Verizon Patent and Licensing Inc.

Cellco Partnership

Brian Matthew White

Ning Zhang

Rachel YuYin Ward

Ye Huang

Sankar Shanmugam

Carl Wang

Ramanathan Subramaniam

Wujun Qie

Gayathri Chandrasekaran

Prema Kumar Yendrapati

Jin Yang

Kristen Sydney Young

Carlos A Cazanas

John F Gallagher

Andrew F Patka

Petri Virkkula

Sivagnanalingam Sivaganesh

Taral Patel

Ying Sun

Martin A Iroff

Gulay Kurt Chrzanowski

Joe Varghese

Jangam Deenaraj Joshi

Khamis I Abulgubein

Victor Marzarella

A method may include storing, at a network device, a user device identifier associated with a user device that has subscribed to access an edge service, an edge service identifier associated with the edge service, and an edge device identifier associated with an edge device at an edge network to provide the edge service; receiving, at the network device, a request to access the edge service, wherein the request includes the user device identifier and the edge service identifier; performing, by the network device, a lookup to determine the edge device identifier; and transmitting, by the network device and to the user device, the edge device identifier for accessing the edge service at the edge device.

Systems and methods for device traffic steering using edge DNS mediation service (EDMS)

A device may include a memory storing instructions and processor configured to execute the instructions to maintain an Internet of Things (IoT) device database that stores, for an IoT device in the IoT device database, an application server device list that includes one or more application server devices that are to be notified when the IoT device is determined to be in an awake state. The processor may be further configured to receive a first indication from a first application server device that the IoT device is in an awake state; access the IoT device database to identify a second application server device associated with the IoT device; and send a second indication to the second application server device that the IoT device is in the awake state based on the received first indication from the first application server device.

Internet of things device connectivity real time notification

A device associated with a network may provide a subscription request that requests data associated with the network and user equipment connected to the network. The device may receive, based on the subscription request, network congestion data associated with the network, reachability data associated with the user equipment, and location data associated with the user equipment. The device may determine a group of the user equipment based on the network congestion data, the reachability data, and the location data. The device may determine timing for providing firmware to the group based on capabilities of the user equipment in the group. The device may provide segments of the firmware to the network to cause the network to provide the segments of the firmware to the group based on the timing for providing the firmware to the group.

Systems and methods for providing firmware over-the-air delivery to internet of things user equipment

An application, executed by a User Equipment ('UE'), may receive an identifier, which may be used to monitor Key Performance Indicators ('KPIs') associated with the UE. Such KPIs may be monitored in conjunction with execution of the application, such as at times that the application sends and/or receives traffic. The KPIs may be associated with sensor data, resources, and/or other features or functionality of the UE. The UE may obtain an identifier associated with the application and/or the UE from a KPI monitoring system of some embodiments, may obtain user consent to monitor and/or report KPIs associated with the application, and may provide such KPIs to the KPI monitoring system in conjunction with the identifier. The KPI monitoring system may generate aggregated KPI information, associated with the application, based on the KPIs received from the UE and/or KPIs received from one or more other sources.

Systems and methods for device-anonymous performance monitoring in a wireless network

A multi-access edge computing (MEC) platform may receive an indication that a user device has downloaded a MEC application client associated with a MEC application and may send, to the user device, instructions to install a device client. The device client may transmit device information associated with the user device to the MEC platform. The MEC platform may receive the device information associated with the user device and determine, based on the received device information, performance information associated with the MEC application.

Multi-access edge computing low latency information services

Systems and methods described herein provide for generating behavior profiles for a plurality of end devices associated with an end user; receiving, from the end user, a request for an over-the-air (OTA) update for the plurality of end devices; generating an OTA update campaign plan based on the behavior profiles responsive to the request; providing the OTA update campaign plan to the end user; receiving, from the end user, a modified request for the OTA update; and generating an OTA update campaign schedule responsive to the modified request.

Systems and methods for IoT device lifecycle management

An exemplary security virtualization system implemented by a multi-access edge compute ('MEC') server identifies a security policy for a device that is separate from and communicatively coupled to the MEC server. The security virtualization system intercepts data transmitted to the device from an application server, and applies a security service to the intercepted data in accordance with the security policy identified for the device. Subsequent to the applying of the security service, the security virtualization system delivers, to the device by way of a secure connection between the security virtualization system and the device, sanitized data that corresponds to the intercepted data and has been sanitized by way of the security service. Corresponding methods and systems are also disclosed.

Methods and devices for virtualizing device security using a multi-access server that is separate from a device

An exemplary client virtualization system implemented by a multi-access server receives a service request from an Internet of Things ('IoT') device that is separate from and communicatively coupled to the multi-access server. In response to the service request, the client virtualization system instantiates a virtualized device management client configured to serve the IoT device and that is hosted on the multi-access server. The client virtualization system receives a device management message that is for the IoT device and that is from a centralized device management server. The client virtualization system then delivers the device management message to the IoT device. Corresponding methods and systems are also disclosed.

Methods and devices for virtualizing a device management client in a multi-access server separate from a device

A system may receive a request to schedule a wireless update for one or more user devices. The system may schedule transmission of the wireless update to the one or more user devices based on profiles associated with the one or more user devices and network load information associated with base stations associated with the one or more user devices. The profiles associated with the one or more user devices include, for each user device, a location history associated with the user device. The system may transmit the wireless update to the one or more user devices based on the scheduled transmission. The system may further schedule installation of the wireless update on the one or more user devices based on the profiles associated with the one or more user devices and send, to the one or more user devices, an indication to install the wireless update based on the scheduled installation.

Dynamic firmware over-the-air system for IoT devices

Systems and methods relating to obtaining group criteria for mobile devices to be associated with a user-specified group; determining that a first mobile device satisfies the group criteria; obtaining a release time for the group in connection with a first software update; determining that availability of the first software update should not be indicated prior to the release time to the first mobile device based on the determination that the first mobile device satisfies the group criteria; and indicating, at a first time, to the first mobile device that the first software update is available based on the first time occurring during or after the release time.

Enterprise software/firmware management and distribution

Systems and methods for remote diagnostics are disclosed. In some implementations, a request for a device diagnostic session is provided from a mobile device to a diagnostic server. In response to the request, a messaging service message from the diagnostic server may be received at the mobile device. The messaging service message may include an authentication token. Upon receipt of the messaging service message including the authentication token, a diagnostic client resident at the mobile device may be initialized. Upon authenticating the authentication token included in the received messaging service message, a secure connection for the device diagnostic session may be established between the diagnostic server and the initialized diagnostic client. Diagnostic commands may be received at the diagnostic client from the diagnostic server via the established secure connection. The diagnostic commands may cause the diagnostic server to retrieve device diagnostics of the mobile device.

Remote diagnostics for mobile devices

Systems and methods for a notification triggered device management session are described. A request for a device management session for a mobile station is received at a device management server. In response to determining that the mobile station is not connected to a cellular network, a home subscriber server is signaled to update a user equipment profile for the mobile station to indicate that the mobile station has a pending device management session. Upon connection of the mobile station to a first network, the mobile station is signaled to connect to the device management server for the device management session using a call session control function. The mobile station is connected with the device management server using the first network. The device management session is run using the first network connection between the mobile station and the device management server.

Notification triggered device management session

An exemplary system that includes a computing device that stores an abstraction and unification module, the abstraction and unification module being executable by a processor of the computing device to receive from a frontend component a request for information located within a backend component of the computing device and validate that the frontend component is authorized to receive the information specified in the request. The abstraction and unification module may further pass the request to an abstraction engine that extracts the information from the backend component and provides the information extracted from the backend component to frontend component.

Device and method for providing information from a backend component to a frontend component by a secure device management abstraction and unification module

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Port Murray, NJ, United States of America

Brian Matthew White