Hon Hai Precision Industry Co., Ltd.

Tsinghua University

Huawei Technologies Co., Limited

Chengdu Boe Optoelectronics Technology Co., Ltd.

Boe Technology Group Co., Ltd.

Lenovo (beijing) Limited

Beijing Boe Technology Development Co., Ltd.

National University of Singapore

Beijing Lenovo Software Ltd.

Beijing University of Posts and Telecommunications

Globalfoundries Inc.

Chinese Academy of Sciences

Alibaba Group Holding Limited

Fih (hong Kong) Limited

Shenzhen Futaihong Precision Industry Co., Ltd.

Yuan Yao

Shou-Shan Fan

Chang-Hong Liu

Kai-Li Jiang

Feng-Wei Dai

Chang-Shen Chang

Liang Liu

You-Sen Wang

Ji-Cun Wang

Hui-Ling Zhang

Naxin Zhang

Zhiguo Ge

Tulika Mitra

Lei Wang

Tingliang Liu

Hsien-Sheng Pei

Yonglin Guo

Lei Lv

Ming Cai

Mihai Pricopi

Hai-Zhou Guo

Li-Guo Xu

Yun-Hsin Kevin Liao

Yi Zhang

Yu Wang

Xiangdan Dong

Jun Yan

Shun Zhang

Jie Tang

Tuo Sun

Kai Yang

Yong Yu

Tienlun Ting

Chi Zhang

Chuanyan Lan

Yulong Wei

Bin Sun

Boyan Tu

Taehyun Kim

Bo Qin

Hanjun Luo

Zhi Zheng

Sang Won Lee

Li-Jin Jia

XiaoLin Wei

Hongxing Chen

Dong-Hai Qiao

Jingbin Zhao

Zhuomeng Li

LiSheng Pan

Shu-Qing Wang

WeiXiu Shi

Dong-Xu Weng

Rajesh Shetty

Pradeepa Mattur Mahabala Shastry

Wei-Guo Chu

Jinlin Liu

Zhen Han

Image processing methods, devices, and storage media are provided. One of the image processing methods includes: obtaining an image comprising a target object; inputting the image into a mask prediction model to obtain a first mask image corresponding to the target object in the image; inputting the first mask image and the image comprising the target object into a mask quality unification model to obtain a second mask image, wherein the mask quality unification model is configured to adjust a fineness associated with the first mask image to a target fineness to obtain the second mask image, and wherein the second mask image has image semantic information consistent with image semantic information of the image comprising the target object; and inputting the image comprising the target object and the second mask image into a target image obtaining model to obtain a target image corresponding to the target object.

Image processing method, apparatus, electronic device, and storage medium

An antenna configured to transmit or receive a signal is provided. The antenna includes a substantially transparent base substrate and an antenna electrode on the substantially transparent base substrate. The antenna electrode includes a substantially transparent conductive layer, and a first conductive line abutting an edge portion of the substantially transparent conductive layer and electrically connected to the edge portion of the substantially transparent conductive layer. An electrical conductivity of the first conductive line is greater than an electrical conductivity of the substantially transparent conductive layer.

Antenna configured to transmit or receive signal, smart window, and method of fabricating antenna

Disclosed herein is a display substrate of a display panel, comprising: a support; a second layer on the support; a window extending through the second layer and optically coupled with an image sensor; and a sidewall at least partially surrounding the window; wherein the sidewall is configured to attenuate transmission of light through the sidewall.

Display panel, display substrate thereof and method of making the same

An image processing method, a drive device, a display panel, and a wearable device are disclosed. The image processing method includes: determining an adjacent display pixel adjacent to each grayscale transition region in the row direction or in the column direction in the display image region according to a position of the grayscale transition region; determining a transition pixel in the grayscale transition region; acquiring a first pixel grayscale, in which the first pixel grayscale is a grayscale of the adjacent display pixel; acquiring a second pixel grayscale; adjusting a third pixel grayscale of the transition pixel according to the first pixel grayscale, the second pixel grayscale and the transition pixel, in which the third pixel grayscale is between the first pixel grayscale and the second pixel grayscale; and transmitting the third pixel grayscale to the display panel for display.

Image processing method, drive device, display panel and wearable device

A display substrate includes: a base substrate having a display area and a peripheral area surrounding the display area; an electroluminescent device disposed on the base substrate and located in the display area, the electroluminescent device including an anode, an electroluminescent layer, and a cathode disposed in this order on the base substrate; a negative power line disposed on the base substrate and located in the peripheral area, the negative power line extending along a side of the base substrate and being electrically connected to the cathode; and an insulating layer between the base substrate and the negative power line, a side of the insulating layer close to the negative power line being provided with at least a trench. The trench is located in the peripheral area and extends in an extending direction of the negative power line, a part of the negative power line being located in the trench.

Display substrate, method of manufacturing the same and display device

An antenna is provided. The antenna includes a substantially transparent base substrate; a first pattern having a first feed point and a second pattern having a second feed point spaced apart from each other; a first feed line electrically connected to the first pattern through the first feed point; and a second feed line electrically connected to the second pattern through the second feed point. A first width along a first direction, of the first pattern, gradually increases along a second direction. A second width along the first direction, of the second pattern, gradually increases along a third direction substantially opposite to the second direction. A third width along a fourth direction, of the first feed line, gradually increases along a fifth direction. A fourth width along a sixth direction, of the second feed line, gradually increases along a seventh direction.

Antenna, smart window, and method of fabricating antenna

The present disclosure provides a display panel, including a metal light shielding layer having a first spacing area, an electrode layer having a second spacing area, and an insulating layer having a recessed area. The second spacing area is disposed offset from the first spacing area; and an insulating layer is disposed between the metal light shielding layer and the electrode layer. An orthographic projection of the recessed area on the metal light shielding layer is at least partially located between a first boundary and a second boundary. The first boundary is an orthographic projection of a sidewall of the first spacing area away from the second spacing area on the metal light shielding layer, and the second boundary is an orthographic projection of a sidewall of the second spacing area away from the first spacing area on the metal light shielding layer.

Display panel having fingerprint recognition function, manufacturing method and display device

A method and system for circulating combined cooling, heating and power with a jet cooling device. An outlet of a working medium pump which is used to pressurize liquid working medium is connected to an inlet of a heater. An outlet of the heater is connected to an inlet of an expansion component. An outlet of the expansion component is connected to an inlet of a cooler. An outlet of the cooler is connected to a primary inlet of a jetting device. Primary outlets of the jetting device are respectively connected to an inlet of the working medium pump and an inlet of a throttle valve. An outlet of the throttle valve is connected to an inlet of an evaporator. An outlet of the evaporator and a gaseous outlet of the jetting device are both connected to an inlet of a pressurization component.

Method and system for circulating combined cooling, heating and power with jet cooling device

The embodiments of the invention disclose an object determining method, a portable device, an object displaying method, an object switching method and an electronic device. Said method is applied to a touch sensitive portable device. Identifications of multiple objects are displayed within a display area of said portable device. Each of the identifications of said multiple objects has a first status of being selected and a second status of being unselected. Said display area has a first area, the identification of a first object is displayed in the first area, and the first object is in the first status. Said method comprises: obtaining a switch instruction; moving the identification of the first object of the first area, switching the identification of the first object from the first status to the second status, moving the identification of the second object into the first area, and switching the identification of the second object from the second status to the first status according to the switch instruction. The embodiments of the invention can simplify the steps of the user's operation.

Object determining method, object display method, object switching method and electronic device

A data processing method includes allocating a tag entry in a tag array for a data block; allocating a data entry in a data array for the data block when the data block is actively shared; and de-allocating the data entry when the data block is temporarily private or gets evicted in the data array.

Cache coherence directory architecture with decoupled tag array and data array

Aspects of the present disclosure includes a method and program product for clock synchronization of a networked computer system. The method records a time (t) when a first codeword marker in a datastream is sent from a master computer to a slave computer and records a second time (t) when the slave computer receives the first codeword marker. The method includes recording a third time (t) when a third codeword marker in a datastream is sent from the slave computer to the master computer. The method includes recording a fourth time twhen the master receives the third codeword marker from the slave. The method calculates a time offset &#x3b8;, according to; and a roundtrip delay &#x3b4;, according to &#x3b4;=(t&#x2212;t)&#x2212;(t&#x2212;t). The clock in the slave computer is synchronized with a clock in the master computer using &#x3b8; and &#x3b4;.

Clock synchronizaton using codeword marker

A reconfigurable cache architecture is provided. In processor design, as the density of on-chip components increases, a quantity and complexity of processing cores will increase as well. In order to take advantage of increased processing capabilities, many applications will take advantage of instruction level parallelism. The reconfigurable cache architecture provides a cache memory that in capable of being configured in a private mode and a fused mode for an associated multi-core processor. In the fused mode, individual cores of the multi-core processor can write and read data from certain cache banks of the cache memory with greater control over address routing. The cache architecture further includes control and configurability of the memory size and associativity of the cache memory itself.

Fusible and reconfigurable cache architecture

A method for making a carbon nanotube composite preform includes following steps. A substrate is provided. Carbon nanotubes are formed on the substrate. The carbon nanotubes and the substrate are placed in a solvent for a predetermined time. The carbon nanotubes and the substrate are drawn from the solvent. The carbon nanotubes and the substrate are dried.

Method for making carbon nanotube composite preform

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Beijing, China

Yuan Yao