Abstract: A device (e.g., a BLUETOOTH device) includes memory and one or more processors coupled to the memory. The one or more processors are configured to implement a BLUETOOTH host, a BLUETOOTH host-controller interface, and a BLUETOOTH controller. The one or more processors are further configured to cause the BLUETOOTH controller to receive, from the BLUETOOTH host via the BLUETOOTH host-controller interface, a message indicating first channel and timing information for sending data corresponding to a BLUETOOTH application. The one or more processors are further configured to cause the BLUETOOTH controller to initiate sending the data based on the first channel and timing information.

Abstract: A method, apparatus, or computer-readable medium with instructions for beam management for radio frequency (RF) sensing at a wireless device. The wireless device performs a first beamsweep of an RF signal and measures a reflection of the RF signal based on the first beamsweep. The wireless device performs a second beamsweep of the RF signal, wherein the first beamsweep is based on a different parameter than the second beamsweep and measures the reflection of the RF signal based on the second beamsweep. The wireless device selects a beam for RF sensing based on the first beamsweep and the second beamsweep.

Abstract: Techniques are disclosed for deploying, by a packet processing system in a cloud computing environment, microservice instances in the cloud computing environment comprising a plurality of computing devices executing a plurality of Kubernetes clusters comprising one or more containers. The packet processing system is configured to selectively steer data traffic between multiple versions of microservice instances executing in the cloud computing environment.

Abstract: The embodiments herein relate to a method performed by a first node for handling message delivery to a UE. The first node sends an indication to a second node. The indication indicates that the second node should inform the first node when one or more messages have been successfully delivered by the second node to the UE. The first node receives, from the second node, a confirmation of that the one or more messages have been successfully delivered by the second node to the UE.

Abstract: Methods, systems, and devices for wireless communications are described. A base station may transmit a data message to a user equipment (UE) in a data block modulated according to a modulation and coding scheme (MCS). The UE may monitor for the data block and may attempt to decode the data block. If the UE successfully receives and decodes the data block, the UE may transmit an acknowledgment (ACK) in a feedback message. If the UE unsuccessfully receives or decodes the data block, the UE may transmit a negative acknowledgement (NACK). The UE may transmit the feedback message with the ACK or NACK and a value from a codebook indicating for the base station to increase or decrease the MCS by a delta value for a following transmission or a retransmission.

Abstract: A solution for handling network congestion includes detecting, by a wireless network, a network congestion condition; detecting, by the wireless network, a failed attempt, by a user equipment (UE), to initiate a data session (e.g., a voice over WiFi (VoWiFi) call) over a packet data network (PDN) through the wireless network; transmitting, by the wireless network, to the UE, a notification of network congestion; and transmitting, by the wireless network, to the UE, a retry parameter set including a maximum number of fast retries, a fast retry time interval, and a slow retry time interval. In some examples, the retry parameter set further includes a rate at which the slow retry time interval increases with a value of a slow retry counter, and/or a maximum number of slow retries. In some examples, the retry scheme varies based on the severity of the congestion and/or roaming conditions.

Abstract: A data transmission method includes: transmitting, in a carrier aggregation scenario based on scheduling information, sidelink data on a data carrier and feedback data on a feedback carrier. The scheduling information is used to schedule the data carrier and/or the feedback carrier, and the feedback data is used to indicate a transmission result of the sidelink data.

Abstract: Methods, systems, and computer readable media for recycling background traffic in a test environment are disclosed. One example method occurs at a test system implemented using at least one processor, the method comprising: generating background packets usable as background traffic in a data center switching fabric used in delivering test traffic to a system under test (SUT); sending, from a first packet source of the test system and via the data center switching fabric, the background packets toward a first packet destination of the test system; receiving, by the first packet destination, at least some of the background packets; and resending, from a re-entry packet source of the test system and via the data center switching fabric, at least one received background packet toward the first packet destination or a second packet destination.

Abstract: An operation method of a receiving node in a communication system includes: receiving, from a transmitting node, mapping information between transmission parameters and aggregation factors (AFs); receiving, from the transmitting node, control information including a first transmission parameter used for transmission of data among the transmission parameters; determining a first AF mapped to the first transmission parameter from among the AFs based on the mapping information; and performing a repetitive reception operation on the data transmitted from the transmitting node based on the first AF.

Abstract: A method includes receiving, by a peripheral device, a first connection request from a first central device; providing, by the peripheral device, a first indication of an anchor point time to the first central device before establishing a first wireless connection with the first central device; and responding, by the peripheral device, to the first connection request and establishing the first wireless connection using a first anchor point based on the first indication.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a digital repeater may receive, from a control node, a configuration that indicates a digital processing operation, wherein the digital processing operation comprises a digital processing option selected from a plurality of digital processing options. The digital repeater may receive a first signal. The digital repeater may perform the digital processing operation on the first signal to generate a second signal, wherein the second signal comprises a re-generated version of the first signal. The digital repeater may transmit the second signal. Numerous other aspects are provided.

Abstract: The present invention provides a terminal that can carry out a random-access process appropriately. A terminal (100) is provided with: a wireless transmission unit (108) that transmits a data signal; and a control unit (101) that determines a second resource for use in transmitting the data signal on the basis of a first resource for use in transmitting a preamble signal.

Abstract: An object is to provide a network device and the like that enable a first network that determines a traffic communication route using the Ethernet ring protocol and a second network that determines a traffic communication route by transmitting/receiving a control frame related to the traffic communication route within the network to be connected in a redundant configuration. When the network device according to the present invention has transitioned to a state in which there is no interface that can communicate with the first network and there is an interface that can communicate with the second network, it transitions to a standby state and further transmits information indicating that communication is impossible to the second network, and when there is an interface that can communicate with the first network and there is no interface that can communicate with the second network, it transitions to the standby state and further transmits communication route change information to the first network.

Abstract: A method of adaptively adjusting infrastructure of an enterprise mobile network may comprise inputting into a neural network performance metrics and performance requirements describing a performance gap between processing capabilities and requirements at an enterprise mobile network comprising a Multi-Access Edge Computing platform, Radio Access Networks, cellular network cores, and non-cellular access points, connectivity metrics and requirements describing a connectivity gap between measured and required minimum Quality of Service values for wireless links between a pool of user equipment devices (UEs), and the enterprise mobile network, outputting an adjusted infrastructure component configuration and an adjusted internetwork connectivity configuration predicted to minimize the performance gap and the connectivity gap, adjusting a distribution of computing resources across the enterprise mobile network, according to the adjusted infrastructure component configuration, and adjusting a distribution of commun

Abstract: Some aspects described herein relate to reducing a delay in the retransmission of undelivered capability information segments. For example, when transmitting capability information via multiple segments, a UE may request the network to acknowledge each segment and/or may modify a network configured parameter to reduce the delay in retransmitting undelivered segments. In some aspects, a UE may attach to a network for a priority service, such as an emergency service or a short message service. In connection with the attachment, the UE may provide a reduced set of capability information that is relevant to the priority service and that omits at least some capability information irrelevant to the priority service.

Abstract: A user equipment (UE) and a method for wireless communication are provided. The method includes: receiving a radio resource control (RRC) configuration from a base station (BS); determining whether a first parameter is configured in the RRC configuration; receiving first downlink control information (DCI) from the BS, the first DCI including a first field indicating a first Hybrid Automatic Repeat Request (HARD) process identifier (ID); determining that a number of bits in the first field is a default number in a case that the first parameter is not configured in the RRC configuration; and determining that the number of bits in the first field is a specific number greater than the default number in a case that the first parameter is configured in the RRC configuration.

Abstract: The apparatus may be a UE configured to select, from a plurality of PSFCH resource sub-pools of a PSFCH resource pool for receiving HARQ feedback, a particular PSFCH resource sub-pool for receiving HARQ feedback associated with a particular SL transmission; transmit, to at least one UE, a PSRI identifying the particular PSFCH resource sub-pool; and receive, from the at least one UE, HARQ feedback regarding the particular SL transmission, the HARQ feedback being received via resources in the PSFCH resource sub-pool indicated by the PSRI. The apparatus may be a base station in a Mode 1 resource allocation that may select, from a plurality of PSFCH resource sub-pools of a PSFCH resource pool for receiving HARQ feedback, a particular PSFCH resource sub-pool for receiving HARQ feedback associated with the particular SL transmission and transmit, to a UE, a PSRI identifying the particular PSFCH resource sub-pool.

Abstract: The invention provides a method performed by user equipment and user equipment. The user equipment is configured in a discontinuous reception (DRX) mode. The method performed by user equipment comprising: initiating a random access (RA) procedure if a value of a beam failure instance (BFI) counter is greater than or equal to a threshold, the threshold being configured by an information element (IE) beamFailureInstanceMaxCount; transmitting a RA preamble; starting a RA response window, the RA response window being configured in an IE BeamFailureRecoveryConfig; and monitoring a PDCCH on a search space indicated by an IE RecoverySearchSpaceId while the RA response window is running. The user equipment can reliably complete a procedure to recover from beam failure even if the user equipment is configured in a DRX mode, thereby improving the overall reliability and communication efficiency of a communication system related to the user equipment.

Abstract: A method by a master network node for measurement gap configuration includes establishing a connection with a wireless device operating in dual connectivity with the master network node and a secondary network node. The master network node operates on a New Radio, NR, wireless network and the secondary network node operates on a Long-Term Evolution, LTE, network. The measurement gap configuration is configured on a per frequency basis for at least a first frequency and a second frequency on the NR wireless network. The measurement gap configuration is configured on a per frequency basis for the first frequency on the LTE network. The method further incudes configuring, by the master network node, the wireless device with at least one measurement gap for the second frequency when the master network node configures a measurement that requires the at least one measurement gap.

Abstract: A communication apparatus operable in both a base station mode and a terminal mode, obtains identification information of a first wireless network to be connected in the terminal mode; and establishes, when operating in the base station mode, a second wireless network having the same identification information as the obtained identification information.