Hon Hai Precision Industry Co., Ltd.

Tsinghua University

Boe Technology Group Co., Ltd.

Beijing Baidu Netcom Science and Technology Co., Ltd.

Beijing Funate Innovation Technology Co., Ltd.

Apollo Intelligent Driving Technology (beijing) Co., Ltd.

Beijing Boe Technology Development Co., Ltd.

Huawei Technologies Co., Limited

Baidu Online Network Technology (beijing) Co., Ltd.

Beijing Qihoo Technology Company Limited

Beijing Baidu Netcom Science Technology Co., Ltd

Alibaba Group Holding Limited

Peking University

Nuctech Company Limited

Boe Technology Groupco., Ltd.

Zhuo Chen

Shou-Shan Fan

Kai-Li Jiang

Chen Feng

Lin Xiao

Liang Liu

Wei He

Yu Ma

Kaiwen Feng

Liming Xia

Yibing Liang

Yuan-Chao Yang

Chengliang Deng

Haifeng Wang

Jingchao Feng

Qun-Qing Li

Yang Wei

Li Qian

Bocong Liu

Weide Zhang

Kai Liu

Quan Wang

Ning Qu

Chun-Xiang Luo

Yanzhao Li

Baisheng Wang

Chao Zhang

Xiaodong Xu

Kai Yang

Gang Yu

Wenhai Mei

Jiankang Xin

Lei Zhang

Long Wang

Hai Tang

Yuedi He

Wuzhao Zhang

Yong-Chao Zhai

Hongda Zhang

Kang Yang

Weifeng Yao

Ronggui Peng

Jing Lan Chen

Yan Wang

Xiaowei Jiang

Dong Li

Dongmei Zhang

Liangliang Zhang

Junren Chang

Yan Peng

Tieshi Wang

Yuju Chen

Yajuan Li

Jie Sun

Nan Hu

Lijia Zhang

Xiaoyan Wang

Boris Kristal

Changcheng Ju

Qijuan Yin

Yuanming Zhang

Qingrui Sun

Peng Liu

Yang Liu

Rui Fan

Qian Wang

Zheng Wang

Peng Chen

Na Li

Xi Wang

Jian Zhao

Hao Yu

Li-Na Zhang

Hongqiu Wang

Fang Quan Xie

Feng Drake Zhu

Hui Ma

Tingting Liu

Ningyu Chen

Cheng Song

Xiaoguang Xu

Kai Xie

Xiyuan Wang

Haizheng Zhong

Junshuai Sun

Yingying Wang

Xueyan Huang

Chieh Hsing Chung

Qiuxiang Li

Shixin Zhang

Tao Jing

Dalong Mao

Xingyu Han

Xingwang Deng

Renjie Qu

Siyi Yin

Chunlei Fan

Ligeng Ma

Chihlin I

ZiZheng Liu

A method of fabricating quantum dots layer is provided. The method includes converting a plurality of first block regions of a substrate from having a first property into having a second property different from the first property, the first property being selected from hydrophilic, oleophilic, and hydro-oleophobic, the second property being selected from hydrophilic and oleophilic; coating the plurality of first block regions with a first quantum dots material solution including a first ligand chelated to a first quantum dots material in a first solvent having the second property; converting the plurality of first block regions from having the second property into having the first property, and converting a plurality of second block regions of the substrate from having the first property into having the second property; and coating the plurality of second block regions with a second quantum dots material solution including a second ligand.

Method of fabricating quantum dots layer, substrate, and display apparatus

A method and system for generating a random graphic training dataset and a hologram is disclosed, which relates to the technical field of image processing. The method for generating a random graphic training dataset includes: randomly generating a plurality of graphic datasets, where each of the graphic datasets includes a square, a circle and an equilateral triangle; for any graphic dataset, performing gradual filling on each graphic in the graphic dataset to obtain a gradual graphic dataset; and performing translation transformation on each graphic in the gradual graphic dataset for a predetermined number of times to obtain random graphics corresponding to the graphic dataset, and determining random graphics corresponding to all graphic datasets as a random graphic training dataset. More comprehensive training data can be provided and a training effect of a model can be improved.

Method and system for generating random graphic training dataset and hologram

A light emitting diode and a display device including the light emitting diode. The light emitting diode includes a first electrode, a quantum dot light emitting layer, a carrier transport layer and a second electrode, in which the light emitting diode further includes a metal transition layer located between the carrier transport layer and the second electrode, and the second electrode includes a transparent conductive oxide material.

Light emitting diode and display device

A method for preparing a ZnSe quantum dot, a ZnSe quantum dot, a ZnSe structure and a display device are provided. The method includes preparing a first zinc precursor solution, a second zinc precursor solution, a first selenium precursor solution, and a second selenium precursor solution with a lower reaction activity than the first selenium precursor solution, adding the first selenium precursor solution to the second zinc precursor solution to form an intermediate of the ZnSe quantum dot, performing the following operation at least once to form the ZnSe quantum dot: sequentially adding the first zinc precursor solution and the second selenium precursor solution to the intermediate of the ZnSe quantum dot and making the first zinc precursor solution, the second selenium precursor solution, and the intermediate of the ZnSe quantum dot react.

Method for preparing ZnSe quantum dot, ZnSe quantum dot, ZnSe structure and display device

The present disclosure discloses a nanoparticle having a ligand with a changeable polarity, a nanoparticle layer patterning method and related application. When the nanoparticle disclosed by the present disclosure is adopted to form a patterned nanoparticle layer on a substrate, a photosensitive material is added in the nanoparticle, then a protective group in a first ligand is dissociated to form an amino under the irradiation of light with a preset wavelength, a second ligand including an amino is formed on a surface of a nanometer particle, and a polarity of the second ligand is different from a polarity of the first ligand; and the amino of the second ligand is cross-linked with an adjacent nanoparticle.

Nanoparticle having dissociable protective group, nanoparticle layer patterning method and related application

An image processing method in remote control, a device, an apparatus and a program product are provided and related to the field of automatic driving technologies. The specific implementation solution includes receiving image information sent by a vehicle, wherein the image information includes multiple-channel image data collected by the vehicle; performing a stitching process on the multiple-channel image data, to obtain a stitched image; sending the stitched image to a remote cockpit apparatus for controlling the vehicle.

Image processing method in remote control, device, apparatus and program product

A method for remote control of an autonomous driving vehicle (ADV) includes: sending an assistance request to a cloud server in response to detecting that a current road section in front of the ADV is unable to be passed; obtaining a reference detour route returned from the cloud server; generating control instructions based on the reference detour route and a current driving environment of the ADV; and controlling the ADV based on the control instructions.

Method for remote control of autonomous driving vehicle, autonomous driving vehicle and cloud device

A quantum dot light emitting structure and a method for manufacturing the same, an array substrate, and a display device are disclosed. The quantum dot light emitting structure includes a quantum dot light emitting layer, an electrode, and an electron transport layer located between the quantum dot light emitting layer and the electrode; the quantum dot light emitting structure further includes an electron blocking layer located in the electron transport layer.

Quantum dot light emitting structure, method for manufacturing the same, array substrate, and display device

Disclosed are a display substrate and a method for manufacturing the same, and a display device, belonging to the technical field of display. The display substrate includes: a base substrate, an electroluminescent device layer on the base substrate, and a light-absorbing layer on a light-emitting side of the electroluminescent device layer, wherein the electroluminescent device layer is configured to emit initial light of a first color, wherein the initial light forms target light after passing through the light-absorbing layer, and a full width at half maximum of an emission spectrum of the initial light is greater than a full width at half maximum of an emission spectrum of the target light. According to the present disclosure, the display device is provided with a wider color gamut.

Display substrate and manufacturing method therefor, and display device

The present disclosure discloses a nanoparticle, a nanoparticle layer patterning method and related application. When the nanoparticle disclosed by the present disclosure is adopted to form a patterned nanoparticle layer on a substrate, a photosensitive material is added in the nanoparticle, then a protective group in a first ligand is dissociated to form an amino under the irradiation of light with a preset wavelength, a second ligand including an amino is formed on a surface of a nanometer particle, and a polarity of the second ligand is different from a polarity of the first ligand; and the amino of the second ligand is cross-linked with an adjacent nanoparticle.

Nanoparticle having ligand with changeable polarity, nanoparticle layer patterning method and related application

A light-emitting diode structure, a fabrication method therefor, and a display panel. The light-emitting diode structure includes: a base substrate; and a first electrode layer, a light-emitting layer and a second electrode layer that are successively stacked on the base substrate, wherein the second electrode layer includes a first coarse surface that is located at a side far from the base substrate.

Light-emitting diode structure, fabrication method therefor, and display panel

The present disclosure provides a light emitting diode, a method of preparing the same, and a display device. The light emitting diode includes an anode, a quantum dot light emitting layer, an electron transport layer, a cathode, and a transition layer located between the electron transport layer and the cathode, the cathode including a transparent conductive oxide material, and a material of the transition layer having a work function Wbetween an LUMO of a material of the electron transport layer and a work function Wof a material of the cathode.

Light emitting diode, method for preparing the same, and display device

A handover method, information exchange method, device and computer readable storage medium are provided. In some embodiments, a first network device may acquire multi-connectivity capability information of a candidate second network device during a handover process, so that the first network device may select, based on the multi-connectivity capability information, a candidate second network device capable of providing an multi-connectivity service as a second network device.

Handover method, information exchange method, device and computer readable storage medium

Provided is a flexible display screen, including: a flexible substrate provided with a foldable portion; pixel units disposed on a first surface of the flexible substrate; and a fold detection device including a reflective grating structure, an optical waveguide structure and a photoelectric sensor, wherein the optical waveguide structure and the reflective grating structure are sequentially laminated on the first surface of the flexible substrate and both disposed in the foldable portion, an orthographic projection of the optical waveguide structure onto the flexible substrate is overlapped with an orthographic projection of the reflective grating structure onto the flexible substrate, and the optical waveguide structure is connected to the photoelectric sensor.

Flexible display screen and electronic device

A processing method of an adaptation layer of an integrated access and backhaul node and an adaptation layer are provided. The method includes: mapping, by the adaptation layer of the integrated access and backhaul node, a received first data packet to a first bearer or channel between the integrated access and backhaul node and a first node; transmitting, by the adaptation layer of the integrated access and backhaul node, the first data packet to the first node; wherein the first node is a downstream integrated access and backhaul node relative to the integrated access and backhaul node and/or a UE accessing the integrated access and backhaul node, or the first node is an upstream integrated access and backhaul node relative to the integrated access and backhaul node or a donor node of the integrated access and backhaul node.

Processing method of adaptation layer of integrated access and backhaul node and adaptation layer

Growing community of inventors

Beijing, China

Zhuo Chen