International Business Machines Corporation

Sap Se

Huawei Technologies Co., Limited

Boe Technology Group Co., Ltd.

Tencent Technology (shenzhen) Company Limited

Beijing Boe Display Technology Co., Ltd.

Smsc Holdings Sarl

Future Wei Technologies, Inc.

Shenzhen Mindray Bio-medical Electronics Co., Ltd.

Xiaomi Inc.

Beijing Baidu Netcom Science Technology Co., Ltd

Chinese Academy of Medical Sciences

Institute of Basic Medical Sciences

Shenzhen Xinyidai Institute of Information Technology

Tencent Technology Company Limited

Heng Wang

Xiao Ling Chen

Wen-Syan Li

Wen Ji Huang

Jing Li

Peng Hui Jiang

Xin Peng Liu

Li Zhang

Cheng Fang Wang

Yan Huang

Chen Liu

Hongming An

Lei Wang

Dong Chen

Chao Li

Yang Gao

Jing Lv

Ke Zhang

Wei Gao

Jing Chen

Guang Han Sui

He H Liu

Yan Wu

Rui Guo

Wei Jiang

Wei Gong

Jingrong Xie

Gang Yan

Xue Yong Zhang

Yonggang Wang

Jing Hu

Haibo Zhang

Lu Lu

Xuming Wu

Ziguang Gao

Gufei Sun

Sheng Shuang Li

Min Zhou

Jiarong Liu

Shengping Li

Chun Li

Snehal S Antani

Tie Liu

Xin Sheng Mao

Yi Yuan

Qi Liang

Jun Cai

Bin Liu

Yongsheng Zhao

Si Yu Chen

Wen Bin Han

Si Qi Zhong

Zhixiao Yao

Junjie Cai

Shen Li

Jia Fei

CongQing Xiong

Qing Yu Pei

JingJing Li

JunJie Cai

Wan Yue Chen

Yan R Wu

Zhiguang Xu

Haishui Ye

Jianmin Gong

Xiao He

Hong Cai

Xingtian Shi

Qi Ye

Fei Tan

Fanghong Duan

Bo Liu

Yinghua Dong

Shuang Shuang Jia

Zhicheng Ye

Jiangang Deng

Enyu Zhou

Jun Jie Cai

Xiaopeng Zhang

Zheng Lei An

Jun Yu

Zhonghui Peng

Hai Hong Xu

Wen Qi Wq Ye

Jing Dai

Kui Zhang

Kai Feng

Tao Guan

Jingwei Cai

Yu Peng

Yuanbing Cheng

Fei Xiangli

Zhi Dan Hao

Yelu Liu

Lin Quan Jiang

Tianbao Yu

Jian Chen

Zhangwei Dang

A next-hop determining method is applied to a BIER domain based on bit index forwarding routing, and includes: A third device obtains first BIER information of a first device, an attribute of the first device, second BIER information of a second device, and an attribute of the second device, where the first BIER information includes a BFR-id of an edge BFR in a sub-domain, and the second BIER information includes the BFR-id of the edge BFR in the sub-domain. The third device determines, based on the first BIER information, the second BIER information, the attribute of the first device, and the attribute of the second device, a next hop to the edge BFR in the sub-domain.

Next hop determining method and apparatus

A camera module and a terminal device having the camera module, the camera module including a plurality of lenses, where lenses of the plurality of lenses are sequentially arranged from an object side to an image side along a direction of an optical axis, where at least one of the plurality of lenses is a free-form lens, where the free-form lens is a non-rotationally symmetric lens, where a first lens of the plurality of lenses is a lens of the plurality of lenses nearest the object side in a direction from the object side to the image side, where a distance on the optical axis between an object-side surface of the first lens and an imaging surface is TTL, where an effective focal length of the camera module is EFL, and TTL/EFL≤2.0.

Camera module and terminal device

A computer-implemented method according to one embodiment includes updating code segments of source code to include predetermined code pieces. The updated code segments are configured to output information about associated test cases upon the test cases being run. The method further includes running the test cases, and subsequent to a change being made to the source code, determining a prioritized subset of the test cases. The prioritized subset of the test cases is run. A computer program product according to another embodiment includes a computer readable storage medium having program instructions embodied therewith. The program instructions are readable and/or executable by a computer to cause the computer to perform the foregoing method.

Determination of a prioritized subset of test cases to run after a source code change

Secure container use is provided. The method generates respective user group permission identifications associated with image layer staging operations permissions assigned to different user groups as well as a list of the user group permission identifications. Responsive to a request from a user to perform an image layer staging operation, the method verifies whether the user has a user group permission identification in the list of the user group permission identifications. Responsive to verification that the user has a user group permission identification in the list of the user group permission identifications, the requested operation is executed. Responsive to determination that the user does not have a user group permission identification in the list of the user group permission identifications, the requested operation is denied.

Secure container use based on permission limitation of image layers

Techniques are described with regard to container image configuration in a computing environment. An associated computer-implemented method includes initializing a container image storage engine associated with a logical tree structure having a plurality of container image nodes, where each of the plurality of container image nodes includes a hash layer array and a hash data array. The method includes building at least one new container image node to incorporate into the plurality of container image nodes. The method further includes applying a software patch to a target container image node among the plurality of container image nodes. In an embodiment, the method further includes starting at least one container based upon a respective container image node among the plurality of container image nodes.

Applying a software patch via a container image storage engine

Shared container image layer removal is provided. It is determined whether layer metadata corresponding to a selected layer of a container image includes a referenced image identifier corresponding to a reference shared layer of an other container image stored in local storage based on an analysis of the layer metadata. In response to determining that the layer metadata corresponding to the selected layer does include the referenced image identifier corresponding to the reference shared layer of the other container image stored in the local storage based on the analysis of the layer metadata, it is determined that the selected layer of the container image is a duplicate shared layer having same content as the reference shared layer. The container image containing the selected layer that is the duplicate shared layer is removed from the local storage to decrease space utilization of the local storage and thereby increase performance.

Dynamically removing duplicate container image layers

A portable monitoring device, including a housing, a physiological parameter acquiring circuit, a signal transmitting circuit, and a signal receiving circuit, is provided. The physiological parameter acquiring circuit is configured to acquire physiological sign parameters of a monitoring object; the signal transmitting circuit is configured to determine a transmitting frequency of a communication signal according to the current communication state, and transmit the physiological sign parameters to a wireless access point by means of the communication signal of the transmitting frequency; the signal receiving circuit is configured to receive the communication signal transmitted by the wireless access point, and perform filter processing on the communication signal of the current communication channel to suppress interference signals from other communication signals.

Signal transmitting circuit, signal receiving circuit, and portable monitoring device

A method of training a text quality assessment model, a method of determining text quality, an electronic device, and a storage medium are provided. The method of training the text quality assessment model includes: determining a first text satisfying a condition of being a negative sample and a second text satisfying a condition of being a positive sample from a plurality of texts based on indicators for the texts; for any text of the first text and the second text, adding a label to the text based on the condition satisfied by the text, wherein the label indicates a category of the text, and the category includes a low-quality category for the negative sample and a non-low-quality category for the positive sample; and constituting a training set by the first text having a label and the second text having a label, to train the text quality assessment model.

Method of training text quality assessment model and method of determining text quality

An embodiment of the present invention provides a photodetector chip, including a substrate, a semiconductor optical amplification section, and a photodetection section. The substrate includes a surface, the photodetection section and the semiconductor optical amplification section are arranged on the substrate, and the photodetection section is located in an optical signal output direction of the semiconductor optical amplification section. The semiconductor optical amplification section amplifies and filters an input optical signal to output an amplified and filtered optical signal to the photodetection section. The photodetection section is configured to convert the amplified and filtered optical signal into an electrical signal. The semiconductor optical amplification section includes a grating, the grating includes a first grating and a second grating that are cascaded, and the first grating is a slanted grating. The first grating and the second grating are configured to filter an optical signal entering the semiconductor optical amplification section.

Photodetector chip, optical receiving and transceiver components, optical module, and communications device

The present disclosure provides a display substrate, including an array substrate, a color filter substrate, and a liquid crystal layer and a sealant arranged therebetween. A sealing cavity for receiving the liquid crystal layer is defined by the sealant, the array substrate and the color filter substrate. The display substrate is provided with a bonding side surface bonded to a chip on film, the sealant at least includes a first portion including a first side surface and a second side surface flush with the bonding side surface. The array substrate includes a display region and a non-display region surrounding the display region. A bonding pin is provided in the non-display region, extends to a side surface of the display substrate, and is exposed to the outside. The present disclosure further provides a method for manufacturing the display substrate, a display motherboard, and a display device.

Display substrate, manufacturing method, display motherboard, and display device

Embodiments relate to methods, systems, and computer program products for path management in a processing system. In a method, in response to receiving a request for adding a target controlling unit into a processing system, a plurality of network nodes in the processing system are divided into a group of subnets based on a topology of the plurality of network nodes, the plurality of network nodes being connected to at least one controlling unit in the processing system. A workload estimation is determined, the workload estimation representing a workload to be caused by the target controlling unit to the processing system. A target subnet is selected from the group of subnets for connecting the target controlling unit into the processing system based on the workload estimation. With these embodiments, the target subnet may be selected in an automatic way such that the performance of the processing system may be increased.

Path management

Embodiments of the invention include a computer-implemented method that includes accessing, using a processor, a loader library; using the processor to generate a mock library comprising a mock version of the loader library; using the processor to containerize the loader library; and using the processor to unload the loader library.

Using containers to clean runtime resources when unloading a shared library

A method of analyzing source code includes receiving, by a processor, an updated version of a computer program, the updated version including a source code. The method also includes preprocessing, by a compiler, the source code for a target computing platform. Preprocessing the source code by the compiler includes identifying a macro condition associated with one or more computer instructions enclosed by a macro, determining object code corresponding to the one or more computer instructions based on a current value of the macro condition, and generating object code and macro information for output to a debugger, the macro information including one or more breakpoint conditions in the macro.

Setting breakpoints for source code segments enclosed by macros

Embodiments of the invention include a computer-implemented method that uses a processor to access cryptographic-function constraints associated with an encrypted message. Based on a determination that the cryptographic-function constraints do not include mandatory cryptographic computing resource requirements, first resource-scaling operations are performed that include an analysis of cryptographic metrics associated with a processor. The cryptographic metrics include information associated with the encrypted message, along with performance measurements of cryptographic functions performed by the processor. The cryptographic-function constraints and results of the analysis of the cryptographic metrics are used to determine cryptographic processing requirements of the encrypted message; and match the cryptographic processing requirements to selected ones of a set of cryptographic computing resources to identify a customized set of cryptographic computing resources matched to cryptographic processing requirements of the encrypted message. The customized set of cryptographic computing resources is used to perform customized cryptographic functions on the encrypted message.

Matching cryptographic computing resources to the predicted requirements for decrypting encrypted communications

Methods, computer program products, and/or systems are provided that perform the following operations: determining that a log multi-process debug mode is specified; obtaining a log file for debugging a source code, wherein the log file includes a plurality of log records; inserting a plurality of process identifier fields into each current log record in the log file; inserting a new log record into the log file for a created new process; and providing for performance of debugging for the source code based in part on the plurality of process identifier fields inserted into each current log record.

Providing for multi-process log debug without running on a production environment

Growing community of inventors

Shanghai, China

Heng Wang