Abstract: This disclosure describes techniques for determining when to transition a service-provider application between an in-store mode of operation and an online mode of operation using time as a proxy for location of a mobile device executing an application. When a user arrives at a physical location of the service provider, the user may provide an indication of this arrival via the application. In response, the application may transition from the online mode of operation to the in-store mode of operation. Further, the application may set a timer for a predefined amount of time and, after this amount of time elapses, may transition from the in-store operation mode back to the online operation mode.

Abstract: A device to device (D2D) communication apparatus and method are provided. The D2D communication apparatus includes a transceiver configured to receive resource configuration information indicating D2D resources configured in a serving cell from a base station (BS) of the serving cell, and a controller configured to determine locations of resources for transmission or reception of signals for D2D communication based on the resource configuration information. The resource configuration information includes information about length of common D2D resources configured in a plurality of cells and additional D2D resources configured in the serving cell and information about length of common and additional D2D resources of a cell that configures maximum-sized additional D2D resources among the serving cell and neighboring cells.

Abstract: Provided is a method for optimizing radio resource for Ultra-Reliable Low Latency Communication services in a Dual Connectivity technology. The method includes: receiving DownLink (DL) data by a UE using a first Radio Access Technology (RAT) from a base station; transmitting a first Acknowledgement (ACK) signal using the first RAT to the base station based on the DL data being successfully received; updating a Mapping Table Sequence Number of the DL data in a Mapping Table by the UE, based on the DL data being successfully received by the UE using the first RAT; checking the Mapping Table by the UE upon detecting an error in the received DL data using a second RAT; and sending a second ACK signal to the base station using the second RAT of the UE based on the Mapping Table Sequence Number of the DL data being found in the Mapping Table.

Abstract: A method (10) comprises communicating (11), from a network node (40) of a cellular network to a user equipment, UE, device (30), a first control signal (12) defining repetitive communicating (13) of a location information of the UE device (30) by the UE device (30); and in response to the communicating (11), repetitively communicating (13), from the UE device (30) to the network node (40), a second control signal (14) comprising the location information of the UE device (30). A user equipment, UE, device (30) and a network node (40) are configured to perform the method (10). A system (50) comprises the UE device (30) and the network node (40).

Abstract: Provided is a positioning support table generation method performed by a computing apparatus, the method including generating a three-dimensional (3D) map based on geographic and building information about a predetermined area; setting a plurality of grid points on the 3D map; determining a first base station corresponding to a grid point with respect to each of the plurality of grid points set on the 3D map; calculating at least one physical parameter about a first signal that arrives at the grid point from the first base station and at least one physical parameter about a second signal that arrives at the gird point from a second base station that is one of base stations adjacent to the first base station; and generating a positioning support table based on the at least one physical parameter about the first signal and the at least one physical parameter about the second signal.

Abstract: A system that can provide a real time annotation and tracking of multiple devices operating in a network using augmented reality is initiated by activating an augmented reality display system, transmitting location information to a network controller, joining a network of network devices established by the network controller, wherein the network devices of the network communicate with one another using a communication network, scanning a geographical area using a display, wherein the display comprises a display area, and in response to determining that a first device of the network devices is within the display area, displaying, via the display, a first image identifying the first device, first device location information and first distance information associated with a first distance to the first device.

Abstract: In a wireless communication network, an access node controller determines data throughput over a target access node. A source access node wirelessly exchanges user data with User Equipment (UE) and determines data throughput. The source access node receives signal parameters for the source access node and target access node from the UE. The source access node compares the signal parameters and responsively transfers a handover request that indicates the target node and the UE throughput over the source node. The access node controller receives the handover request and compares the source throughput to the target throughput to determine a handover value. The access node controller transfers the handover value to the source access node. The source access node compares the signal parameters based on the handover value, and responsively hands-over the UE to the target access node which wirelessly exchanges user data with the UE.

Abstract: Wireless communication techniques are described. An access node/device may transmit, to another access node/device, data corresponding to a wireless device. The access node/device may transmit the data along with downlink resource information indicating a radio resource. The other access node/device may use the radio resource to transmit the data to the wireless device. The access node/device may transmit one or more preemption indications to one or more other communication devices to preempt any other transmissions in the radio resource.

Abstract: Embodiments herein disclose a method for performing a handover in a wireless communication network. The method includes performing, by a network, a Packet Data Convergence Protocol (PDCP) version change for one or more radio bearers to switch from a first PDCP entity to a second PDCP entity. Further, the method includes receiving, by a User Equipment (UE), at least one of a PDCP version change indication and security key change indication from the network. Furthermore, the method includes performing, by the UE, a PDCP version change to switch from the first PDCP entity to the second PDCP entity for a configured radio bearer in response to receiving the PDCP version change indication.

Abstract: A system may include an access node to deploy a radio air interface to provide wireless services to one or more wireless devices. The access node may include processing circuitry. The processing circuitry of the access node may monitor a round-trip-time of split-mode communication of a dual connectivity access-node-pair. The processing circuitry of the access node may dynamically adjust one or more handover parameters based on the round-trip-time. The handover parameters may be adjusted to inhibit handovers to the dual connectivity access-node-pair.

Abstract: A system and method for using time to reach determinations to improve the usability of geo-fences is disclosed. A computer system accesses a current location of a client system and identifies one or more nearby geo-fences. The computer system then calculates the time to reach each of these geo-fences. If the calculated time to reach value for a particular geo-fence is within the notification range associated with that geo-fence, then the computer system generates a notification to display to a user.

Abstract: A method and system for controlling handover of a user equipment device (UE) in a system including RAT1 access nodes and RAT2 access nodes. An example method includes, while the UE is served with dual-connectivity cooperatively by a first RAT1 access node and a first RAT2 access node, (i) using a comparison between spectral efficiency of the first RAT2 access node and spectral efficiency of the second RAT2 access node as a basis to set a measurement threshold to be applied by the UE for evaluating coverage of a second RAT1 access node for possible handover of the UE from the first RAT1 access node to the second RAT1 access node, and (ii) causing the UE to apply the measurement threshold for evaluating the coverage of the second RAT1 access node for the possible handover of the UE from the first RAT1 access node to the second RAT1 access node.

Abstract: A second base station receives, from a first base station, a radio access network (RAN) paging message for a wireless device. The RAN paging message comprises a parameter indicating whether the wireless device is allowed to access a non-closed access group (CAG) cell. The second base station sends a second paging message via a cell determined based on the cell being the non-CAG cell and the parameter indicating that the wireless device is allowed to access a non-CAG cell.

Abstract: The present disclosure relates to a pre-5th-Generation (5G) or 5G communication system to be provided for supporting higher data rates Beyond 4th-Generation (4G) communication system such as Long Term Evolution (LTE). According to embodiments, a method performed by a user equipment (UE) in a wireless communication system, the method comprises: receiving, from a base station, a radio resource control (RRC) reconfiguration message including conditional configuration information, wherein the conditional configuration information includes: identification information for a candidate cell; and a configuration of the candidate cell; and performing one or more operations for a conditional handover based on RRC reconfiguration message.

Abstract: Apparatuses, systems, and methods for a wireless device avoiding reselection or handover to cells of different operators. The wireless device may attach to a first base station of a first network operator. The wireless device may determine that a neighboring base station is associated with a second network operator. Based on determining the neighboring base station is associated with the second network operator, the wireless device may exclude the third base station from handover or reselection.

Abstract: The present disclosure relates to secure provisioning of UE mobility restriction by extending neighbour relation tables to include mobility restrictions in addition to neighbour cell information and sending neighbour cell restriction information (per UE) to the UE, gNB, UE and gNB. The present invention also provides a method and apparatus and a system for mapping mobility restrictions with TA list and sending the TA list along with the Handover Restriction List during handover.

Abstract: A voice call control method includes: measuring a target cell during a voice call; reporting a measurement result when the measurement result satisfies a measurement report optimization condition in which it is included to improve a measurement report condition for the terminal to make a handover to an anchor cell with a current network type; receiving a report response of the measurement result, and making a handover to the target cell to perform a voice call based on the report response of the measurement result. As such, a probability of occurrence of silence or disconnection during a voice call can be reduced.

Abstract: Apparatuses, systems, and methods for a wireless device to perform data stall mitigation. The wireless device may establish, at an HTTP layer of the wireless device, a data connection over a first network interface of the wireless device. The wireless device may compare an available duration of data in a data buffer associated with the data connection to a first threshold and notify, in response to the available duration approaching the first threshold, at least one lower layer of the wireless device of an emergency deadline. At least one lower layer may perform one or more remedial actions to avoid and/or mitigate a data stall.

Abstract: Various embodiments of the present disclosure provide a method for paging in a communication network. The method comprises receiving mobility information of a terminal device by a core network node from an access network node serving the terminal device. The method further comprises determining a paging policy for the terminal device by the core network node according to the mobility information. According to the embodiments of the present disclosure, a terminal device can be paged differentially based at least in part on mobility information of the terminal device, so that system performance and energy efficiency of the communication network can be improved.

Abstract: A method of handling multi-access (MA) Protocol data unit (PDU) session under inter-system change is proposed. An MA PDU session uses one 3GPP access network or one non-3GPP access network at a time, or simultaneously one 3GPP access network and one non-3GPP access network. The UE and network can support Access Traffic Steering Switching and Splitting (ATSSS) functionalities to distribute traffic over 3GPP access and non-3GPP access for the established MA PDU session. Upon intersystem change from 5GS to EPS over the 3GPP access, the 3GPP part of an MA PDU session is transferred to a PDN connection, and the non-3GPP part of the MA PDU session is released. The QoS flows of the MA PDU session over both 3GPP access type and non-3GPP access type are transferred to the EPS bearer contexts of the corresponding PDN connection.