Bank of America Corporation

Other

Manu Jacob Kurian

Sorin N Cismas

Paul Roscoe

Joseph Benjamin Castinado

Jayachandra Varma

Michael Robert Young

Saritha Vrittamani

Lalit Dhawan

Sasidhar Purushothaman

Gopikrishna Nemalikanti

Matthew E Carroll

Vinesh Patel

Rajesh Narayanan

Heather Roseann Dolan

Jo-Ann Taylor

Ganesh Bonda

Darrell Johnsrud

Mahesh Kumar Bhashetty

Ana Maxim

Michael Ogrinz

Victoria Lynn Dravneek

Kevin A Delson

William P Jacobson

Albena Noveva Fairchild

Tomas Mata Castrejon, Iii

Joel Richard Townsend

Christine Meloro Hill

David Nardoni

Robert N Gridley

G Alister Bazaz

Maharaj Mukherjee

George Albero

Jerzy Miernik

Crystal M Sundaramoorthy

Joseph Neil Johansen

Siten Sanghvi

David J Smiddy

Morgan Stewart Allen

Gilbert M Gatchalian

Amanda Jane Adams

Michael Young

James P Scopis

Balaji Subramanian

Elizabeth Votaw

Richard Huw Thomas

Harold Joseph Kennedy

Michael Wuehler

Thomas J Durkin

Srinivasulu Bodapati

Aeric John Solow

Michael George Horstman

Padmanabhan Iyer

David N Hillis

Jason T Findley

Ray A Edwards

Kalpesh V Patel

Harinath Meedinti Bhaskara Reddy

Alicia C Jones-McFadden

Matthew Hsieh

Suki Ramasamy

Naga Vamsi Krishna Akkapeddi

James Heddleson

Linda Haddad

Sean Michael Gutman

Pierre Jacques Bouchard

James McCormack

Abhishek Nagpal

Karl W Thomas

Dimitra J Tsagris

Jeff T Burch

Vibhuti Damania

Anamika Singhal

Dan L Dilday

William August Stahlhut

Monika Kapur

Carl Parziale

Ashish Arora

Thomas A Sodano

Srinivasa D Madireddi

Timothy Lamonte Atwell

Stephen A Corrado

Antoan Izmirliev

Shashikant Sadashiv Jadhav

Michael S Karafotis

Phillip Wade Mork

Evan Sachs

Patrick Nicholas Lawrence

Stephen Thomas Shannon

Elena Kvochko

Graham Marshall Wyllie

Christine D Black

Murali Sampath

Greg M Correro

Glenn Edward Hupfer

Eric Eugene Sifford

Kirubel Getachew

Andy Anderson

David Anthony Orr

Andrew Benjamin Glassman

Anish Abraham

Systems that aid in application development, in particular, to the use of a resource ontology system that includes an interconnected map that links resources that interact with each other, as well as the individual components of the resources. The resource ontology system further stores the authentication of the resources, including if the resources are validated for use within application development, as well as whether or not the resources meet or fail to meet other resource requirements. The resource ontology system allows a user developing an application to access resources for use in the application development, which are trusted resources, and allows the organization to aid in standardizing and optimizing the use of resources that users may use in developing applications. Furthermore, the resource ontology system allows the user to more easily access and use secondary resources that are linked with resources already used by the user for application development.

Electronic system for authenticating permissions between interconnected resources

The method may include secure data transfer to meet a compliance requirement by using quantum computing over a quantum network. A quantum computer may establish quantum entanglement between qubits, save a data set to a first set of qubits, and teleport correlated quantum states of the data set to a second set of qubits situated at a different location. Quantum error correction may lengthen the storage time of the data set on the first set of qubits before the quantum states of the first set of qubits expire due to decoherence. The quantum computer may tag the quantum states of the data set on each set of qubits to aid in identification of the locations of each set of qubits. Teleporting the data set between locations on a quantum network may lead to less energy expenditure and reduced network travel compared to transporting the data set over a binary network.

Leveraging quantum entanglement for replicating data in multiple locations and twin tagging the data

Systems and methods for a system architecture for supporting bifurcated data transmission are provided. The system architecture may include a point-of-sale ('POS') device. The system architecture may include a central server. The POS device may break up a transaction request received from a requestor into micro-data. Each micro-data may include a tiny portion of the transaction request and a header. The header may identify the transaction request and a number that identifies a location of the micro-data within the transaction request. The POS device may send the micro-data to a quantum processor for arranging the micro-data in a queue in a random order. The POS device may also compile a confirmatory data packet including data identifying the point-of-sale device and a total number of the micro-data. The confirmatory data packet and the micro-data, in the random order, may be transmitted to the central server.

Micro-data transfer using a dual transmission network

Methods, systems and apparatus for detecting, monitoring and forecasting for compromised electronic communications in an electronic communication system. Methods may include isolating, from a historical database, electronic communications associated with a plurality of senders into individual data capsules. Methods may include generating and storing a predictive analytic profile for each sender based on a communication style identified for each sender. Methods may include filtering out compromised electronic communications using a dynamic quantum filter, the dynamic quantum filter including a dynamic condition set. Filtering may include inserting a quantum signature into each incoming electronic communication. Methods may include retrieving the predictive analytic profile associated with the sender identified for each incoming electronic communication. Methods may include assigning condition values to each electronic communication based on comparing each electronic communication to a corresponding predictive analytic profile. Methods may include determining whether the assigned condition values conform with the dynamic condition set.

Monitoring, forecasting, and detecting compromised communications using quantum computing and artificial intelligence

Systems and methods may include contributing to a quantum-resistant blockchain that stores a quantum-resistant audit trail of changes to a dataset. A non-transitory computer readable medium may store instructions that are run on a computer processor to populate a block with a log of a dataset, run a quantum-resistant cryptographic algorithm to encrypt the block, distribute the block to and receive approval from blockchain nodes to add the block to the blockchain, and run the algorithm to encrypt the block onto the blockchain. The method may include repeating the steps of running the non-transitory medium on the computer processor to populate a second block with a second log of the dataset, run the algorithm to encrypt the second block, distribute the second block to and receive approval from the blockchain nodes to add the block to the blockchain, and run the algorithm to encrypt the second block onto the blockchain.

Quantum-compatible blockchain for accountability

Systems, computer program products, and methods are described herein for systems and methods for identifying and verifying software component storage locations in a network environment. The present invention is configured to identify and verify software locations in a network environment by generating a network resource component tracking database associated with a network environment, the network resource component tracking database comprising a plurality of location indicators associated with a component; generating a plurality of location requests based on the plurality of location indicators; transmitting the plurality of location requests to a plurality of locations associated with the plurality of location indicators; receiving a plurality of location responses based on the plurality of location requests; and updating the network resource component tracking database based on the plurality of location responses.

Systems and methods for identifying and verifying software component storage locations in a network environment

Systems, computer program products, and methods are described herein for the generating and tracking linked electronic digital certificates. The present invention may be configured to generate a first electronic digital certificate having first properties and being associated with a first artifact owned by a first group of users, store the first electronic digital certificate, and record first interests of the first group of users in the first electronic digital certificate. The present invention may be configured to receive a request from a second group of users to generate a second electronic digital certificate, where the request includes a subset of the first properties for generation in the second electronic digital certificate. The present invention may be configured to generate the second electronic digital certificate, record second interests of the second group of users in the second electronic digital certificate, and link the first interests and the second interests.

Electronic system for generating and tracking linked electronic digital certificates

Systems, computer program products, and methods are described herein for an intelligent processing engine for acquisition, storage, and subsequent refresh of data from a distributed network. The present invention is configured to receive, from one or more distributed computing systems, an enterprise dataset; convert the enterprise dataset to a standardized format; store the enterprise dataset in one or more storage locations based on a characteristic of the enterprise dataset; provide the one or more distributed computing systems with remote access to the one or more storage locations; monitor, via an artificial intelligence engine, usage data from the one or more distributed computing systems, wherein the usage data is associated with remote access of the one or more storage locations; generate, via the artificial intelligence engine, a use score associated with the one or more storage locations; and automatically refresh the one or more storage locations based on the use score.

Intelligent processing engine for acquisition, storage, and subsequent refresh of data from a distributed network

Embodiments of the present invention provide a system for segmenting and controlling transmission of data in computing networks. The system is configured for identifying initiation of transmission of a data file from a first storage container to a second storage container via a first network path, wherein the first network path comprises one or more network nodes, in response to identifying initiation of the transmission of the data file, generating a data tag for the data file, wherein the data tag is generated based on one or more file attributes, embedding the data tag into the data file, and allowing the transmission of the data file comprising the data tag, via the first network path and the one or more network nodes.

Systems for segmenting and controlling the transmission of data in computing networks

A system includes a memory and a processor coupled to the memory. The processor receives a first user credential associated with a first user and authorizes a first avatar of the first user to enter a virtual environment. The processor receives a first request from the first user to receive virtual data objects for at least one target entity and, in response, generates a virtual sub-environment within the virtual environment. The processor authorizes a second user to access the virtual sub-environment and receives a set of conditions from the second user relating to how a first set of virtual data objects is to be distributed to the at least one target entity. The processor receives and transfers the first set of virtual data objects to the at least one target entity based on the set of conditions.

Performing data interactions in a virtual environment

A system includes a memory and a processor coupled to the memory. The processor receives a user credential associated with a user and authorizes an avatar of the user to enter a virtual environment. The processor monitors a plurality of data interactions associated with the first user that are performed in the virtual environment, records information relating to a set of parameters that correspond to a first user profile associated with the first user and determines a first confidence indicator for the first user relating to the first user profile. The processor receives a request from a second user for the first confidence indicator, obtains the first confidence indicator and transmits the obtained first confidence indictor to a user device of the second user.

Performing secure data interactions in a virtual environment

A system is provided for resource sharing over a secure wireless network communication channel. In particular, the system may include an endpoint device equipped with wireless communication capabilities. An application installed on the endpoint device may cause the endpoint device to perform a wireless scan of a network for nearby devices that are configured to send, receive, and/or exchange resources. Each device may be associated with a unique identifier, where the unique identifier may be associated with one or more resource accounts. Upon receiving a selection of a unique identifier, the endpoint device may initiate a resource transfer to the device associated with the selected identifier. In this way, the system may provide a secure and efficient way to exchange resources over a wireless communication channel.

System for resource sharing over a secure wireless network communication channel

A system is provided for remediation of security vulnerabilities in computing devices using continuous device-level scanning and monitoring. In particular, the system may perform a deep scan of the hardware and software elements of a computing device and/or application and compile the information from the deep scan into a hardware metadata list and a software metadata list associated with the computing device and/or application. The system may then, through a machine learning-based process, continuously scan the elements within the hardware metadata list and the software metadata list to identify the elements that are not involved in the operation of the computing device and/or application. The system may flag such elements for inspection to evaluate the safety of the elements and subsequently execute one or more remediation processes in response to detecting an unsafe element.

System for remediation of security vulnerabilities in computing devices using continuous device-level scanning and monitoring

Apparatus and methods for an artificial intelligence implemented termination by an auditor artificial intelligence ('aAI') of a malicious artificial intelligence (“mAI”) are provided. The aAI may detect a mAI on a network and determine which data the mAI can access on the network. The aAI may then degrade all or part of the data in various ways to prevent the mAI from producing valid content based on the data. The aAI may also create code and inject the code into the mAI to degrade the mAI's operations. As the mAI may rely on valid data to produce valid output, degrading the data may degrade the mAI.

AI implemented AI termination

A method for determining whether an existing customer is eligible for a zero-knowledge proof ('ZKP') application is provided. The method may include determining that the existing customer possesses a private key linked to an account profile associated with the existing customer absent provision of the private key. The determining may also include executing a behavior-scan on the account profile to confirm that a score of the behavior-scan is equal to or greater than a pre-determined score. In response to the determining that the existing customer is eligible for the ZKP application, the method may include generating the ZKP application by executing an encryption algorithm on the sensitive data of the account profile to output a digital zero-knowledge token for each of the sensitive data and auto-filling each input field in the ZKP application that is associated with sensitive data with the digital zero-knowledge token.

Preventing unauthorized exposure of sensitive data

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Dallas, TX, United States of America

Manu Jacob Kurian