Abstract: An ambient electromagnetic power harvesting (AEPH) device having an indicator is provided. The AEPH device includes a substrate having fabricated thereon an antenna, an AEPH circuit, a controller, a physical indicator, and an indicator control data (ICD) memory. The AEPH circuit receives RF energy collected by the antenna and converts it into electrical power. The controller receives electrical power from the AEPH circuit and an RF signal from the antenna. The controller receives from an RF signal via the antenna information that includes interrogation data. The controller compares data stored in the ICD memory with the interrogation data to generate comparison information and causes the physical indicator to emit a physical signal that is based on the comparison information. A second AEPH device having a second antenna and a second AEPH circuit, where the indicator is mounted separate from the substrate.

Abstract: A User Equipment (UE) receives wireless network services from a first wireless network slice and a second wireless network slice over a non-Third Generation Partnership Project (non-3GPP) link. A Third Generation Partnership Project (3GPP) client authenticates with a 3GPP network over the non-3GPP link and establishes a first N1 signaling link for the first wireless network slice over the non-3GPP link. The 3GPP client authenticates with the 3GPP network over the non-3GPP link and establishes a second N1 signaling link for the second wireless network slice over the non-3GPP link. The first user application exchanges data with the first wireless network slice over the non-3GPP link. The second user application exchanges data with the second wireless network slice over the non-3GPP link. The 3GPP client maintains both N1 signaling links when both user applications are exchanging their data with the wireless network slices over the non-3GPP link.

Abstract: Immutable archiving of remote controlled user equipment telemetry-command (TC) data for wireless communications networks systems and applications is provided. In some embodiments, one or more applications executing on the UE report selected TC data to a TC data archiving function. TC data is both captured and preserved by the TC data archiving function in a manner that establishes sufficient integrity for the data for the purpose of establishing an immutable record comprising at least the operating state of a remote operated UE, and commands that a controller UE was sending to the remote operated UE. Determining the TC data selected for archiving may be based on an inflection criteria. In some embodiments, a session block sequence is generated using a distributed application (DApp), and TC data is reported to the TC data archiving function using the session block sequence.

Abstract: A method of utilizing beamforming to selectively locate one or more ambient electromagnetic power harvesting (AEPH) chips, implemented by a reader apparatus comprising multiple antennas, the method comprises transmitting, to the AEPH chips, an interrogation signal from multiple transmit antennas by a reader application executing on a processor of the reader apparatus in a first frequency band to activate the AEPH chips; receiving, from at least one AEPH chip by multiple receive antennas of the reader apparatus, one or more signals in response to the interrogation signal; processing the one or more signals to determine a direction of the at least one AEPH chip; and adjusting, using a beamformer, a beam direction of the multiple transmit antennas of the reader apparatus in the direction of the at least one AEPH chip to deliver the maximum power to the at least one AEPH chip.

Abstract: In a wireless communication system, wireless communication devices filter smart contract data. The wireless communication devices generate source smart contract outputs. The wireless communication devices select some of the source smart contract outputs. The wireless communication devices select at least one target smart contract. The wireless communication devices transfer the selected source contract outputs to the ones of the selected target smart contracts. The selections that comprise this filtering may be based on device location, device identifier, digital certificates, device application identifiers, device component identifiers, alarms, messages, time, day, date, and/or some other factors.

Abstract: Systems, methods, and processing nodes for managing a wireless communication session perform and/or comprise: receiving a privacy enable request from an application associated with a wireless communication device; masking an application identifier corresponding to the application, thereby to generate a masked application identifier; receiving an application attribute request from a route selection manager, the application attribute request including a request for the application identifier; and in response to the privacy enable request and the application attribute request, returning an application attribute request response to the route selection manager, the application attribute request including the masked application identifier.

Abstract: A user communication device or another type of electronic device handles executable commands. The user communication device stores individual code segments of the executable commands in isolated memories. The user communication device identifies individual digital certificates for the individual code segments. The user communication device validates the individual digital certificates for the individual code segments with individual cryptographic keys for the individual code segments. In response to successful validation, the user communication device retrieves the individual code segments from the isolated memories. The user communication device assembles the executable commands from the retrieved individual code segments. The user communication device executes the assembled executable commands. The assembled executable commands enable the user communication device to access networks, servers, databases, content, and/or some other items.

Abstract: Various embodiments comprise a wireless communication network configured to perform quantum authentication for a wireless User Equipment (UE). The wireless communication network comprises network quantum circuitry and network authentication circuitry. The network quantum circuitry selects polarization states for qubits. The network quantum circuitry generates and polarizes the qubits using the selected polarization states. The network quantum circuitry transfers the qubits to an enterprise network. The network authentication circuitry exchanges cryptography information indicating the selected polarization states, measured polarization states, and a wireless device ID with the enterprise network. The network authentication circuitry generates a cryptography key based on the selected polarization states and the measured polarization states and stores the cryptography key in association with the wireless device ID.

Abstract: Various embodiments comprise a wireless communication network configured to orchestrate metaverse services for wireless user devices. The wireless communication network comprises a metaverse orchestrator and a network slice manager. The metaverse orchestrator receives and processes a metaverse service request from a wireless user device that indicates a device location and a metaverse type. The metaverse orchestrator identifies application servers that provide metaverse services and that have sufficient capacity to serve a metaverse session. The metaverse orchestrator selects a server of the identified ones of the identified application servers based on a proximity between the device location and the geographic location of the server. The network slice manager selects a network slice to serve the metaverse session based on the metaverse type indicated by the metaverse service request.

Abstract: In a wireless communication network, a wireless access node receives an encrypted slice certificate from a wireless user device and transfers the encrypted slice certificate to a network control-plane. The network control-plane decrypts the encrypted slice certificate and determines a correspondence between expected characteristics and the slice characteristics from the decrypted slice certificate. The network control-plane authorizes the wireless user device for the wireless network slice based on the correspondence. In response to the authorization, the network control-plane transfers user context for the wireless network slice to the wireless access node and a network user-plane. The wireless access node exchanges user data between the wireless user device and the network user-plane per the user context. The network user-plane exchanges the user data between the wireless access node and a data system per the user context.

Abstract: Systems, methods, and devices are disclosed herein to identify and deploy policy changes from a policy source in a wireless communication network to enforcement points in the network based on trends identified by the policy source in KPIs reported by the enforcement points. In an implementation, enforcement points in the network report KPIs to the policy source. The KPIs are related to authorization attempts made by user equipment in the network. The policy source, upon receiving the KPIs, identifies a trend in the KPIs and identifies a policy change based on the KPIs. The policy source then deploys the policy change to the enforcement points. In various implementations, the policy source is a Policy Decision Point (PDP), and the enforcement points are Policy Enforcement Points (PEPs).

Abstract: A wireless communication system serves a wireless user device with network slices. The wireless communication system receives a slice request for the wireless user device and selects network slices for the wireless user device in response to the slice request. The wireless communication system transfers a slice response that has slice information to initiate control-planes and user-planes for the wireless user device based on the selected network slices. The wireless communication system transfers user data for the wireless user device over the user-planes under control of the control-planes.

Abstract: User equipment (UE) network radio link state management for ambient electromagnetic power harvesting chip (AEPH) reader applications and devices is provided. In some embodiments, radio link state management services are provided that may be engaged by a UE that can wirelessly communicate both with a wireless telecommunications network, and an AEPH chip. Embodiments may include a method that determines when an AEPH chip communication event is pending, suspends a UE connection state of at least one data channel of the one or more data channels of the UE radio link in response to the determining when the AEPH chip communication event is pending, performs the AEPH chip communication event; and releases suspension of the UE connection state of the at least one data channel of the one or more data channels of the UE radio link.

Abstract: Technology including systems, methods, and devices is disclosed herein to operate a wireless communication system to serve a wireless communication device based on policies. In an implementation, a method of operating a wireless communication system includes receiving policies for a wireless device from multiple policy sources. The method includes correlating policies to layers of a protocol and selecting ones of the policies for ones of the layers based on the correlations. The method further includes indicating the selected ones of the policies to one or more enforcement points.

Abstract: Systems and methods for dynamic identification generation for telecommunications network user equipment (UE) are provided. Embodiments of the present disclosure, generate a device identifier (ID) for UE that access services provided by a network. In some of the embodiments described herein, instrumentation instances are executed which may take measurements of UE memory states for use as measurement fingerprints. Measurement fingerprints may be combined with pre-provisioned elements to generate a device ID. A UE may generate measurement fingerprints based on measurements of device memory states corresponding to a predefined set of one or more tasks executed by the UE; generate a registration ID for the UE based on pre-provisioned elements associated with the UE; generate the device ID as a function of the set of measurement fingerprints and the registration ID; and transmit a message comprising the device ID to a network function of a network.

Abstract: Systems and methods for user equipment clusters for network registration and authentication are provided. In some embodiments, a UE aggregation gateway may define one or more UE clusters from a set of UE devices that have connected to an access network. In some embodiments, the UE aggregation gateway may register a UE logical entity with the network and associate a cluster of UE devices with that UE logical entity. The UE aggregation gateway may then function as a proxy gateway for members of the UE cluster, acting on behalf of the members of the UE cluster at least with regard to operations with functions of the operator network core.

Abstract: Mobility edge network systems and methods are provided. In some embodiments, a mobility edge interface extends instantiation of a UPF and/or other network functions of the operator core network further from the traditional centralized network core, to a new edge that is launched and hosted at the UE level. The mobility edge interface may implement a mobility UPF instance that is launched by one or more applications executed on a primary UE and made accessible through a wireless communication link with a mobility edge RAN established by the primary UE. Through the mobility edge RAN and the mobility UPF instance, a secondary UE may establish a point-to-point wireless communication link (which may be a 3GPP link, or a non-3GPP link) and a user plane data path with the primary UE, in order to communicate data corresponding to a data session between the primary and secondary UE.

Abstract: Relationship entity management systems and methods for telecommunications network user equipment are disclosed. In some embodiments, two or more UEs may form relationship entity in which they operate together to provide a service using a telecommunications network. A UE acting on behalf of the relationship entity may communicate a registration request message to a network function of the operator core network that includes which the network function may use to assign a relationship ID to the relationship entity. Records of relationship entity actives and/or resources used may be recorded to a relationship history ledger under the relationship ID, such as a block-chain technology ledger for example. In some embodiments, a UE while operating on the operator core network as part of the relationship entity may be authorized to access network services otherwise not available to the UE when they are not part of the relationship entity.

Abstract: A data communication system authenticates a User Equipment (UE). The data communication system exposes the authenticated UE to a user data system over a Network Exposure Function (NEF) in response to the authentication. The data communication system receives, from the user data system, a request for user data from the authenticated UE over the NEF in response to the exposure. The data communication system receives the user data from the authenticated UE via the NEF. The NEF transfers the user data from the data communication system for delivery to the user data system in response to the request.

Abstract: Methods for resource and slice allocation for multi-mode operation in Open RAN architectures are described. A programmable radio exposure function switches between real-time and near-real-time modes of operation for a radio access network (RAN) intelligent controller of a telecommunications system. An application programming interface is exposed by the radio exposure function and performs radio resource management for the telecommunications system. The application programming interface communicates with services and/or applications to control RAN functions, and allocates RAN resources of the telecommunications system to a user equipment for the services and/or applications. A machine learning module is embedded within the radio exposure function and trained to identify network slices of the telecommunications system for the services and/or applications.