Abstract: A wireless communication network serves a User Equipment (UE) over a Radio Access Network (RAN) and externally exposes RAN data. A RAN controller comprises at least one of a near-Real Time RAN Intelligent Controller (near-RT RIC) and a non-Real Time RAN Intelligent Controller (non-RT RIC). The RAN controller controls the RAN, and the RAN responsively serves the UE. The RAN controller identifies RAN data that characterizes the RAN service to the UE. The RAN controller transfer the RAN data to a Network Exposure Function (NEF). The NEF receives the RAN data from the RAN controller and exposes the RAN data to an external data system like an Application Server (AS).

Abstract: Provided herein are isolated antibodies or antibody fragments thereof that immunospecifically bind to platelet factor 4 (PF4). In some embodiments the isolated antibodies or antigen-binding fragments thereof comprise a light chain CDR and framework region comprising SEQ ID NO: 4 and a heavy chain CDR and framework region comprising SEQ ID NO: 10. Also provided herein are methods for treating heparin-induced thrombocytopenia (HIT) and methods for reducing the likelihood that subject will become afflicted with HIT. Further disclosed are uses of the isolated antibodies or antibody fragments in the treatment of HIT or the manufacture of compositions for the treatment of HIT.

Abstract: File access statistics associated with a content file are maintained by a file tier agent of a secondary storage system. The content file is accessible via a primary storage system. A target storage tier corresponding to the file access statistics associated with the content file is determined according to one or more policies. At least a portion of data of the content file is migrated to the determined storage tier while accessibility of the content file via the primary storage system is maintained.

Abstract: A cell site configured to perform group user equipment (UE) handoffs. The cell site comprises an application stored in a non-transitory memory that when executed by a processor of the cell site determines that a first UE is to be handed-off, determines that the first UE is a member of a UE group, wherein the UE group comprises the first UE and at least one other different UE, determines radio resources consumed by the UE group, identifies a second cell site that has sufficient idle radio resources to provide the radio resources consumed by the UE group, and sends a handoff message via the radio transceiver to the second cell site, wherein the handoff message identifies each of the UEs that are members of the UE group, whereby the plurality of UEs that are members of the UE group are handed-off as a group to the second cell site.

Abstract: A wireless communication device for establishing two different user equipment (UE) radio access network (RAN) attachments.

Abstract: In a wireless communication system, a Session Management Function (SMF) transfers signaling to a User Plane Function (UPF) to deliver a wireless data service to a wireless User Equipment (UE). The UPF exchanges user data with the wireless UE over a source Radio Unit (RU) to deliver the wireless data service. A Radio Resource Control (RRC) detects the RU handover of the wireless UE from the source RU to a target RU and transfers an RU handover notice for the wireless UE the SMF. The SMF transfers new signaling to the UPF to modify the wireless data service for the wireless UE. The UPF exchanges additional user data with the wireless UE over the target RU to deliver the modified wireless data service to the wireless UE.

Abstract: Assigning carriers to radio ports communicably coupled to a corresponding plurality of antennae of a radio head, wherein the radio head is split into at least first and second split portions, determining a difference between a first power level available to the first carrier via the first set of radio ports and a second power level available to the second carrier via the second set of radio ports, and changing a split of the radio head such that the difference between the first and second power levels is minimized.

Abstract: A wireless access node serves wireless User Equipment (UEs) and wireless Integrated Access and Backhaul Mobile Terminations (IAB MTs). A radio exchanges access communications with the UEs over a frequency channel. The radio receives an IAB request from one of the IAB MTs, and in response, a controller allocates the frequency channel into a UE subchannel and an MT subchannel. The radio now exchanges access communications with the UEs over the UE subchannel and exchanges backhaul communications with the wireless IAB MT over the MT subchannel. The controller reallocates the frequency channel when an IAB MT is added to give the new IAB MT its own MT subchannel. The controller reallocates the frequency channel when an IAB MT is removed to increase the size of the UE subchannel.

Abstract: A wireless communication system delivers a wireless data service to User Equipment (UE) responsive to a handover. A Centralized Unit (CU) transfers a handover registration to a Network Repository Function (NRF). A Session Management Function (SMF) transfers a handover subscription for the UE to the NRF. The CU detects a handover of the UE and responsively transfers a handover notice for the UE to the NRF. In response to the handover subscription for the UE from the SMF, the NRF transfers the handover notice for the UE to the SMF. The SMF modifies the wireless data service for the UE responsive to the handover notice for the UE. For example, the SMF may implement data encryption for the UE responsive to the handover.

Abstract: A wireless communication device for establishing two different user equipment (UE) radio access network (RAN) attachments.

Abstract: The present invention provides a humanized antibody or antibody fragment comprising (a) a humanized light chain comprising 1) Complementarity Determining Region (CDR)-L1, the sequence of which is identical to the sequence of SEQ ID NO: 3; 2) CDR-L2, the sequence of which is identical to the sequence of SEQ ID NO: 4; and 3) CDR-L3, the sequence of which is identical to the sequence of SEQ ID NO: 5, and (b) a humanized heavy chain comprising 1) CDR-H1, the sequence of which is identical to the sequence of SEQ ID NO: 6; 2) CDR-H2, the sequence of which is identical to the sequence of SEQ ID NO: 7; and 3) CDR-H3, the sequence of which is identical to the sequence of SEQ ID NO: 8, as well as methods for treating, diagnosing, and monitoring the progression of HIT. The present invention also provides methods for assessing the antigenicity and ability to cause HIT of anionic anticoagulants.

Abstract: A technique for restoring content is described. The technique includes receiving a specification of content to be restored to a target storage from a data source. The technique also includes determining task units to be performed to restore the specified content. Each task unit is associated with a corresponding assigned weight value. Based on the corresponding assigned weight values, the task units are distributed to different task groups. The task groups are processed in parallel with each other to concurrently perform at least a portion of the distributed task units.

Abstract: A wireless communication system delivers a wireless data service to User Equipment (UE) responsive to a handover. A Centralized Unit (CU) transfers a handover registration to a Network Repository Function (NRF). A Session Management Function (SMF) transfers a handover subscription for the UE to the NRF. The CU detects a handover of the UE and responsively transfers a handover notice for the UE to the NRF. In response to the handover subscription for the UE from the SMF, the NRF transfers the handover notice for the UE to the SMF. The SMF modifies the wireless data service for the UE responsive to the handover notice for the UE. For example, the SMF may implement data encryption for the UE responsive to the handover.

Abstract: User circuitry within a wireless User Equipment (“UE”) in need of a network slice or a handoff between cells identifies a slice service type. The user circuitry processes an uplink interference threshold of a target cell based on the slice service type. The user circuitry identifies a preferred operating frequency band based on the slice service type and the uplink interference threshold of the target cell. The user circuitry transfers a service request for a wireless data service having the slice service type over the preferred operating frequency band to network circuitry. The network circuitry wirelessly exchanges data with a wireless access node associated with the target cell over the preferred operating frequency band to establish a packet data unit session comprising the slice service type.

Abstract: A wireless communication network serves a User Equipment (UE) that executes a low-latency application. A source Application Server (AS) exchanges low-latency data with the UE over a source wireless access node based on application context for the UE. The application context for the UE comprises a user identifier, a session identifier, and a session pointer. A target AS receives a handover notice and responsively retrieves the application context for the UE from the source AS. The target AS exchanges additional low-latency data with the UE over a target wireless access node based on the application context for the UE that comprises the user identifier, the session identifier, and the session pointer.

Abstract: A source Centralized Unit (CU) serves User Equipment (UE) based on UE application context for a low-latency application in the UE. In the source CU, a source Application Server (AS) uses a source User Plane Function (UPF) to serve the low-latency application in the UE. In response to a handover to a target CU, the source CU indicates the source UPF to the target CU. The target AS in the target CU uses the source UPF ID to retrieve the UE application context for the UE from the source AS. In the target CU, a target AS serves the low-latency application based on the retrieved UE application context.

Abstract: A source Centralized Unit (CU) serves User Equipment (UE) based on UE application context for a low-latency application in the UE. In the source CU, a source Application Server (AS) uses a source User Plane Function (UPF) to serve the low-latency application in the UE. In response to a handover to a target CU, the source CU indicates the source UPF to the target CU. The target AS in the target CU uses the source UPF ID to retrieve the UE application context for the UE from the source AS. In the target CU, a target AS serves the low-latency application based on the retrieved UE application context.

Abstract: A wireless User Equipment (UE) selects wireless communication networks. The wireless UE wirelessly receives and processes a broadcast block that comprises a cell identifier for a wireless access point, wireless communication network identifiers, and network selection information that individually characterizes the wireless communication networks. The wireless UE selects wireless communication networks based on the network selection information in the broadcast block that individually characterizes the wireless communication networks. The wireless UE wirelessly exchanges attachment signaling with a wireless access point that indicates the selected wireless communication network. The wireless UE wirelessly exchanges user data with the wireless access point over the selected wireless communication network.

Abstract: Disclosed herein are multifunctional antigen-binding proteins comprising at least one multifunctional recombinant protein scaffold and at least one antigen-specific binding domain. Polynucleotides encoding the multifunctional antigen-binding proteins, vectors containing the disclosed polynucleotides, and cells that have been genetically engineered to express the polynucleotide are also provided. Methods of using the multifunctional antigen-binding proteins are disclosed.

Abstract: A Central Unit (CU) receives Fifth Generation Core (5GC) N2 signaling and generates Fifth Generation New Radio (5GNR) RRC signaling. The CU receives 5GC N1 signaling. The CU converts a first portion of the 5GNR RRC signaling into LTE RRC signaling and converts a first portion of the 5GC N1 signaling into LTE Non-Access Signaling (NAS). The CU transfers LTE Physical Layer High (PHY-H) signaling to an LTE Physical Layer Low (PHY-L) in an LTE Distributed Unit (DU). The CU transfers 5GNR PHY-H signaling to an 5GNR PHY-L in a 5GNR DU. The LTE DU receives the LTE PHY-H signaling and transfers the LTE RRC signaling and the LTE NAS signaling to LTE User Equipment (UE). The 5GNR DU receives the 5GNR PHY-H signaling and transfers the second portion of the 5GNR RRC signaling and the second portion of the 5GC N1 signaling to a 5GNR UE.