Telefonaktiebolaget Lm Ericsson (publ)

Blackberry Corporation

Future Wei Technologies, Inc.

Motorola Corporation

Motorola Mobility LLC

Other

Google Inc.

Motorola Solutions, Inc.

Malikie Innovations Limited

Motorola Mobiity LLC

Huawei Technologies Co., Limited

Google Technology Holdings LLC

Yufei W. Blankenship

Brian K. Classon

Vipul A. Desai

Yufei W Blankenship

Shiwei Gao

Dennis Hui

Johan Mikael Bergman

Brian Keith Classon

Zhijun Cai

Ajit Nimbalker

Xingqin Lin

Hua Xu

Yi Song

Yi-Pin Eric Wang

Mattias Frenne

Robert Baldemair

Jung-Fu Cheng

Robert Mark Harrison

Sorour Falahati

Siva Dharshan Muruganathan

Chandra Sekhar Bontu

Weimin Xiao

Yi Yu

Youn Hyoung Heo

Stefan Parkvall

John Walter Diachina

Philippe J Sartori

Yajun Zhu

Bengt Lindoff

Daniel Chen Larsson

Paul Schliwa-Bertling

Havish Koorapaty

Muhammad Ali Kazmi

Oghenekome Oteri

Ravi Kuchibhotla

Iana Siomina

Sebastian Faxér

Bingyu Qu

Erik A Eriksson

Stefano Sorrentino

Min Wang

Fredrik Gunnarsson

Pål Frenger

Robert T Love

Martin Hessler

Mattias Andersson

Sara Sandberg

Asbjörn Grövlen

Jonas Fröberg Olsson

Yutao Sui

Zhenhua Zou

Vipul Anil Desai

Ali Behravan

Michael Eoin Buckley

Tuomas Tirronen

Torsten Dudda

Kenneth Anderson Stewart

Zhan Zhang

Jingya Li

Zhipeng Lin

Emre Yavuz

Niklas Andgart

Shehzad Ali Ashraf

Yongkang Jia

Deping Liu

Andreas Höglund

Reem Karaki

Ying Sun

Dongsheng Yu

Sophie Vrzic

Joakim Axmon

Pradeepa Ramachandra

Mattias Bergström

Miguel Lopez

Kumar Balachandran

Robert Novak

Joachim Sachs

Xinghua Song

Andrew Mark Earnshaw

Osman Nuri Can Yilmaz

Yan Xin

Shalini Suresh Periyalwar

Anders Wallén

Riikka Susitaival

Jun J Li

Jose Luis Pradas

Zhongfeng Li

Sándor Rácz

William Anthony Gage

János Farkas

Santhan Thangarasa

Dinand Roeland

György Miklós

Henrik Rydén

Henrik Enbuske

Stefano Ruffini

Patrik Salmela

Bernard Smeets

Nianshan Shi

Sara Modarres Razavi

Biswaroop Mukherjee

José Araújo

Dennis Sundman

A system and method for selecting a number of cyclic redundancy check bits in a communication system. In one embodiment, an apparatus operating in a communication system is configured to receive scheduling information from the communication system, and determine an information block length (K) and/or code rate (R) for a code block including a sequence of data bits from the scheduling information. The apparatus is further configured to determine a number of cyclic redundancy check (CRC) bits as a function of the information block length (K) and/or code rate (R) for the code block.

Cyclic redundancy check selection

A wireless communication device () replicates, at a Radio Link Control (RLC) layer of a protocol stack of the wireless communication device (), an original packet associated to a particular service to provide one or more replicate packets. Each of the one or more replicate packets is a replication of the original packet. For each packet from among a set of packets consisting of the original packet and at least one of the one or more replicate packets, the wireless communication device () generates a transport block that comprises the packet and transmits the transport block to one or more base stations or transmission/reception points, TRPs, via a physical layer of the protocol stack of the wireless communication device ().

Replication in a wireless communication network

Techniques for enhancing performance in Industrial Internet-of-Things (IIoT) scenarios, including techniques for time-sensitive networking (TSN) and 5G wireless network integration. An example method, performed by a wireless device, comprises receiving system information (SI) from a radio base station (RBS) of a radio access network (RAN), the SI being indicative of support for TSN through the RBS, and establishing at least one TSN stream with an external data network, through the RBS. The example method further includes receiving a first timing signal from the wireless communications network, via the RBS, receiving a second timing signal from the external TSN data network to which the wireless device is connected, comparing the first timing signal to the second timing signal to determine an offset, and transmitting the offset to the wireless communications network.

Industrial automation with 5G and beyond

A method for repeating a Transport Block (TB) over multiple transmission occasions. The method includes exchanging specific signaling between a wireless device (e.g., a user equipment) and a network node (e.g., a base station) to repeat same or different redundancy versions of the TB in multiple non-overlapping transmission occasions (e.g., mini-slots) corresponding to multiple Transmission Configuration Indication (TCI) states and having different start positions. More specifically, the network node transmits a Time Domain Resource Allocation (TDRA) to indicate the multiple non-overlapping transmission occasions and the wireless device receives the TDRA indicating the multiple non-overlapping transmission occasions. Accordingly, the wireless device can receive repetition of the TB according to the TDRA. By indicating transmission occasions in the TDRA, it is possible to efficiently schedule multiple transmission occasions over the multiple TCI states, thus helping to improve efficiency, reliability, and coverage in a wireless communications network.

Method for repeating a transport block (TB) over multiple transmission/reception points (TRPs)

Systems and methods for providing feedback are provided. In some embodiments, a method performed by a wireless device includes: determining a set of occasions for candidate PDSCH receptions taking into account the number of sub-slots in an uplink slot; determining a set of occasions for Semi-Persistent Scheduling (SPS) PDSCH releases taking into account the number of sub-slots; the number of sub-slots is used to scale the number of downlink slots within an uplink slot when determining a set of occasions for candidate PDSCH receptions; and the number of sub-slots is used to scale the number of downlink slots within an uplink slot when determining a set of occasions for SPS PDSCH releases. Some embodiments allow for a full support of Type-1 HARQ-ACK codebook for subslot-based HARQ-ACK. Some embodiments are simple to implement into the specification and preserve the existing behavior for the slot-based Type-1 HARQ-ACK codebook determination.

Type-1 HARQ-ACK codebook in PUCCH for sub-slot HARQ-ACK

Systems and methods of the present disclosure are directed to a method performed by a wireless communication device. The method includes receiving, from a network node, information that configures the wireless communication device for a Configured Grant (CG) based Physical Uplink Shared Channel (PUSCH) transmission with PUSCH repetitions towards two or more transmissions/reception points (TRPs). The method includes performing the CG based PUSCH transmission with PUSCH repetitions towards the multiple TRPs in accordance with the received information.

Configured grant based PUSCH transmission to multiple TRPs

A method of producing a set of coded bits from a set of information bits for transmission between a first node and a second node in a wireless communications system, the method comprises generating a codeword vector by encoding the set of information bits with a low-density parity-check code, wherein the codeword vector is composed of systematic bits and parity bits. The method comprises performing circular buffer-based rate matching on the generated codeword vector to produce the coded bits for transmission, wherein the circular buffer-based rate matching comprises puncturing a first plurality of systematic bits.

Rate matching methods for LDPC codes

According to some embodiments, a wireless device is operating in communication with two or more serving cells wherein at least one serving cell of the two or more serving cells is configured for release 16 reporting of physical downlink control channel (PDCCH) monitoring capabilities. The wireless device performs a method comprising transmitting a first parameter representing a release 16 PDCCH monitoring capability of the wireless device to a network node and determining a maximum number of PDCCH candidates and a maximum number of non-overlapped control channel elements (CCEs) based on a maximum number of release 16 capable serving cells, which is determined based on the transmitted first parameter.

CA limit for different PDCCH monitoring capabilities

A User Equipment (UE) () configured for operation in a wireless communication network () ignores a received preemption indicator responsive to determining that the involved data transmission by the UE () will carry Uplink Control Information (UCI) from the UE (), at least when the UCI is of a certain type or priority. For example, the UE () ignores the preemption indicator if the UCI is of the certain type or priority, and otherwise follows the preemption indicator by skipping the uplink data transmission. Correspondingly, a radio network node () configured for operation in the wireless communication network () determines whether an uplink data transmission by a UE () on certain radio resources will include UCI, and the radio network node () transmits or does not transmit a preemption indicator preempting use by the UE () of the certain radio resources for the uplink data transmission, in dependence on the determination.

Methods and apparatuses for controlling preemption of uplink transmissions in a communication network

Systems and methods are disclosed herein for determining and indicating antenna ports in Downlink Control Information (DCI). In one embodiment, a method performed by a wireless communication device comprises receiving a configuration comprising a Demodulation Reference Signal (DMRS) configuration and an antenna port field configuration for an antenna port field in a Downlink Control Information (DCI) format. The method further comprises receiving a DCI of the DCI format and determining a size of an antenna port field and a DMRS port table for interpreting a value comprised in the antenna port field based on the DMRS and antenna port field configurations, the determined DMRS port table being a subset of a master DMRS port table. The method further comprises determining a DMRS port(s) used for a corresponding physical channel based on the size of the antenna port field, the DMRS port table, and/or the value of the antenna port field.

Systems and methods for determining and indicating antenna ports with configurable antenna port field in DCI

A method by a wireless device includes determining a value of a Sounding Reference Signal (SRS) request field size. The wireless device receives downlink control information (DCI) from a network node. The DCI is received according to a format. The wireless device selects a SRS resource set based on the format of the DCI and the value of the SRS request field size.

Configuration of downlink control information formats

A method for use in a transmitter includes sending a transmission comprising a transport block (TB) comprising a plurality of code blocks (CBs) arranged in one or more code block groups (CBGs). Each code block group includes one or more code blocks and each code block includes a plurality of coded bits. The transmission is sent to a receiver configured to use multi-bit hybrid automatic repeat request (HARQ) feedback per transport block. The method further includes receiving HARQ ACK or NACK feedback from the receiver one or more of the one or more code block groups of the transport block. The method further includes determining a number of code blocks or code block groups to send to the receiver in a retransmission based on at least the received HARQ ACK or NACK feedback.

HARQ handling for nodes with variable processing times

According to some embodiments, a method of operation of a wireless transmitter in a wireless communication network comprises: encoding a set of information carrying data bits u of length K with a linear outer code to generate a set of outer parity bits p along with the data bits u; interleaving the set of outer parity bits p and the data bits u using a predetermined interleaving mapping function that depends on the number of data bits K and is operable to distribute some bits of the set of parity bits p in front of some data bits u; and encoding the interleaved bits using a Polar encoder to generate a set of encoded bits x. Various interleaving mapping functions are disclosed.

CRC interleaving pattern for polar codes

The present disclosure described systems and methods for providing OTT services to a UE. An exemplary OTT-providing host computer includes a transceiver, a processor, and memory collective configured to provide the OTT service by initiating transmission of user data to the UE. To transmit the user data from the host computer to the wireless device, a network node sends a first control message for assigning a PDSCH, the first control message comprising a first MCS indication as described. The network node sends to the wireless device a second control message for assigning a PDSCH, the second control message comprising a second MCS indication as described. The network node transmits the user data thereafter.

Methods and systems for performance enhancement of downlink shared channels

A set of resources, e.g. time and frequency resources, used for configured grants for a group of user equipments (UEs) is signalled to a second group of UEs. The second group of UEs consider the signalled set of resources to be reserved, and, therefore, avoid transmitting anything on the set of resources even if they are scheduled to do so.

Methods of signaling reserved resources for ultra-reliable low latency communication (URLLC) traffic

Growing community of inventors

Streamwood, IL, United States of America

Yufei W Blankenship