Abstract: Systems and methods for ambient noise mitigation as a network service are provided. In some embodiments, an ambient noise mitigation server establishes at least one low latency network slice for at least one UE coupled to a radio access network. The ambient noise mitigation server generates a cancelation signal based on ambient sound mitigation data received by the radio access network, the ambient sound mitigation data including acoustic sensor data representing an ambient sound signal. The cancelation signal is generated to comprise a phase shift with respect to the ambient sound signal computed at least in part as a function of a location of the at least one UE, and causes at least one acoustic emitter to emit an acoustic cancelation signal based on the cancelation signal. In some embodiments, the phase shift may be adjusted by controlling a latency characteristic of the low latency network slice.

Abstract: A wireless communication system delivers a wireless data service to a wireless communication device using content-addressing. The wireless communication system generates a content-address from a data set. The wireless communication system stores the content-address in association with the data set. The wireless communication system encrypts the content-address with a system key and transfers the encrypted content-address to the wireless communication device. The wireless communication device decrypts the encrypted content-address with a user key to obtain the content address. The wireless communication device re-encrypts the content-address with the user key. The wireless communication system receives the re-encrypted content-address from the wireless communication device and decrypts the re-encrypted content-address with the system key to obtain the content-address. The wireless communication system retrieves the data set from the memory circuitry with the decrypted content-address.

Abstract: A data communication network connects a user application in a wireless User Equipment (UE) to a user application server. An edge application server exchanges user data between the user application in a wireless UE and a wireless network slice. The wireless network slice exchanges the user data between the edge application server and the user application server. The data communication network determines a trust level for the exchange of the user data between the user application in the wireless UE and the user application server. In some examples, a distributed ledger in the data communication network determines the trust level for the exchange of the user data between the user application in the wireless UE and the user application server.

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 contains an identifier and a timestamp, such as a timestamp associated with a request to send a message. 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 wireless communication system attests to user data from a wireless user device. The wireless user device receives satellite signals from satellites and determines satellite signal metrics for the satellite signals. The wireless user device determines its geographic location based on the satellite signals. The wireless user device executes an operating system in trusted processing circuitry in response to device power-up. The wireless user device executes a network application in the trusted processing circuitry. The network application transfers the user data, geographic location, and signal metrics to network elements. The network elements determine known satellite metrics for the geographic location. The network elements compare the satellite signal metrics to the known satellite metrics and generate an attestation score for the user data based on the satellite comparison. The network elements store the user data, the geographic location, and the attestation score.

Abstract: In various embodiments, systems and methods for quantum-based network traffic anomaly detection are disclosed. Embodiments for a network integrity monitor are disclosed that leverage a quantum computing-based network assessment function to evaluate network event data for the purposes of identifying and/or predicting anomalies indicative of network threats. To identify network anomalies, the network assessment function may treat the anomaly identification as a quantum search task by searching the task data using an amplitude amplification quantum search algorithm and/or using quantum machine learning models to infer a threat prediction that may include a single or multiclass classification characterizing the task data. Such classification(s) may be further assessed by the network integrity monitor as the basis to trigger one or more mitigating steps.

Abstract: In various embodiments, ledger-based telecommunications network event archiving for trusted model non-3GPP devices and systems are provided. Trusted model non-3GPP devices can access network functions and services to utilize a ledger-based event recordation service. Through the recordation service, network events associated with trusted model non-3GPP UE device usage of network functions and services may be recorded to an event ledger. The event ledger may comprise a hyperledger and/or blockchain technology, and/or may comprise an element of a distributed ledger network (DLN) and/or distributed ledger technology (DLT)-based records repository. In some embodiments, to function as a trusted model device, a non-3GPP device is configured with a 3GPP compatible universal connectivity stack (UCS).

Abstract: In various embodiments, systems and methods for ledger-based cookie management are provided. Rather than store cookie data as text files on the local device drive, cookie data is recorded to a blockchain technology cookie ledger store on a network resource. When a client application (e.g., a browser) on the UE is directed to a cloud-based service, and that cloud-based service calls for access to a cookie, that call is processed by a cookie gateway executing on the UE. The cookie gateway may verify authenticity of the user and generate a cookie access token that it transmits to the cloud-based service. The cloud-based service may use the cookie access token to locate the cookie ledger and access one or more records storing cookie data used by the cloud-based service. The cookie access token may expire upon termination of the session between the user equipment and the cloud-based service.

Abstract: A wireless access node wirelessly transfers an identifier and location to a communication satellite. The communication satellite transfers the identifier and location to a data communication system. The data communication system determines a node configuration for the wireless access node based on the identifier and location and transfers the node configuration for the wireless access node to the communication satellite. The communication satellite wirelessly transfers the node configuration to the wireless access node. The wireless access node wirelessly exchanges user data with user communication devices based on the node configuration. The wireless access node exchanges the user data with the data communication system based on the node configuration.

Abstract: In various embodiments, systems and methods for a trust architecture for telecommunication network slice security are disclosed. In some embodiments a trust architecture for telecommunication network slice security distributes network security functionality to individual network entities that constitute elements of a network slice instance. Slice network functions each individually implement components of the trust architecture for the network slice using a policy enforcement point (PEP) and a policy decision point (PDP). Each slice network function thus validates the authenticity and authorized privileges associated with the subject entity seeking a service from that slice network function, and grants or denies such service requests based on a policy implemented by the PEP and PDP.

Abstract: A system can correct or avoid an unexpected result caused by executing a smart contract. The system can detect a potential/actual result generated based on a primary smart contract, which is stored in association with a block of a blockchain and is configured to execute when a predetermined condition is satisfied. The system can determine that the potential/actual result deviates from an expected result and, in response, retrieve a secondary smart contract from a repository. The secondary smart contract is selected to prevent the unexpected result in the future. The system can store the secondary smart contract retrieved from the repository in association with a subsequent block of the blockchain. The primary smart contract and the secondary smart contract are then configured to execute in concert when the predetermined condition is satisfied such that the expected result is produced instead of the unexpected result.

Abstract: A data communication system receives and verifies provider hardware-trust data from a data service provider, and in response, transfers a provider digital certificate to the data service provider. The data communication system receives and verifies customer hardware-trust data from a data service customer, and in response, transfers a customer digital certificate to the data service customer. The data service customer transfers the customer digital certificate to the data service provider, and the data service provider verifies the customer digital certificate to establish hardware-trust with the data service customer. The data service provider transfers the provider digital certificate to the data service customer, and the data service customer verifies the provider digital certificate to establish hardware-trust with the data service provider.

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: Systems and methods for ambient noise mitigation as a network service are provided. In some embodiments, an ambient noise mitigation server establishes at least one low latency network slice for at least one UE coupled to a radio access network. The ambient noise mitigation server generates a cancelation signal based on ambient sound mitigation data received by the radio access network, the ambient sound mitigation data including acoustic sensor data representing an ambient sound signal. The cancelation signal is generated to comprise a phase shift with respect to the ambient sound signal computed at least in part as a function of a location of the at least one UE, and causes at least one acoustic emitter to emit an acoustic cancelation signal based on the cancelation signal. In some embodiments, the phase shift may be adjusted by controlling a latency characteristic of the low latency network slice.

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: A wireless communication system wirelessly transfers a network integration request to a distributed ledger over a communication satellite. The network integration request indicates an access node identifier, ledger credentials, and geographic location. The distributed ledger validates the ledger credentials, and in response, translates the access node identifier and the geographic location into an access node configuration. The distributed ledger transfers the access node configuration to the wireless access node over the communication satellite. Based on the access node configuration, the wireless access node wirelessly registers with a wireless communication network, wirelessly exchanges user data between User Equipment (UEs) and the wireless communication network, and hands-over some of the UEs with neighbor access nodes.

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 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 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.