Apple Inc.

Huawei Technologies Co., Limited

Nortel Networks Corporation

Blackberry Corporation

Research in Motion Corporation

Rockstar Bidco, LP

Microsoft Technology Licensing, LLC

Future Wei Technologies, Inc.

Other

Ericsson Ab

Huawei Technologies,co., Ltd.

Malikie Innovations Limited

Rpx Clearinghouse LLC

Aplle Inc.

Ming Jia

Jianglei Ma

Peiying Zhu

Wen Tong

Hang Zhang

Hua Xu

Dong-Sheng Yu

Mo-Han Fong

Javad Abdoli

Jianming Wu

Amir Keyvan Khandani

Moussa Abdi

Hosein Nikopour

Sarah Boumendil

Sophie Vrzic

Evelyne Le Strat

Mohammadhadi Baligh

Yu Cao

Alireza Bayesteh

Dongsheng Yu

Vitali B Kreindeline

Claude Royer

Usa Vilaipornsawai

Sanjeewa Herath

Nuwan Suresh Ferdinand

Aaron Callard

Jing Qiu

Mahmoud Taherzadehboroujeni

Curt Dodd

Shiquan Wu

Hosein Nikopourdeilami

Eddy Ning Hum

Mohammad Javad Abdoli

Amir Keyvam Khandani

Alexandre Mikhailovich Chloma

Hao Hu

Keith Russell Edwards

Mikhail G Bakouline

Alexandre M Chloma

Daniel Boudreau

Dong-Shen Yu

Mikhail Germanovich Bakouline

Liqing Zhang

David G Steer

Jun J Li

Masoud Ebrahimi Tazeh Mahalleh

Lan Hu

Mohammad Ali Maddah-Ali

Evelyne Lestrat

Yang Tang

Rong Li

Kelvin Kar Kin Au

Xu Li

Jian Wang

Geng Wu

Yan Chen

Vahid Tarokh

Huazi Zhang

Yiqun Ge

Jian Jun Wang

Neil McGowan

Lai King Tee

Robert Wendell Heath, Jr

Shengchen Dai

Steve Andre Beaudin

Peter Michael Deane

Rui R Wang

Patrick Lie Chin Cheong

Xiao-Dong Li

Sai Mohan Kilambi

Xianbin Wang

Yongxia Lyu

Mark Andrew Hawryluck

Yuri S Shinakov

Christian Dubuc

Vitaly Borisovich Kreyndelin

Mikhail Germanovich Bakulin

Gennady Vladimirovich Ovechkin

Chao Wang, Legal Representative

Zhongming Zheng

Mohammadhaadi Baligh

Hua Zhu

Jiangming Wu

Seyed Abolfazi Motahari

Mikhall Germanovich Bakouline

Hung Zhang

Seyed Abolfazl Motahari

Mohammad-Javad Abdoli

Jun Li

Kelvin Kar Au

Peter M Deane

Aaron Collard

A method and system are provided for scheduling data transmission in a Multiple-Input Multiple-Output (MIMO) system. The MIMO system may comprise at least one MIMO transmitter and at least one MIMO receiver. Feedback from one or more receivers may be used by a transmitter to improve quality, capacity, and scheduling in MIMO communication systems. The method may include generating or receiving information pertaining to a MIMO channel metric and information pertaining to a Channel Quality Indicator (CQI) in respect of a transmitted signal; and sending a next transmission to a receiver using a MIMO mode selected in accordance with the information pertaining to the MIMO channel metric, and an adaptive coding and modulation selected in accordance with the information pertaining to the CQI.

Multi-user MIMO systems and methods

Methods and systems for physical layer network coding based on two-dimensional (2D) joint coding are described. In some methods, first and second packets are obtained. A set of one or more cross-packet check blocks is generated, where each cross-packet check block is generated based on a set of cross-packet bits including at least one bit from each of the first and second packets. At least one cross-packet check block is transmitted to a first communication node.

Methods and systems for network coding using cross-packet check blocks

Systems and methods are disclosed for providing H-ARQ transmissions in respect of a set of horizontal code blocks are combined in a code. Retransmissions contain vertical parity check blocks which are determined from verticals from the set of horizontal code blocks. Once all the vertical parity check blocks have been transmitted, a new set may be determined after performing interleaving upon either the content of the horizontal code blocks, in the case of non-systematic horizontal code blocks, or over the content of encoder input bits in the place of systematic horizontal code blocks. The interleaving may be bitwise or bit subset-wise. The retransmissions do not contain any of the original bits. In the decoder, soft decisions are produced, and nothing needs to be discarded; decoding will typically improve with each retransmission.

System and method for hybrid-ARQ

A reference signaling scheme is provided that is based on the use of a Zadoff Chu sequence with cyclic repetition, optionally code division multiplexing precoding, together with frequency domain spectral shaping (FDSS). A specific pulse shape design for the FDSS part of the reference signal scheme in some embodiments involves the use of a raised cosine pulse raised to the power of β. The new solution for generating reference signals has a Low peak average power ratio that matches the PAPR of SC-OQAM, good channel estimation performance, and the ability to implement CDM in the frequency domain to increase multiplexing gain.

System and method for generating reference signal with low peak average power ratio

Methods and systems for two-dimensional (2D) coding are described for broadcast, multicast or groupcast applications. Two or more information code blocks (CBs) are transmitted to a plurality of intended receiving nodes. One or more cross-CB check blocks are generated, each cross-CB check block being generated based on a set of cross-CB bits, the set of cross-CB bits including at least one bit selected from each of at least two of the information CBs. At least one cross-CB check block is transmitted to at least one of the intended receiving nodes.

Methods and apparatuses for broadcast multicast or groupcast transmission using vertical check blocks

Methods and devices utilizing artificial intelligence (AI) or machine learning (ML) for customization of a device specific air interface configuration in a wireless communication network are provided. An over the air information exchange to facilitate the training of one or more AI/ML modules involves the exchange of AI/ML capability information identifying whether a device supports AI/ML for optimization of the air interface.

Personalized tailored air interface

Current frame structures in Long-Term Evolution (LTE) and New Radio (NR) place some restrictions on the symbols transmitted in the frame, e.g. restrictions related to the duration of each symbol. Embodiments are disclosed in which multi-carrier symbols and/or single-carrier symbol blocks have configurable parameters, such as configurable length and/or configurable location, thereby allowing for more flexibility in the scheduling and transmission of the symbols and/or symbol blocks. Some embodiments aim to implement the configurable parameters in a way that tries to reduce signaling overhead.

Systems and methods for configuring symbol and symbol block parameters in wireless communication

The present disclosure relates, in part, to non-terrestrial communication systems, and in some embodiments to the integration of terrestrial and non-terrestrial communication systems. Non-terrestrial communication systems can provide a more flexible communication system with extended wireless coverage range and enhanced service quality compared to conventional communication systems. A method representative of aspects of the present application includes receiving, by an apparatus connected in a first sub-system, from a radio access network, configuration information for performing a channel condition measurement on a second sub-system, reporting, by the apparatus to the radio access network, channel condition measurement of a downlink reference signal received from the second sub-system, transmitting, by the apparatus, a wireless transmission to the second sub-system responsive to the channel condition measurement meeting a predefined condition.

Terrestrial and non-terrestrial communication systems, apparatuses, and methods

In accordance with an embodiment, a method of operating a base station configured to communicate with at least one user device includes transmitting a reference signal to the at least one user device, receiving channel quality information from the at least one user device, and forming a beam based on the channel quality information received from the at least one user device.

System and method for downlink channel sounding in wireless communications systems

System and method for hybrid-arq

Current radio frame structures in Long-Term Evolution (LTE) and New Radio (NR) have some restrictions. A frame structure is disclosed herein that aims to provide more flexibility. Embodiments of the flexible frame structure include different parameters that are flexible, i.e. that are configurable. A non-exhaustive list of parameters that may be configurable include: length of the frame; length of a subframe (if a subframe is even defined); length of a slot and/or number of symbol blocks in a slot (if a slot is even defined); length of the CP and/or data portion in a symbol block, or ratio of CP to data portion, which may vary between symbol blocks; downlink/uplink switching gap length, etc.

Flexible frame structure for wireless communication

Systems and methods are provided for identifying an available infrastructure network topology consisting of a set of available network links and a set of available network nodes of a communication network. In the systems and methods, a network node of the communication network is operative to transmit a learning schedule to a plurality of network nodes interconnected by a set of network links of the communication network. The network node receives from each of the plurality of network nodes a communication node record including network performance observations observed by that network node based on the learning schedule transmitted to that network node. Based on the received communication node records, the network node identifies a set of available network links from the set of network links and the set of available network nodes corresponding to the set of available network links.

Systems and methods for communication network customization

Physical layer structures and access schemes for use in such networks are described and in particular initial access channel (IACH) structures are proposed. A spectrum efficient downlink (DL) IACH design supports different types of User Equipment (UE) capabilities and different system bandwidths. An IACH includes the synchronization channel (SCH) and broadcast-control channel (BCH). A non-uniform SCH for all system bandwidths is provided, as well as scalable bandwidth BCH depending on system bandwidth. An initial access procedure is provided, as well as an access procedure.

Initial access channel for scalable wireless mobile communication networks

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Ottawa, Canada

Ming Jia