A communication system includes a transmitting device configured to transmit information, and a receiving device configured to receive the information, the receiving device includes a determination unit configured to determine whether or not an electronic certificate of the transmitting device used for a communication with the transmitting device is an EV certificate, and a process that is performed is varied according to a determination result of the determination unit.

The techniques herein are directed generally to a “zero-knowledge” data management network. Users are able to share verifiable proof of data and/or identity information, and businesses are able to request, consume, and act on the data—all without a data storage server or those businesses ever seeing or having access to the raw sensitive information (where server-stored data is viewable only by the intended recipients, which may even be selected after storage). In one embodiment, source data is encrypted with a source encryption key (e.g., source public key), with a rekeying key being an encrypting combination of a source decryption key (e.g., source private key) and a recipient's public key. Without being able to decrypt the data, the storage server can use the rekeying key to re-encrypt the source data with the recipient's public key, to then be decrypted only by the corresponding recipient using its private key, accordingly.

Computer-implemented methods, apparatuses, and systems for transferring a transaction using a blockchain integrated station are provided. The blockchain integrated station includes a central processing unit (CPU) and a smart network card. The smart network card is configured to receive a transaction of a blockchain network, wherein the blockchain integrated station is a blockchain node of the blockchain network, and determine other blockchain nodes in the blockchain network; and in response to determining the other blockchain nodes of the blockchain network, transfer the transaction to the other blockchain nodes of the blockchain network.

A method includes generating, via a processor, a bill of materials (BOM) representation associated with a BOM indicating at least one good and including a representation of a plurality of dependencies to qualify the at least one good for at least one of a regulatory claim, a duty benefit claim or an admissibility claim. A smart contract code for a compliance declaration smart contrast that references the BOM representation is transmitted via the processor and to a distributed ledger. A representation of the plurality of assertion token is received, via the processor, from a plurality of remote compute devices, and in response to deploying the compliance declaration smart contract. A compliance declaration token is minted, via the processor, in response to receiving the representation of a plurality of assertion tokens and based on the compliance declaration smart contract.

A communication system includes a transmitting device configured to transmit information, and a receiving device configured to receive the information, the receiving device includes a determination unit configured to determine whether or not an electronic certificate of the transmitting device used for a communication with the transmitting device is an EV certificate, and a process that is performed is varied according to a determination result of the determination unit.

A computer system includes a processor programmed to process a first web page to identify a hyperlink contained thereon. The hyperlink includes a link to a second web page. The processor performs natural language processing on the first web page to determine one or more context word tokens and on the second web page to determine a context of the second web page. The processor also applies a context relevant tag to the hyperlink to generate a tagged hyperlink. The processor maps at least one of the context word tokens to the context relevant tag applied to the hyperlink and generates a transaction score for the tagged hyperlink.

Disclosed are methods and systems for validating instruments. For instance, a request to generate a cashier's check may be received from an application executing on a drawer's computing device. Request information may be stored within a data storage entry for the check, and a code to be printed on the check may be generated to include at least a portion of the request information. Instructions may be provided to a printing system to cause the check to be printed with the code, where the printed check is invalid. Instructions may be provided to the application and/or printing system to cause display of a prompt to facilitate a reading of the code to validate the check. When information within the code is read by and received from the printing system, the check may be validated, which triggers a transfer of funds from the drawer's account. Otherwise, the check may remain invalid.

The present invention is a system and method for the purchase of a physical athletic jersey and its associated NFT and how it could be implemented in both the physical world and the Metaverse. Within the Metaverse, the consumer's avatar wears the jersey and can attend virtual social events to increase the value and price of the NFT. Once the NFT is developed, it can be sold and licensed. Within the physical world, the NFT can be shown at participating venues for the consumer to receive promotions or discounts. Along with the physical jersey and NFT is a corresponding insurance policy, which ensures that if the player associated with the jersey and NFT is traded or switches teams, the consumer can receive either a new player's jersey on the same team or the original player's jersey on the new team. The present invention generates additional revenue streams for the providers of sports apparel and collectible memorabilia, through provenance verification and NFT value augmentation, so that both sport apparel sellers and buyers may gain revenue streams apart from the simple sale of the article at POS.

A system and method for tokenization are provided. The method receives, from a token requestor, an enrolment request message requesting enrolment of a payment credential for tokenization. The method determines whether to obtain a payment token of a first or second type and obtains the payment token associated with the payment credential. When the first type of token is determined to be obtained: the method generates the first type of token using a tokenization algorithm; stores the first type of token in association with the payment credential; and, transmits the first type of token as the payment token to the token requestor. When the second type of token is determined to be obtained, the method interacts with a network tokenization service to request generation of the second type of token associated with the payment credential for transmitting the second type of token as the payment token to the token requestor.

This disclosure describes techniques that enable a security assurance network to secure entry of sensitive payment data associated with a merchant transaction. A security assurance webserver is configured to receive order context data associated with the merchant transaction, and selectively establish a secure webpage on the client workstation that overlays a presentation of a merchant webpage. The security assurance webserver may receive encrypted payment data via the secure webpage for transmission to an application server within a security assurance network, and in response, facilitate a processing of the payment data via the application server. In turn, the application server may transmit a payment message indicating whether the payment data was successfully processed.