Boe Technology Group Co., Ltd.

Chinese Academy of Sciences

Chengdu Boe Optoelectronics Technology Co., Ltd.

Ordos Yuansheng Optoelectronics Co., Ltd.

Samsung Electronics Co., Ltd.

Microsoft Technology Licensing, LLC

Beijing Sogou Technology Development Co., Ltd.

Nokia Technologies Oy

Tsinghua University

Beijing Boe Technology Development Co., Ltd.

Chongqing Boe Optoelectronics Technology Co., Ltd.

Microsoft Corporation

Beijing Jingdong Qianshi Technology Co., Ltd.

Bestechnic (Shanghai) Co., Ltd.

National Institute of Metrology

Lei Yang

Chao Wang

Meng Yang

Huafeng Liu

Chaochao Sun

Shengwei Zhao

Jingping Lv

Ren Xiong

Lin Xie

Fengping Wu

Duolong Ding

Chongliang Hu

Bule Shun

Hang Li

Bin Gao

Tie-Yan Liu

Huiqiang Song

Shimin Sun

Yu Wang

Min Liu

Lizhong Wang

Zhihui Wang

Liping Li

Wenlong Zhan

Hushan Xu

Lei Qi

Yuan Tian

Lulu Ye

Xiaofei Gao

Li Wang

Liang Zhang

Lijun Zhao

Jun Li

Lei Zhu

Li Liu

Ce Wang

Zhiwei Li

Fei Fei Li

Guiyu Zhang

Chen Zhang

Lin Zhang

Weifeng Tong

Chao Xu

Cheng Zhang

Hosang Sung

Chong Liu

Xinyu Zhang

Hua Zheng

Fei Luo

Tianlei Zhang

Heng Zhang

Mingliang Xu

Kai Wu

Xuan Luo

Wenhao Li

Yao Li

Kihyun Choo

Hong Mei Zhao

Jonguk Yoo

Qianli Ma

Xiaofei Wang

Jonghoon Jeong

Hua Zeng

Wenli Liu

Xingang Wu

Zhe Li Yu

Jia Yao

Guanhua Feng

Yifeng Xiao

Jiakun Li

Ji Qi

Yiping You

Rongli Fan

Depeng Shan

Yin-liang Shao

Li Guan

Jianping Zhu

Baoyu Hong

Zhenya Ma

Bob S G Chou

Haoxiang Zhang

Linli Lv

Shiyan Zhang

Hanwen Gao

Xiuyu Shi

Yangyang Yang

Mingnan Zhou

Lufen Tan

Ling Meng

Weiqi Zhou

Jianrong Zhang

Guangyao Gao

Ping Lin

Weiqin Wang

Sheng Zhang

Jingxuan Tu

YunXiao Fu

Conghui Du

Suhang Wang

Congxian Yan

Disclosed is an intelligent pollen monitoring and analysis system and control method. The system includes a monitoring box equipped with a control module and a support platform. The support platform is equipped with a slide storage rack, a pollen sampling assembly, an image acquisition device, and a slide transfer mechanism. The slide storage rack is arranged on a rotating mechanism, and the image acquisition device is equipped with a fine-tuning mechanism. The rotating mechanism, the pollen sampling assembly, the image acquisition device, the slide transfer mechanism, and the fine-tuning mechanism are connected to the control module. The control module is used to control the start and stop of the components, and recognize the pollen concentration and/or pollen quantity uploaded by the image acquisition device. This solution solves the problem of inaccurate pollen concentration monitoring caused by vibration during pollen transmission using sampling tape strips in existing pollen monitoring devices.

Intelligent pollen monitoring and analysis system and its control method

A heat dissipation assembly includes a heat dissipation layer main body including at least one first side, arc-shaped corner side and second side, at least one first bending portion, second bending portion and corner bending portion. A first side, an arc-shaped corner side and a second side are sequentially connected. A first bending portion, a corner bending portion and a second bending portion, that are sequentially connected, are respectively connected to the first side, the arc-shaped corner side and the second side; the corner bending portion is provided with at least one first opening therein. A first opening is in a shape of a strip, and extends substantially in a radial direction of the arc-shaped corner side. In a case where the corner bending portion is provided with first openings therein, the first openings are sequentially arranged at intervals in an extending direction of the arc-shaped corner side.

Heat dissipation assembly, display module and display device

An object detection method is provided. In the method, raw point cloud data including a to-be-detected object is obtained, where the raw point cloud data includes annotation information for the to-be-detected object; instance point cloud data corresponding to the to-be-detected object is extracted from the raw point cloud data by using the annotation information; an object position point is determined from the raw point cloud data, and the raw point cloud data and the instance point cloud data to obtain a fused to-be-detected sample is fused based on the object position point and the to-be-detected object is detected by using the raw point cloud data and the to-be-detected sample.

Object detection method and device

A supporting back film includes a first supporting structure and a second supporting structure arranged on at least one side of the first supporting structure in a second direction. The second direction intersects with the first direction. An orthographic projection of the first supporting structure on the flexible display panel covers the bendable region, and the first supporting structure is bendable. The volume of the second supporting structure is greater than or equal to the volume of the first supporting structure, and the density of the second supporting structure is less than the density of the first supporting structure. Alternatively, the volume of the first supporting structure is greater than or equal to the volume of the second supporting structure, and the density of the first supporting structure is less than the density of the second supporting structure.

Supporting back film and manufacturing method therefor, and flexible display device

Provided is a display panel. The display panel includes: a display substrate, provided with a display region and a peripheral region surrounding the display region; and a touch layer laminated on the display substrate, wherein the touch layer includes a plurality of touch electrodes and a plurality of traces, orthographic projections of the plurality of touch electrodes on the display substrate being within the display region, and orthographic projections of the plurality of traces on the display substrate being within the peripheral region.

Display panel and method for manufacturing same

A display module and a display device are disclosed. The display module includes a display substrate provided with a first edge; a circuit board arranged at the first edge of the display substrate and electrically connected with the display substrate; and a supporting plate arranged on the non-display surface of the display substrate; the supporting plate is able to be bent and includes a first part and a second part, and the second part is provided with a hollow opening; the display substrate is positioned on the first part and is fixedly connected with the first part; and the circuit board is positioned on the second part and is fixedly connected with the second part.

Display module and display device

The present disclosure relates to a support structure provided on one side of a flexible display panel, comprising a bendable region, a non-bendable region and a transitional region between the bendable region and the non-bendable region; the bendable region is provided with a first hollowed-out pattern, and the first hollowed-out pattern comprises a plurality of first hollowed-out holes; the transitional region is provided with a second hollowed-out pattern, and the second hollowed-out pattern comprises a plurality of second hollowed-out holes; the density of the plurality of first hollowed-out holes is greater than the density of the plurality of second hollowed-out holes. The present disclosure also relates to a flexible display apparatus.

Support structure supporting flexible display panel and having bendable region, non-bendable region and transitional region between bendable region and non-bendable region

A position detection method may include obtaining voice signals during a voice call by at least two voice collecting devices; obtaining position energy information of the voice signals; and identifying a position of the terminal device relative to a user during the voice call, from predefined positions based on the position energy information.

Position detection method, apparatus, electronic device and computer readable storage medium

A controlling method of a wearable electronic apparatus includes: receiving, by an IMU sensor, a bone conduction signal corresponding to vibration in the user's face, while the wearable electronic apparatus is operated in an ANC mode; identifying a presence or an absence of the user's voice based on the bone conduction signal; based on the identifying the presence of the user's voice, controlling an operation mode of the wearable electronic apparatus to be a different operation mode from the ANC mode; while the wearable electronic apparatus is operated in the different operation mode, identifying presence or absence of the user's voice based on the bone conduction signal; and based on the absence of the user's voice being identified for a predetermined time while the wearable electronic apparatus is operated in the different operation mode, controlling the different operation mode to return to the ANC mode.

Wearable electronic apparatus and method for controlling thereof

An omnidirectional wheel and a scooter having an omnidirectional wheel are provided. The omnidirectional wheel includes: a hub; support members, in which the support members are circumferentially distributed on the hub, each of the support members has a first mounting surface and a second mounting surface disposed oppositely, the first mounting surface is provided with a first mounting shaft, the second mounting surface is provided with a second mounting shaft, and a distance between a first axis of the first mounting shaft and a wheel center of the hub is less than a distance between a second axis of the second mounting shaft and the wheel center of the hub; first rollers, in which at least one of the first rollers is rotatably disposed on each first mounting shaft; and second rollers, in which at least one of the second rollers is rotatably disposed on each second mounting shaft.

Omnidirectional wheel and scooter having omnidirectional wheel

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 vision-LiDAR fusion method and system based on deep canonical correlation analysis are provided. The method comprises: collecting RGB images and point cloud data of a road surface synchronously; extracting features of the RGB images to obtain RGB features; performing coordinate system conversion and rasterization on the point cloud data in turn, and then extracting features to obtain point cloud features; inputting point cloud features and RGB features into a pre-established and well-trained fusion model at the same time, to output feature-enhanced fused point cloud features, wherein the fusion model fuses RGB features to point cloud features by using correlation analysis and in combination with a deep neural network; and inputting the fused point cloud features into a pre-established object detection network to achieve object detection. A similarity calculation matrix is utilized to fuse two different modal features.

Vision-LiDAR fusion method and system based on deep canonical correlation analysis

A method realizes synchronous playing of audio data from an audio source by two or more wireless speakers. The method includes receiving at each of the wireless speakers first audio data packets sent by the audio source and determining a respective first time point for the receiving of the first audio data packets; processing the first audio data packets at each of the wireless speakers to generate respective second audio data packets, the second audio data packets each including audio data to be played with a fixed data length; setting a delayed play time and obtaining a playing time point at each of the wireless speakers, the obtaining of the playing time point being based on the respective first time point and the respective delayed play time; and playing the second audio data packets at each of the wireless speakers at the respective playing time point.

Method, device, loudspeaker equipment and wireless headset for playing audio synchronously

A pixel structure and a manufacturing method thereof, an array substrate and a display device are provided. The pixel structure includes: a signal line; a common electrode line an extension direction of which is same as an extension direction of the signal line; a transistor including a semiconductor layer which includes a source region and a drain region; a first storage electrode which is insulated from the common electrode line and is connected with the drain region of the semiconductor layer; and a second storage electrode which is connected with the common electrode line and is insulated from the first storage electrode. In the pixel structure, portions, between the signal line and the common electrode line, of the first storage electrode and the second storage electrode includes overlap with each other to form a first storage capacitance.

Pixel structure and manufacturing method thereof, array substrate and display device

The present disclosure provides a solar heat absorber including: an inlet through which a heat collecting medium enters the solar heat absorber; a passage member configured to be fluidly connected with the inlet such that the heat collecting medium enters the passage member through the inlet; and a collection member configured to be fluidly connected with the passage member such that the heat collecting medium enters the collection member through the passage member. In the solar heat absorber according to the present disclosure, the ceramic particles are used as the heat collecting medium. In addition, the present disclosure also provides a solar heat collecting system including the solar heat absorber, and a solar power generation system including the solar heat collecting system.

Solar heat absorber, solar heat collecting system and solar power generation system with ceramic particles

Growing community of inventors

Beijing, China

Lei Yang