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.

Abstract: Provider Edge (PE) circuitry transfers a PE Hardware Trust (HWT) hash to a controller. The controller verifies PE HWT based on the PE HWT hash and transfers a Trusted Execution Environment Identifier (TEE ID), PE ID, PE HWT certificate, and PE keys to the PE circuitry. Customer Edge (CE) circuitry transfers a CE HWT hash to the controller. The controller verifies CE HWT based on the CE HWT hash and transfers the TEE ID, CE ID, CE HWT certificate, and CE keys to the CE circuitry. The PE circuitry and the CE circuitry exchange and verify their HWT certificates based on their keys. The PE circuitry encrypts and decrypts user data based on the PE keys. The PE circuitry exchanges the TEE ID, the PE ID, and the encrypted user data with the CE circuitry. The CE circuitry encrypts and decrypts the user data based on the CE keys. The CE circuitry exchanges the TEE ID, the CE ID, and the encrypted user data with the PE circuitry.

Abstract: A wireless communication network wirelessly receives a slice indicator from a wireless communication device. The wireless communication network selects an Artificial Intelligence (AI) engine based on the slice indicator. The wireless communication network may select the AI engine by selecting a wireless network slice that comprises the AI engine based on the slice indicator. The wireless communication network wirelessly receives user data from the wireless communication device for the wireless network slice. The wireless communication network transfers the user data to the selected AI engine. The selected AI engine generates an AI output based on the user data.

Abstract: A data communication system serves a wireless communication device over a Non Third Generation Partnership Project (non-3GPP) network slice. The data communication system receives a request for the non-3GPP slice from the wireless communication device over a non-3GPP access node. The data communication system exchanges network signaling with a 3GPP network. The data communication system receives an authorization from the 3GPP network for the wireless communication device to use the non-3GPP network slice. The data communication system establishes a Virtual Private Network (VPN) for the wireless communication device over the non-3GPP access node in response to the authorization from the 3GPP network. The data communication system exchanges user data with the wireless communication device over the VPN. The data communication system exchanges the user data with a non-3GPP communication system over the VPN or another VPN for the non-3GPP communication system.

Abstract: A system includes a radiofrequency identification (RFID) integrated circuit (IC) associated with a mobile asset. The 5GID-IC can store sensor data collected from sensors of the mobile asset and generate tracking data of the mobile asset based on that sensor data. The 5GID-IC responds to radiofrequency (RF) signals radiated on the RFID device, where the RF signals have frequencies in a licensed spectrum of a 5G telecommunications network. The system includes a reader device configured to independently check multiple 5GID-ICs of mobile assets for tracking data. The reader device includes a communications circuit that can retrieve the tracking data from the 5GID-IC of the mobile asset.

Abstract: A wireless communication device accesses a wireless communication network. The wireless communication device identifies an application identifier. The wireless communication device calls an Application Programming Interface (API) with the application identifier to identify a microservice API. The wireless communication device calls the microservice API to identify a hardware identifier. The wireless communication device transfers the hardware identifier to obtain access to the wireless communication network.

Abstract: A wireless communication device generates a slice certificate having one or more slice characteristics for a wireless network slice. The wireless communication device encrypts the slice certificate with a wireless network key. The wireless communication device wirelessly transfers the encrypted slice certificate to a wireless access node, and in response, wirelessly receives user context for the wireless network slice from the wireless access node. The wireless communication device wirelessly exchanges wireless network slice data with the wireless access node based on the user context for the wireless network slice.

Abstract: 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. The machine learning module analyzes data received from the user equipment to detect that the user equipment has violated a security constraint of the telecommunications system.

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 wireless communication system wirelessly detects a wireless network identifier and a product identifier that were wirelessly transmitted from a product. The wireless communication system selects an application based on the wireless network identifier. The wireless communication system performs a product-tracking transaction for the product by executing the selected application to process the product identifier.

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: Methods and systems are provided for identifying the true identity of senders of messages, for example based on hardware identifiers and other information, such as timestamps and/or register-transfer level licenses. In some cases, a hyper ledger provides a protocol for combining information such as hardware identifiers (for example silicon identification information) with other information and logic instructions to generate ledger identifications. Embodiments can be used to authorize transmission of messages, such as SMS or RCS messages, and to provide an archive or message information. In some cases, messages from certain domains can be aggregated for routing.

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: A wireless communication system generates Artificial Intelligence (AI) responses to network data. Computer circuitry hosts network functions, distributed ledgers, ledger clients, and AI engines. The network functions serve User Equipment (UEs) over Radio Access Networks (RANs), and in response, transfer the network data to the distributed ledgers. The distributed ledgers receive and store the network data. The ledger clients select some of the network data from the distributed ledgers and transfer the selected network data to the AI engines. The AI engines receive the selected network data, and in response, generate the AI responses. The ledger clients and the AI engines may comprise wireless network slices.

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: 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: Embodiments of the present disclosure are directed to systems and methods for artificial intelligence-based filtering of user devices on a wireless network. Upon a request from a user device to access a requested network service, a trustlet executed in a trusted execution environment of the user device is activated. The trustlet provides data associated with the user device. The data is used to distinguish normal from anomalous device behavior. Analysis of the data can be facilitated by an artificial intelligence module. Based on the analysis, the requested network service may be selectively authorized or prohibited. Additionally, the trustlet can be activated while a network service is being utilized by a user device to detect anomalous and potentially deceptive activity.

Abstract: A network controller authenticates receiver circuitry and transfers an Application Programming Interface (API) to the receiver circuitry. A wireless radio wirelessly detects a network identifier and a product identifier that were wirelessly transmitted by an item at a geographic location. Based on the network identifier, the receiver circuitry selects the API that is associated with a wireless network slice. Based on the selected API, the receiver circuitry generates an API call that indicates the product identifier and the geographic location for the item. The receiver circuitry transfers the API call the wireless network slice. The wireless network slice receives the API call from the receiver circuitry. The wireless network slice selects an application that is associated with the item based on the product identifier. The wireless network slice transfers the product identifier and the geographic location for the item to selected application.

Abstract: Systems and methods for performing high speed interactions with electromagnetic power harvesting (AEPH) chips are provided. In one embodiment, an AEPH initialization node emits a first electromagnetic field to charge the AEPH chip and/or initiate a boot-up sequence, and an AEPH interrogation node that transmits a second electromagnetic field to trigger processing operations within the AEPH chip. The first electromagnetic field and second electromagnetic fields are emitted respectively within an AEPH initialization zone and an AEPH interrogation zone that are offset from each other such that the first electromagnetic field emission in the AEPH initialization zone does not produce backscatter that interferes with the AEPH interrogation node receiving interrogation reply signals from the AEPH interrogation zone. Curtailing backscatter facilitates the ability to convey items with AEPH chips at faster line speeds so that a greater number of items per minute can be processed.

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.