Abstract: Disclosed are a communication parameter adjustment method and apparatus, a device and a storage medium, relating to the field of mobile communications. The method comprises: sending a first instruction to a first node, wherein the first instruction is used for triggering the adjustment of quality of service (QoS) parameters, and the adjustment of the QoS parameters comprises selecting, from among multiple QoS parameter combinations, a first QoS parameter combination for activation. Resources corresponding to the QoS parameter combinations have been allocated or a corresponding connection has been established.

Abstract: A first network node operating in a communication node can receive a plan indicating tasks to be performed by at least one second network node operating in the communication network. The first network node can determine a network slice schedule based on the tasks to be performed by the at least one second network node operating in the communication network. The first network node can provide the network slice schedule to a network slice orchestrator operating in the communication network.

Abstract: A communication device for observing a channel state in a plurality of links is provided. A communication device that performs wireless communication using a plurality of links includes a first transmission unit that transmits a first signal including information regarding start of observation of a channel state in part of the plurality of links, and a second transmission unit that transmits a second signal inducing a signal including information regarding observation of a channel state in one or more links among the plurality of links. The first signal includes information regarding a link for performing the observation and information regarding a third signal for another communication device to observe a channel state.

Abstract: An uplink channel transmission method, performed by a terminal device, including: performing two adjacent repetitive transmissions of same data in an uplink channel on a first transmission resource and a second transmission resource respectively; where the two adjacent repetitive transmissions use different transmitting beams to transmit to different Transmit-Receive Points (TRP) of a same base station, a beam switching time for switching a beam direction is presented between time-domain resources of the first transmission resource and the second transmission resource; the first transmission resource corresponds to a former transmission occasion in two adjacent transmission occasions for uplink channel transmitting; the second transmission resource corresponds to a latter transmission occasion in the two adjacent transmission occasions for uplink channel transmitting.

Abstract: Aspects provided herein provide methods, systems, and a non-transitory computer storage medium storing computer instructions for dynamic blanking of physical resource blocks (PRBs) in a network. The method begins with measuring a radio frequency (RF) condition metric for a network element. The network element may be a base station or a sector of a base station. The RF condition metric is then compared with a predetermined blanking threshold. Based on the comparison, a first set of PRBs facing a second set of PRBs on a second network element may be dynamically blanked.

Abstract: A user equipment may use a learning model to predict user behavior, or traffic corresponding thereto, and may transmit, to a radio network node, a prediction report indicative of the predicted behavior/traffic. Based on the prediction report the node may proactively schedule predicted downlink resources to facilitate delivery, to the user equipment, of predicted downlink traffic that may correspond to the indicated predicted behavior/traffic. The user equipment may indicate that successfully decoded downlink traffic, received from the node according to the scheduled predicted downlink resources, is invalid, or not usable, by avoiding transmission of HARQ feedback corresponding to the received traffic or by transmitting an invalid scheduled resource indication.

Abstract: In a wireless communication system, a user equipment (UE) may report channel state information (CSI) using a learned dictionary defining a set of sparse vectors. The UE determines a learned dictionary for CSI reporting. For example, the UE receives a shared dictionary from a similar and nearby UE or the UE trains the learned dictionary based on logged CSI measurements. The UE indicates the learned dictionary to a serving base station. The UE measures CSI for a plurality of channels. The UE reports a sparse vector representing the CSI based on the learned dictionary to the serving base station.

Abstract: A wireless communication terminal communicating wirelessly with a base wireless communication terminal comprises a processor configured to receive a trigger frame for switching an operation mode from a first operation mode to a second operation mode from the base wireless communication terminal, wherein the wireless communication terminal receives only a PPDU which has a predetermined format and is transmitted by a predetermined modulation method in the first operation mode, and receives a PPDU other than the PPDU which has the predetermined format and is transmitted by the predetermined modulation method in the second operation mode, transmit an initial frame in response to the trigger frame in the second operation mode, and determine whether to switch back to the first operation mode based on receiving a subsequent frame subsequent to the initial frame within a timeout interval.

Abstract: An apparatus and method are provided to trigger activation of a transceiver on a wireless communication apparatus that uses different forms of wakeup signals and corresponding forms of wakeup signal detectors. The transceiver operates in a discontinuous receiving mode, with the different wakeup signal receivers detecting for wakeup signals at different times, the times being indicated to the apparatus by a wakeup signal pattern sent by the network.

Abstract: User equipment includes a processor, a transmitter, and receiver. The processor determines a capability of the UE for operating a monitoring function involving a capability condition regarding a minimum group time gap between two consecutive groups of time spans within a grouping window having a length of one or more slots. The transmitter transmits a capability indication indicating the capability condition to a base station. The receiver receives, from the base station, information for configuring the monitoring function, including the one or more monitoring occasions in which the UE monitors the downlink control channel.

Abstract: Methods, systems, and devices are described that support techniques for wireless communications using multiple radio access technologies (RATs). Described techniques provide for dual-connectivity (DC), carrier aggregation, or both, in which different carriers are provided via different RATs. A multi-RAT DC configuration may include separate network entities that provide communications for different cell groups for different RATs, where dynamic power control may be implemented across RATs. Additionally, or alternatively, a multi-RAT carrier aggregation techniques may provide separate component carriers configured for carrier aggregation, where different component carriers that use different RATs. Combinations of DC and carrier aggregation may be provided, in which a cell group of a DC configuration may include multiple component carriers in a carrier aggregation scheme.

Abstract: In a communication method, to meet a requirement of a positioning service, a first communication apparatus obtains data to be processed, and determines a first frame structure that includes a communication time period and a positioning time period. A first switching time period is included between the communication time period and the positioning time period, a 1st time-domain symbol occupied by the first switching time period is consecutive to a last time-domain symbol occupied by the communication time period, and a last time-domain symbol occupied by the first switching time is consecutive to a 1st time-domain symbol occupied by the positioning time period. The first communication apparatus then processes the data based on the first frame structure.

Abstract: Roaming validation for Access Network Providers (ANPs), and particularly to protecting communications between Stations (STAs) and ANPs while providing roaming validation for ANPs may be provided. An ANP may first register a roaming federation system. The ANP may determine a roaming message based on subscription features of the network, and the ANP may request signing of the roaming message by the roaming federation system. The ANP may receive the signed roaming message from the roaming federation system and send the signed roaming message to a STA. The ANP may then receive a request to connect to the network from the STA and initiate a connection for the STA.

Abstract: Provided herein are systems and methods for synchronizing clocks and determining a range distance between two clocks using one or more timing signals that are communicated between the clocks. The determination can be made to also account for movement between the clocks such as if the clocks are converging (i.e., the distance between them is decreasing over time) or diverging (i., the distance between the clocks is increasing over time.) The systems and methods can utilize timing signals transmitted between two clocks that are synchronizing with another using the precision time protocol. In order to account for the increasing or decreasing distance between the clocks, the systems and methods can utilize Doppler shift data taken between the clocks to apply a correction factor to the timing signals. The timing signals and correction factor can be utilized to also determine a range distance between the clocks.

Abstract: Proposed are a method and apparatus for performing sensing in a wireless LAN system. Specifically, a first STA transmits a sensing request frame to a second STA. The first STA receives a first sensing response frame form the second STA. The first STA transmits a sensing signal to the second STA or receives the sensing signal from the second STA. The sensing request frame includes a transmission parameter set, a measurement and feedback parameter set, and a transmission method of the sensing signal. The sensing response frame includes a first indicator indicating whether to use at least one transmission parameter included in the transmission parameter set and a second indicator indicating whether to use at least one measurement and feedback parameter included in the measurement and feedback parameter set.

Abstract: This application describes techniques for dynamic feature-dependent electronic subscriber identity module (eSIM) profile provisioning for wireless devices, including provisioning of device-compatible eSIM profiles and mitigation of provisioned device-incompatible eSIM profiles. A wireless device can provide information regarding additional device capabilities indicating support (or lack thereof) for optional cellular wireless standard features to a provisioning server, which can select an eSIM profile matched to the wireless device. In some cases, a wireless device detects an error condition resulting from enabling a device-incompatible eSIM profile on an embedded universal circuit card (eUICC) of the wireless device, disables the errant eSIM profile, and notifies a provisioning server regarding the error condition. The provisioning server can account for the device compatibility when providing additional eSIM profiles to the wireless device.

Abstract: Communication methods, devices and a computer readable medium in the wireless communication system. A communication method is performed at a receiving terminal device in the sidelink communication. In the communication method, sidelink control information (SCI) is received from a transmitting terminal device, the SCI indicating an additional DMRS symbol number for the sidelink data channel. Then, duration of the sidelink data channel is determined according to the number of symbols within a slot and the number of symbols for a sidelink feedback channel. Next, a DMRS pattern to be used for the sidelink data channel is determined based on the received additional DMRS symbol number for the sidelink data channel and the determined duration of the sidelink data channel.

Abstract: A configuration to allow for an SRS resource set trigger list configuration to be updated using MAC-CE. The apparatus transmits, to a UE, an SRS resource set trigger list configuration via RRC signaling. The apparatus transmits, to the UE, an updated trigger list value via MAC-CE to update the SRS resource set trigger list configuration. A trigger state of at least one SRS resource set is updated based on the updated trigger list value. The apparatus receives, from the UE, at least one SRS based on the updated SRS resource set trigger list configuration.

Abstract: A communication method and device may compensate for temporal broadening in a communication system. An operation method of a first communication node in a communication system, in the present disclosure, may include the steps of: transmitting, on a preset cycle, a first signal block including a pilot signal; receiving temporal broadening information about the pilot signal from a second communication node; allocating a communication resource to the second communication node on the basis of the temporary broadening information if communication with the second communication node is required; and communicating with the second communication node by using the allocated communication resource.

Abstract: Disclosed are techniques for channel information transfer in a communication system. A method of a terminal may comprise: receiving, from a base station, first signal configuration information including transmission resource information of a first signal indicated for training; receiving, from the base station, at least one first signal according to the transmission resource information; and training an interference cancellation artificial neural network based on the at least one first signal.