Abstract: In a wireless communication network, distributed ledger circuitry executes a contract from an origin block and transfers an instantiation request for a wireless network slice to network orchestration circuitry. The network orchestration circuitry instantiates the wireless network slice responsive to the instantiation request from the distributed ledger circuitry. The wireless network slice delivers a wireless network service to the UEs and transfers slice usage data to the distributed ledger circuitry. The distributed ledger circuitry executes the contract from middle blocks and a termination block to form a blockchain that stores the slice usage data for the wireless network slice. The distributed ledger circuitry transfers a termination request for the wireless network slice to the network orchestration circuitry responsive to the execution of the contract from the termination block.

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: In a messaging server, processing circuitry receives a network packet that encapsulates a user message from a wireless User Equipment (UE) over a wireless communication network. In response to the network packet, the processing circuitry transfers the user message to ledger circuitry in the messaging server. The ledger circuitry executes a distributed ledger transaction based on a source domain and a destination domain in the user message. The ledger circuitry transfers the user message to the processing circuitry after the distributed ledger transaction. The processing circuitry receives the user message from the ledger circuitry and generates a new network packet for delivery to the destination domain that encapsulates the user message. The ledger circuitry transfers the new network packet that encapsulates the user message for delivery to the destination domain.

Abstract: A wireless access point receives data from a data appliance and transfers the data to a distributed ledger function. The distributed ledger function stores the data in a distributed ledger database, determines additional network access for the data appliance, and transfers an instruction indicating the additional network access to the wireless access point. The wireless access point receives the network access instruction, schedules the additional network access for the data appliance per the network access instruction, wirelessly transfers a network access schedule to the data appliance, wirelessly receives additional data from the data appliance per the network access schedule, and transfers the additional data to the distributed ledger function.

Abstract: A wireless communication network serves User Equipment (UEs) over a wireless network slice. A core user-plane in the slice exchanges user data with the UEs over a Radio Access Network (RAN). The core control-plane determines when the slice has a concentration of UEs that exceeds a threshold in a geographic area. When the slice has the UE concentration that exceeds the threshold in the geographic area, the core control-plane signals an edge user-plane to serve the UEs that use the wireless network slice in the geographic area. The edge user-plane exchanges additional user data over the RAN with the UEs that use the wireless network slice in the geographic area. The core control-plane may determine when the concentration of UEs moves toward another geographic area and proactively launch another edge user-plane to serve the UEs that will soon need the slice in the other geographic area.

Abstract: In a wireless communication network, an Edge Enablement Client (EEC) in a UE Gateway (GW) exchanges EDGE-5 signaling with a user app and exchanges EDGE-1 signaling with a Gateway Enablement Server (GES) in the GW. The GES exchanges EDGE-9 signaling with an Edge Enablement Server (EES) in an Edge Data Network (EDN) and exchanges EDGE-3 signaling with a Gateway Application Server (GAS) in the GW. The GAS exchanges user data between the user app and an Edge Application Server (EAS) in the EDN responsive to the EDGE-3 signaling. The EES exchanges additional EDGE-3 signaling with the EAS. The EAS exchanges the user data between the GAS and a network core responsive to the additional EDGE-3 signaling. The core exchanges the user with the AS and transfers network information for the exchange to a Digital Ledger (DL) node. The DL node determines trust based on the network information.

Abstract: A wireless communication network serves User Equipment (UE) responsive to an Artificial Intelligence (AI) network. The UE determines Quality-of-Service (QoS) levels for a wireless data service at geographic locations. The UE transfers the QoS levels for the wireless data service at the geographic locations to a network core. The network core transfers the QoS levels for the wireless data service at the geographic locations for the UE to the AI network. The network core receives a future QoS level, future geographic location, and future time for the wireless data service for the UE from the AI network. The network core signals a network control-plane to deliver the wireless data service to the UE at the future geographic location and the future time using the future QoS level. The UE receives the wireless data service at the future geographic location and the future time using the future QoS level.

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: A wireless communication system delivers a data service to a wireless User Equipment (UE). A network controller exchanges UE signaling with the wireless UE and transfers UE information to a Network Exposure Function (NEF). The NEF transfers network information that indicates Quality-of-Service (QoS) levels and cost levels for the UE to a user data system. The NEF receives user selections from the user data system that indicate a selected QoS level and a selected cost level. The NEF indicates the selected QoS level to the network controller. The NEF indicates the selected cost level to a Charging Function (CHF). The network controller directs network elements to transfer UE data for the UE using the selected QoS level. The network elements transfer the user data for the UE using the selected QoS level. The CHF generates charging data for the UE based on the selected cost level.

Abstract: A wireless User Equipment (UE) performs quantum authentication with a wireless communication network. The wireless UE receives qubits that were generated by the wireless communication network and determines polarization states for the qubits. The wireless UE exchanges cryptography information with the wireless communication network. The wireless UE and the wireless communication network both generate cryptography keys based on the polarization states and the cryptography information. The wireless UE generates authentication data based the cryptography keys. The wireless UE wirelessly transfers the authentication data to the wireless communication network. The wireless communication network authenticates the wireless UE based on the authentication data and the cryptography keys.

Abstract: In a wireless communication network, Network Function (NF) circuitry determines an initial NF status and indicates the initial NF status to Network Exposure Function (NEF) circuitry. The NEF circuitry processes the initial NF status, and in response, determines an initial NF privilege based on the initial NF status and indicates the initial NF privilege to the NF circuitry. The NF circuitry delivers a wireless data service to a wireless User Equipment (UE) based on the initial NF privilege. The NF determines a current NF status and indicate the current NF status to the NEF circuitry. The NEF circuitry processes the current NF status, and in response, determines a current NF privilege based on the current NF status and indicates the current NF privilege to the NF circuitry. The NF circuitry delivers the wireless data service to the UE based the current NF privilege.

Abstract: A wireless relay serves a wireless User Equipment (UE) over a relay slice. The wireless relay stores a relay Control Plane Function (CPF) and relay User Plane Function (UPF) for the relay slice. The wireless relay receives attachment signaling from the UE and transfers the attachment signaling to the wireless communication network. The wireless relay receives network signaling from the wireless communication network that indicates the relay slice for the wireless UE. The wireless relay executes the relay CPF and the relay UPF for the relay slice responsive to the network signaling. The relay CPF transfers UPF instructions to the relay UPF based on the network signaling. The relay UPF receives the UPF instructions, and in response, wirelessly exchanges user data with the UE and with the wireless communication network.

Abstract: A wireless communication network serves User Equipment (UE) responsive to an Artificial Intelligence (AI) network. The UE transfers UE data that indicates user applications and their current status to a distributed ledger. The distributed ledger also receives past quality levels and locations from the wireless communication network. The distributed ledger stores the UE data, quality levels, and locations in a blockchain format that is readable by the AI network. The distributed ledger receives a future quality level and location and time for the UE from the AI network. The distributed ledger stores the future quality level and location and time for the UE in the blockchain format. The distributed ledger transfers the future quality level and location and time for the UE to an Exposure Function (EF). The EF signals a network control-plane to deliver the wireless data service to the UE at the future location and time and quality level.

Abstract: A data communication system generates Artificial Intelligence (AI) responses to distributed ledger data. In the data communication system, ledger clients discover distributed ledgers and establish hardware-trust with the distributed ledgers. The ledger clients discover AI engines and establish hardware-trust with the AI engines. The ledger clients read ledger information from the top data blocks of the distributed ledgers and select top-block ledger information. The ledger clients select AI engines to receive the selected top-block ledger information and transfer the selected ledger information to the selected AI engines. The selected AI engines process the selected top-block ledger information and generate the AI responses.

Abstract: A wireless communication network performs quantum authentication for a wireless User Equipment (UE). In the wireless communication network, network quantum circuitry generates and transfers qubits. UE quantum circuitry receives and processes the qubits and determines polarization states for the qubits. The UE quantum circuitry exchanges cryptography information with the network quantum circuitry and generates cryptography keys based on polarization states and cryptography information. The UE quantum circuitry transfers the cryptography keys to UE network circuitry. The network quantum circuitry exchanges the cryptography information with the UE quantum circuitry. The network quantum circuitry generates the cryptography keys based on the polarization states and the cryptography information and transfers the cryptography keys to network authentication circuitry.

Abstract: In a wireless communication system, a controller network element establishes a data tunnel between a wireless user device and an application server. An exposure network element receives an uplink QoS level and a cost, and the exposure network element indicates the uplink QoS level to a policy network element and indicates the service cost to a charging network element. The policy network element indicates related tunnel instructions to the controller network element. The charging network element indicates related quota instructions to the controller network element. The controller network element directs the data network element to transfer application data over the data tunnel using the uplink QoS level. The data network element transfers the application data over the data tunnel from the wireless user device to the application server at the uplink QoS level.

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: In a wireless communication network, an Access and Mobility Management Function (AMF) receives signaling for a wireless relay and transfers a slice request to a Network Slice Selection Function (NSSF). The NSSF transfers a network slice Identifier (ID) and relay slice IDs to the AMF. The AMF transfers the network slice ID and the relay slice IDs to a Session Management Function (SMF). The SMF instantiates a network User Plane Function (UPF) responsive to the network slice ID. The SMF instantiates relay UPFs in the wireless relay responsive to the relay slice IDs. The wireless relay wirelessly exchanges data with the UEs. The relay UPFs process the user data for the relay slices. The wireless relay wirelessly exchanges the user data with the wireless access node which exchanges the data with the network UPF. The network UPF processes the user data for the network slice.

Abstract: A wireless communication network charges a user for a wireless network slice over a Network Exposure Function (NEF). A network user-plane transfers user data over the wireless network slice. In response, the network user-plane generates session data that characterizes the user data transfer over the wireless network slice. The network user-plane transfers the session data to the NEF. The NEF receives the session data and generates a service charge for the wireless network slice based on the session data. The NEF transfers the service charge for the wireless network slice and at least a portion of the session data to a distributed ledger associated with the user.

Abstract: A data communication network comprises Provider Edge (PE) circuitry and Customer Edge (CE) circuitry. The PE circuitry boots a trusted PE processor that transfers a hardware-trust hash and receives a hardware-trust certificate. The CE circuitry boots a trusted CE processor that transfers a hardware-trust hash and receives a hardware-trust certificate. The trusted PE circuitry and the trusted CE circuitry exchange and validate the hardware-trust certificates to establish a Trusted Execution Environment (TEE) across the network edge. The trusted PE circuitry and the trusted CE circuitry encrypt and exchange trusted user data in the TEE across the network edge.