Sharp Kabushiki Kaisha Corporation

Sharp Laboratories of America, Inc

Huawei Technologies Co., Limited

Nokia Technologies Oy

Fg Innovation Company Limited

Kenneth James Park

John Michael Kowalski

Shohei Yamada

Ahmad Khoshnevis

Zhanping Yin

Sayantan Choudhury

Kazunari Yokomakura

Kimihiko Imamura

Atsushi Ishii

Kamel M Shaheen

Kai Ying

Jia Sheng

Lizhong Zheng

Michael John Detlef

Dean W Bergstrom

Toshizo Nogami

A method for a first UE to perform sidelink communication with a second UE is provided. The method receives a first resource set from a cell to establish a first sidelink channel with the second UE, the first resource set indicating at least a first distance between the first and second UEs. The method establishes the first sidelink channel with the second UE based on the first resource set and transmits a set of parameters associated with the first sidelink channel to the cell. The method also sets a first timer based on at least the first distance, the first timer for determining when to establish a second sidelink channel with the second UE. When the first timer is expired and no second resource set is received from the cell, the method establishes the second sidelink channel with the second UE based on the first resource set.

Determining periodicity of sidelink communications within the network coverage

A method for a UE is provided. The method transmits to a second UE a first PRS in a first set of symbols of a first slot of a first BWP and determines that a second PRS is to be transmitted in a second BWP that overlaps the first BWP in the time domain. The method receives information to determine whether the second UE is capable of successfully decoding the first and second PRSs. When the method determines that the second UE is not capable of such, the method modifies a scheduling of transmission of the second PRS by identifying a second set of symbols of a second slot of the second BWP for carrying the second PRS, such that a start of a first symbol of the second set of symbols follows an end of a second symbol of the first set of symbols in the time domain.

Scheduling positioning reference signal transmissions across different subcarrier spacings

A node of an Integrated Access and Backhaul (IAB) network comprises processor circuitry and interface circuitry. The processor circuitry is configured to make a determination concerning crosslink interference (CLI) between (a) a beam transmitted from a parent node to the IAB node and (b) a beam transmitted from the IBA node to a child node of the IAB node; and in accordance with the determination, and to generate a command configured to modify a property of the beam transmitted from the parent node to the IAB node. The interface circuitry is configured to transmit the command to a beam controller of the parent node.

Power control for IAB node fronthaul

A user equipment (UE) for supporting multiple-universal subscriber identity module (multi-USIM) operations among a first base station associated with a first network and a second base station associated with a second network is disclosed. the UE includes one or more non-transitory computer-readable media having computer-executable instructions embodied thereon, and at least one processor coupled to the one or more non-transitory computer-readable media. The processor is configured to execute the computer-executable instructions to transmit, through transmitting circuitry of the UE, a physical random access channel (PRACH) preamble to the second base station associated with the second network. The PRACH preamble indicates to the second base station that the UE is not to begin a connection establishment procedure with the second network.

Method and apparatus for signaling multi-USIM UE busy status

In a method for in-device coexistence interference avoidance (IDC), an IDC assistance information message is received from a wireless communication device. The IDC assistance information message includes at least a timing offset information which is used to align the occurrence of Long Term Evolution (LTE) DRX inactivity periods with the occurrence of Industrial, Scientific, and Medial (ISM) active periods.

In-device coexistence interference avoidance (IDC)

Methods, systems, and devices provide improved proximity services. In one aspect, a base station includes an information generating module and an information transmission module. The information generating module generates control information for causing a mobile device to initiate a discovery signal transmission procedure. The discovery signal transmission procedure allows the mobile device to be discovered. The information transmission module transmits the control information to the mobile device. In another aspect, a mobile device includes an information receiving module, a control module, and a signal transmission module. The information receiving module receives control information. The control module initiates a discovery signal transmission procedure for proximity services responsive to the information receiving module receiving the control information. The discovery signal transmission procedure includes generating a discovery signal allowing the mobile device to be discovered. The signal transmission module broadcasts the discovery signal.

Proximity service discovery using a licensed frequency spectrum

A wireless terminal device () is capable of operating both in a licensed radio frequency band and an unlicensed radio frequency band. The wireless terminal device () comprises processor circuitry () configured (1) to select a first requirement comprising at least a first rule governing utilization of the unlicensed radio frequency band and (2) to use a second requirement comprising at least a second rule for implementing the first rule of the selected first requirement. The first requirement may be a regional requirement and the second requirement may be an operator requirement.

Method and apparatus for unlicensed communications band access

A wireless terminal configured for use in a mobile vehicle comprises a transmitter (), a receiver (), and processor circuitry (). The transmitter () is configured to transmit a series () of vehicle data messages () over a vehicle (V2X) communication radio interface (). The receiver () is configured to receive a message () from a stationary infrastructure unit () over the vehicle (V2X) communication radio interface (). The processor circuitry () is configured to: generate the vehicle data messages of the series (); set a default transmission rate for transmission of at least some of the vehicle data messages of the series; make a determination regarding content of the message received from the stationary infrastructure unit (); and thereafter in accordance with the determination, set a modified transmission rate for transmission of at least another vehicle data message of the series and thereby modify utilization of the vehicle (V2X) communication radio interface ().

Controlling resource usage for vehicle (V2X) communications

A method for determining whether to attempt to attach to a network by a machine type communication (MTC) device is described. A triggering event is detected. A radio frame is received from a base station. The radio frame includes a current access class of the base station. The radio frame is the first radio frame to include the current access class after the triggering event. It is determined if the MTC device has access privileges to the base station. It is then decided whether to attempt to attach to a network based on if the MTC device has access privileges.

Modified access classes for machine type communication (MTC) devices during emergencies

In a method for controlling network congestion, a parameter to bar access from specific user equipment is adjusted. The adjusted parameter in a specific system information block which is different from a System Information Block Type2 is transmitted. The method may be performed by a base station.

Reducing congestion in wireless communication networks

The present disclosure relates to component carrier (CC) selection in a wireless communication system. A user equipment (UE) that is in idle mode may receive a reference signal (RS) from an evolved Node B (eNB), obtain signal quality measurements with respect to the RS, and switch to a new CC based on the signal quality measurements. For a UE that is in connected mode, an eNB may obtain uplink channel condition information corresponding to uplink CCs, obtain downlink channel condition information corresponding to downlink CCs, and select a CC pair for the UE to use based on the uplink channel condition information and the downlink channel condition information.

Systems and methods for component carrier selection in a wireless communication system

A method performed by a user equipment (UE) is described. The method includes receiving a physical cell identifier information element (IE) from an evolved node B (eNB). The physical cell identifier IE is associated with a secondary cell (SCell) that is on an unlicensed Long-Term Evolution (LTE) carrier frequency. The method also includes determining a physical-layer cell identity (PCI) of the SCell based on the physical cell identifier IE. The method further includes applying the PCI as a parameter for physical channels or signals on the SCell.

Systems and methods for secondary cell ID selection

Methods, systems, and devices provide improved power control for signals used for device-to-device services. In one aspect, a user equipment ('UE') terminal controls the transmission power of signals used for device-to-device ('D2D') services based on power control parameters provided by a base station. The UE terminal includes a first power control module for controlling a first transmission power to be applied to signals used for communication with a base station. The UE terminal also includes a second power control module for controlling a second transmission power to be applied to signals used for D2D services. The first and second transmission powers can be determined based on at least one power control parameter received from the base station. The UE terminal also includes a signal transceiver module for transmitting signals used for uplink/downlink communications using the first transmission power and transmitting signals used for D2D services using the second transmission power.

Transmission power control for signals used by user equipment terminals for device-to-device services

In a method for controlling network congestion, a parameter to bar access from specific user equipment is adjusted. The adjusted parameter in a specific system information block which is different from a System Information Block Typeis transmitted. The method may be performed by a base station.

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Cathlamet, WA, United States of America

Kenneth James Park