Qualcomm Incorporated

Lucent Technologies Inc.

Alcatel Lucent

Other

Alcatel-lucent USA Inc.

Agere System Optoelectronics Guardian Corp.

Idpa Holdings, Inc.

Karl Georg Hampel

Junyi Li

Navid Abedini

Jianghong Luo

Tao Luo

Luca Blessent

Muhammad Nazmul Islam

Naeem Akl

Sundar Subramanian

Hong Cheng

Juergen Cezanne

Vincent Douglas Park

Ozcan Ozturk

Gavin Bernard Horn

Chong Li

Piyush Gupta

Rajat Prakash

Soo Bum Lee

Jung Ho Ryu

Bilal Sadiq

Xipeng Zhu

Peerapol Tinnakornsrisuphap

Luis Fernando Brisson Lopes

Wanshi Chen

Xiaoxia Zhang

Jing X Sun

Sebastian Speicher

Paul Anthony Polakos

Sony Akkarakaran

Yan Zhou

Alberto Rico Alvarino

Hua Wang

Haris Zisimopoulos

Lenaig Genevieve Chaponniere

Andrzej F Partyka

Viswanath Poosala

Satashu Goel

Durga Prasad Malladi

Qian Zhang

William Michael MacDonald

Ashwin Sampath

Peng Cheng

Kenneth Lee Clarkson

Samel Celebi

John D Hobby

Gary M Hojell

Aleksandar Damnjanovic

Vasanthan Raghavan

Sumeeth Nagaraja

Fatih Ulupinar

Keiichi Kubota

Ravi Agarwal

Valentin Alexandru Gheorghiu

Vinay Joseph

Alessio Marcone

Sherif Elazzouni

Lawrence M Drabeck

Paul Matthew Mankiewich

Haitong Sun

Jing Jiang

Linhai He

Anand Palanigounder

Andrei Dragos Radulescu

Karthika Paladugu

Adrian Edward Escott

Bapineedu Chowdary Gummadi

Francesco Pica

Paul Robert Kolodner

Shankar Krishnan

Michael Joseph Flanagan

Vladimir Y Kolesnikov

Peter Bosch

Peter Ledel Gammel

Rajeev Kumar

John Thomson, Jr

Simon C Borst

Ajay Rajkumar

Vincent Loncke

Hem Agnihotri

Yihao Lisa Zhang

Sape Jurrien Mullender

Norman Gerard Ziesse

Roderick Kent Watts

Henry Miles O'Bryan

Aria Hasanzadezonuzy

Anthony A Triolo

Suryanarayan Perinkulam

Jim McKie

Chandra S Chekuri

Jin-Der Wang

Noah Evans

Naeem Aki

Tac Luo

Lawrence Milton Drabeck

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a control node may determine, for a target wireless node in communication with a plurality of other wireless nodes via a plurality of links of a network, a plurality of powers for the plurality of links, wherein the plurality of powers are selected to control inter-link interference or to satisfy a maximum power criterion. The control node may cause at least one of the target wireless node or the plurality of other wireless nodes to use the plurality of powers for concurrent transmissions to the target wireless node using the plurality of links based at least in part on determining the plurality of powers. Numerous other aspects are provided.

Power control for concurrent reception

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a parent node in an integrated access and backhaul (IAB) network may transmit, to an IAB node having a mobile termination function (IAB-MT) and a distributed unit (IAB-DU), signaling indicating a set of restricted IAB-DU beams and associating the set of restricted IAB-DU beams with one or more IAB-MT beams, the set of restricted IAB-DU beams determined based on measurements related to interference caused by the IAB-DU and the IAB-MT performing a simultaneous operation in one or more simultaneous multiplexing modes. Additionally or alternatively, the parent node may perform scheduling for the IAB-MT based on signaling received from the IAB node that indicates beam-specific parameters related to a multiplexing capability for a beam pair that includes an IAB-MT beam and an IAB-DU beam associated with the IAB-MT beam. Numerous other aspects are provided.

Signaling enhancements for simultaneous multiplexing in an integrated access and backhaul network

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a first integrated access and backhaul (IAB) donor central unit (CU) may transmit, to a second IAB donor CU, a resource configuration of a first cell served by an IAB node to initiate a migration of the IAB node from a first parent node to a second parent node serving a second cell associated with the second IAB donor CU. The first IAB donor CU may receive, from the second IAB donor CU, an indication that communications performed by the IAB node associated with the first cell will not conflict with communications with the second parent node serving the second cell. The first IAB donor CU may migrate the IAB node to the second parent node based at least in part on the indication. Numerous other aspects are described.

Migration of an integrated access and backhaul node

Aspects described herein relate to providing dynamic frequency division multiplexing (FDM) within a component carrier (CC) for use by integrated access and backhaul (TAB) nodes. A configuration can be communicated for each cell of the IAB node indicating multiple resource availability combinations with each resource availability combination corresponding to resource block (RB) sets over multiple slots. A downlink control information (DCI) indicating one resource availability combination of the multiple resource availability combinations for one or more cells of the IAB node can be communicated as well. The IAB node can communicate, in a slot, over one or more RB sets of the multiple configured RB sets in symbols indicated as available by the one resource availability combination.

Techniques for supporting dynamic frequency division multiplexing within carrier

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, an integrated access and backhaul (IAB) node may receive a data packet associated with a timing parameter. The IAB may insert a time stamp into the data packet, based at least in part on the timing parameter, the time stamp associated with a reference time that is known among one or more additional IAB nodes within a path associated with the data packet. Numerous other aspects are described.

Time stamps for data packets within an integrated access and backhaul network

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, an integrated access and backhaul (IAB) node may receive, from a first IAB donor centralized unit (CU) via a first parent distributed unit (DU), a first indication to establish a first connection with a second parent DU associated with a second IAB donor CU. The IAB node may establish the first connection with the second parent DU. The IAB node may establish a second connection with the first IAB donor CU via the second parent DU, the first connection and the second connection forming a target path between the IAB node and the first IAB donor CU. Numerous other aspects are provided.

Handover command delivery via a target path in an integrated access and backhaul configuration

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, an integrated access and backhaul (IAB) node may receive at least part of a resource pattern of a child IAB node associated with the IAB node. The resource pattern may indicate one or more configurations of one or more resources of the child IAB node. The IAB node may communicate with the child IAB node based on the at least part of the resource pattern. Numerous other aspects are provided.

Configuration of resource patterns for integrated access and backhaul

Aspects relate to establishing a signaling connection between a radio access network (RAN) node and a first scheduling entity. The RAN node may communicate in a dual connectivity (DC) mode of operation with the first scheduling entity (e.g., a secondary gNB) using a first radio access technology (RAT) and with a second scheduling entity (e.g., a master eNB) using a second RAT. The RAN node and the first scheduling entity may support sending information for a first signaling connection between the RAN node and the first scheduling entity over a second signaling connection through the second scheduling entity (e.g., when the second signaling connection is more reliable than the first signaling connection). To establish the second signaling connection, the RAN node and the first scheduling entity may signal support for the second signaling connection and exchange Internet Protocol information for the second signaling connection.

Establishing a signaling connection in a wireless network

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a base station distributed unit (DU) may configure a report that identifies a transmission timing within a radio frame for transmission of one or more cell-defining synchronization signal blocks (CD-SSBs) in a serving cell of the base station DU. The base station DU may transmit the report to a base station control unit. Numerous other aspects are provided.

Reporting a synchronization signal block configuration to a control unit

Example implementations include a method, apparatus, and computer-readable medium of wireless communication for a network node to transport signaling used to coordinate management of a RAN for local traffic between a first node and a UE across a wireless connection. The network node may establish a first wireless signaling connection between a first node and a second node. The network node may encapsulate or decapsulate traffic associated with a second wireless signaling connection within the first wireless signaling connection. The second wireless signaling connection corresponds to a non-F1 interface of a control plane or user plane network function that terminates at the first node. For instance, the network node may be a consumer premises equipment (CPE) serving a UE, a base station wirelessly serving the CPE, or a core network node providing control for the UE.

Signaling to support RAN management for local traffic

In some aspects, a node may configure whether a set of soft time resources is to be conditionally released or unconditionally released. The set of soft time resources may be configurable in a schedulable state or a non-schedulable state. The set of soft time resources may be schedulable subject to at most a directionality constraint when unconditionally released and, when conditionally released, being schedulable subject to: the directionality constraint and one or more conditions other than the directionality constraint if the set of soft resources is configured subject to the directionality constraint, or at least one of the directionality constraint or the one or more conditions other than the directionality constraint if the set of soft resources is not configured subject to the directionality constraint. The node may transmit a configuration that indicates whether the set of soft time resources is conditionally released or unconditionally released in the schedulable state.

Conditional release of soft resources in an integrated access and backhaul network

Methods, systems, and devices for wireless communication are described. A control node may transmit, to a first relay node, an indication to communicate according to a first resource configuration of a set of resource configurations, where each resource configuration of the set is associated with a respective resource block set and a respective time domain pattern. In some examples, each time domain pattern may indicate, for each symbol of a respective set of symbols associated with each time domain pattern, a resource type associated with availability of each symbol for communication by the first relay node with a second relay node. The first relay node may communicate according to the first resource configuration based on receiving the indication to communicate according to the first resource configuration.

Supporting adaptive frequency domain resource configuration for a relay node

Aspects generally relate to wireless communication. In some aspects, an integrated access and backhaul (IAB) node may receive a configuration that indicates multiple resource patterns for one or more slots, wherein each resource pattern corresponds to a different set of one or more resource block (RB) sets within the one or more slots, and wherein each resource pattern includes at least one of: a resource availability pattern that indicates at least one of hard resources, soft resources, or not available resources for one or more RB sets corresponding to that resource pattern, or a resource directionality pattern that indicates at least one of uplink resources, downlink resources, or flexible resources for the one or more RB sets corresponding to that resource pattern. The IAB node may apply a resource pattern, of the multiple resource patterns, based at least in part on the configuration. Numerous other aspects are described.

Indication of a resource pattern for frequency division multiplexing within a component carrier for a wireless multi hop network

The present disclosure relates to methods and devices for wireless communication at a wireless device or integrated access and backhaul (IAB) node. In one aspect, the wireless device may determine a frequency synchronization accuracy for the wireless device. The wireless device may also transmit an indication of the determined frequency synchronization accuracy for the wireless device. Additionally, the wireless device may determine an absolute frequency based on a combination of measurements from at least one synchronization source and a frequency of the wireless device, where the frequency synchronization accuracy is based on the absolute frequency.

Methods and apparatus for frequency synchronization communication

Methods, systems, and devices for wireless communications are described. A mobile integrated access and backhaul (IAB) node may transmit, to an IAB supported network, an indication of IAB capability. The mobile IAB node may also indicate to the IAB supported network a mobility status associated with the mobile IAB node. The IAB supported network may conditionally determine authorization for the mobile IAB node based on the mobility status, a subscription status, or both. The IAB supported network may transmit, to the mobile IAB node, instruction to operate in an IAB mode and perform the IAB operation. The mobile IAB node may communicate with one or more devices based on the instruction.

Conditional authorization of mobile nodes

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Hoboken, NJ, United States of America

Karl Georg Hampel