Intel Corporation

Apple Inc.

Other

Intel Mobile Communications Gmbh

Intel IP Corporation

Guangdong Oppo Mobile Telecommunications Corp., Ltd.

Intel Deutschland Gmbh

Jong-Kae Fwu

Hong He

Yuan Zhu

Seunghee Han

Gang Xiong

Alexei Vladimirovich Davydov

Huaning Niu

Xiaogang Chen

Qinghua Li

Debdeep Chatterjee

Alexey Vladimirovich Khoryaev

Yushu Zhang

Ralf Matthias Bendlin

Youn Hyoung Heo

Kamran Etemad

Shafi Bashar

SeungHee Han

Yujian Zhang

Hujun Yin

RongZhen Yang

Apostolos Papathanassiou

Hwan-Joon Kwon

Andrey Chervyakov

Sergey Panteleev

Rui Huang

Gregory Vladimirovich Morozov

Honggang Li

Mikhail S Shilov

Mo-Han Fong

Ping Wang

Ilya Bolotin

Vadim Sergeyevich Sergeyev

Bishwarup Mondal

Yi Hsuan

Ajit Nimbalker

Bertram Gunzelmann

Hyejung Jung

Xiangying Yang

Hooman Shirani-Mehr

Alexander A Maltsev

Xintian Eddie Lin

Changlong Xu

Jeongho Jeon

Xiangyang Zhuang

Sungho Moon

Feng Xue

Pingping Zong

Joonyoung Cho

Markus Dominik Mueck

Nageen Himayat

Carlos Horacio Aldana

Shilpa Talwar

Zhibin Yu

Dave A Cavalcanti

Sabine Roessel

Harry G Skinner

Yeong-Sun Hwang

Debabani Choudhury

Ingolf Karls

Duncan Kitchin

Emily H Qi

Rath Vannithamby

Geng Wu

Feng Chen

Qiaoyang Ye

Wenting Chang

Bahareh Sadeghi

Yang-Seok Choi

Andreas Menkhoff

Hassnaa Moustafa

Thorsten Clevorn

Marcio Rogerio Juliato

Abhijeet Bhorkar

Ana Lucia Pinheiro

Elmar Wagner

Guangjie Li

Rafael Misoczki

Kuilin Clark Chen

Stefan Fechtel

Christian Ibars Casas

Shirish Nagaraj

Yang Tang

Umesh Phuyal

Andreas Schmidt

Bernhard Raaf

Hyung-Nam Choi

Shahrnaz Azizi

Amitav Mukherjee

Honglei Miao

Wook Bong Lee

Christian Drewes

Yuval Shamuel Lomnitz

Jeffrey R Foerster

Michael Faerber

Sassan Ahmadi

Biljana Badic

Sameer Pawar

Tom Harel

Briefly, in accordance with one or more embodiments, apparatus of an evolved NodeB (eNB) comprises circuitry to configure one or more parameters for a 5G master information block (xMIB). The xMIB contains at least one of the following parameters: downlink system bandwidth, system frame number (SFN), or configuration for other physical channels, or a combination thereof. The apparatus of the eNB comprises circuitry to transmit the xMIB via a 5G physical broadcast channel (xPBCH) on a predefined resource, the xPBCH comprising a xPBCH. The xPBCH may use a DM-RS based transmission mode, and a beamformed xPBCH may be used for mid band and high band.

Physical broadcast channel design

Various embodiments include an apparatus to be employed by an enhanced Node B (eNB), the apparatus comprising communication circuitry to receive, from a user equipment (UE), feedback information and control circuitry, coupled with the communication circuitry, to identify a codeword from a three-dimensional codebook based on the feedback information received from the UE, wherein the communication circuitry is further to precode data to be transmitted to the UE based on the codeword. An apparatus to be employed by a UE and additional methods are described.

Codebook for full-dimension multiple input multiple output communications

Disclosed herein are apparatuses, systems, and methods using or implementing dynamic beamforming in control channels, by transmitting downlink control channels to user equipment (UEs) in a number of orthogonal frequency division multiplexing (OFDM) symbols of a downlink subframe. A first OFDM symbol of the number of OFDM symbols can be transmitted using first beamforming parameters in a first direction, and a second OFDM symbol of the number of OFDM symbols can be transmitted using second beamforming parameters different from the first beamforming parameters and in a second direction different from the first direction. The number of OFDM symbols used, as well as other parameters, can be dynamically adjusted in subsequent subframes. Other embodiments are described.

Dynamically beamformed control channel for beamformed cells

Apparatus, systems, and methods to implement receive beamforming in communication systems are described. In one example, apparatus of an evolved Node B (eNB) comprising processing circuitry to receive, from a user equipment (UE), a beamforming reference signal received power (BRS-RP) measurement and in response to the BRS-RP measurement, configure a downlink (DL) transmit (Tx) beamforming and a receiving (Rx) beamforming process on the UE. Other examples are also disclosed and claimed.

Beamforming management in wireless networks

Devices and methods of using xSS are generally disclosed. A UE receives an xPSS with (N) symbols each with a subcarrier spacing of K×a PSS subcarrier spacing and a duration of a PSS symbol/K. PSD subcarriers surround the xPSS and the ZC sequence is punctured to avoid transmission on a DC subcarrier. Guard subcarriers separate the xPSS and PSD when the ZC sequence is less than the occupied BW of the xPSS and at least one element in the ZC sequence is punctured for xPSS symbol generation otherwise. One or more xSSSs and xS-SCHs may follow the xPSS. The xSS may be omnidirectional, each having a same xPSS and different xSSS or xS-SCH or a different xPSS and same xSSS or xS-SCH or beamformed, each having different xPSSs and xSSSs or xS-SCHs or a same xPSS and different xSSS or xS-SCH.

Device and method of configurable synchronization signal and channel design

An apparatus and system to compensate for phase noise in a 5G or 6G DFT-S-OFDM signal are described. An access port (AP)-specific orthogonal cover code (OCC) is applied to phase tracking reference signal (PTRS) symbols in each of a plurality of PTRS groups. The PTRS group are inserted between data symbols to form a data vector prior to perform transform precoding on the data vector and transmission to a UE. The UE extracts the PTRS symbols from different PTRS APs using the OCC specific to each AP. After extraction, the phase noise for each PTRS group is estimated and used to compensate the data symbols associated with the PTRS group.

Phase tracking reference signal for 6G wireless communication

Embodiments of a system and method for providing DRX enhancements in LTE systems are generally described herein. In some embodiments, a system control module is provided for controlling communications via a communications interface. A processor is coupled to the system control module and is arranged to implement an inactivity timer and an on-duration timer for determining an active time for monitoring subframes on the physical downlink control channel for control signals, the processor further monitoring subframes after the active time.

Discontinuous reception (DRX) enhancements in LTE systems

Methods and apparatus are described for transmitting uplink control information (UCI) over an OFDMA-based uplink. In some embodiments, UCI symbols are mapped to resource elements (REs) in the time/frequency resource grid to maximize frequency diversity. In some embodiments, UCI is mapped in a manner that takes into account channel estimation performance by mapping UCI symbols to those REs that are closest (in terms of OFDM subcarriers/symbols) to REs that carry reference signals.

OFDMA-based multiplexing of uplink control information

Devices and methods of using xSS are generally disclosed. A UE receives an xPSS with (N) symbols each with a subcarrier spacing of K&#xd7;a PSS subcarrier spacing and a duration of a PSS symbol/K. PSD subcarriers surround the xPSS and the ZC sequence is punctured to avoid transmission on a DC subcarrier. Guard subcarriers separate the xPSS and PSD when the ZC sequence is less than the occupied BW of the xPSS and at least one element in the ZC sequence is punctured for xPSS symbol generation otherwise. One or more xSSSs and xS-SCHs may follow the xPSS. The xSS may be omnidirectional, each having a same xPSS and different xSSS or xS-SCH or a different xPSS and same xSSS or xS-SCH or beamformed, each having different xPSSs and xSSSs or xS-SCHs or a same xPSS and different xSSS or xS-SCH.

Technology for an eNodeB to communicate with a user equipment (UE) using a self-contained time division duplex (TDD) subframe within a wireless communication network is disclosed. The eNodeB can process, for transmission to the UE, a DL self-contained time division duplex (TDD) subframe comprising an extended physical downlink shared channel (xPDSCH), an extended physical downlink control channel (xPDCCH), a downlink (DL) spacing signal, and a guard period, wherein the xPDSCH, the xPDCCH, the DL spacing signal, and the guard time are located within the DL self-contained TDD subframe prior to an extended physical uplink control channel (xPUCCH). The eNodeB can process, an uplink (UL) self-contained TDD subframe, received from the UE, having a UL spacing signal located after an extended physical uplink shared channel (xPUSCH).

Enhanced self-contained time-division duplex subframe structure

A communication device for multi-radio access technology (RAT) communications includes one or more processors and a plurality of transceivers. Each transceiver is configured to operate in at least one RAT of a plurality of RATs. The processors are configured to establish connection with a second communication device using a first transceiver of the plurality of transceivers and a first RAT of the plurality of RATs. A first data stream associated with a communication link connected to the second communication device and a third communication device is receive via a convergence function at the second communication device. The communication link uses a second RAT of the plurality of RATs. A code sequence is applied to a second data stream to generate an encoded second data stream, which is transmitted to the third communication device via a second communication link established based on information received via the first data stream.

V2X communications using multiple radio access technologies (multi-RAT)

Devices for and methods of providing low latency 5G FDD communications are generally described. A HARQ ACK/NACK for an xPDSCH is transmitted in the xPUCCH of the same or next subframe as the xPDSCH and xPDCCH. An xPUSCH is generated in the same subframe in response to an xPDCCH and HARQ ACK/NACK response is carried by another xPDCCH or xPHICH in the same or next sub frame. The xPDCCH and the xPUCCH are at opposite ends of the same subframe, DL and UL subframe are delayed relative to each other, or at least one of the DL and UL subframe has an additional blank portion, portion with data associated with another UE or portion that contains a reference signal, broadcast signal or control information.

5G FDD low latency transmission subframe structure system and method of use

Systems, methods, and baseband processors are provided to generate or process symbols in a synchronization subframe. In one example, a method includes selecting non-consecutive orthogonal frequency division multiplexing (OFDM) symbols in a synchronization subframe. A transmitter is instructed to transmit demodulation reference symbols (DM-RS) on identical first sets of subcarriers in respective OFDM symbols of the selected non-consecutive OFDM symbols for a Physical Broadcast Channel (PBCH) using a same transmit beam, wherein a gap between two subcarriers in a respective set of the identical first sets of subcarriers is three subcarriers. The transmitter is instructed to transmit the PBCH on identical second sets of subcarriers in respective OFDM symbols in the selected non-consecutive OFDM symbols.

Frequency tracking for beamformed systems

Growing community of inventors

Sunnyvale, CA, United States of America

Jong-Kae Fwu