Abstract: Apparatuses and methods for short message service (SMS) delivery are disclosed. In one embodiment, a method implemented in a data management (UDM) node includes receiving, by the UDM node, a registration request from a home subscriber server, HSS, node, the registration request being to register an Internet Protocol-Short Message-Gateway, IP-SM-GW, and the registration request comprising an address of the IP-SM-GW; and optionally, as a result of receiving the registration request comprising the address of the IP-SM-GW from the HSS node, determining message waiting data. In one embodiment, a method implemented in a HSS node includes receiving a registration request; and sending, to a unified data management, UDM, node, the registration request, the registration request being to register an Internet Protocol-Short Message-Gateway, IP-SM-GW, and the registration request comprising an address of the IP-SM-GW.

Abstract: A method for supporting authentication of a User Equipment, UE, in an Internet Protocol, IP, Multimedia Subsystem, IMS, telecommunication network, by interfacing a Service Based Architecture, SBA, telecommunication network, the method including receiving, by a Unified Data Management, UDM, in the SBA telecommunication network, from a Session Management Function, SMF, in the SBA telecommunication network, binding information, wherein the binding information is used to identify the UE in the IMS telecommunication network; receiving, by the UDM in the SBA telecommunication network, from a Home Subscriber Server, in the IMS telecommunication network, a request for providing the binding information, and providing, by the UDM in the SBA telecommunication network, to the HSS in the IMS telecommunication network the binding information, thereby supporting authentication of the UE. Complementary methods and corresponding nodes are also presented herein.

Abstract: A method performed by an a first Internet Protocol, IP, Multimedia Subsystem, IMS, node for selecting a second IMS node from one or more second IMS in a communications network is provided. The first IMS node and the one or more second IMS nodes are operating in an IMS network. Upon receiving, from a User Equipment, UE, a registration request message requesting the UE to be registered to the IMS network, the first IMS node obtains (201), from a subscriber data node, subscriber data related to the UE. The subscriber data comprises one or more capabilities associated to a second IMS node to be used in the registration procedure. The first IMS node sends (202), to a network node, a request to identify one or more second IMS nodes for the registration procedure, based on the one or more capabilities in the obtained subscriber data. The request comprises the one or more capabilities. The first IMS node receives (203) a response to the request from the network node.

Abstract: Embodiments are directed towards tracking a package with a tracking device (TD). Embodiments include obtaining a shipping itinerary for the package, receiving a carrier acceptance confirmation indicating the driver has transferred the package to the carrier; receiving a departure confirmation for the segment; receiving, after receiving the departure confirmation, a TD status message including a first location of the package as determined by the TD; and in response to receiving the TD status message after the departure confirmation, issuing a failure to board alert for the package.

Abstract: Embodiments are directed towards tracking a package with a tracking device (TD). Embodiments include obtaining a shipping itinerary for the package, receiving a carrier acceptance confirmation indicating the driver has transferred the package to the carrier; receiving a departure confirmation for the segment; receiving, after receiving the departure confirmation, a TD status message including a first location of the package as determined by the TD; and in response to receiving the TD status message after the departure confirmation, issuing a failure to board alert for the package.

Abstract: A computing architecture providing for rapid analysis and control of an environment via edge computing nodes is disclosed. Input data streams may be captured via one or more data stream independent CPU threads and prepared for processing by one or more machine learning models. The machine learning models may be trained according to different use cases to facilitate a multi-faceted and comprehensive analysis of the input data. The evaluation of the input data against the machine learning models may be facilitated via independent GPU threads (e.g., one thread per model or use case) and the outputs of the models may be evaluated using control logic to produce a set of outcomes and control data. The control data may be utilized to generate one or more command messages that may provide feedback to a remote device or user regarding a state of a monitored environment or other observed condition.

Abstract: Embodiments are directed towards tracking a package with a tracking device (TD). Embodiments include obtaining a shipping itinerary for the package, receiving a carrier acceptance confirmation indicating the driver has transferred the package to the carrier; receiving a departure confirmation for the segment; receiving, after receiving the departure confirmation, a TD status message including a first location of the package as determined by the TD; and in response to receiving the TD status message after the departure confirmation, issuing a failure to board alert for the package.

Abstract: A copolymer for constituting a polymer electrolyte for a solid-electrolyte lithium or sodium cell. A polymer electrolyte that is usable in combination with high-voltage cathode active materials and makes it possible to provide solid-electrolyte lithium or sodium cells and/or batteries having a high energy density that is sufficient even for use in electricity-based vehicles, the copolymer encompasses at least two ion-conductive polymers, the copolymer encompassing at least one polymer polymerized by ring-opening polymerization of at least one lactone and/or of at least one lactide and/or of at least one cyclic carbonate and/or of at least one cyclic carbamate and/or of at least one lactam and/or of at least one epoxide, and/or at least one polymer polymerized by radical polymerization of acrylonitrile and/or of at least one acrylonitrile derivative; and encompasses at least one polyacrylate having at least one repeating unit.

Abstract: An apparatus for drying or conditioning bulk solids, includes a housing including an inlet for receiving the bulk solids, and an outlet for discharging the bulk solids, a plurality of spaced apart heat transfer plates assemblies disposed in the housing between the inlet and the outlet for passage of the bulk solids that flow from the inlet, through spaces between the heat transfer plates, and a sweep gas delivery system for the flow of sweep gas in a first direction across the direction of flow of the bulk solids. The sweep gas delivery system includes at least one valve for reversing the flow of the sweep gas from the first direction to a second direction, opposite to the first direction.

Abstract: An apparatus for drying or conditioning bulk solids, includes a housing including an inlet for receiving the bulk solids, and an outlet for discharging the bulk solids, a plurality of spaced apart heat transfer plates assemblies disposed in the housing between the inlet and the outlet for passage of the bulk solids that flow from the inlet, through spaces between the heat transfer plates, and a sweep gas delivery system for the flow of sweep gas in a first direction across the direction of flow of the bulk solids. The sweep gas delivery system includes at least one valve for reversing the flow of the sweep gas from the first direction to a second direction, opposite to the first direction.

Abstract: A copolymer for constituting a polymer electrolyte for a solid-electrolyte lithium or sodium cell. A polymer electrolyte that is usable in combination with high-voltage cathode active materials and makes it possible to provide solid-electrolyte lithium or sodium cells and/or batteries having a high energy density that is sufficient even for use in electricity-based vehicles, the copolymer encompasses at least two ion-conductive polymers, the copolymer encompassing at least one polymer polymerized by ring-opening polymerization of at least one lactone and/or of at least one lactide and/or of at least one cyclic carbonate and/or of at least one cyclic carbamate and/or of at least one lactam and/or of at least one epoxide, and/or at least one polymer polymerized by radical polymerization of acrylonitrile and/or of at least one acrylonitrile derivative; and encompasses at least one polyacrylate having at least one repeating unit.

Abstract: The present is a hydrometallurgical procedure for nickel and cobalt recovery, which involves leaching with ammonia-ammonium carbonate solution of the nickel and cobalt bearing mineral material, using a tubular reactors aid mineral material is previously submitted to processes such as selective reduction, cooling, new ammonia leaching, liquid/solid separation and/or nickel and/or cobalt extraction by solvent or ion-exchange resin, allowing the recovery of all the extractable nickel and up to the 130% cobalt extraction reported by the standard ammonia-ammonium leaching.