International Business Machines Corporation

Boe Technology Group Co., Ltd.

Huawei Technologies Co., Limited

Globalfoundries Inc.

Samsung Electronics Co., Ltd.

Huawei International Pte. Ltd.

Chengdu Boe Optoelectronics Technology Co., Ltd.

Beijing Boe Chatani Electronics Co., Ltd.

Microsoft Technology Licensing, LLC

Hefei Xinsheng Optoelectronics Technology Co., Ltd.

Beijing Bytedance Network Technology Co., Ltd.

Hefei Boe Optoelectronics Technology Co., Ltd.

Peking University

Beijing Qihoo Technology Company Limited

Boe Optical Science and Technology Co., Ltd.

Fei Liu

Qing Cao

Zhengwen O Li

Kangguo Cheng

Zhen Zhang

Michael A Guillorn

Keith Kwong Hon Wong

Hariklia Deligianni

Roy Rongqing Yu

Steven John Koester

Haiguang Wang

Albert M Young

Xin Kang

Josephine B Chang

Dechao Guo

Mukta G Farooq

Shu-Jen Han

Sampath Purushothaman

Subramanian Srikanteswara Iyer

Xue Feng Gao

Zhongding Lei

Robert Hannon

Kuo Sun

Yang Seok Ki

Wilfried Haensch

Qinghui Zeng

Lin He

Zihong Liu

Effendi Leobandung

Ying Di Zhang

Leland Chang

Eric Andrew Joseph

Long Wang

Qiqing Christine Ouyang

Young Min Lee

Kuan-Neng Chen

Jun Yuan

Haijun Yin

Adam M Pyzyna

Lichun Li

Xuan He

Dongsheng Yang

Qin Hua Wang

Chang Rui Ren

Alexander Reznicek

Ghavam G Shahidi

Louis L Hsu

Ning Li

Guy M Cohen

Kevin K Chan

Yang Wang

Xi Chen

Can Yuan

Can Zhang

Wei He

Hua Li

Dongmei Zhang

Yanbing Wu

Pranita Kulkarni

Conal Eugene Murray

Min Yang

Rui Zhang

Dae-Gyu Park

Harold John Hovel

Phaedon Avouris

Xinhui Wang

Yingnong Dang

Philip Joseph Oldiges

Leathen Shi

Yangkun Jing

Dapeng Chen

Masaharu Kobayashi

Brian L Ji

Sunfei Fang

Xiao Dong Li

Yanliu Sun

Seshadri Subbanna

Jeremy Daniel Schaub

Hung-Yang Chang

Young-Hee Kim

Wenjuan Zhu

Chunyan Ji

Satya N Chakravarti

Min Zhang

Sheng Zhu

Yajuan Wang

Tian Ji Yang

Yunping Di

Ming Che Hsieh

Xiaoguang Xu

Yuanyuan Chai

Christopher V Baiocco

Yanqiu Li

Helen Wang

Wilfried Ernst-August Haensch

Rui Ding

Zhengyuan Zhang

Yaohui Li

Lianjun An

Aurelie C Lozano

Embodiments of the invention are directed to a system for detecting neurotransmitters. A non-limiting example of the system includes a porous electrode. A system can also include a pH sensor attached to the porous electrode, wherein the pH sensor includes a sensing electrode and a reference electrode. The system can also include electronic circuitry in communication with the pH sensor.

Porous nanostructured electrodes for detection of neurotransmitters

The disclosure relates to technology for haptic stimulation. According to one aspect of the present disclosure, there is provided a haptic stimulation system comprising a haptic stimulation interface comprising a pattern of stimulation elements configured to stimulate receptors in skin of a user. The haptic stimulation system further comprises a control circuit configured to present information in the haptic stimulation interface in accordance with a presentation mode that is tailored to the user.

Haptic stimulation systems and methods

The disclosure relates to technology for haptic stimulation. A haptic stimulation device comprises a set of haptic stimulation elements. Each haptic stimulation element comprises a transducer configured to generate a pressure wave and an enclosure coupled to the transducer thereby forming a cavity bounded by the enclosure and the transducer. The haptic stimulation device comprises a controller configured to drive the transducers to generate a haptic stimulation pattern based on pressure waves in the cavities.

The disclosure relates to technology for secure compute. One aspect includes a network device, comprising a non-transitory memory comprising instructions; and one or more processors in communication with the non-transitory memory storage. The one or more processors execute the instructions to receive and process routing requests in a network; send an indication into the network that the network device is able to perform secure computes; perform a secure compute based on an input received via the network from an input device; ensure that a result of the secure compute is trusted as a correct result of the secure compute; and provide the trusted result of the secure compute to a result device connected to the network.

Secure compute network devices and methods

The disclosure relates to technology for haptic stimulation. A haptic interface device comprises an array comprising haptic stimulation elements configured to generate a stimulation pattern. The haptic interface device comprises a controller configured to continually propagate the stimulation pattern on a user's skin, including repeatedly eliminate a portion of a first end of the stimulation pattern and replace the eliminated portion with a new portion at a second end of the stimulation pattern.

Spatial-temporal haptic stimulation systems and methods

The disclosure provides a network authentication method, a network device, and a core network device, the network authentication method including: receiving, by a first network device, an access request message sent by a terminal device, where the access request message includes an identity of the terminal device; determining, by the first network device based on the identity of the terminal device, whether to allow authentication on the terminal device; if the first network device does not allow the authentication on the terminal device, sending, by the first network device, the identity of the terminal device to a core network device, so that the core network device performs network authentication based on the identity of the terminal device.

Network authentication method, network device, and core network device

Embodiments of this application disclose a network key processing system, including user equipment, a security anchor network element, and an access and mobility management network element, where the security anchor network element is configured to: obtain a first key parameter from a slice selection network element, where the first key parameter includes identifier information of N network slices; generate N slice-dedicated keys based on the first key parameter; and send the N slice-dedicated keys to the corresponding N network slices respectively; the access and mobility management network element is configured to: obtain the first key parameter, and send the first key parameter to the user equipment; and the user equipment is configured to: generate the N slice-dedicated keys for the N network slices based on the first key parameter, and access the N network slices based on the generated N slice-dedicated keys.

Network key processing method and system and related device

A data transmission method, a related device, and a related system. The method includes: receiving, by a first access network device, a data packet (for example, small data) sent by user equipment (for example, an IoT device), where the data packet includes a first cookie and raw data; verifying, by the first access network device, the first cookie, to obtain a verification result; and processing, by the first access network device, the raw data based on the verification result. Implementation of embodiments can reduce load on a network side when a large quantity of user equipments need to perform communication, thereby increasing data transmission efficiency.

Data transmission method, related device, and related system

A display device, a method for automatically adjusting brightness of a display screen and a terminal equipment are provided. An ambient light detection device is integrated in an operable region of the display device. The ambient light detection device includes a light blocking layer and a photoelectric sensor. The display device includes a display assembly and a control device. The display assembly includes a backpanel assembly, the light blocking layer being arranged in the backpanel assembly and provided with a light passing hole suitable for the passing of ambient light, the photoelectric sensor being disposed under the backpanel assembly; a display screen disposed over the backpanel assembly; a display chip connected to the display screen; and a control device connected to the photoelectric sensor. The display chip is connected to the control device, to adjust brightness of the display screen according to variance of the ambient light.

Display device, method of automatically adjusting brightness of display screen, and terminal equipment

A vacuum transistor includes a substrate and a first terminal formed on the substrate. A piezoelectric element has a second terminal formed on the piezoelectric element, wherein the piezoelectric element is provided over the first terminal to provide a gap between the first terminal and the second terminal. The gap is adjusted in accordance with an electrical field on the piezoelectric element.

Piezoelectric vacuum transistor

The techniques described herein provide tools that summarize a dataset by creating a final set of segments that, when visually presented via a histogram or other data presentation tool, show the distribution of at least a portion of the data. To create the final set of segments, the techniques described herein may collect or receive a dataset with distinct values, and divide the dataset into a number of segments that is less than or equal to a segment presentation threshold (e.g., ten segments). After creating the final set of segments, the techniques may configure and/or present data visualizations, such as histograms, for the created segments so that an observer is provided with a good viewing experience.

Data segmentation and visualization

The application discloses a light scattering parameter measurement system and its measurement method. Dual-frequency scattering interference technology is adopted to obtain distributed measurement of Rayleigh scattering parameters in an optical fiber. The Rayleigh scattering coefficient r and phase retardance &#x3b8; are modulated on different components of the interference signal respectively by using the dual-frequency interference technology. The Rayleigh scattering coefficient r and phase retardance &#x3b8; can be decoupled by simple filtering, to obtain separate measurements. A linear stretch is applied to the optical fiber under test, to add uniform phase change signals at all positions of the optical fiber under test. As a result, the term containing only Rayleigh scattering coefficient r can be extracted by low-pass filtering. The direct measurement of Rayleigh scattering parameters is of great significance to fundamental and application researches related to Rayleigh scattering of optical fiber.

Light scattering parameter measurement system and its measurement method

Aspects include high resolution brain-electronic interfaces and related methods. Aspects include forming a semiconductor circuit on a substrate, depositing a tensile stress layer on the circuit, and separating the semiconductor circuit from a portion of the silicon substrate. Aspects also include removing the tensile stress layer from the semiconductor circuit and transferring the semiconductor circuit to a biocompatible film.

High resolution brain-electronics interface

A key management method/apparatus (user equipment) are described. The key management includes encrypting user identity information based on a first public key. The user equipment sends a first user identity message to a first network device. The first user identity message includes the user identity information, an indication identifier that indicates whether the user identity information is encrypted, and a reference identifier for indexing the first public key. The first network device sends, to a second network device, a third user identity message including the user identity information and the reference identifier that indexes the first public key. Thus, when receiving the third user identity message, the second network device can determine the encrypted user identity information, according to a pre-stored mapping table including the first private key.

Encryption key management method and apparatus

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Yorktown Heights, NY, United States of America

Fei Liu