Abstract: Timing synchronization information is communicated to a plurality of indoor communications devices supporting NB-IoT, e.g., indoor CBSDs supporting NB-IoT, from an outdoor communications device, e.g. a cellular base station supporting NB-IoT signaling using guard bands of a communications channel. An indoor device receiving the timing synchronization information from the outdoor device via NB-IoT signaling may, and sometimes does, process and forward synchronization information to other indoor devices, e.g. other CBSDs, which may be out of direct range of the outdoor device. In some embodiments, a plurality of outdoor base stations supporting NB-IoT receive timing reference information for distribution from the same NPT server coupled to a single reference source, e.g. an atomic clock.

Abstract: A contact information system provides an independent network authority for providing contact information in connection with incoming calls or messages. The contact information system utilizes a database of communication identifiers to provide contact information for end user devices that receive incoming communications which specify communication identifiers that are stored in the database.

Abstract: An access identifier and network slice access management component (ANMC) is disclosed. The ANMC can receive service access update information from an entity, for example a customer/enterprise, that be used to update service access of a user equipment (UE) to services of a network. Embodiments of the ANMC can facilitate updating an access identity parameter, updating an access priority parameter, updating a network slice access parameter, or combinations thereof. An ANMC can be embodied in a virtualized network function, as hardware, as software, or combinations thereof. An ANMC can be local to a network supporting the UE or can be located remotely from the network supporting the UE, such as in execution on a server of a cloud platform. The ANMC can support management of UE service access by an entity other than a carrier supporting the UE via a device external to a network of the carrier.

Abstract: Aspects of the disclosure provide methods and apparatuses. The method can include receiving, at a user equipment (UE), system information broadcast from a base station which may be shared by one or more PLMNs and SNPNs, the system information including an indication of whether accessing an SNPN using home service provider (HSP) subscription of a HSP network is supported. The UE can be configured with subscription information of the HSP network. The subscription information can include the HSP subscription and a home SP selection list that includes one or more candidate networks each represented by an SNPN identifier. The method can further include responsive to the system information, selecting a network from the home SP selection list according to a priority order of the candidate networks, and accessing the network selected from the home SP selection list using the HSP subscription.

Abstract: A communication method and a communications device are provided. In the method, a first base station receives a first message; the first base station determines, based on the first message, whether to allocate a new RNA to a terminal in an inactive state; and the first base station allocates a new RNA to the terminal in the inactive state after determining to allocate a new RNA to the terminal in the inactive state, so as to reduce signaling overheads; and/or the first base station receives a second message; the first base station determines a communication status of the terminal in the inactive state based on the second message; and after determining that the terminal needs to change the communication status, the first base station controls the terminal to change the communication status.

Abstract: A cellular network includes a first network component configured to i) identify a first session between a first data network and a user equipment (UE), wherein the first session corresponds to a first session management function (SMF), ii) receive data network access information (DNAI) from a network function, the DNAI corresponding to a second data network and iii) select a second SMF that is to be utilized for a second session between the second data network and the UE. The cellular network also includes a second network component configured to i) store a mapping between the DNAI and the second SMF and ii) transmit an indication of the second SMF to the first network component, wherein the first network component selects the second SMF based on the indication.

Abstract: A mechanism for sharing electronic subscriber identity module (eSIM) credentials between two mobile communication devices is described. This includes establishing, by a source user equipment (UE) comprising a first of the mobile communication devices, a data connection with a subscription manager data preparation (SMDP+) server associated with eSIM credentials stored at the source UE. The source UE notifies the SMDP+ server of an intent to transfer the eSIM credentials. The source UE receives metadata describing an activation code containing identification data for the eSIM credentials. The source UE forwards the activation code to a destination UE comprising a second of the mobile communication devices. The activation code is forwarded to support a download of the eSIM credentials to the destination UE from the SMDP+ server.

Abstract: Embodiments of the present disclosure relate to frequency or RAT selection based on slice availability. In one aspect, a core network function is provided for determining information for RAT and/or frequency selection based on knowledge of network slices and providing that information to a RAN node, which may provide that information to a UE. The information may be a RFSP index or other index parameter, which may be set based on subscription related information or other information. Slice knowledge may include knowledge of availability of network slices at the network, active slices for the UE, slices to which the UE is registered or connected, and/or slices to which the UE is allowed access. In another aspect, a RAN node performs mapping to mobility policies for UE active or idle mobility based on the determined information along with slice or subscription information provided by a CN node.

Abstract: The present invention relates to methods for sending or receiving control data in one or multiple uplink control channel resources of a wireless communication network and to corresponding devices. According to one embodiment of the invention a method of sending control data in one or multiple uplink control channel resources of a wireless communication network is provided. A wireless device receives, from a network node, information on a set of downlink component carriers configured for the wireless device. The wireless device receives, from a network node, an indication of the one or multiple uplink control channel resources. The wireless device maps first control data comprising control data for the set of configured downlink component carriers to a part of the one or multiple uplink control channel resources. And the wireless device maps second control data to a remaining part of the one or multiple uplink control channel resources.

Abstract: A communications method and apparatus, where the method includes: acquiring, by a mobility management entity (MME), information of a user equipment (UE); determining, by the MME according to the information, whether the UE satisfies a first preset condition; if the UE satisfies the first preset condition, generating, by the MME, a first indication, where the first indication is used for instructing a serving gateway (SGW) to retain first data or discard first data, and the first data is downlink data of the UE; and sending, by the MME, the first indication to the SGW.

Abstract: The present invention relates to a method of signalling in an Integrated Access and Backhaul (IAB) network. The method comprises signalling metrics from a parent IAB node to a child IAB node for association of the child IAB node with the parent IAB node. Information related to multiplexing capability and supported modes of operation is signalled from the child IAB node to the parent IAB node. An active mode of operation is determined at the child IAB node. Timing Advance (TA) for each active mode of operation, guard information for each active mode of operation, and exchanges for In-Band Full Duplexing (IBFD) mode of operation are signalled. Further, fallback capability of IAB nodes during presence of Self-Interference (SI) is also signalled.

Abstract: A method and device are disclosed from the perspective of a first User Equipment (UE). In one embodiment, the first UE receives a Radio Resource Control (RRC) message from a network node, wherein the RRC message includes a first sidelink RLC bearer configuration and wherein the first sidelink Radio Link Control (RLC) bearer configuration includes a first index identifying the first sidelink RLC bearer configuration and a first sidelink RLC configuration. The first UE also transmits a first PC5 RRC message to a second UE, wherein the first PC5 RRC message includes the first sidelink RLC bearer configuration. Furthermore, the first UE receives a second PC5 RRC message from the second UE, wherein the second PC5 RRC message includes a second sidelink RLC bearer configuration and wherein the second sidelink RLC bearer configuration includes a second index identifying the second sidelink RLC bearer configuration and a second sidelink RLC configuration.

Abstract: An endpoint computing device multi-network slice utilization system includes a RAN system coupled to a core network system that allocates network slices and makes each of them available for use in wireless communications. An endpoint computing device includes applications and operates, for each of its applications, to detect that application, determine a networking connectivity requirement for that application, and identify one of the network slices that is allocated by the core network system, available via the RAN system, and that satisfies the networking connectivity requirement for that application. The endpoint computing device then establishes a connection for each of its application with the one of the network slices that satisfies the networking connectivity requirement for that application, and exchanges communications via the RAN system and the core network system for that application using the one of the network slices that satisfies the networking connectivity requirement for that application.

Abstract: A method, performed by a user equipment (UE), for accessing a cell is provided. The method includes receiving, from a base station, system information block 1 (SIB1) including cellAccessRelatedinfo, selecting a public land mobile network (PLMN), selecting a cell, based on the selected PLMN, determining whether to update a tracking area (TA), based on the selected cell and PLMN-identityinfo included in the cellAccessRelatedinfo, based on determining to update the TA, performing TA update, transmitting, to the base station, a radio resource control (RRC) setup request message, receiving, from the base station, an RRC setup message, and transmitting, to the base station, an RRC setup complete message.

Abstract: Agents, operating on user equipment, and related systems and methods for machine-learning aided autonomous control of mobile network access are disclosed. The agents, systems and methods allow for mobile network resources, which are pre-purchased or purchased in real-time, to be optimized according to a reward function that maximizes quality of experience as a function of price. Mobile network resources purchased in real-time may include spectrum bandwidth sold or auctioned in increments and purchased by UEs as needed.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may determine a reference time for updating one or more system information parameters associated with a non-terrestrial network (NTN) or updating a cell status associated with the NTN. The UE may determine an update timer length for updating the one or more system information parameters associated with the NTN or the cell status associated with the NTN. The UE may acquire, from a current cell or a new cell, a system information block (SIB) to refresh the one or more system information parameters after an expiration time associated with the one or more system information parameters, wherein the expiration time is based at least in part on the reference time and the update timer length. Numerous other aspects are described.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment (UE) may receive a first system information update notification and a second system information update notification. The UE may decode, based at least in part on information included in the first system information update notification, the second system information update notification to identify one or more system information blocks that are to be updated. The UE may update the one or more system information blocks based at least in part on decoding the second system information update notification. Numerous other aspects are provided.

Abstract: Systems, methods, apparatuses, and computer program products for efficient registration for partially supported service areas are provided. One method may include providing, to at least one user equipment registered to a network within a registration area, information comprising one or more lists of single network slice selection assistance information (S-NSSAIs) and one or more lists of tracking area identities (TAIs). The one or more single network slice selection assistance information (S-NSSAIs) is included in a list of rejected single network slice selection assistance information (S-NSSAIs) or in a list of extended rejected single network slice selection assistance information (S-NSSAIs), and is associated with a cause value indicating that the one or more single network slice selection assistance information (S-NSSAIs) is not supported uniformly in the registration area and is not supported in a current tracking area.

Abstract: A method includes identifying a first point on an object striking element in a first image and a second image from images. The first and second images are captured within a predetermined time span of an impact of the object with the element and determining an impact time of the impact in combination with determining a position in the first and/or second images corresponding to a location of the object at the impact time. Based on the positions of the first point in the first and second images, determining a position in the first and/or second images corresponding to a position of the first point at the impact time. The method also includes determining a distance from the imager to a location at which the object and the element impact one another and determining an impact location of the object relative to the first point.

Abstract: A computing device, method, system, and instructions in a non-transitory computer-readable medium for performing image analysis on 3D microscopy images to predict localization and/or labeling of various structures or objects of interest, by predicting the location in such images at which a dye or other marker associated with such structures would appear. The computing device, method, and system receives sets of 3D images that include unlabeled images, such as transmitted light images or electron microscope images, and labeled images, such as images captured with fluorescence tagging. The computing device trains a statistical model to associate structures in the labeled images with the same structures in the unlabeled light images. The processor further applies the statistical model to a new unlabeled image to generate a predictive labeled image that predicts the location of a structure of interest in the new image.