6620results about "Payment circuits" patented technology

A system, method, apparatus and computer program product for providing location based functions and mobile e-commerce comprising a central processing unit including a processor, a storage device, and programming stored in the storage device, a display device, an audio input device, an audio output device, a communications module, a commerce module, an image module, and a location module. The programming controls the operation of the present invention to provide functions based on location data, to facilitate commercial exchanges by wirelessly exchanging payment and product information with venders, to identify services such as venders meeting selection criteria, to wirelessly exchange select information with other users and systems, to restrict and/or monitor the use of the device based on authorized user parameters, selecting one of a plurality networks through which to communicate, detecting a trigger for performing an action based on a change in location and sensed data, storing a voice annotation with a computer data file, determining service providers and associated communication parameters, contemporaneously maintaining a wireless voice and data link, providing a system for selecting and delivering mobile advertisements, and many other functions and services that are described herein.

Documents and other items can be delivered electronically from sender to recipient with a level of trustedness approaching or exceeding that provided by a personal document courier. A trusted electronic go-between can validate, witness and/or archive transactions while, in some cases, actively participating in or directing the transaction. Printed or imaged documents can be marked using handwritten signature images, seal images, electronic fingerprinting, watermarking, and/or steganography. Electronic commercial transactions and transmissions take place in a reliable, "trusted" virtual distribution environment that provides significant efficiency and cost savings benefits to users in addition to providing an extremely high degree of confidence and trustedness. The systems and techniques have many uses including but not limited to secure document delivery, execution of legal documents, and electronic data interchange (EDI).

A computer system is provided that communicates with a distributed blockchain computing system that includes multiple computing nodes. The exchange stores an order book and a plurality of digital wallets associated with different clients. The computer system receives new data transaction requests that are added to the order book. A match is identified between data transaction requests and hashes associated with the digital wallets associated with the respective data transaction requests are generated. The counterparties receive the hashes of the other party along with information on the match and each party causes blockchain transactions to be added to the blockchain of the blockchain computing system. The computing system then monitors the blockchain to determine if both sides of the match has been added to the blockchain.

A virtual pooled account is used in operating a system having multiple financial partners. In a specific implementation, the system is a mobile banking system. Instead of maintaining separate general ledgers for each financial institution, the system will keep one general virtual pooled account. This will reduce the settlement and operational costs of the system. The owner of the virtual pooled account will receive the float on the virtual pooled account, and this float will be distributed to the multiple financial partners according to a formula.

A method for performing secure transactions, such as credit card purchases, using two or more non-secure networks (such as the Internet and the public telephone system) in such a way that security is insured. A person wishing to initiate a secure transaction sends a message over one of the non-secure networks to a computer. That computer automatically uses the second non-secure network to contact the person back to verify the transaction. The call-back mechanism employs a method to authenticate the identity or authority of the person initiating the transaction. No single wire-tapping or network snooping device sees the entire transaction. No single database contains the entire set of information.

The present invention consists of a secure interactive electronic account statement delivery system suitable for use over open networks such as the Internet. The invention utilizes a certification hierarchy to insure that electronic bills, invoices, and other account statements can be securely sent over open networks. The participants in the system are a certification authority, certificated banks, billers, and customers. The certification authority grants digital certificates to the certificated banks, which in turn grant digital certificates to billers and customers. Digital certificates form the basis for encryption and authentication of network communications, using public and private keys. The certificates associate a customer and biller with a certificated bank and with the electronic billing system, much like payment cards associate a customer with a payment card issuer and a particular payment card system. Digital signatures are used for authentication and non-repudiation. The certificates may be stored as digital data on storage media of a customer's or biller's computer system, or may be contained in integrated circuit or chip cards physically issued to billers and customers. The electronic bill itself may be a simple text message containing the equivalent of summary information for the bill, or may be more elaborate. In one embodiment of the invention, the electronic bill contains a number of embedded links, for example an embedded URL of a biller's world wide web server that allows the customer to interactively bring up detailed billing information by activating the link. The e-mail message may also include links to third party websites.

Systems and methods are configured to manage data sets associated with a transaction device. For example, a method is provided for facilitating the management of distinct data sets on a transaction device that are provided by distinct data set owners, wherein the distinct data sets may include differing formats. The method includes the steps of: adding, by a read/write, a first data set to the financial transaction device, wherein the first data set is owned by a first owner; adding, by the read/write device, a second data set to the financial transaction device, wherein the second data set is owned by a second owner; and storing the first data set and the second data set on the financial transaction device in accordance with an owner defined format. The first and second data sets are associated with first and second owners, respectively, and are configured to be stored independent of each other The transaction device user may be permitted to select at least one of the multiple data sets for transaction completion using a secondary identifier indicia. Where the user selects multiple accounts for transaction completion, the user may be permitted to allocate portions of a transaction to the selected transaction accounts. The transaction request may be processed in accordance with the user's allocations.

A cryptographic encoded, ticket issuing and collection system for real-time purchase of tickets by purchasers at remote user stations in an information network that includes a plurality of remote user stations coupled to a server in an information network, e.g., the Internet, for purchase of services, products, or tickets to an event. An operator of the remote user station selects a ticket for purchase to an event using standard protocols of information network. An electronic ticket is transmitted to the operator and includes a cypher code created using a public key cryptography system. The operator displays the electronic ticket for verification purposes and proceeds to print out the ticket at the station. The ticket is presented to a ticket collector whereupon the ticket is scanned by a portable terminal for decoding the cypher code using a public key reloaded into the terminal by the producers of the event. The decoded cypher code is compared against the event description stored in the portable terminal and if equal, the ticket is accepted for admission to the event. The ticket information is stored in the portable terminal and subsequently uploaded to the information system to check for duplicate tickets.

A system and method for spending loyalty points over a computerized network to facilitate a loyalty point transaction is disclosed. The system enables a participant of a loyalty program to accept an advance of loyalty point when a loyalty account balance is insufficient to make a desired purchase. An amount of loyalty points available as an advance to a participant is determined based on a number of criteria related to the participant, financial account activity, and loyalty account activity. The participant is allotted a predetermined length of time to earn or purchase enough loyalty points to repay the balance of advanced loyalty points. If, at the conclusion of such predetermined length of time, sufficient points have not been earned to offset the loyalty point advance, the participant is charged the currency value of each outstanding loyalty point. The participant may be assessed interest charges and/or fees at the time of the loyalty point advance, during reimbursement, or at the end of a time period for reimbursement.

A system and method of dynamically issuing credit card numbers and processing transactions using those credit card numbers is disclosed. A method according to the invention includes digitally recognizing a transaction opportunity on the Internet in real-time, recognizing the terms of the transaction, linking a dynamic digital credit card issuing apparatus directly into a qualified credit card issuing host, generating a partially random digital credit card number, logging the transaction, checking the terms of the transaction for acceptance, passing the dynamically issued digital credit card number to the merchant, processing the digital credit card number through the merchant's card processing system, receiving the transaction approval request, participating in credit card validity checking systems, processing the approval request in real-time, sending the requesting party a legitimate authorization code, and retiring the digital credit card number immediately upon transaction approval or disapproval. A system according to the invention implements the method of the invention.

In a digital payment system, a sequence of random numbers is stored at a payment service. A set of digitally encoded random numbers derived from the stored sequence is issued to the user in return for payment. The tokens are stored in a Carnet. The user can then spend the tokens by transferring tokens to a merchant, for example, to an on-line service provider. The merchant returns each token received to the payment server. The payment server authenticates the token and transmits an authentication message to the merchant. The merchant, payment server and user may be linked by internet connections.

A dynamic credit card is provided in which a secure credit card number (e.g., a secret/hidden credit card number) is encoded based on a timing signal (e.g., an internal counter) to provide a dynamic credit card number. This dynamic number may be displayed to a user via a display (e.g., so that online purchases can be made) or written onto a magnetic stripe such that the number may be processed by traditional credit card merchants (e.g., swiped). At a remote facility, the dynamic number may be decoded based on time (and/or a counter/key number/equation) or the facility may have the secure number and perform the same function as the dynamic credit card (e.g., encode using time data as a parameter to the encoding equation) and compare the resultant dynamic number to the dynamic number received. Thus, a dynamic credit card number may change continually or periodically (e.g., every sixty seconds) such that credit card numbers may not be copied by thieves and used at later times. A dynamic verification code may be utilized in addition to, or in lieu of, a dynamic credit card number.

A method is provided for protecting a payment instrument in non-face-to-face transactions. The payment instrument is issued by an issuing entity and associated with an authorized instrument holder. The authorized instrument holder is subject to authentication by a trusted third party with whom the payment instrument holder has previously registered. The method includes: the authorized instrument holder communicating with the issuing entity to block, on a default basis, authorization of the payment instrument for non-face-to-face transactions unless authorized to unblock the payment instrument by the trusted third party; prior to a non-face-to-face transaction, the authorized instrument holder communicating with the trusted third party to subject him or herself to authentication and to request that the payment instrument be unblocked; and the trusted third party authenticating the authorized instrument holder, and if the authentication result is positive, communicating with the issuing entity to request unblocking of the payment instrument.

An apparatus and method for transferring money or value, using a wide range of interfaces to initiate a transfer and a wide range of options for receiving the transfer, including receiving the transferred sum directly to the communication device/account of the receiver. The receiver can use the transferred sum as an airtime credit, to obtain cash or to pay for other goods or services.

A user is provided with a secure database containing information in diverse categories that relates to the user and that may be represented at least in part in bar code form and communicated with light from a mobile communications device. The diverse information is obtained from any combination of a variety of vendor and governmental computer systems, internet service providers, and communications devices. The user has access to the database using a mobile communications device for displaying, managing, and entering information, and for communicating information in bar code form with light. The user first selects the category that contains the specific item of information, and then selects the specific item of information. The specific item of information then is communicated in bar code form with light from the mobile communications device for scanning by a bar code scanner to obtain the desired good or service.

A surrogate system for the transparent control of electronic commerce transactions is provided through which an individual without a credit card is enabled to shop at online merchant sites. Upon opening an account within the surrogate system, the account can be funded using numerous fund sources, for example credit cards, checking accounts, money orders, gift certificates, incentive codes, online currency, coupons, and stored value cards. A user with a funded account can shop at numerous merchant web sites through the surrogate system. When merchandise is selected for purchase, a purchase transaction is executed in which a credit card belonging to the surrogate system is temporarily or permanently assigned to the user. The credit card, once loaded with funds from the user's corresponding funded account, is used to complete the purchase transaction. The surrogate system provides controls that include monitoring the data streams and, in response, controlling the information flow between the user and the merchant sites.

Counterfeit financial card fraud is detected based on the premise that the fraudulent activity will reflect itself in clustered groups of suspicious transactions. A system for detecting financial card fraud uses a computer database comprising financial card transaction data reported from a plurality of financial institutions. The transactions are scored by assigning weights to individual transactions to identify suspicious transactions. The geographic region where the transactions took place as well as the time of the transactions are recorded. An event building process then identifies cards involved in suspicious transactions in a same geographic region during a common time period to determine clustered groups of suspicious activity suggesting an organized counterfeit card operation which would otherwise be impossible for the individual financial institutions to detect.

A system loads, authenticates and uses a virtual smart card for payment of goods and/or services purchased on-line over the Internet. An online purchase and load (OPAL) server includes a virtual smart card data base that has a record of information for each smart card that it represents for a user at the behest of an issuer. The server includes a smart card emulator that emulates a smart card by using the card data base and a hardware security module. The emulator interacts with a pseudo card reader module in the server that imitates a physical card reader. The server also includes a client code module that interacts with the pseudo card reader and a remote payment or load server. A pass-through client terminal presents a user interface and passes information between the OPAL server and a merchant server, and between the OPAL server and a bank server. The Internet provides the routing functionality between the client terminal and the various servers. A merchant advertises goods on a web site. A user uses the client terminal to purchase goods and/or services from the remote merchant server. The payment server processes, confirms and replies to the merchant server. The payment server is also used to authenticate the holder of a virtual card who wishes to redeem loyalty points from a merchant. To load value, the client terminal requests a load from a user account at the bank server. The load server processes, confirms and replies to the bank server.