Capital One Services, LLC

Lesley Newton

Lea Cody

Colin Hart

Kaitlin J Newman

Emily Smith

Ryan Cuppernull

Laith Hallaq

Patrick Zearfoss

Casey Barrett

Katherine H McHugh

Michael Bakr Mossoba

Timur Sherif

Clayton Johnson

Samuel Edwards

Anoop Gopi

Christina Song

Scroll-based automatic field completion is disclosed. A page displayed by a web browser can be monitored for empty fields as the page is scrolled. Automatic fill or completion of the empty field can be triggered in response to a request to scroll down based on the location of the empty field on the page. Automatic completion can involve determining a type of data associated with the field and retrieving user data of the type from a data store. A machine learning model can also be invoked to predict a user's preference for multiple completion options. Further, automatic refill of a completed field with different information can be initiated in response to a scroll up and the location of the field on the page.

Scroll-based automatic field completion

Display screen with animated graphical user interface for card communication

Display screen with an animated graphical user interface

Methods and systems are described herein for a transfer authorization system that may monitor for transfer requests for secondary cryptographic addresses maintained for one or more primary cryptographic addresses. When a transfer request is received, the transfer authorization system may determine that the transfer request is for a secondary cryptographic address. Based on that determination, the transfer authorization system may determine that the source cryptographic address of the request is authorized to receive control of cryptographic tokens from the secondary cryptographic address and that the request is associated with the source cryptographic address. The transfer authorization system may then transfer control of one or more cryptographic tokens from an associated primary cryptographic address to the secondary cryptographic address, and upon the successful transfer, may also transfer control of the one or more tokens to the requestor.

Using secondary blockchain addresses to prevent malicious transfers

Systems, methods, and computer-accessible mediums for user verification through the interaction of a short-range transceiver, such as a contactless card, with a client device are presented. User verification may be provided in the context of reading two types of data from the short-range transceiver, such as a contactless card, using a client device, sending the data to a server, obtaining identifiers from each data type and comparing with stored user identifier data. Matching stored user identifier data to two forms of identification data obtained from a short-range transceiver, such as a contactless card, provides an enhanced ability to verify that the short-range transceiver is being used by an authorized user.

Systems and methods for user verification via short-range transceiver

Various embodiments are directed to securely verifying an identity of a user who is requesting to add or link a financial instrument to a third-party digital wallet using one-tap contactless card authentication. The financial instrument may be added or linked to the third-party wallet in at least two scenarios: pull provisioning and push provisioning. In either provisioning scenarios, the user may be required to authenticate the financial instrument being added or linked by successfully verifying the identity of the user via the one-tap contactless card authentication at a banking application associated with the financial instrument.

Authentication for third party digital wallet provisioning

Display screen or portion thereof with animated graphical user interface for card communication

Display screen with graphical user interface for card communication

Growing community of inventors

Richmond, VA, United States of America

Lesley Newton