Abstract: A method for discontinuous reception, DRX, configuration, the method being implemented by a user equipment, UE. The UE is configured with a DRX cycle value through radio resource control, RRC, signaling. The method includes: in response to receiving from a base station, BS, via downlink control information, DCI, or medium access control, MAC, control element, CE, an indication of an adjustment of the DRX cycle value: modifying the DRX cycle value based on the indicated adjustment; in response to receiving no adjustment indication from the BS: continuing with the same DRX cycle value.

Abstract: The present disclosure describes methods of data-driven AI/ML model signaling for quasi-based machine learning model operation in wireless mobile communication system including base station (e.g., gNB) and mobile station (e.g., UE). The quasi-relationship is measured for different types of model operation between network and UE so that this measurement can be applied to varying applications with signaling overhead reduction.

Abstract: A system, an apparatus, and a method for resource allocation in a network. The method includes receiving a signal associated with resource reservation; determining a number of transmissions and a time period between each of the transmissions based on the received signal; and transmitting resources based on the number of transmissions and the time period.

Abstract: A method for mobile-terminated small data transmission, MT-SDT, wherein a timer is established to control when to use configured grant SDT, CG-SDT, resources and when to use random-access SDT, RA-SDT, resources. A user equipment starts the timer when it receives a MT-SDT paging message from a base station and if CG-SDT resources arrive when the timer is running, the UE will transmit a response to the MT-SDT paging message over CG-SDT resources and if CG-SDT resources are not arrived when the timer is running, the UE will use RA-SDT resources to transmit the response.

Abstract: A system, an apparatus, a device, and a method for signal monitoring in a network are disclosed. The method includes determining a data transmission schedule in a subsequent cycle; generating data including an indication for signal monitoring based on the data transmission schedule; and transmitting the data including the indication for signal monitoring to a user device in a current cycle.

Abstract: The present disclosure describes methods of using a list of AI/ML candidate models for model switching in wireless mobile communication system including base station e.g., gNB and mobile station e.g., UE. Alternative model(s) is applied to model switching operation autonomously based on the pre-configured mapping relationship information between model IDs and other associated parameter values. Therefore, model switching supports multiple alternative models to be switched to replace any outdated model depending on different model execution environment with varying models.

Abstract: An apparatus configured to be employed within a multiple transmission and reception point (multi-TRP) interacting with user equipments (UE) for ultra-reliable low-latency communication in a wireless communication system, including one or more processors with at least a memory configured to generate a Media Access Control (MAC) protocol data payload including a sequence of a set of IP packets (PacketN) for a set of user equipments (UEs), wherein one member of the sequence of a set of IP packets (PacketN) of a set of user equipments (UEs) are a sequence of multiple Media Access Control sub protocol data units (MAC subPDUs) for concatenated user equipment (UE) packets, attach a MAC header to the MAC data field to generate a packet data unit (PDU), wherein the MAC header indicates, if the Media Access Control (MAC) protocol data payload field is a concatenated payload field.

Abstract: A computer-implemented reconstruction method of discrete digital signals in noisy overloaded wireless communication systems with CSI Errors that is characterized by a channel matrix of complex coefficients, the method including receiving the signal from channel by a signal detector, estimation of the CSI error parameter ? is done at the receiver, estimation noise power is done by a noise power estimator, forwarding the detected signal and the CSI error parameter ? and noise power estimation to a decoder that estimates the transmitted symbol, wherein the estimation of the decoder produces a symbol that could probably have been transmitted it is forwarded to a de-mapper, which outputs the bit estimates corresponding to the estimated transmit signal and the corresponding estimated symbol to a microprocessor for further processing.

Abstract: A method for Paging for Network Energy Saving in a wireless communication network, wherein a Small Base Station (BS) informs neighboring BS when it activates DTX.

Abstract: A method of wireless communication by a wireless device for enhanced mobility and service continuity based on beam pattern sharing in the wireless device, the wireless device being connected to a wireless network node and receiving from a mobile node a configuration message. The mobile node broadcasts a node type indicator and beam pattern in the configuration message, and if the wireless device is in an idle/inactive mode, it receives the configuration data as SIB within the configuration message, and if the wireless device is in an active mode, the mobile node provides the wireless device with beam-specific mobility measurement configurations based on beam pattern data within the configuration message.

Abstract: System, apparatus, device, and a method for allocating resources in a network are disclosed. The method includes determining a positioning configuration of a user device; generating a control signal based on the configuration of the user device, the control signal including a first data format and a second data format; communicating the control signal to the user device for allocating resources to indicate a position of the user device; wherein the first data format is transmitted to the user device if it is determined the user device has the positioning configuration and the second data format is transmitted to the user device if it is determined the user device does not have the positioning configuration.

Abstract: A method for discontinuous reception, DRX, configuration, the method being implemented by a user equipment, UE. The UE is configured with a DRX cycle including an active time and an inactive time. The active time is configured by a drx-onDurationTimer and a drx-InactivityTimer. The method includes: in response to receiving, during the active time and from a base station, BS, an indication of an adjustment of the drx-onDurationTimer/drx-InactivityTimer values: modifying the drx-onDurationTimer/drx-InactivityTimer values based on the indicated adjustment; in response to receiving no adjustment indication from the BS: continuing with the same drx-onDurationTimer/drx-InactivityTimer values.

Abstract: A method for adaptive resource management of communications of one user equipment to another user equipment. At least one user equipment detects, using sensors, traffic objects in a geographical area. Then, traffic data analytics is performed on the detected traffic objects to obtain analyzed traffic data. Further, communication resource needs are identified based on the analyzed traffic data and the identified communication resource needs are prioritized. Finally, communication resources are allocated according to the prioritized communication resource needs. Also disclosed is a corresponding user equipment and a corresponding mobile network node.

Abstract: The present disclosure relates to a method of wireless communication for updating discontinuous reception configuration in the wireless device, the wireless device being connected to a wireless network node. The method includes receiving a configuration message from the network node during a first active time period of a discontinuous reception cycle. The message includes at least a time offset parameter, scheduling a second active time period during a next inactive time period based on the received time offset, and receiving downlink data from said network node during the second active time period. The disclosure also contemplates an apparatus, a user equipment, a network node and a wireless system suitable to implement the method.

Abstract: The present disclosure describes methods of configuring AI/ML based model monitoring and signaling of activating/de-activating model monitoring in wireless mobile communication system including base station (e.g., gNB) and mobile station (e.g., UE). In AI/ML model is applied to radio access network, model performance such as inferencing is monitored so that any potential drift occurrence can be detected to ensure the required communication quality. Depending on the applied model characteristics and channel environments, model monitoring is configured to support varying monitoring cycles in association with different patterns of drift occurrences in model lifecycle.

Abstract: A method for vehicle mounted relaying in wireless communications, by a plurality of user equipments (UEs) including at least one vehicle mounted UE able to exchange data in a wireless network with remote user equipments via a Relay UE. The method includes: (first step) Relay UE indicates vehicle-mounted UE characteristics and capabilities to network and to remote user equipments, (second step) Relay UE detects vehicle occupants as onboard remote user equipments, provides the network with assistance information regarding onboard remote UEs, and the network determines and/or adjusts measurement configurations of the onboard remote UEs, (third step) based on the received UE characteristics and capabilities, the network provides configurations and/or updates pre-configurations of relay UEs candidates for relay re-selection, (fourth step) the network authorizes and/or configures the Relay UE for locally managing radio resources and Quality of Service (QOS).

Abstract: Methods for Network-Centric Resource Allocation for Sidelink Positioning within a wireless communication system with at least one user equipment, wherein at least one user equipment initiates an indirect or/and a direct resource allocation for a Sidelink positioning procedure and the positioning procedure itself is triggered by a user equipment or any other node.

Abstract: A method of operating an arrangement of a plurality of network nodes arranged in a linear configuration, each of which network nodes being capable of directly communicating with n neighbouring network nodes located in either direction of the linear arrangement of network nodes. Operation of the nodes includes determining and assigning an unambiguous and individual rank to each one of the plurality of network nodes. Each rank indicates a position of the respective network node within the linear network. The ranks orderly increase from one end of the linear arrangement of network nodes to the other end. The network nodes toggle between a first and a second mode of operation. A power consumption of the network nodes in the first mode of operation is lower than in the second mode. Messages are transmitted along the linear arrangement of network nodes using a non-synchronised, zero-signalling, stateless multipath and multi-hop message routing protocol, via network nodes that are in the second mode of operation.

Abstract: Method for gNB-UE two side model control by a user equipment (UE) device receiving an artificial intelligence (AI) and/or machine learning (ML) model status information from at least one base-station (gNB) within a wireless communication network, wherein after receiving the artificial intelligence (AI) and/or machine learning (ML) model status information the user equipment (UE) decides if the an artificial intelligence (AI) and/or machine learning (ML) model status information is activated, the user equipment (UE) maintains in the same artificial intelligence (AI) and/or machine learning (ML) model status information, if the artificial intelligence (AI) and/or machine learning (ML) model status information is deactivated, the user equipment (UE) switches to an alternative operation mode based on assistance information from base-station (gnB).

Abstract: Demodulation Reference Signal (DM-RS) density is adapted in wireless communication networks. A receiver, especially a user equipment (UE), submits a request to a transmitter, especially to a base station, to change the DM-RS density. The transmitter monitors feedback of the receiver relating to the quality of reception. And the transmitter decides, in dependence of the feedback, whether to indicate a change of DM-RS.