality of thereby improving the final image display effect.

Method for coding space information in continuous dynamic images

Lock portion

Lock

The present disclosure provides a display substrate and a display device. The display substrate includes a first electrode structure, an organic light-emitting layer and a second electrode structure orderly arranged on a base substrate. The display substrate further includes a filter film located on a light-emitting side of the display substrate. A light absorption rate of a first electrode structure or a second electrode structure is greater than a first threshold.

Display substrate and display device

A physiological signal prediction method includes: collecting a video file, the video file containing long-term videos, and contents of the video file containing data for a face of a single person and true physiological signal data; segmenting a single long-term video into multiple short-term video clips; extracting, by using each frame of image in each of the short-term video clips, features of interested regions for identifying physiological signals so as to form features of interested regions of a single frame; splicing, for each of the short-term video clips, features of interested regions of all fixed frames corresponding to the short-term video clip into features of interested regions of a multi-frame video, and converting the features of the interested regions of the multi-frame video into a spatio-temporal graph; inputting the spatio-temporal graph into a deep learning model for training, and using the trained deep learning model to predict physiological signal parameters.

Physiological signal prediction method

A self-learning, self-healing database-management system determines that erroneous input, such as an improper SQL query, has caused a critical database condition. The system parses each input statement into a set of tokens, and then translates each set into lines of a failure script. The script is consolidated by cross-referencing each line to infer relationships between input statements. The system then searches historical database logs for previously entered, error-free input similar to the erroneous input. A degree of similarity between the erroneous input and each previously entered input is determined by a computational method that quantifies similarities between the failure script and each script generated from a previously entered input. The system revises the erroneous input to more closely match the most-similar previously entered input and resubmits the corrected input. The results of the resubmission are used to train the system to more accurately correct future input errors.

Universal self-learning database recovery

A circuit for powering off a liquid crystal panel, a peripheral drive device, and a liquid crystal panel. In the circuit for powering off a liquid crystal panel, a switch module is coupled to an enable signal transmission line, a common electrode and respective data lines of the liquid crystal panel, and is configured to be switched on upon receiving an enable signal, to connect the respective data lines to the common electrode. A peripheral drive device comprises: a reset signal generation module, a first, second and third control module, a data line drive module, a common electrode drive module, and a gate drive module. The reset signal generation module outputs a first reset signal when a driving voltage of a liquid crystal panel is less than a set value. The first control module outputs an enable signal in response to the first reset signal. The second control module drives the gate drive module to scan of gate lines for at least one frame in response to the first reset signal. The third control module, in response to the first reset signal, disconnects the common electrode drive module from the common electrode, disconnects the data line drive module from the data lines, and grounds the data lines and/or the common electrode. The embodiments of the present disclosure can efficiently reduce the start-up and power-off flicker drift of the liquid crystal panel.

Circuit for powering off a liquid crystal panel, peripheral drive device and liquid crystal panel

There are disclosed a display substrate and a display device. The display substrate comprises a common electrode line, a plurality of pixel units with each comprising a pixel electrode and a plurality of first switch units disposed respectively between the common electrode line and the pixel electrodes. Each of the first switch unit is configured to be turned on within a pre-set time period after the display substrate is powered off to connect the pixel electrode to the common electrode line and be turned off when the display substrate is powered on to disconnect the pixel electrode from the common electrode line. In this way, after the power-off, the charges stored in the pixel electrode are neutralized in the common electrode line. Thus, the pixel electrode and the common electrode can be discharged by the same discharge circuit, which guarantees no DC residue in the discharged pixel electrode.

Growing community of inventors

Beijing, China

Yu He