Fluke Corporation

Huawei Technologies Co., Limited

Dow Global Technolgoies LLC

International Business Machines Corporation

Wuhan Tianma Micro-electronics Co., Ltd

Other

Dell Products Inc.

Western Digital Technologies, Inc.

Rohm and Haas Company

Autoliv Development Ab

Corning Research & Development Corporation

Huawei Digital Power Technologies Co., Ltd.

Trw Automotive U.S. LLC

Wuhan University

Merck Sharp + Dohme Corp.

Yu Wang

Hua Zhou

Peng Zhang

Pengfei Wang

Peng Wei

Wei Zhang

Xingyao Zhou

Shaoqing Xiang

Yan Li

Gang Wang

Jiang Wang

Jing Xie

Qingqing Sun

Yan Wang

Yu Zhang

Mengmeng Zhang

Yana Gao

Bin Zhang

Wei Huang

Hongyu Chen

Hao Wu

Shuo Wang

Kai Lin Li

Kang Yang

Yan Peng

Hao Chen

Jing Yang

Yali Wang

Xianhai Huang

David James Witter

Yu Ying Wang

Yan Huang

Gaojun Huang

Libo Wang

Jongwon Lim

Yanping Zhang

Caixia Qi

Ni Ma

Chek-Peng Foo

David L Sloman

Jiong Lan

Phieng Siliphaivanh

Joey Lee Methot

Christopher W Boyce

Min Liu

David Joseph Guerin

Bin Xia

Jianmin Fu

Dan Li

Wen Bao Yin

Xi Lin

Qibing Wei

Hongguang Wang

Shilin Shen

Yang Sun

Zhongming Ren

Rajat Duggal

Xing Zhao

Qiyi Luo

Zhiwu Xu

Yung Kang Tso

Qian Chen

Weijun Zhou

Chinghwa Yu

Junrong Yan

Sheng Xu

Fusheng Zhou

Qinghua Yu

Luigi L Bertucelli

Tao Hu

Liang Xu

Bing Han

Bin Sheng

Zhigang Zhang

Long Ying

Guochu Chen

Dachao Li

Kathryn Ann Lipford

Zhijun Chen

Xiaomei Song

Wenwei Xu

Bing Wu

Hsin Chih Lin

Hui Cao

Yi Hu

Sihan Wang

Beilei Wang

Jianxin Zhang

Yanhu Li

Yanli Feng

Liyun Luo

Xinjian Wang

Rui Shen

Han Gao

Wenqiang Tian

Yunzhou Jin

Yi Sui

Songhua Cao

Davide Micheletti

Baojun Zhang

The present application provides a method for monitoring a gate oxide thickness: providing a device structure comprising a gate structure, a gate oxide layer under the gate structure, source and drain regions and a base region; applying a voltage −Vdd on the gate structure so that an accumulation layer is formed between the source and drain regions, applying a small AC voltage on the basis of the gate voltage −Vdd; grounding the source and drain regions; applying a voltage signal close to 0 potential on the base region; obtaining the capacitance Cox between the gate structure and the base region by testing; and obtaining the thickness of a gate oxide layer according to the formula Tox=ε*S/Cox. This technique accurately monitors the thickness of the gate oxide layer, and avoids those errors caused by existing methods.

Method for monitoring gate oxide thickness

Clamp meter

A pixel circuit includes a drive transistor, a data writing module, a storage module, and a light emitting control module; a first terminal of the storage module is configured to receive a first power supply voltage signal, and a second terminal of the storage module is configured to be connected to a control electrode of the drive transistor; a first terminal of the data writing module is configured to receive a data signal, and a second terminal of the data writing module is configured to be connected to the control electrode of the drive transistor; a substrate of the drive transistor is configured to receive a second voltage signal, a first electrode of the drive transistor is configured to receive the first power supply voltage signal, and a second electrode of the drive transistor is configured to be connected to at least partial light emitting control module.

Pixel circuit, display panel and brightness compensation method thereof

The invention relates to the field of the Internet of Things, and in particular, to an OTA differential upgrade method and system of a master-slave architecture. The method comprises: Step S1, obtaining an upgrade scheme, and determining a master-slave connection relationship and an upgrade manner according to the upgrade scheme; Step S2, downloading a differential upgrading file; Step S3, determining a processing mode of a master node according to the upgrading manner of a slave node; if the upgrading manner of the slave node is a first manner, the node flashes and restores the differential upgrading file and sends the differential upgrading file to the slave node, so that the slave node completes upgrading; if the upgrading manner of the slave node is a second manner, the master node flashes and restores the differential upgrading file and sends the differential upgrading file to the slave node for upgrading.

OTA differential upgrade method and system of master-slave architecture

A display panel has functional component regions arranged along a first direction and a display region at least partially surrounding the functional component regions. The display panel includes first signal lines located in the display region. One of the first signal lines has a least one part extending in the first direction, and the first signal lines are arranged in a second direction intersecting with the first direction. The first signal lines include a first-type signal line and a second-type signal line, and the first-type signal line at least partially surrounds the functional component regions. In the first direction, at least one second-type signal line is broken at two sides of one of the functional component region.

Display panel and display apparatus

A high-energy beam additive manufacturing forming device and forming method, comprising a magnetic field unit for assisting additive forming, and further comprising a forming base () for placing a material () to be processed, and a high-energy beam generation device which emits a high-energy beam, acts on the material () to be processed and forms a molten pool (). The magnetic field unit comprises a first magnetic field generating device (), and the first magnetic field generating device () comprises an induction coil () provided below the molten pool (). The first magnetic field generating device () is detachably provided below a surface, used for containing the material () to be processed, of the forming base (); second magnetic field generating devices () are provided above the forming base ().

High-energy beam additive manufacturing forming device and forming method

Disclosed is a ship image track tracking and prediction method based on ship heading recognition, which includes the following steps: obtaining a ship image data set, preprocessing the data set to obtain a preprocessed data set; inputting the preprocessed data set into the rotating ship detection network for training, obtaining the trained rotating ship detection network, collecting the ship navigation video, and inputting the ship navigation video into the trained rotating ship detection network to obtain the ship detection result; inputting the ship detection result into the rotating ship tracking network and tracking the target ship to obtain the historical trajectory and the heading information of the target ship; inputting the historical trajectory and ship heading information of the target ship into the ship trajectory and ship heading prediction network, and predicting the navigation trajectory and ship heading at sea.

Ship image trajectory tracking and prediction method based on ship heading recognition

Lidar

A method includes obtaining an average radio frequency exposure value over a target time window, where the target time window is a standard time window, determining a power threshold corresponding to the average radio frequency exposure value, where the power threshold is a preset power value corresponding to a preset value range to which the average radio frequency exposure value belongs, and controlling a transmit power of the wireless device based on the power threshold over a controlled time window.

Method and apparatus for controlling radio frequency exposure of wireless device, and wireless device

The present disclosure provides an organic light emitting display panel and an organic light emitting display apparatus. The organic light emitting display panel includes an array substrate, a color filter substrate and a transparent filling layer; the array substrate includes a substrate and an organic light emitting layer and a thin film encapsulation layer sequentially formed on the substrate, and the color filter substrate includes a cover plate and a color filter layer and an organic protective layer sequentially formed on the cover plate; the array substrate and the color filter substrate are disposed opposite to each other, the organic light emitting layer includes a plurality of OLED pixel units, the color filter layer includes a plurality of color-resist units; wherein, the transparent filling layer is disposed in a gap between the array substrate and the color filter substrate for reducing light deflection.

Organic light emitting display panel and organic light emitting display apparatus

The present invention provides a vessel traffic pattern identification method via data quality control and data compression, and includes the steps of assorting a collection of Automatic Identification System (AIS) data points according to Maritime Mobile Service Identity (MMSI) code; sorting each collection result by time ascending order; deleting duplicated vessel AIS data points considering time stamp, latitude, longitude and vessel speed over ground; segmenting vessel trajectories; obtaining high-quality AIS data with an AIS data anomaly detection; repairing and compressing each vessel trajectory with the Douglas-Peucker algorithm; clustering vessel trajectories with the Quick Bundles algorithm; and identifying a maritime traffic pattern. The invention can efficiently identify vessel traffic patterns and help maritime traffic management departments to accurately identify a traffic situation.

Method for vessel traffic pattern recognition via data quality control and data compression

Growing community of inventors

Shanghai, China

Yu Wang