Abstract: There is provided receiving mission time accurate data frames from the one or more source nodes, assigning one or more source nodes to one or more missions, assigning one or more analytics recipes to each of the one or more missions for generating mission-specific analytics information based on the mission time accurate data frames received from one or more source nodes assigned to each of the one or more missions, generating processing jobs for processing the mission time accurate data frames received from one or more source nodes assigned to specific missions, wherein the processing jobs are assigned to recipe-specific processing queues of the one or more analytics recipes assigned to the specific missions.

Abstract: Provided is a radio communication method to be performed by a radio communication system using a TDD scheme, the radio communication method including: an acquisition step of acquiring a TDD configuration of another radio communication system that might have an overlapping communication area; a determination step of determining priorities of slots of the radio communication system, based on the acquired TDD configuration, such that a priority of a first slot, in which an uplink slot timing and a downlink slot timing overlap those of the another radio communication system, is lower than a priority of a second slot, in which the uplink slot timing and the downlink slot timing do not overlap those of the another radio communication system; and an allocation step of allocating resources to the slots of the radio communication system according to the priorities of the slots.

Abstract: A user equipment for transmitting and receiving data in a wireless communication system according to an embodiment is provided. The user equipment is configured to receive, from a first network entity of the wireless communication system, assistance data comprising information on a plurality of resources of a wireless communication system. Moreover, the user equipment is configured to receive configuration information from the first network entity or from a second network entity of the wireless communication system; wherein the configuration information comprises information on one or more proper subsets of the plurality of resources, wherein each of the one or more proper subsets comprises at least one of the plurality of resources. Depending on the configuration information, the user equipment is configured to perform and/or to report one or more measurements on one or more of the plurality of resources.

Abstract: A user equipment (UE) is configured to receive, from a cell of a network, a system information block (SIB), determine values for scheduling information for the SIB without decoding a Physical Downlink Control Channel (PDCCH) corresponding to the SIB and decode the SIB using the scheduling information. A UE is also configured to receive, from a cell of a network, a message to be decoded, receive, from a source different from the cell, additional information related to a portion of the message, determine the portion of the message using the additional information and decode the message based at least in part on the determined portion of the message.

Abstract: This disclosure provides methods, components, devices and systems for signal measurement difference reporting. A user equipment (UE) may report, to a network entity, a measurement difference, or a difference between measurements of multiple reference signals, based on a capability of the UE and a configuration from the network entity. The UE may transmit a report that indicates the measurement difference based on the configuration. Based on the report that indicates the difference between the signal measurements, the UE may receive a downlink grant that indicates an adjustment to a modulation and coding scheme for physical downlink shared channel transmission, or an adjustment to a quantity of layers to use for physical downlink shared channel transmission, or both.

Abstract: There is provided a method performed by a wireless device. The method comprises receiving, from a network node, an assignment of preconfigured resources useable by the wireless device for both cellular and sidelink communication. The method further comprises communicating with the network node by cellular communication in a first set of resources within the assigned preconfigured resources; and communicating with a second wireless device by sidelink communication in a second set of resources within the assigned preconfigured resources.

Abstract: A 6 GHz Wi-Fi device must obtain operability information to operate at a location. Providing a user with an operability indicator for a 6 GHz Wi-Fi device at a location can conserve resources and enhance the quality of experience for a user. A user interface can receive a location input from a user interface, for example, a user input or pre-filled information. The location can be determined based on the location input, for example, one or more location parameters. The one or more location parameters can be previously stored or retrieved from, for example, a network resource, such as a geocoding service. The user interface can provide an operability indicator to the user interface that indicates whether the 6 GHz Wi-Fi device is operable at one or more 6 GHz frequencies and a transmit power associated with allowed or permitted one or more 6 GHz frequencies.

Abstract: Methods, systems, and devices for wireless communications are described. A transmitting device, such as a network entity, may transmit an indication (e.g., via control signaling) to a receiving device, such as a user equipment (UE), indicating that a secure downlink message is scheduled for transmission to the UE. The UE may transmit a sounding reference signal (SRS) to the network entity in response to the control signaling, and the network entity may determine a channel estimate and construct interference based on the channel estimate. The network entity may encode the secure downlink message according to an orthogonal time frequency space (OTFS) precoding scheme and may add the interference to the encoded secure downlink message over a slot duration. The network entity may transmit the encoded secure downlink message, including the added interference, to the UE. The UE may decode the encoded secure downlink message based on the OTFS precoding scheme.

Abstract: This application relates to the mobile communications field, and in particular, to a technology for obtaining a reference signal in a wireless communications system. In a method for obtaining a reference signal, a terminal device obtains position offset information; the terminal device obtains a first sequence based on the position offset information; and the terminal device demodulates, by using the first sequence, a control channel signal carried in a control channel resource set, to obtain downlink control information. In this way, MU-MIMO transmission performance is improved.

Abstract: The embodiments of the present disclosure provide a wireless communication method, a terminal device, and a network device. The method comprises: obtaining configuration information of a search space of a PDCCH; and bundling, according to the configuration information, multiple symbol sets of at least one CORESET so as to achieve the enhanced coverage of the PDCCH.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a wireless device may select one or more parameters for a soft guard band in a subband full duplex slot that are different than one or more parameters for a hard guard band. The wireless device may transmit or receive a communication using the soft guard band and the hard guard band, wherein the soft guard band is between a center band and the hard guard band. Numerous other aspects are described.

Abstract: A scheduling method, performed by a terminal includes: determining a measurement object for which a mobility measurement is performed; and, scheduling, based on the measurement object, a measurement gap pattern corresponding to the measurement object among a plurality of measurement gap patterns for performing the mobility measurement.

Abstract: According to a first aspect, examples provide a method of operating a first communication node (CN), wherein the first CN is configurable for exchanging, with a second CN on a radio channel, signals via a first propagation path and a second propagation path, wherein exchanging the signals via the first propagation path comprises exchanging the signals via a coverage enhancing device (CED), wherein the method comprises providing, to the CED, a message indicative of an activity pattern for establishing the first propagation path. Further examples provide a method of operating a CED, a first CN, a CED and a second CN.

Abstract: For example, an Access Point (AP) may be configured to determine a plurality of beamformed sectors for communication with a plurality of wireless communication stations (STAs), wherein a beamformed sector for communication with a STA is based on a beamforming training between the AP and the STA; to determine a grouping sector for communication between the AP and a group of STAs including two or more grouped STAs of the plurality of STAs, wherein the grouping sector covers two or more beamformed sectors corresponding to the two or more grouped STAs; to listen over the grouping sector for a transmission from a grouped STA of the group of STAs; and, based on the transmission from the grouped STA, to communicate a beamformed transmission with the grouped STA via a beamformed sector corresponding to the grouped STA.

Abstract: A method (200) performed by a UE (102). The method includes receiving (s202) one or more messages for activating at least i) a first set of configured TCI states and ii) a second set of configured TCI states, wherein the first set of activated TCI states is associated with a first PCI and indicates a first set of reference signals, and the second set of activated TCI states is associated with a second PCI and indicates a second set of reference signals. The method also includes performing (s204) beam failure detection, BFD, monitoring. Performing the BFD monitoring comprises: determining (s206) whether a beam failure with respect to the first PCI has occurred based on the first set of reference signals; and determining (s208) whether a beam failure with respect to the second PCI has occurred based on the second set of reference signals.

Abstract: A base station for configuring bandwidth parts (BWPs) in a certain cell, for access by UEs, configures (1502) an initial BWP within a bandwidth of a cell, configures (1504) a multicast and broadcast services (MBS) BWP within the bandwidth of the cell, wherein the MBS BWP is dedicated to conveying MBS information, and transmits (1506), in the cell, an indication of the initial BWP and the MBS BWP, to provide a UE with access to the initial BWP and the MBS BWP.

Abstract: The disclosure relates to a 5G or 6G communication system for supporting a higher data transmission rate. Disclosed is a method of Quality of Experience, QoE, reporting, whereby a User Equipment, UE, transfers QoE data to a connected telecommunication network, wherein UE push mode, U Mode, is employed in all circumstances to transfer QoE information from the UE to the telecommunication network.

Abstract: The present disclosure provides a method and an apparatus for user equipment (UE) registering, an electronic device and a storage medium. Under 5G core network slice isolation networking, when an AMF network element detects that a UE is unsuccessfully registered on the AMF network element, the AMF network element sends to the UE a registration reject message comprising at least a first cell and a second cell. In this way, when the UE sends registration information again, the UE can select target network slice information based on network slice information configured in the first cell. And a 5G base station, when receiving the registration information from the UE, determines a corresponding target AMF network element based on the target network slice information in the requested NSSAI, such that the UE can be successfully registered to the target AMF network element.

Abstract: For a random access procedure (e.g., 2-step RACH and/or 4-step RACH), a network node may configure different physical random access preamble configurations (e.g., different PRACH occasions, preamble indexes, or preamble formats) for different user equipment (UE)/service groups that are associated with different UE priorities, UE types, service priorities, service types, and/or network slices. A UE may select a configuration to use to transmit the random access preamble based on the priority of the UE, the type of the UE, the priority of the service, the type of the service, and/or the network slice. In 2-step RACH, a network node may also configure different msgA PUSCH resources for different UE priorities, UE types, service priorities, service types, and/or network slices. The UE may transmit the random access preamble in accordance with the selected PRACH configuration as part of a contention based random access procedure.

Abstract: Embodiments of the present disclosure relate to machine learning for channel estimation against diverse Doppler effects. In this solution, the first device receives user data in a slot from a second device via a channel between the first device and the second device, the user data includes a reference symbol. Then, the first device performs, with a NN, a first channel estimation for the channel based on information on velocity of a second device and a result of a second channel estimation for the channel. The second channel estimation is performed based on the received reference symbol. After that, the first device transmits, to the second device, an indication of a result of the first channel estimation. With this solution, channel estimation is able to be performed in diverse scenarios (e.g., diverse Doppler scenarios, high-velocity scenarios and the like) with low overheads in reference signals (e.g., 1 DMRS), thereby reducing network consumption.