Zte Corporation

Ntt Docomo, Inc.

Huawei Device Co., Ltd.

Chinese Pla General Hospital

International Business Machines Corporation

Xi'an Zhongxing New Software Co., Ltd.

Vmware, Inc.

Beijing Institute of Technology

Institute of Pharmacology and Toxicology Academy of Military Medical Sciences Pla China

Nationz Technologies Incorporated

Institute of Pharmacology and Toxicology Medical Sciences P.l.a. China

Huawei Technologies Co., Limited

Juan Liu

Yajun Zhao

Xincai Li

Ling Yang

Song Li

Wu Zhong

Junhai Xiao

Hanqing Xu

Wei Li

Xiaolin Hou

Xin Li

Lili Wang

Zhibing Zheng

Wenjia Liu

Long Long

Kunlun He

Guoliang Hu

Li Tian

Guoqiao Chen

Zhi Li Guan

Chunlei Liu

Ruijun Li

Satoshi Nagata

Hiroki Harada

Rui Wang

Jie Tang

Jie Wang

Yue Wang

Yu Ngok Li

Yoshihisa Kishiyama

Xin Wang

Takahiro Asai

Lan Chen

Li He

Yong Wang

Chenchen Zhang

Xinbo Zhou

Da Li Liu

Wei Lin

Anxin Li

Wen Han Luo

Runxin Wang

Jin He

Jie Bai

Chenliang Gao

Zhihao Xing

Jing Xing

Jian F Zhang

Chih-Hong Wong

Dan Qing Huang

Xiangjun Song

Xinhui Duan

Naoya Shibaike

Liyuan Zhong

Cheng-Wei Chiang

Kunluu He

Fengqin Zhou

Mingxiang Zi

Niu Bing

Jinheng Xu

Systems, methods and devices for establishing combinations of PUSCH subcarrier spacing and PRACH subcarrier spacing may include a wireless communication device determining a number of resource blocks to be occupied by a random access (RA) preamble and a PRACH frequency position parameter. The wireless communication device may allocate the resource blocks to the RA preamble according to the number of resource blocks to be occupied by the RA preamble and the PRACH frequency position parameter. The wireless communication device may transmit the RA preamble to a wireless communication node according to the allocated resource blocks.

Systems and methods for combinations of the subcarrier spacing of PUSCH and the subcarrier spacing of PRACH

A terminal transmits and receives a slot configured with a plurality of symbols. The terminal sets a length of a cyclic prefix added to each symbol based on a degree of compression of each symbol in time domain.

Terminal

The present disclosure provides an electronic device, including: an input unit configured to obtain a sequence to be compressed, wherein the sequence to be compressed has Q time-domain symbol elements, and Q is an integer greater than zero; a processing unit configured to perform a zero-padding operation on the sequence to be compressed according to at least a part of a compression factor to determine a zero-embedded sequence, perform a discrete Fourier transform spreading operation according to the zero-embedded sequence to determine a spread sequence, and perform at least one of a data deletion operation and a data superimposition operation based on the spread sequence to determine a compressed sequence, wherein the compressed sequence has M frequency-domain symbols, M is an integer greater than zero, and M is less than or equal to Q.

Electronic device

The present disclosure describes methods, systems and devices for configuring signal resource for physical random access channel (PRACH). One method includes configuring, by a base station, signal resource for a PRACH by mapping, by the base station, a PRACH slot pattern with a pattern parameter. Another method includes configuring, by a user equipment, signal resource for a PRACH by mapping, by the user equipment, a PRACH slot pattern with a pattern parameter.

Methods, devices, and systems for configuring signal resource for physical random access channel

Provided are a method and apparatus for sending and receiving feedback information, and a storage medium. The method includes: receiving service data sent by a user equipment (UE); and sending downlink feedback indication (DFI) information corresponding to the service data to the UE. Where the DFI information includes a HARQ ACK/non-acknowledgement NACK indication, and the HARQ ACK/NACK indication is configured for indicating a decoding result of a transport block (TB) and/or a code block group (CBG) in the service data decoded by a base station.

Method and apparatus for sending and receiving feedback information, and storage medium

A terminal determines a target code rate by using a reference code rate, which is based on a modulation scheme and a modulation order, and an adjustment coefficient α that lowers the reference code rate. The terminal transmits/receives a signal encoded based on the target code rate.

This disclosure is directed to automated processes for attesting to trustworthiness of a host considered for connection to a data center network. The attestation process is performed in two attestation phases. In the first phase, attestation is performed on a smart network interface controller ('SNIC') connected to an internal bus of the host using a first trusted platform module (“TPM”) of the SNIC. In the second phase, attestation is performed on the host by the SNIC using a second TPM connected to the internal bus of the host in response to a determination that the SNIC is trustworthy. The host is connected to the data center network in response to a determination by the SNIC that the host is trustworthy.

Automated methods and systems for performing host attestation using a smart network interface controller

Disclosed is a power sharing method, including: determining a transmit power of a UE on a first carrier and a transmit power of the UE on a second carrier; and receiving first uplink traffic transmitted by the UE on the first carrier according to the transmit power on the first carrier, and receiving second uplink traffic transmitted by the UE on the second carrier according to the transmit power on the second carrier. Further disclosed are a power sharing apparatus, a storage medium, and a processor.

Power sharing method and apparatus

Edge device task management by receiving an indicator corresponding to a first container running a task on a first edge device of a cluster of edge devices, wherein the indicator indicates an error status of the first container, and wherein task data of the task is stored in a first local storage of the first edge device, selecting a second edge device from the cluster of edge devices, wherein a second container on the second edge device is to run the task, instructing the first and second edge devices to transfer the task data from the first local storage of the first edge device to a second local storage of the second edge device, and in response to receiving a notification that indicates the task data has been transferred from the first local storage to the second local storage, sending the task to the second container.

Transferring task data between edge devices in edge computing

Disclosed are a resource allocation method for demodulation reference signals and a base station. The resource allocation method for demodulation reference signals executed by the base station includes: determining an allocation method for a resource required for transmitting a plurality of demodulation reference signals and a parameter for generating the plurality of demodulation reference signals, the plurality of demodulation reference signals respectively corresponding to a plurality of user equipments, the allocation method being capable of supporting transmission of the plurality of demodulation reference signals on the same time domain resource, and the parameter being capable of making the demodulation reference signals sent with the same time frequency resource distinguished from each other; and transmitting information indicating the allocation method and information indicating the parameter to the plurality of user equipments.

Resource allocating method for demodulation reference signal and base station

Provided are a data transmission method and apparatus. The method includes that a first node configures configuration information of each time unit within a transmission period, where the configuration information includes a transmission direction and transmission content in each time unit, that the first node notifies the configuration information to a second node, and that the first node performs data transceiving with the second node according to the configuration information.

Data transmission method and apparatus, storage medium and processor

Provided is an information transmission processing method and device, a node, storage medium and processor. The information transmission processing method comprises: a first predefined pattern of a first network node is determined, where the first predefined pattern comprises a link direction of a system resource of the first network node and a priority of the link direction; and information transmission according to the first predefined pattern is processed.

Information transmission processing method and device, node, storage medium and processor

Growing community of inventors

Beijing, China

Juan Liu