Sprint Communications Comapny L.p.

Sprint Spectrum L.p.

T-mobile Innovations LLC

Clearwire IP Holdings L.l.c.

Microsoft Technology Licensing, LLC

Lyle Thomas Bertz

Lyle W Paczkowski

Frederick Carl Rogers

Mark Richard Bales

Robert Keith Butler

Jeremy Richard Breau

Badri Prasad Subramanyan

Charles Brent Hirschman

Ayodeji Abidogun

Galip Murat Karabulut

Daniel Joe Sershen

Piyush X Upadhyay

Yaojun Sun

Christopher Joseph Mateski

Tracy Lee Nelson

William James Routt

James Walter Norris

Brian David Waters

Jason Delker

Ronald R Marquardt

John Eric Belser

John W Davis

Laurent Alexandre Laporte

Robert H Burcham

Stephen James Bye

Ihab Amin Guirguis

Salvador Cerda

Harry W Perlow

John Michael Everson

Trevor Daniel Shipley

Roger Danforth Bartlett

Joao Teixeira

Ronald E Lewis

Mark Alan Lipford

Chuma Ubakaeze Agogbua

Von Karl McConnell

Brian Douglas Mauer

Arun Santharam

Usman Muhammad Naim

Christopher R Melus

Marouane Balmakhtar

Robin Dale Katzer

Manish Mangal

Cesar Perez

Woo Jae Lee

Woojae Lee

Amirali Emami

Christian Erik Seagren

Craig Allen Sparks

William Alexander James

Arun Rajagopal

Pallavur Ananthakrishnan Sankaranaraynan

William Michael Parsel

Serge M Manning

Wei-Ming Lan

Ryan Patrick Dreiling

Chidambaram Pavanasam

Jarrod Allen Nichols

Gene S Mitchell

Jason Salge

Jason D Cole

Jing Gu

Pei Hou

Jeffrey J Klaumann

Ahmad Arash Obaidi

Carl Joseph Persson

Sanjay Kumar Sharma

Farni B Weaver

Brandon Christopher Annan

Jason Kent Whitney

Baoquan Zhang

Piyush Jethwa

Sei Yen Ng

John J Humbert

Debashis Haldar

Jagannath Ghoshal

Charles Woodson

Eric Eugene Miller

David Wayne Haney

Daniel Stewart Broyles

George Cummings

Joao Carlos Osorio Gouvea Teixeira De Magalhaes

Matthew Barrow

Jeff H Bryan

C Brent Hirschman

Fred C Rogers

Jesse Money

Michael Scott Probasco

Russell Spaid McGuire

Lars J Hacking

David N Alberico

Daren R Furness

Joao C Teixeira De Magalhaes

Joao “Tex” Teixeira

Mujahid R Khan

Badri P Subramanyah

David A Schmuck

Dan Sershen

Saveeta Pillai

Elizabeth P Grimbergen

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

A wireless communication system transfers signaling messages between a wireless access node and a wireless user device. The wireless access node and the wireless user device wirelessly exchange user data with one another. The wireless communication system establishes a node signaling link with the wireless access node. The wireless communication system establishes a user signaling link with the wireless user device. The wireless communication system receives a signaling message from the wireless access node over the node signaling link and transfers the signaling message to the wireless user device over the user signaling link. The wireless communication system receives another signaling message from the wireless user device over the user signaling link and transfers the other signaling message to the wireless access node over the node signaling link.

User equipment (UE) control by a non-third generation partnership project (non-3GPP) access node using 3GPP signaling

A communication network receives inbound device context for an inbound wireless communication device from a source network. The communication network detects when the inbound wireless communication device attaches to a target Non Third Generation Partnership Project (non-3GPP) access node, and in response, retrieves the inbound device context for the inbound wireless communication device. The communication network transfers network signaling to serve the inbound wireless communication device over the target non-3GPP access node based on the inbound device context. The communication network determines outbound device context for an outbound wireless communication device for a data session over a source non-3GPP access node. The communication network detects when the outbound wireless communication device detaches from the source non-3GPP access node to handover to a target network, and in response, transfers the outbound device context for the outbound wireless communication device to the target network.

Wireless communication handovers for non-Third Generation Partnership Project (non-3GPP) access nodes

Systems and methods for ambient electromagnetic power harvesting (AEPH) chip reader-writer devices are provided that selectively control RF parameters of electro-magnetic (EM) signals transmitted to an AEPH chip. In embodiments, the selection of which RF parameter configuration is applied when transmitting an EM signal is determined by an RF parameter selection processor based on the function being invoked from the AEPH chip. In one embodiment, an AEPH chip reader-writer selects a first configuration of radio frequency (RF) parameters from a plurality of RF parameters based on a determination of a first operation for execution by an ambient electromagnetic power harvesting chip; configures an RF transmit path circuit to use the first configuration of RF parameters; and initiates execution of the first operation in the ambient electromagnetic power harvesting chip by transmitting via the RF transmit path circuit a first electromagnetic signal using the first configuration of RF parameters.

Systems and methods for an ambient electromagnetic power harvesting chip reader-writer apparatus

A method of controlling assignment and management of identities in ambient electromagnetic power harvesting (AEPH) chips. The method comprises allocating a plurality of unique AEPH identities by an AEPH management application executing on a computer system, receiving a plurality of requests by the AEPH management application to update a state associated in a blockchain with the unique AEPH identity identified in each request; determining by the AEPH management application that the blockchain is to be terminated; adding by the AEPH management application a terminal block to the blockchain; receiving a request by the AEPH management application to update a state associated with a unique AEPH identity in the blockchain; and sending a request rejection by the AEPH management application to the affiliated device that sent the request to update the state associated with the unique AEPH identity in the blockchain after the terminal block was added to the blockchain.

System and method of controlling lifecycles of ambient electromagnetic power harvesting chips

A system for controlling assignment and management of identities in ambient electromagnetic power harvesting (AEPH) chips. The system comprises a processor; a non-transitory memory; and an application stored in the non-transitory memory that, when executed by the processor, allocates a plurality of unique AEPH identities, wherein each unique identity comprises an identity of a product item and an instance identity; stores the plurality of unique AEPH identities in a first immutable record in a datastore, wherein the unique AEPH identities are associated with an initial state; provides the plurality of unique AEPH identities to an original equipment manufacturer of AEPH chips; provides an application programming interface (API); authorizes a request to update a state associated with a first unique AEPH identity in the datastore; and adds a second immutable record to the database that associates the first unique AEPH identity with an updated state of the first unique AEPH identity.

System and method of controlling unique identities of ambient electromagnetic power harvesting chips

A Service Communication Proxy (SCP) serves network topology data. The SCP comprises communication circuitry and Application Programming Interface (API) circuitry. The communication circuitry receives Network Function (NF) messages from sending NFs for delivery to an NF type. The communication circuitry routes the NF messages to receiving NFs of the NF type. The communication circuitry maintains network topology data responsive to the routing of the NF messages from the sending NFs to the receiving NFs. The API circuitry receives an API call for the network topology data. The API circuitry retrieves the network topology data from the communication circuitry. The API circuitry transfers an API response having the network topology data.

Service communication proxy (SCP) that serves network topology data

A wireless communication network serves a wireless user device using N1 signaling. The wireless communication network establishes active N1 signaling links with the wireless user device and exchanges active N1 signaling with the wireless user device over the active N1 signaling links. The wireless communication network converts one of the active N1 signaling links for the wireless user device into an inactive N1 signaling link and exchanges inactive N1 signaling with the wireless user device to maintain the inactive N1 signaling link. The wireless communication network converts the inactive N1 signaling link for the wireless user device back into the one of the active N1 signaling links without performing a new registration for the wireless user device. The wireless communication network exchanges additional active N1 signaling with the wireless user device over the active N1 signaling links.

Wireless communication service delivery to user equipment (UE) using an access and mobility management function (AMF)

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.

Systems and methods for performing high speed interactions with electromagnetic power harvesting chips

A wireless communication system serves user functions to a wireless user device. The wireless communication system serves selects the user functions for the wireless user device. The wireless communication system selects User Plane Functions (UPFs) to serve the selected user functions. The wireless communication system selects data routes between the selected UPFs. At least one of the selected UPFs receives user data for the wireless user device. At least some of the selected UPFs route the user data among the selected UPFs based on the selected data routes. The selected UPFs serve the selected user functions to the user data for the wireless user device. At least one of the selected UPFs transfers at least some of user data to one or more external data systems. The user functions may comprise deep packet inspection, network border security, low-latency data transfer, high-throughput data transfer, data cryptography, and/or another data service.

Wireless communication network to serve a user equipment (UE) over a user plane function group (UPFG)

A wireless communication system tracks an item that wirelessly transfers a Fifth Generation Identifier (5GID) and a Global Trade Item Number (GTIN). Transceivers wirelessly detect the 5GID and the GTIN and transfer messages indicating the 5GID and the GTIN to a ledger gateway. The ledger gateway receives the messages and selects a distributed application in a distributed ledger node based on the 5GID and/or the GTIN. The ledger gateway proposes an item-tracking transaction with the 5GID and the GTIN to the selected distributed application in the distributed ledger node. The distributed ledger node and distributed application execute the proposed item-tracking transaction with the 5GID and the GTIN to generate an item-tracking result and store the item-tracking result in a blockchain format.

Item tracking with a wireless communication system based on a fifth generation identifier (5GID) and a global tracking item number (GTIN)

In a wireless communication network, a wireless network controller authenticates a wireless receiver and transfers receiver instructions and Application Programming Interfaces (APIs) for wireless network slices to the wireless receiver. An item wirelessly transmits a network identifier (ID) and a product ID. The wireless receiver wirelessly detects the network ID and the product ID from the item at a geographic location. The receiver selects an API for a wireless network slice based on the receiver instructions and the network ID. The receiver transfers an API call to the wireless network slice. The wireless network slice selects a distributed Application (dAPP) based on the network ID, the product ID, and/or the geographic location for the item. The wireless network slice transfers the network ID, the product ID, and the geographic location for the item to selected dAPP.

Wireless communication service for items that wirelessly transmit product identifiers and network identifiers

A wireless communication network serves User Equipment (UEs) over a Third Generation Partnership Project (3GPP) Network Exposure Function (NEF). The wireless communication network comprises a non-3GPP Interworking Function (IWF) and the 3GPP NEF. The non-3GPP IWF receives NEF Application Programming Interface (API) calls that have UE data from the UEs over non-3GPP access nodes. The non-3GPP IWF transfers the NEF API calls that have the UE data to the 3GPP NEF. The 3GPP NEF receives the NEF API calls that have the UE data from the non-3GPP IWF. The 3GPP NEF exposes the UE data to an Application Functions (AF) in response to the NEF API calls.

User equipment (UE) service over a network exposure function (NEF) in a wireless communication network

A method for creating a link between hyperledger blocks by a block link server. The method comprises receiving by a block link server executing on a computer system a first link creation message from a first network element, the first link creation message comprising first block information comprising a first hyperledger identifier and a first block identifier, both associated with a first hyperledger, receiving by the block link server a second link creation message, comprising second block information comprising a second hyperledger identifier and a second block identifier, both associated with a second hyperledger, storing by the block link server a link data structure comprising the first block information and the second block information, and sending by the block link server a link identifier of the link data structure to the first network element.

Method of building and searching a multi-dimensional cross-linked distributed ledger

Growing community of inventors

Lee's Summit, MO, United States of America

Lyle Thomas Bertz