International Business Machines Corporation

Globalfoundries Inc.

Lenovo (singapore) Pte. Ltd.

Marc Henri Coq

Richard John Fishbune

Eric B Swenson

Mark Edmund Maresh

William J Green

Sharon Terese Spaulding

Michael D O'Connell

Luis Angel Bathen

Sandra C Thompson

Milnes P David

Wiren Dale Becker

Ryan Elsasser

Akil Khamisi Sutton

Syed F Hossain

Randhir Singh Malik

Noah B Singer

Eric Kevin Butler

Rahul Nair

Colette Manoni

Alice-Maria Marascu

Cedric D Cook

Trent Balta

Collin Walling

Bjorn J Ahbel

Eugene E Nitka

Sarbajit Kumar Rakshit

Jagabondhu Hazra

Manikandan Padmanaban

Luis Angel D Bathen

Corey McQuay

Dulce Beatriz Ponceleon

Dustin W Demetriou

Samuel R Connor

Christine Axnix

Kelly Malone

Hubert Harrer

Cecil Charles Dishman

Steven John Ahladas

Richard Burton Finch

Gerald Stanquist

Robert M Abrams

Jason Hirst

Chu T Chung

Chanchal Saha

Joey Allen Perry

Yakup Bulur

Brian C Tucker

Chien Hsing Lin

Frank M Desiano

Martin Rehm

Kanayo Okonji

Jeffrey Willoughby

Brian Walter Stocker

Terrence A Quinn

Daren Simmons

Rohan A Jones

Michel H Joseph

Paul S Wiggins

Enver Candan

Desmond Fitzpatrick

Ronald D Critelli

Francis G Cascio

Mark T Sinclair

Regina D Jones

Katharina Scharff

Wendell P Ramsey

Anthony G Gorey

Don Eric Kallberg

Steven Sullivan

Eugene Sale

Luis Manon

A method for detecting information breach in a computer system. The method comprises: detecting a radio frequency signal in an area of the computer system. A set of samples of the radio frequency signal may be input to a machine learning model. An output of the machine learning model may be received. The output indicates whether the detected radio frequency signal is anomalous. An alarm signal may be generated in case the detected radio frequency signal is predicted as an anomalous signal.

Detecting information breach in a computer system

A computer-implemented method for validating ownership of a digital asset is disclosed. The computer-implemented method includes transmitting a public key for encrypting a digital asset to an owner of the digital asset responsive to receiving a request for the public key. The computer-implemented method further includes receiving from the owner of the digital asset, an encrypted digital asset and a first liveness hash, wherein the digital asset is encrypted using the public key, and the first liveness hash is generated based, at least in part, on the digital asset in an unencrypted form and a first nonce. The computer-implemented method further includes determining whether the first liveness hash is valid. The computer-implemented method further includes generating in response to determining that the first liveness hash is valid, a digital asset record, wherein the digital asset record includes the encrypted digital asset and the first liveness hash.

Method to validate ownership and authentication of a digital asset

Migration of smart contracts across blockchain ledgers is described herein. Different decentralized ledgers are first cross-compiled. A verifiable smart contract is employed that will adhere to the rules of the ledger being targeted from the decentralized ledgers, and each of the smart contracts can be modeled as a state machine. Each of the smart contracts can be verified for correctness. At least one smart contracts that completes the verification process is installed across the different decentralized ledgers. At least one smart contract is approved with a verification process for confirming equivalency to deploy across the decentralized ledgers. The smart contracts are deployed across the decentralized ledgers.

Nomadic smart contracts migrated across blockchain ledgers

A signal-analysis-based process for detecting and correcting power feeds is provided. The process includes obtaining voltage waveform data for power feeds connected to a system, and determining for the power feeds, using the obtained voltage waveform data, at least one respective signal characteristic. Further, the process includes comparing the respective signal characteristics of the power feeds to ascertain at least one signal characteristic difference between the power feeds. Based on the at least one signal characteristic difference not exceeding at least one respective difference limit, the process determines that the power feeds are not separately-sourced redundant power feeds connected to the system, and based on determining that the power feeds are not separately-sourced redundant power feeds, the process initiates a corrective action to ensure that the system is connected to separately-sourced redundant power feeds.

Facilitating separately-sourced redundant power feeds to a system

A method can include obtaining device data for a set of electronic devices. The device data can indicate power utilized by the set of electronic devices. The method can include obtaining a capacity of a backup power source. The method can include obtaining priority data regarding an allocation of power to the set of electronic devices. The method can include obtaining a set of environmental conditions. The method can include calculating, based at least in part on the set of environmental conditions and the device data, a projected electrical load on the backup power source. The method can include determining that one or more thresholds are exceeded. The determining can comprise identifying that the projected electrical load exceeds the capacity. The method can include modifying, in response to the determining and according to the priority data, power supplied to the set of electronic devices from the backup power source.

Backup power allocation management

Described is a method for managing a trackable solar panel assembly and a variable reflective surface. The method can receive solar farm characteristics and location characteristics for the solar farm. The method can also receive solar panel assembly characteristics for a solar panel assembly and variable reflective surface characteristics for a variable reflective surface. The method can optimize control parameters for the solar panel assembly and the variable reflective surface, based on the solar farm characteristics, the location characteristics, the solar panel assembly characteristics, and the variable reflective surface characteristics. The method can adjust the variable reflective surface based on the control parameters.

Variable reflective surface and solar panel configuration

Techniques are disclosed, using one or more computers. for bidding on digital advertising space associated with media content on a digital platform. Popularity is determined of a plurality of electronic communication and associated clips on a digital platform. A clip is detected which meets a threshold for approaching an activity level of user activity indicating the popularity of the clip. The clip meeting the threshold is labeled as a non-fungible token (NFT) indicating available digital advertising space associated with the clip. In response to the labeling of the clip, monetary bidding is received, based on the NFT by entities buying digital advertising space for digital advertising content associated with the NFT.

Electronic marketplace for digital advertising space

Described are systems for electronic heatsink safety including a system comprising a thermoelectric generator integrated into a heatsink, where the thermoelectric generator includes a first portion exposed to ambient temperature and a second portion contacting the heatsink, and where the thermoelectric generator is configured to produce a current based on a temperature difference between the first portion and the second portion. The system further comprises a first Light Emitting Diode (LED) electrically connected to the thermoelectric generator, where the current is configured to activate the first LED.

Temperature indicator powered by thermoelectric generator

A variable solar panel assembly includes a conventional solar panel, a mirror panel, and a transparent solar panel. The variable solar panel assembly is configured to reflect, by the mirror panel, light passing through the transparent solar panel towards the conventional solar panel. A method for managing an angle between the mirror panel and the conventional solar panel includes determining a position of a light source relative to a position of the variable solar panel assembly and adjusting the mirror panel to reflect light from the light source towards the conventional solar panel of the variable solar panel assembly.

Variable solar panel assembly

Embodiments of the present invention manage a state of charge of a rechargeable battery for extended storage by determining a manual override for a storage protocol is not activate for a rechargeable battery associated with a battery charger and an electronic device. Receiving battery data, environment data, and historical data for the rechargeable battery associated with a battery charger. Embodiments of the present invention determine to activate the storage protocol for the rechargeable battery based on the battery data, the environment data, and the historical data and discharge the rechargeable battery to a preset state of charge level based on the storage protocol.

Battery state of charge management for storage

A node in a blockchain network may send an operation for geometrically fractionalizing an non-fungible token (NFT) into geometric shards to a blockchain network. The geometric fractionalization associates each geometric shard with a specific part of the NFT. The node may also record, on distributed ledger of the blockchain network, the fractionalization of the NFT and the association between each geometric shard with the specific part of the NFT.

Creating non-fungible token shards

A method for managing a battery to perform a final action, the method includes determining a battery supplying power to an electronic device is discharging and receiving battery specification information for the battery. The method includes receiving environmental condition information for the battery and determining an open circuit voltage for the battery. The method includes determining a base capacity for the battery, a first capacity reduction for the battery based on the battery specification, and a second capacity reduction for the battery based on the environmental condition information. The method includes determining an overall expected capacity for the battery based on the first capacity reduction and the second capacity reduction, where the overall expected capacity represents available energy. Responsive to determining the available energy for the battery is less than a required energy to perform an action prior to battery depletion, the method includes sending a warning notification.

Battery management for performing a final action

A processor may identify that a computing device is below a power threshold. The processor may generate a charge request. The charge request may include metrics associated with a requested power exchange. The processor may send the charge request to a decentralized exchange. The decentralized exchange may include the computing device and at least two other devices. The processor may receive respective charging proposals from the at least two other devices. The processor may select one of the respective charging proposals.

Decentralized green-energy ecosystem

Embodiments for automatic extraction of a compliance profile for an organization by a processor. Text data may be extracted from one or more data sources representing one or more objects describing a compliance named entity of type organization expected to perform an obligation. A compliance profile of type organization may be determined for the compliance named entity of type organization according to the extracted text data.

Extraction of a compliance profile for an organization

A method comprises an active discharge manager, integrated with a smart cable, detecting a connection of the smart cable to a battery and/or a discharge-load and detecting a connection coupling the battery and the discharge-load. Responsive to the detecting the connections, the active discharge manager determines a transfer status of the battery and the discharge-load. Based on the transfer status, the active discharge manager initiates a discharge process that transfers energy from the battery to the discharge-load. The active discharge-manager can determine a second transfer status of the battery and the discharge-load and, based on the second transfer status, terminate or modify the discharge process. The smart cable can be re-usable, and the discharge-load can make productive use of the energy transferred to the discharge-load. A system can comprise a battery, a discharge-load, and a smart cable to perform the method to discharge the battery into the discharge-load.

Smart discharge of a battery

Growing community of inventors

Hopewell Junction, NY, United States of America

Marc Henri Coq