Abstract: Aspects of the disclosure relate to intelligently aggregating data using a convolutional network quantum processor. Using an artificial intelligence model, a computing platform may identify dependencies derived from a consumer request and corresponding values. For each configuration of dependency and corresponding value, the computing platform may determine a likelihood of success. The computing platform may alter the configurations and may determine a likelihood of success for each altered configuration. The computing platform may train a convolutional network to analyze the consumer request using the configurations, the altered configurations, and/or corresponding likelihoods of success. The convolutional network may generate a function that describes the dependencies derived from the consumer request. Using a quantum processing model, the computing platform may analyze different states of the function in parallel and may determine whether to approve or deny the consumer request based on the analysis.

Abstract: An electronic transaction verification system comprising a client subsystem, a merchant subsystem, and a transaction verification subsystem. The transaction verification subsystem receives a quantum payment serial number from the client subsystem and performs entangled quantum encryption on the received quantum payment serial number to generate an entangled quantum payment serial number. The verification subsystem encrypts the entangled quantum payment serial number and transmits the encrypted entangled quantum payment serial number to the merchant subsystem. The transaction verification subsystem also transmits the entangled quantum payment serial number to the client subsystem.

Abstract: Quantum-level cryptography of delegated digital signatures. By implementing quantum-level computing principles, delegate signatures are provided that are unclonable, unforgeable and can not be repudiate. Specifically, at least four quantum particles are entangled, with one particle assigned to each of a third-party verification entity, a signature delegate, a delegatory signature authorizer entity and a signature requester entity. In addition, Bell State measurements (BSMs) are performed at the signature delegate, the delegatory signature authorizer entity and the third-party verification entity to allow the original signer (i.e., the signature delegator) to securely delegate signature to a signature delegate and perform an event, such as a payment process or the like.

Abstract: Quantum-level cryptography of delegated digital signatures. By implementing quantum-level computing principles, delegate signatures are provided that are unclonable, unforgeable and can not be repudiate. Specifically, at least four quantum particles are entangled, with one particle assigned to each of a third-party verification entity, a signature delegate, a delegatory signature authorizer entity and a signature requester entity. In addition, Bell State measurements (BSMs) are performed at the signature delegate, the delegatory signature authorizer entity and the third-party verification entity to allow the original signer (i.e., the signature delegator) to securely delegate signature to a signature delegate and perform an event, such as a payment process or the like.

Abstract: An electronic transaction verification system comprising a client subsystem, a merchant subsystem, and a transaction verification subsystem. The transaction verification subsystem receives a quantum payment serial number from the client subsystem and performs entangled quantum encryption on the received quantum payment serial number to generate an entangled quantum payment serial number. The verification subsystem encrypts the entangled quantum payment serial number and transmits the encrypted entangled quantum payment serial number to the merchant subsystem. The transaction verification subsystem also transmits the entangled quantum payment serial number to the client subsystem.