International Business Machines Corporation

Arm Limited

Gary Dale Carpenter

David Brian Glasco

Kevin John Nowka

Mark Edward Dean

Hung Cai Ngo

Alan J Drake

Jente Benedict Kuang

David William Boerstler

Fadi Hikmat Gebara

Juan C Rubio

Wael R El-Essawy

Alexandre Peixoto Ferreira

Richard Nicholas Iachetta, Jr

Michael Alan Schappert

Liang-Teck Pang

Thomas Walter Keller

Renee Marie St Amant

Andrew Neil Sloss

Eren Kursun

Michael Stephen Floyd

Christopher Neal Hinds

Brian Tracy Cline

Juan-Antonio Carballo

Ivan Vo

Jerry C Kao

Peter James Samuel Ferguson

Hannah Marie Peeler

Charles Ray Johns

Karthick Rajamani

Edmund Juris Sprogis

Bernard Charles Drerup

Russell Dean Hoover

Phillip John Restle

Michael Jay Shapiro

Thuong Quang Truong

Vikas Chandra

David John Krolak

Scott Douglas Clark

Thomas W Keller, Jr

Bishop Chapman Brock

Robert Matthew Senger

Rachel Gordin

Seung-Moon Yoo

Howard Carl Tanner

Jeffrey L Burns

Daniel Paul Beaman

Prasanna Srinivasan

Yoanna Baumgartner

Wendel Glenn Voigt

Irenéus Johannes De Jong

Binh Thai Hoang

Vasileios Laganakos

John Peyton Bannister

Pradip Bose

James Stephen Fields, Jr

Freeman Leigh Rawson, Iii

James Edward Myers

Brian L Ji

Harry William Printz

Parameshwarappa Anand Kumar Savanth

Cuong T Nguyen

Brian E D Kingsbury

Manuel Joseph Alvarez, Ii

Marc Raymond Faucher

Norman Karl James

Richard B Brown

Pranay Prabhat

John Jeffrey Stephenson

Chandler Todd McDowell

Ronald Lynn Rockhold

Francis H Chan

Stefanie Ruth Chiras

Liangzhen Lai

Fernando Garcia Redondo

Michael R Scheuermann

Eugene Francis Plutowski

Robert Edward Jansen

Ramyanshu Datta

Richard Siegmund, Jr

Gary Yuh Tsao

Hongfei Wu

Tung Nguyen Pham

Harmander Singh Deogun

Anna Elman

Marvin L Buller

Kai Cheng

James C Peterson

Martin B Lundberg

Robbie Rex Powell

Jin Chin Wang

Jeffrey Holland Gruger

Eric William MacDonald

Wonyoung Kim

Philippe Louis deBacker

Keith Andre Braithwaite

Amanda Christine Caswell

Timothy Joe Rubidoux

Prashant Manikal

Subject matter disclosed herein may relate to systems, devices, and/or processes for processing signals and/or states representative of behavioral content in a computing device.

Systems, devices, and/or processes for behavioral content processing

Subject matter disclosed herein may relate a communication interface to read from and/or to write to one or more entries of a bio-ledger and/or a biosphere ledger of a particular individual stored at a secure storage device and at least one processor to generate signals and/or states representative of behavioral profile content for a particular user based, at least in part, on signals and/or states obtained from one or more sensors, wherein the at least one processor to identify or predict, or a combination thereof, a change in omic state for the particular individual based at least in part on the one or more bio-ledger entries, the behavioral profile content, or the one or more biosphere ledger entries, or a combination thereof.

Systems, devices, and/or processes for OMIC and/or behavioral content processing

Subject matter disclosed herein may relate to wireless energy harvesting devices and may relate more particularly to system-on-a-chip testing for wireless energy harvesting devices.

System-on-a-chip testing for energy harvesting devices

Briefly, example methods, apparatuses, and/or articles of manufacture are disclosed that may be implemented, in whole or in part, using one or more computing devices to facilitate and/or support one or more operations and/or techniques for creating and/or enhancing hardware obscurity via one or more randomization points, such as implemented in connection with one or more computing and/or communication networks and/or protocols.

Creating and/or enhancing hardware obscurity via randomization points

Briefly, example methods, apparatuses, and/or articles of manufacture are disclosed that may be implemented, in whole or in part, using one or more computing devices to facilitate and/or support one or more operations and/or techniques for an autonomous pseudo-random seed generator (APRSG) for embedded computing devices, which may include IoT-type devices, such as implemented in connection with one or more computing and/or communication networks and/or protocols.

Autonomous pseudo-random seed generator for computing devices

A computer-implemented method includes generating, using a scene generator, first candidate scene data; obtaining reference scene data corresponding to a predetermined reference scene; processing the first candidate scene data and the reference scene data, using a scene discriminator, to generate first discrimination data for estimating whether each of the first candidate scene data and the reference scene data corresponds to a predetermined reference scene; updating a set of parameter values for the scene discriminator using the first discrimination data; generating, using the scene generator, second candidate scene data; processing the second candidate scene data, using the scene discriminator with the updated set of parameter values for the scene discriminator, to generate second discrimination data for estimating whether the second candidate scene data corresponds to a predetermined reference scene; and updating a set of parameter values for the scene generator using the second discrimination data.

Method and system for data generation

The present disclosure relates generally to Internet of Things (IoT)-type devices and, more particularly, to infrastructure for validating updates via a network of IoT-type devices.

Infrastructure for validating updates via a network of IoT-type devices

Briefly, example methods, apparatuses, and/or articles of manufacture are disclosed that may be implemented, in whole or in part, using one or more computing devices to facilitate and/or support one or more operations and/or techniques for autonomous verification of circuit design for IoT-type devices, which may include, for example, IoT-type devices operating in resource constrained or like environments.

Autonomous verification of circuit design for computing devices

Subject matter disclosed herein may relate to at least one processor to establish a communication connection between a portable computing device and a particular external device, the at least one processor to initiate transmission of one or more signal packets representative of one or more communication, security, and/or cryptographic parameters to the particular external device responsive at least in part to the establishing the communication connection.

Systems, devices, and/or processes for OMIC content processing and/or communication

Subject matter disclosed herein may relate to at least one processor to selectively authorize requests from one or more external devices to read from and/or write to particular bio-ledger entries and/or particular biosphere ledger entries based, at least in part, on security tokens provided by the one or more external devices and based, at least in part, on first and/or second sets of particular authorizations.

Systems, devices, and/or processes for omic content processing and/or partitioning

Various implementations described herein are directed to a memory device. The memory device includes a first interleaving circuit that receives data words and generates a first error correction code based on the received data words. The memory device includes a second interleaving circuit that receives the data words and generates a second error correction code based on the received data words as a complement to the first error correction code. The second interleaving circuit interleaves data bits from multiple different data words and stores modified data words based on the multiple different data words.

Logical interleaver

A wire management method using a wire manager including current sensing features provides input for power measurement and management systems. The wire manager may be a single wire or single bundle retaining device with a current sensor such as a hall effect sensor integrated therein, or may be a multi-wire management housing with multiple current sensing devices disposed inside for measuring the current through multiple wires. The wires may be multiple branch circuits in a power distribution panel or raceway, and the wire manager may be adapted for mounting in such a panel or raceway. Voltage sensing may also be incorporated within the sensors by providing an electrically conductive plate, wire or other element that capacitively couples to the corresponding wire.

Wire management method with current and voltage sensing

A wire manager including current sensing features provides input for power measurement and management systems. The wire manager may be a single wire or single bundle retaining device with a current sensor such as a hall effect sensor integrated therein, or may be a multi-wire management housing with multiple current sensing devices disposed inside for measuring the current through multiple wires. The wires may be multiple branch circuits in a power distribution panel or raceway, and the wire manager may be adapted for mounting in such a panel or raceway. Voltage sensing may also be incorporated within the sensors by providing an electrically conductive plate, wire or other element that capacitively couples to the corresponding wire.

Wire manager with current and voltage sensing

A method of measurement using a detachable current and voltage sensor provides an isolated and convenient technique for to measuring current passing through a conductor such as an AC branch circuit wire, as well as providing an indication of an electrostatic potential on the wire, which can be used to indicate the phase of the voltage on the wire, and optionally a magnitude of the voltage. The device includes a housing that contains the current and voltage sensors, which may be a ferrite cylinder with a hall effect sensor disposed in a gap along the circumference to measure current, or alternative a winding provided through the cylinder along its axis and a capacitive plate or wire disposed adjacent to, or within, the ferrite cylinder to provide the indication of the voltage.

Non-contact current and voltage sensing method using a clamshell housing and a ferrite cylinder

A detachable current and voltage sensor provides an isolated and convenient device to measure current passing through a conductor such as an AC branch circuit wire, as well as providing an indication of an electrostatic potential on the wire, which can be used to indicate the phase of the voltage on the wire, and optionally a magnitude of the voltage. The device includes a housing formed from two portions that mechanically close around the wire and that contain the current and voltage sensors. The current sensor is a ferrite cylinder formed from at least three portions that form the cylinder when the sensor is closed around the wire with a hall effect sensor disposed in a gap between two of the ferrite portions along the circumference to measure current. A capacitive plate or wire is disposed adjacent to, or within, the ferrite cylinder to provide the indication of the voltage.

Non-contact current and voltage sensor having detachable housing incorporating multiple ferrite cylinder portions

Growing community of inventors

Austin, TX, United States of America

Gary Dale Carpenter