Sprint Communications Comapny L.p.

T-mobile Innovations LLC

Sprint Spectrum L.p.

T-mobile Usa, Inc.

T-mobile Lnnovations LLC

T-mobite Innovations LLC

Sprint Communications L.p.

Lyle W Paczkowski

Ronald R Marquardt

Arun Rajagopal

William Michael Parsel

Marouane Balmakhtar

Matthew Carl Schlesener

Carl Joseph Persson

Lyle Thomas Bertz

Mark Richard Bales

George Jason Schnellbacher

Galip Murat Karabulut

Pallavur Ananthakrishnan Sankaranaraynan

Tracy Lee Nelson

Ivo Rook

Michael David Svoren, Jr

Warren Bruce Cope

Brian Douglas Mauer

Farni B Weaver

Kenneth Ray Steele

Clinton Harry Loman

Stephen James Bye

Kevin R Cordes

David Hufker

Peter Paul Dawson

Robert L Spanel

Jeffrey F Phillips

Stevan A Klesper

Harry W Perlow

Amar Nath Ray

Robin Dale Katzer

Walter Fred Rausch

Nicolas A Nehme Antoun

Laurent Alexandre Laporte

James Patrick Sisul

Oliver Philippe Coudert

Brian Kuntz

Christopher Callender

Von Karl McConnell

Arun Santharam

Trevor Daniel Shipley

Robert Keith Butler

Charles Woodson

Ahsan Habib

Joao Carlos Osorio Gouvea Teixeira De Magalhaes

Bharatwajan Raman

Stephen P O'Neal

Timothy Kevin McGinnis

Ray N Durkin

Ada Nelly Pitocco

Zachary Kenneth McLain

Leo Michael McRoberts

Brian D Mantel

Jeremy Richard Breau

Manish Mangal

Robert E Urbanek

David Edward Rondeau

Roger Danforth Bartlett

Nishi Kant

Geoffrey Martin

Charles Brent Hirschman

Douglas Ray Green

Robert C Pippert

Samuel M Woleben

Billy Gene McCracken, Jr

Daniel Joe Sershen

Sean Alan Isaacson

Charles Daniel Todd

James Victor Ralston

Mark A Moore

Dorene G Weiland

Pei Hou

Brent Matthew Johnston

Kimberly J Ganote

Thomas Golden

Craig A Lee

Alberto Lorente

Clint H Loman

Ahmad Arash Obaidi

John Eric Belser

Wen Xue

Serge M Manning

Mark R Moore

Talat Jamshidi

Bejoy Pankajakshan

Douglas Alan Olding

Timothy Hugh Pearson

Dale Scott Schempp

Christopher J Bierbaum

Mohammed Ghouse Mohiuddin

Manoj Monga

Philip Martin Kunkel

Daesik Oh

Jay Dean Bluhm

Clyde Heppner

Alfred Richard Balakier

Ryan Sullivan

Bob Pippert

Ivan Sheon Fenwick

Joao “Tex” Teixeira

Joao C Teixeira De Magalhaes

Techniques related to the management of communication devices using a combination of local and centralized blockchains to enable the detection of state changes that deviate from the expected behaviors are disclosed. In one example aspect, a method for detecting code injection activity in communication devices by a machine learning based platform includes determining, by a verification system, baseline information about a communication device; detecting a state change of the communication device, responsive to the state change of the communication device; appending, by the verification system, a current-state block representing the state change to a prior-state block representing a previous state of the communication device in a blockchain; and detecting whether a suspicious attack has occurred by comparing the payload of the current-state block to the baseline information.

Code injection prevention for communication devices

Synchronization of precision timing signals maintained by multiple communication networks is described. A precision timing signal may be generated based on the change in state of a plurality of processors. Synchronization of the precision timing signals may be facilitated by a computing device monitoring at least two communication networks. The computing device may generate time offsets that are derived from the precision timing signals associated with each communication network. The time offsets may be communicated by the computing devices to remote devices communicatively coupled to the computing device via a first communication network.

Network generated precision time

Methods and systems are provided for assigning one or more Virtual Network Function (VNF) instances, or slices, to devices, and for monitoring each change of state associated with the slices. Embodiments include applying an Advanced Security Control (ASC) protocol to verify devices for each request for access to a slice, to establish a zero trust measurement with respect to a network, such as a 5G network. In embodiments, a blockchain is associated with each slice and stored in a distributed ledger, for example to allow rapid access to network slice and device information if a slice will be re-instantiated.

Systems and methods for implementing a zero trust model in connection with 5G networks

A method for partitioning media content across different network slices in a network is comprises receiving, by a device from a server via a first network slice, a first ledger and a first partition of objects. The first ledger comprises data describing the first partition of objects and parameters for rendering the first partition of objects, and the first network slice is a first logical portion of the network associated with network elements configured to forward traffic according to a first quality of service network performance criteria. The method further comprises rendering, by a rendering application of the device, the first partition of objects based on the first ledger.

Methods and systems for partitioning media content across different network slices in a network

A Network Exposure Function (NEF) charges a user for a wireless data service. The NEF exposes a service charge for the wireless data service to the user. The NEF receives a user request for the wireless data service at the service charge. The NEF directs a wireless communication network to deliver the wireless data service to the user in response to the user request. The NEF receives network data from the wireless communication network that indicates a delivery of the wireless data service to the user. The NEF exposes service data to the user in response to the network data. The service data characterizes the delivery of the wireless data service and indicates the service charge.

User charging over an exposure function in a wireless communication network

A collector ambient electromagnetic power harvesting (AEPH) device for collecting and forwarding data is disclosed. The device includes an antenna, an AEPH circuit converting RF energy from the antenna into electrical power, and a memory and a controller powered by the AEPH circuit. The controller receives in a first RF signal information from a reporter AEPH device, including data and the reporter ID. The controller stores the data in the memory with an association to the reporter ID. The controller receives in a second RF signal an interrogation signal. In response, the controller transmits a response via the antenna including the reporter ID and data in the memory associated with the reporter ID. The interrogation signal may be received and the response transmitted in a first RF band and/or communication protocol, and the information may be received in a second RF band and/or communication protocol.

Ambient electromagnetic power harvesting device for collecting and forwarding data

Object tracking using sensors that harvest energy from radio frequency (RF) signals described. The sensor may harvest energy from signals absorbed by a metalized layer of a sensor. The energy may energize a microcontroller and facilitate the broadcast of another RF signal. Additionally, the capture and communication of broadcasted RF signals is described.

Systems and methods of power harvesting for an embedded antenna

Systems and methods for immutable archiving of UE connection data for wireless communications networks are provided. In one embodiment, a method comprises: detecting when a UE has initiated access to a network operator core through a radio access network; determining whether a witness data collection service is to be activated for the UE; when the witness data collection service is to be activated: activating the wireless data collection service for a UE monitoring session; initiating transmission of a UE monitoring session block sequence from the UE to the network operator core, wherein the session block sequence comprises blocks each comprising collected witness data characterizing a connection between the UE and the network operator core during the UE monitoring session; determining when the UE monitoring session is complete; closing the session block sequence to form a ledger archive and storing the ledger archive to an immutable witness data archive.

Systems and methods for immutable archiving of user equipment connection data for wireless communications networks

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.

Radio exposure function for telecommunications networks

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. The wireless communication system delivers the wireless data service to the wireless communication device based on the retrieved data set.

Wireless data service using content-addressing

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.

Smart contract filtration in a wireless communication system

A first wireless network slice executes a first slice input and generates a first slice output. The first slice transfers the first slice output to a second wireless network slice. The second slice receives and authorizes the first slice output and transfers a first acknowledgement to the first slice. The first slice receives the first acknowledgement and responsively uses the first slice output to deliver a data communication service. The second slice executes a second slice input and generates a second slice output. The second slice transfers the second slice output to the first slice. The first slice receives and authorizes the second slice output and transfers a second acknowledgement to the second slice. The second slice receives the second acknowledgement and responsively uses the second slice output to deliver the data communication service.

Synchronized wireless network slicing

A method for implementing a slice security zone (SSZ) in a 5G network. The method comprises storing by an SSZ function executing on a first network server an SSZ security profile of the SSZ in a secure storage function, receiving by the SSZ function from a slice management function a slice registration request comprising information relating to a slice security profile of a slice managed by the slice management function, if the slice security profile complies with the SSZ security profile, storing by the SSZ function a slice registration association between the slice and the SSZ in the secure storage function, and sending by the SSZ function to the slice management function a slice registration response comprising information relating to whether the slice was registered in the SSZ.

5G hyperledger slice security framework

In a wireless communication network, an Application Function (AF) exposes an Application Programming Interface (API) for User Equipment (UE) information, and in response, receives API calls from an external data system. The AF transfers API responses to the external data system. The AF transfers API usage data to distributed ledger circuitry. The distributed ledger circuitry stores the API usage data in data blocks that form a blockchain. The distributed ledger circuitry terminates the blockchain, and in response, transfers a terminating data block for delivery to a network data system. The network data system generates an API charge based on the AF API usage data in the terminating data block.

Wireless communication network service using an application programming interface (API) and distributed ledger

A mobile communication device. The device comprises a processor, a non-transitory memory, a cellular radio transceiver, and an in-kind payment client application stored in the non-transitory memory. When executed by the processor, the client application initiates an in-kind payment from a first wireless communication service account that is associated with the mobile communication device to a second wireless communication service account associated with a second mobile communication device, sends a verification request message to the second mobile communication device, receives an in-kind payment verification response message from the second mobile communication device, where the response message comprises an indication of a location of the second mobile communication device and an indication of completion of an in-kind payment to the second wireless communication service account, and analyzes the indication of location of the second mobile communication device and the indication of completion of the in-kind payment.

Mobile communication device in-kind payment verification

Growing community of inventors

Mission Hills, KS, United States of America

Lyle W Paczkowski