Shanghai United Imaging Healthcare Co., Ltd.

Duality Biologics (suzhou) Co., Ltd.

Other

Gm Global Technolgoy Operations, Inc.

Core Wireless Licensing S.a.r.l.

Shanghai Zhaoxin Semiconductor Co., Ltd.

Huawei Technologies Co., Limited

Shanghai Huahong Grace Semiconductor Manufacturing Corporation

Human Horizons (shanghai) Cloud Computing Technology Co., Ltd.

Novostar Pharmaceuticals, Ltd.

Otis Elevator Company

Psa Automobiles Sa

Stellantis Auto Sas

Bing Li

Jian Li

Yu Zhang

Yifeng Jiang

Mei Cai

Wei Wang

Xi Li

Zhongyuan Zhu

Hongxia Shen

Shengchao Lin

Haiqing Hua

Min Ji

Qigui Wang

Pei Zhou

Tao He

Lei Sun

Jiawen Zhou

Can Feng Chen

Jian Yuan

Zhouyuan Fan

Yu Liu

Li Yang

Ying Zhang

Jerming Lin

Jingxin Wang

Heng Liao

Wenying Yang

Hu Liu

Martin S Ruthkosky

Wei Sun

Lei Ding

Xinyu Zhou

Xianghui Li

Hou Fun Lam

Cherng-Chi Chang

Honghui Yuan

Han Yu

Paul Noles Crepeau

Jinming Zhang

Jiajin Tu

Arunkumar R

Matthieu Barbier

Luping Cui

Xiangyu Ding

Qiang Shen

Junxue Ma

Michael J McCreedy

Mingming Jiang

Yao Yu

Zi Ye Wang

Hongri Wang

Zhongxiang Zhou

Yanran Wang

Junlong Yin

Yuan Yuan Zhu

Kebin Zhu

Zhanhua Wen

Zhiwei Hua

The present disclosure provides an RFLDMOS device and a manufacturing method thereof, by an etching process of adding dielectric layers between the Faraday shielding covers, interconnection of the multiple layers of Faraday shielding covers is realized, solving the problem that a parasitic resistance of a Faraday shielding cover may easily cause a greater feedback capacitance and introduce nonlinearity at a high frequency. The feedback capacitance and linearity of the RFLDMOS device at a high frequency are improved, and the broadband performance of the RFLDMOS device is improved.

RFLDMOS device and manufacturing method thereof

The present application relates to an anti-tumor compound and a preparation method and use thereof, and in particular to a compound or a tautomer, a mesomer, a racemate, an enantiomer or a diastereoisomer thereof, or a mixture thereof, or a pharmaceutically acceptable salt thereof, and a preparation method and use thereof.

Anti-tumor compound and preparation method and use thereof

The present application discloses a method for detecting an abnormity in a ray source in a CT system, comprising obtaining scanning data obtained from at least two scans that are performed by a medical device, the medical device including a ray source configured to generate a plurality of rays and a detector configured to detect the plurality of rays; determining, based on a difference of the scanning data, a status characteristic index of the ray source; and determining whether abnormity exists in the ray source based on the status characteristic index.

Methods and systems for CT balance measurement and adjustment

An imaging device is provided. The imaging device includes an X-ray tube, a collimator, and a detector. The collimator includes an opening, wherein the collimator has a width in a first direction and a length in a second direction. The opening has an opening width in the width direction of the collimator, and an opening at at least one end of the collimator in the second direction has an opening width smaller than that of an opening within the middle section of the collimator.

Collimators, imaging devices, and methods for tracking and calibrating x-ray focus positions

The present disclosure relates to a scene pushing method, a scene implementing method, a scene pushing apparatus, a scene implementing apparatus, a terminal, a server, and a system. The scene pushing method is applied to a management terminal, and comprises: sending a scene query request to a cloud scene server, such that the cloud scene server queries, from a plurality of edited scenes, one or more scenes to be pushed, the edited scenes comprising scenes edited by a mobile terminal or a vehicle-mounted terminal of a first user; receiving said one or more scenes to be pushed returned by the cloud scene server; and screening said one or more scenes to be pushed to obtain a target scene, and pushing the obtained target scene to a target vehicle-mounted terminal, the target vehicle-mounted terminal comprising a vehicle-mounted terminal of a second user. According to the technical solutions of embodiments of the present disclosure, the finely-selected and optimized scene can be pushed to the vehicle-mounted terminal, the user experience is optimized, and an autonomously-set combined scene is automatically triggered quickly and intelligently according to the scene conditions of the vehicle-mounted terminal.

Scene pushing method, scene implementing method, scene pushing apparatus, scene implementing apparatus, terminal, server and system

Provided is a polycyclic compound inhibiting MNK1 and MNK2. Specifically, provided is a compound represented by formula (I), or stereoisomers, tautomers, or pharmaceutically acceptable salts thereof, wherein the definition of each group is as described in the description. These compounds can be used for preparing pharmaceutical compositions for the treatment of diseases or disorders related to MNK activity or expression level.

Polycyclic compound inhibiting MNK1 and MNK2

A data processing method and apparatus are disclosed. In various embodiments, R groups of proposal region sequences are obtained. Each group of proposal region sequence includes a plurality of proposal regions. In those embodiments, a VRPAC instruction is invoked to calculate an area of each proposal region in each group of proposal region sequence. For a jgroup of proposal region sequence in the R groups of proposal region sequences, a VIOU instruction and a VAADD instruction are invoked to determine j suppression matrices of the jgroup of proposal region sequence and determine a suppression vector of the jgroup of proposal region sequence based on the j suppression matrices. In those embodiments, an unsuppressed proposal region is determined based on a suppression vector of each group of proposal region sequence.

Data processing method and apparatus

The disclosure relates to a system and method for tracking and correcting X-ray focus positions in a computed tomography (CT) device. The device may include an X-ray tube, a collimator, and a detector. The collimator may include an opening, wherein the collimator has a width in a first direction and a length in a second direction. The opening may have an opening width in the width direction of the collimator, and an opening at at least one end of the collimator in the second direction may have an opening width smaller than that of an opening within the middle section of the collimator.

Collimators, imaging devices, and methods for tracking and calibrating X-ray focus positions

The present application discloses a method for detecting an abnormity in an optical path or measuring and adjusting of a dynamic balance of a gantry in a CT system, comprising performing, by a gantry controlled by a controller, a test scan along an optical path of the CT system, the optical path being a path along which rays pass from a ray source to a detector. The method further comprises obtaining, by a processor, data relating to the test scan, and based on the data relating to the test scan. The method further comprises determining, by the processor, a status characteristic index of the optical path or an amount of dynamic imbalance of the gantry. The method further comprises analyzing, by the processor, a result of the status characteristic index; determining, by the processor, whether the optical path is abnormal, or determining whether a dynamic balance of the gantry satisfies a requirement based on a result of the analysis of the amount of dynamic imbalance.

The present disclosure is related to systems and methods for monitoring a medical device. The medical device may include a tube configured to generate radiation rays and a detector configured to receive radiation rays emitted from the tube. The tube may include an anode target and a filament. The detector may include a plurality of detecting units. The method may include obtaining imaging data acquired by the detector via detecting radiation rays emitted from the tube. The method may also include determining a first feature parameter associated with the radiation rays based on the imaging data. The method may further include monitoring the medical device based on the first feature parameter associated with the radiation rays.

Systems and methods for monitoring a medical device

Growing community of inventors

Shanghai, China

Bing Li