Boe Technology Group Co., Ltd.

Hefei Boe Optoelectronics Technology Co., Ltd.

Chinese Academy of Sciences

Hefei Boe Display Technology Co., Ltd.

Guangdong Academy of Aerospace Research Imech, Cas

Nokia Solutions and Networks Oy

Peking University

Beijing Baidu Netcom Science Technology Co., Ltd

Beijing Dajia Internet Information Technology Co., Ltd.

Heng Zhang

Tongmin Liu

Jun Xu

Qing Zhang

Shouzheng Wu

Fusheng Huang

Yu Wang

Wenhao Li

Yunkai Deng

Guanhua Feng

Hui Wang

Qian Wang

Feng Qu

Yan Wang

Hang Li

Kai Wang

Ning Li

Jie Yang

Li Jiang

Chen Zhang

Fei Chen

Sheng Wang

Junsheng Chen

Lei Yang

Yue Yang

Liugang Zhou

Chunyang Nie

Jing Yu

Jianwei Sun

Jian Hu

Yuansheng Zang

Xiaojun Wang

Kai Zhou

Dapeng Liu

Huiming Wang

Xin He

Yajun Li

Shu Tao

Baoqing Yin

Wenlong Feng

Ji Shao

Hongxiang Xu

Zhigang Ouyang

Kaiyu Liu

Kai He

Chunhui Zhou

Dacheng Liu

Quan Sun

Zhu Qiao

Chenchen Di

Chunpu Wu

Yunhua Fang

Yueming Chen

Guming Gao

Fengzhi Qiu

Xiaoqiao Jiao

Guofeng Shen

Shuxiu Zheng

Linli Lv

Haoyu Lin

Da Liang

Tingzhu Fang

Aoxiang Li

Jiangwen Tang

Jili Wang

The present disclosure relates to a system and method for capturing movement trajectories of particulate matter. The system includes: micro lidar measurement equipment and a camera. The micro lidar measurement equipment includes: a laser device, a pitching platform, and a protective casing for the laser device, and the laser device is located on the pitching platform. The laser device is configured to emit a laser. The camera is configured to shoot the laser, determine particulate matter concentrations according to a grayscale of pixels and a height of the pixels in a photo shoot, and compare differences in spatial distribution of particulate matter concentrations at different time to obtain the movement trajectories of the particulate matter.

System and method for capturing movement trajectories of particulate matter

A method for sharing a resource, includes: generating, by a first AI node, an association relation between the first AI node and at least one other AI node, in which the association relation is configured to generate an AI federal network; receiving, by the first AI node, resource sharing information; determining, by the first AI node, a target AI node of sharing resources with the first AI node based on the resource sharing information; determining, by the first AI node, a target resource to be shared based on the resource sharing information; and sharing, by the first AI node, the target resource with the target AI node through the AI federal network. Therefore, AI nodes realize resource sharing through the AI federal network, which is suitable for resource sharing scenarios of multiple different AI nodes and has good scalability, thereby greatly reducing the development difficulty and cost of resource sharing.

Method for sharing resource, method for creating service, electronic device, and storage medium

The present disclosure provides a dimming window and a method for manufacturing the same. The dimming window includes a cell defined by a first substrate and a second substrate, where at least one side edge of the first substrate exceeds an outside of the second substrate, and a part of the first substrate that exceeds the second substrate serves as a single substrate region; a first transparent conductive layer on one side of the first substrate facing the second substrate; a second transparent conductive layer on one side of the second substrate facing the first substrate; and a liquid crystal layer between the first substrate and the second substrate. The first transparent conductive layer includes a bonding region at the single substrate region; and a pattern of the bonding region includes a first sub-region and a second sub-region which are separated from each other;

Dimming window comprising a transparent conductive layer having a bonding region and method for manufacturing the same

A drive method for a display panel () includes: obtaining display data corresponding to a current display frame, and a current refresh rate (S); determining a target rate level corresponding to the current refresh rate according to the current refresh rate and prestored rate levels corresponding one-to-one to different refresh rate intervals (S); and controlling sub-pixels in the display panel () to be charged with a data voltage according to the target rate level and the display data (S).

Drive method for display panel displaying display frames at different refresh rates

A display device includes a backlight module; a display module located on a light exiting side of the backlight module; and a housing accommodating the backlight module and the display module. The display module includes a display panel including an array substrate and a color film substrate arranged opposite to each other. The color film substrate is located between the array substrate and the backlight module. A first polarizer located on one side of the array substrate away from the color film substrate. A manufacturing method of a display device is also provided.

Display device and manufacturing method of display device

A method for processing images can include: acquiring a hair region in a first image; determining a hair direction parameter of a pixel point in the hair region by a hair direction prediction model based on the hair region; converting the hair direction parameter of the pixel point into a hair direction of the pixel point; and generating a second image by processing the hair region in the first image based on the hair direction of the pixel point.

Method and electronic device for processing images

A spacecraft nutation inhibition method for low-orbit geomagnetic energy storage in-orbit delivery includes: S1, enabling a delivery connection rod to be slidably connected to two mass blocks in a length direction, and adjusting the center of mass of a spacecraft system to pass through a main connecting shaft; S2, respectively measuring, calibrating and adjusting the center of mass and the principal axis of inertia of the delivery connection rod that is to deliver the space target or de-orbit debris; S3, carrying out energy storage delivery; S4, respectively adjusting the center of mass and the moment of inertia of the delivery connection rod after delivering the space target or de-orbit debris; S5, carrying out energy dissipation and unloading; and S6, enabling the spacecraft system to prepare to grab the next space target or de-orbit debris and proceeding to the next delivery work cycle.

Spacecraft nutation inhibition method for low-orbit geomagnetic energy storage in-orbit delivery

A method for space-variance correction imaging of BiSAR includes: motion parameters corresponding to a target point in an equivalent monostatic mode are calculated using a first motion trajectory, a second motion trajectory and an imaging parameter for focusing a radar echo signal, the target point at least including a center point of an imaging scene; azimuth Doppler center bias correction is performed on the radar echo signal by using the motion parameters corresponding to the center point; uniform and residual range cell migration correction is performed on a corrected signal, range blocking is performed, and range space-variance phase errors are corrected block by block; azimuth blocking is performed, and a corresponding number of filters are constructed for filtering processing; and inverse Doppler center bias correction is further performed to obtain a final imaging result graph.

Method and apparatus for space-variance correction imaging of bistatic SAR, device and storage medium

A transfer type contra-rotating geomagnetic energy storage-release delivery system is disclosed. The system includes a control system, a three-axis control moment canceller and an energy system, which are arranged on a delivery mother spacecraft, and the delivery mother spacecraft is connected, through support rod structures, with a strong magnetic moment generating device, a contra-rotating transmission mechanism and two delivery connection rod structures arranged at the two ends of the contra-rotating transmission mechanism, the strong magnetic moment generating device is arranged between the contra-rotating transmission mechanism and the delivery mother spacecraft, the two delivery connection rod structures are provided with slidable mass blocks respectively, and the strong magnetic moment generating device and the contra-rotating transmission mechanism provide energy through the energy system. The strong magnetic moment generating device is free of accelerated rotation of an attitude, thereby decoupling the dual coupling.

Transfer type contra-rotating geomagnetic energy storage-release delivery system and method

A display panel, a driving method thereof and a display device. The display panel includes a plurality of pixel units, the plurality of pixel units includes a first pixel unit, the first pixel unit includes a first sub-pixel, the first sub-pixel includes an infrared luminescent material on a display side, and the infrared luminescent material is capable of emitting infrared light under an irradiation of light emitted by the first sub-pixel.

Display panel, driving method thereof, and display device

Range-compressed data are determined by range-compressing echo data, and are set as first data to be decomposed by first decomposition. Starting from n=1, iteration is performed as follows. nth data to be decomposed are up-sampled. nth decomposition is performed on the up-sampled data. Dependency on slant ranges between a reference point and sub-apertures before and after synthesis is determined. nth azimuth-synthesized data are acquired by performing, according to the dependency on the slant ranges, nth azimuth synthesis on data acquired by the nth decomposition. The nth azimuth-synthesized data are set as (n+1)th data to be decomposed by (n+1)th decomposition. The n is increased by 1. A next iteration is performed until the n reaches a positive integer N greater than 1. A focused image is acquired by performing azimuth focusing on the Nth azimuth-synthesized data by BP.

Method and device for imaging by bistatic synthetic aperture radar

A touch module and a manufacturing method thereof, and a touch screen are provided. The method of manufacturing a touch module includes: forming a composite electrode, a lead, and a lead pad each of which has a stacked structure of a transparent conductive layer and a metal layer on a substrate by one patterning process, the touch module including a touch area, and a peripheral area and a bonding area located at the periphery of the touch area, the composite electrode being formed in the touch area, the lead being formed in the peripheral area, and the lead pad being formed in the bonding area; forming a protective layer outside the touch area, and etching away the metal layer of the composite electrode to form a transparent touch electrode.

Method of manufacturing a touch module

Disclosed are a backlight module and a display apparatus. The backlight module includes an infrared light source, an optical fiber and a conversion component. The infrared light source is connected with an input end of the optical fiber and configured to provide infrared light to the input end of the optical fiber. An output end of the optical fiber is connected with the conversion component and configured to transmit the infrared light to the conversion component. The conversion component includes a tube body, and a plurality of light emitting elements are arranged along an extending direction of the tube body successively in the tube body. The light emitting elements are configured to emit visible light under the irradiation of the infrared light.

Blacklight module and display apparatus

The present disclosure discloses an electroluminescent display and the encapsulation method thereof. The electroluminescent display comprises: a substrate having encapsulation units provided on a side surface of the substrate; a cover plate covering the substrate, wherein the cover plate together with the encapsulation units defines a first chamber and a second chamber, the second chamber surrounds the first chamber; an electronic device provided on the substrate and located within the first chamber, wherein the first chamber is filled with inert gas and the second chamber is filled with a hydrophobic liquid. The electroluminescent display according to an embodiment of the present disclosure can prevent water vapor and oxygen from entering the electronic device. The entire system has a good sealing performance, such that a service life of the electronic device can be greatly extended.

Electroluminescent display and encapsulation method thereof

A memory includes a number of partitions, each assigned to a respective terminal, each including a first number of subpartitions of a first type, each assigned to a respective cell visited by the respective terminal. The memory includes second number of subpartitions of a second type, each assigned to a respective transition of a terminal between respective cells. Upon each transition of a respective terminal between respective cells, data is received pertaining to the respective terminal from a network entity(les) representing a respective cell. Responsive thereto, in each subpartition of the first type, statistical information is stored that pertains to the terminal in relation to that cell. In each subpartition of the second type, information is stored that pertains to the respective transition of the terminal. It Apparatuses as well as respective related methods, and computer program products are disclosed.

Methods, computer program products and apparatuses enabling to improve handovers in mobile communication networks

Growing community of inventors

Beijing, China

Heng Zhang