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 relay receives user data from User Equipment (UE). In the wireless relay, a Proxy Mobile Internet Protocol (PMIP) Media Access Gateway (MAG) compresses the user data and transfers a PMIP packet having a packet header and the compressed user data. In the wireless relay, relay equipment compresses the packet header and wirelessly transmits the PMIP packet. A wireless network node wirelessly receives the PMIP packet, decompresses the packet header, and transfers the PMIP packet to a network gateway. In the network gateway, a PMIP Local Mobility Anchor (LMA) receives the PMIP packet, decompresses the user data, and transfers the user data.

Abstract: A multi-Radio Access Technology (RAT) Central Unit (CU) receives N1/N2 signaling and N3 data from a Fifth Generation Core (5GC) network. The CU processes the N3 data with a 5G Service Data Adaption Protocol (SDAP) and processes the N2 signaling with a 5G New Radio (NR) Radio Resource Control (RRC) to generate 5G RRC signaling and 5G RRC instructions. The multi-RAT CU processes the 5G RRC instructions with a multi-RAT Packet Data Convergence Protocol (PDCP), and in response, converts the 5G RRC signaling and the N1 signaling into LTE RRC signaling having Non-Access Stratum (NAS) signaling. An LTE Physical Layer High (PHY-H) generates and transfers LTE PHY-H instructions to an LTE Physical Layer Low (PHY-L) in Distributed Unit (DU) circuitry.

Abstract: A method and system for migrating data are described. A storage capture instance in a first format from a first type of device is received. Processing utilized to back up the storage capture instance to a second format of a snapshot tree is distributed to multiple storage nodes. A request to migrate at least part of the storage capture instance to a second type of device in a third format is received. In response to the request, processing utilized to migrate the at least part of the storage capture instance from the second format to the second type of device in the third format is distributed to the storage nodes. In one aspect, file(s) in a first network attached storage (NAS) device format are migrated to a second NAS device format. In another aspect, a virtual machine (VM) and/or file(s) therein having a first VM format are migrated to a second VM format.

Abstract: A method and system to help minimize communication latency. When data is to be transmitted from a transmitting entity to a receiving entity, the transmission will be scheduled to occur in a time interval that selected based on a consideration of the delay-sensitivity of the data and based on a HARQ delay associated with the selected time interval. For instance, if the data is particularly delay-sensitive, then the transmission could be scheduled to occur in a time interval that is selected based on the time interval having a relatively low associated HARQ delay, so as to help reduce the overall delay of the communication. Whereas, if the data is not particularly delay-sensitive, then the transmission could be scheduled to occur in a time interval that has a relatively high associated HARQ delay.

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: Data-locality-aware task scheduling on hyper-converged computing infrastructures is provided. A plurality of data blocks referenced in an input/output (I/O) request are identified. The I/O request is based on scheduling logic that executes within a container that is deployed on a hyper-converged infrastructure. A block-location mapping table is scanned using a data block identifier that is associated with a present data block of the plurality of data blocks. Physical node(s) of the hyper-converged infrastructure that store the present data block are identified. A container-instance mapping table is scanned using one or more physical node identifiers that are associated with the physical node(s) that store the present data block. Container(s) deployed on physical node(s) that store the present data block are identified. The scheduling logic is provided with a list of identifier(s) that are respectively associated with the containers that are deployed on the physical node(s) that store the present data block.

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: Systems and methods are described for assigning operating bands to wireless devices of a wireless network. Registration notifications for a plurality of wireless devices are received at an access node. Each of the plurality of wireless devices are classified as either an indoor wireless device or an outdoor wireless device. The access node instructs wireless devices classified as indoor wireless devices to operate on a first operating band. The access node instructs wireless devices classified as outdoor wireless devices to operate on a second operating band.

Abstract: Central Unit (CU) circuitry in a wireless data network serves wireless User Equipment (UE) with an integrated Packet Data Convergence Protocol (PDCP). The CU circuitry receives downlink data from a Fifth Generation New Radio (5GNR) Service Data Adaption Protocol (SDAP) component. The CU circuitry executes the integrated PDCP to route the downlink data from the 5GNR SDAP component to an Institute of Electrical and Electronic Engineers 802.11 (WIFI) Radio Link Control (RLC) component. The CU circuitry receives uplink data from the WIFI RLC component. The CU circuitry executes the integrated PDCP to route the uplink data from the WIFI RLC receive memory to the 5 GNR SDAP component.

Abstract: In a wireless network, a Distributed Unit (DU) receives Uplink (UL) data from User Equipment (UE) and a Central Unit (CU) receives Downlink (DL) data for the UE. When DL-centric applications in the UE use the DL, the CU executes most network applications and the DU executes a few network applications. When the DL-centric applications use the UL, the DU executes the network applications and the CU transfers the UL data to the core. When UL-centric applications in the UE use the DL, the CU routes the DL data to the DU, and the DU executes the network applications. When the UL-centric applications use the UL, the DU executes a few network applications and the CU executes most network applications to route the data to the core. Advantageously, the DU and the CU are optimized to process UL/DL data for a user application based on whether the user application is UL-centric or DL-centric.

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: An approach, for fileset based data locality management in Distributed File Systems. A data locality manager receives fileset identifiers and associated block allocation information, for storing in data block locality tables. The data locality manager determines data block locality factors based on the fileset identifiers and the block allocation information, creating a collection of the data block locality factors. The data locality manager stores the collection of the data block locality factors in the data block locality tables. The data locality manager receives the fileset identifiers for determining the collection of the data block locality factors associated to the fileset identifiers and outputs the collection of the data block locality factors.

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: Embodiments of the present disclosure relate to IO initiator aware data migration. A set of statistical metrics for a replica of a data block on a first node of a plurality of nodes is obtained. The first set of statistical metrics is associated with read operations on the replica. The read operations are operations initiated by a second node of the plurality of nodes. If it is determined that a first statistical metric in the set of statistical metrics exceeds a predefined threshold, the replica is migrated from the first node to the second node.

Abstract: A wireless relay receives user data from User Equipment (UE). In the wireless relay, a Proxy Mobile Internet Protocol (PMIP) Media Access Gateway (MAG) compresses the user data and transfers a PMIP packet having a packet header and the compressed user data. In the wireless relay, relay equipment compresses the packet header and wirelessly transmits the PMIP packet. A wireless network node wirelessly receives the PMIP packet, decompresses the packet header, and transfers the PMIP packet to a network gateway. In the network gateway, a PMIP Local Mobility Anchor (LMA) receives the PMIP packet, decompresses the user data, and transfers the user data.

Abstract: Configuration of a multi-tenant distributed file system on a node. Various tenants and tenant clusters are correlated to a distributed file systems, and the distributed file system communicates with various tenants through a connector service. The entire distributed file system exists on a physical node.

Abstract: Configuration of a multi-tenant distributed file system on a node. Various tenants and tenant clusters are correlated to a distributed file system, and the distributed file system communicates with various tenants through a connector service. The entire distributed file system exists on a physical node.

Abstract: Disclosed is a method and system for use of DCN-ID data as a basis for service configuration and differentiation. A UE may be provisioned with a DCN-ID that correlates with a service plan to which the UE subscribes, and the UE may include the DCN-ID in an attach request that the UE sends to a NB. The NB may then map the included DCN-ID to a service configuration for the UE and take action to configure service for the UE accordingly. In an example implementation, the service configuration could include a quantity of secondary NBs to be added for concurrent service of the UE, a set of one or more DCNs in which the UE should be connected, and a set of one or more application-layer services to be provided for the UE.

Abstract: In a wireless relay, an eNodeB exchanges user data between User Equipment (UE) and a Local Gateway (L-GW). The L-GW separates the user data into Radio Area Network (RAN) user data and Wide Area Network (WAN) user data. The L-GW performs Tunneling Compression Multiplexing (TCM) on the RAN and WAN user data. The L-GW exchanges the compressed RAN and WAN user data with a data switch. The data switch exchanges the compressed RAN user data with Relay Equipment (RE) and exchanges the compressed WAN user data with an Internet Protocol Security (IPSec) agent. The RE performs Robust Header Compression (ROHC) over Long Term Evolution for a RAN data tunnel and wirelessly exchanges the compressed RAN user data over the compressed RAN data tunnel. The IPSec agent performs ROHCoIPSec for a WAN data tunnel and exchanges the compressed WAN user data over the compressed WAN data tunnel.