Boe Technology Group Co., Ltd.

Hon Hai Precision Industry Co., Ltd.

Tsinghua University

Huawei Technologies Co., Limited

Ordos Yuansheng Optoelectronics Co., Ltd.

International Business Machines Corporation

State Grid Corporation of China

Siemens Aktiengesellschaft

Vmware, Inc.

Chengdu Boe Optoelectronics Technology Co., Ltd.

Lenovo (beijing) Limited

Beijing Boe Display Technology Co., Ltd.

Beijing Zitiao Network Technology Co., Ltd.

Sunshine Lake Pharma Co., Ltd.

Chinese Academy of Medical Sciences

Yan Zhao

Jun Zhu

Guo-Fan Jin

He Fang Zhang

Li Wang

Nan Li

Qinglin Ma

Baojie Zhao

Chunhong Ma

Xiang Hui

Xiongwei Wang

Jian Li

Weiqiang Sun

Ji Long Yao

Qinglang Meng

Yibo Yang

Zhen Liu

Qi Cheng Li

Lei Shi

Leho Nigul

Lei Sun

Jing Sun

Sheng Zhang

Qi Cheng

Tianyi Wang

Hong Bo Peng

Zhiyuan He

Chengyu Jiang

Chuan Jie Zheng

Qining Li

Renjie Qu

Jianchao Du

Zhu Liang

Jiantao Xu

Chun Yang Gao

Lei Wang

Wei Wang

Shun Zhang

Xu Wang

Min Li

Dong Hui Liu

Ze Liu

Lei Jiang

Binfeng Feng

Feng Yang

Chao Yang

Fei Li

Haoyuan Fan

Qicheng Chen

Jiaxiang Wang

Lan Jin Wang

Nan Liu

Yonghui Luo

Zhaoli Zhang

Weimin Ma

Jenyu Lee

Guangfu Tang

Xuwei Li

Yuwei Zhou

Xiang Luo

Runtao Li

Jian Cheng

Ming Dai

Tianlong Zhao

Yue Feng

Lubiao Sun

Zhao Gao

Xiaoguang Wei

Shiyou Mu

Yongkai Wu

Shuaimin Jian

Jinlong Zhao

Yong Sun

Yaohong Tan

Shuang Lei

Hongmei Li

Guanbin Wu

Naiyuan Xu

Wenhui Zhao

Yuefeng Yang

Renqiu Wang

Ying Hua Song

Yutian Sun

Bingqiang Li

Huadong Zhang

Lin Tan

Xiaoge Wang

Wuwei An

Hongye Zuo

Xufeng Liu

Jianbin Sun

Yanbin Zhang

Peiqing Miao

Tongbin Wang

Tongzhi Li

Liangmin Yu

Jun Du

Xiaoran Lei

Jinxing Wang

Chuanqing Wang

A use of a diarylamide compound having the structure as shown in formula (I) or a pharmaceutically acceptable salt thereof in preparing a drug which acts as a urea transporter protein inhibitor, and a novel diarylamide compound. The diarylamide compound has urea transporter protein inhibitor effect, and can produce urea selective diuresis in the body without obvious toxicity.

Diarylamide compound and application thereof

A flexible display device and an electronic device are provided. The flexible display device includes a display substrate, a polarizer and a first optical adhesive layer that are sequentially stacked, and is provided with a display area and a first corner area. In the first corner area, an outer contour of the polarizer and/or an outer contour of the first optical adhesive layer extend(s) beyond an outer contour of the display substrate. The display substrate includes an anti-crack base, an anti-crack retaining wall, and a plurality of anti-crack blocks that are at least located in the first corner area. The anti-crack retaining wall is formed on the anti-crack base and located outside of the display area, and the plurality of anti-crack blocks are formed on the anti-crack base and located on the side of the anti-crack retaining wall away from the display area.

Flexible display device and electronic device

Provided are microRNA from aroot and uses thereof in the prevention and/or the treatment of a fibroplasia medical sign and/or syndrome.

Microrna and uses thereof in prevention and/or treatment of fibroplasia medical sign and/or syndrome

The present disclosure provides a display control method and apparatus, terminal, and storage medium. In some embodiments, the present disclosure provides a display control method, comprising: presenting a virtual reality space; in response to a first preset event, locating a virtual character of a user to a first-type watching area in the virtual reality space, wherein there is a stage in the virtual reality space, the stage is used to present a real or virtual image of a performer, and the first-type watching area is located on the stage; and displaying an image of the virtual reality space based on a viewing angle of the first-type watching area. This disclosed embodiment can improve the viewing experience.

Display control method and apparatus, terminal, and storage medium

According to a load sharing method and a network device, traffic distribution ratios are correspondingly preset for different paths. For example, an equivalent resistance method is used as a load sharing algorithm provided in embodiments of this application, to calculate a corresponding traffic distribution ratio for each possible path. The traffic distribution ratio and the corresponding path are preset for a corresponding node. In this way, traffic entering a network device is distributed to each path in the network device based on the preset ratio, without causing excessive bandwidth pressure on a shortest path, to implement relatively optimal load balancing. For the network device with either a ring network structure or a stereoscopic network structure, a requirement for a link bandwidth between the nodes in the network device can be reduced.

Load sharing method and network device

A method includes a first node obtaining a first target bandwidth of first traffic on a first path, where the first path is a path used to transmit the first traffic from the first node to a second node. The first target bandwidth is not greater than a minimum value in remaining available bandwidths of single-hop links on the first path, and a single-hop link is a link between two directly connected nodes. The first node sends the first traffic on the first path based on the first target bandwidth. Accordingly, before traffic is transmitted in the network device, available bandwidth resources are predetermined for the traffic, and the traffic corresponding to the available bandwidth resources is transmitted on the determined available bandwidth resources.

Transmitting traffic on path between nodes in network device based on available bandwidths

A method is applied to a ring link, where the ring link includes a first node, a second node, a third node, and a fourth node in sequence. According to the method, the first node receives first traffic, where the first node is a source node that sends the first traffic on the ring link; and the first node sends the first traffic to the third node, where two reachable paths with equal hop counts are included from the first node to the third node, the first node sends the first traffic to the third node on a preset first transmission path, the first transmission path passes through the second node, and the first transmission path is one of the two reachable paths with equal hop counts. This method can reduce computing load of nodes while implementing non-blocking switching of traffic between the nodes.

Method, node, and system for traffic transmission

The present disclosure provides a display assembly and a display device, the display assembly includes: a flexible display panel including a first display area, a second display area and a bending area formed between the first display area and the second display area, a metal resilient member fixedly attached to one side of the flexible display panel, a metal support located on a side, away from the flexible display panel, of the metal resilient member, a first conductive adhesive structure located at the edge of the bending area and connecting the first support part and the metal resilient member, and a second conductive adhesive structure located at the edge of the bending area and connecting the second support part with the metal resilient member, wherein the metal support is fixedly attached to the metal resilient member by an adhesive layer.

Display assembly and display device

A display substrate has a display area, an opening area and an isolation area located between the display area and the opening area and surrounding the opening area, and the display area is disposed at least partially around the opening area. The display substrate includes a flexible base having a via hole located in the opening area. The flexible base includes an amorphous silicon layer. The amorphous silicon layer includes a first portion located in the isolation area and a second portion located in the display area, and a thickness of the first portion is greater than a thickness of the second portion.

Display substrate and method of manufacturing the same

A method for implementing load balancing are applied to a 4-node network structure. Every two nodes in the 4-node network structure are interconnected, and the nodes are, e.g., dies. The 4-node network structure includes a source node (SN) and a destination node (DN). According to the method, when a bandwidth occupied by ingress traffic flowing into the SN and destined for the DN is greater than a bandwidth of a fabric side link (FSL) between the SN and the DN, the SN selects at least two transmission paths to send the ingress traffic to the DN; and when the bandwidth occupied by the ingress traffic is less than or equal to the bandwidth of the FSL, the SN transmits the ingress traffic on a direct link between the SN and the DN.

Method, device, and network system for load balancing

A substrate, a mask, a display panel and a display device are provided. The substrate includes a base substrate and a color resistance layer on the base substrate. The substrate has a display area and a non-display area. The color resistance layer in the non-display area includes a weakening unit for weakening or disconnecting connection between the color resistance layer in the non-display area away from the display area and the color resistance layer in the display area. During the development and washing process of the substrate, even if the color resistance layer in the non-display area is peeled off, the color resistance layer in the display area will not be peeled off together, which helps to ensure the safety and reliability of the color resistance layer in the display area.

Substrate, mask, display panel and display device

A Wien filter and a charged particle beam imaging apparatus are provided. The Wien filter Wien filter, including a Wien filter body which includes: an electrostatic deflector, including at least one pair of electrodes, respective two electrodes in each pair of which are opposite to each other, each electrode including an electrode body constructed in an arc-shaped form, and respective electrode bodies of respective two electrodes in each pair of the at least one pair of electrodes being arranged concentrically with and opposite to each other in a diameter direction, and the at least one pair of electrodes being configured to generate respective electric fields by cooperation of the respective two electrodes in each pair of the at least one pair of electrodes, in the condition of respective bias voltages applied individually thereon; and a magnetic deflector, including at least one pair of magnetic poles, respective two magnetic poles in each pair of which are opposite to each other, each magnetic pole including a magnetic pole body constructed in an arc-shaped form, and respective magnetic pole bodies of respective two magnetic poles in each pair of the at least one pair of magnetic poles being arranged concentrically with and opposite to each other in the diameter direction, and the magnetic pole bodies of the at least one pair of magnetic poles in the magnetic deflector and the electrode bodies of the at least one pair of electrodes in the electrostatic deflector being arranged concentrically and spaced apart from each other in a circumferential direction, and the at least one pair of magnetic poles being configured to generate respective magnetic fields by cooperation of respective two magnetic poles in each pair of the at least one pair of magnetic poles; a resultant electric field formed collectively by all of the respective electric fields is perpendicular to a resultant magnetic field formed collectively by all of the respective magnetic fields; and each electrode is also provided with a respective first protrusion extending radially inwards from a radial inner side of the respective electrode body thereof, and each magnetic pole is also provided with a second protrusion extending radially inwards from a radial inner side of the respective magnetic pole body thereof.

Wien filter and charged particle beam imaging apparatus

A signal lamp recognition method, a device, and a storage medium are provided, which are related to the field of intelligent transportation such as vehicle infrastructure cooperation, Internet of vehicles and the like. The method includes recognizing a plurality of video frames by using a signal lamp recognition model to obtain state information of a real signal lamp and state information of a simulated signal lamp; and determining a time delay between the real signal lamp and the simulated signal lamp according to the state information of the real signal lamp and the state information of the simulated signal lamp.

Signal lamp recognition method, device, and storage medium

An electron beam detection apparatus for a semiconductor device and an electron beam detection assembly are disclosed, the electron beam detection apparatus including a stage, which is configured to carry and hold the semiconductor device at a top surface of the stage, and is translatable in two directions orthogonal to each other, an aiming device, configured to determine a position of the semiconductor device in a coordinate system of the electron beam detection apparatus by capturing an image of the semiconductor device, the aiming device provided with a first field of view and a first optical axis, and an electron beam detection device, configured to detect an emergent electron beam exiting the semiconductor device by projecting an electron beam to the semiconductor device, the electron beam detection device provided with a second field of view and a second optical axis which is not consistent with the first optical axis.

Electron beam detection apparatus for semiconductor device and electron beam detection assembly

Growing community of inventors

Beijing, China

Yan Zhao