Abstract: Systems, methods, and computer-readable media for computer-implemented authentication platforms are described herein. In an example approach, a user is enrolled in a computer-implemented authentication platform. The enrollment process includes digitally encrypting an image of a user, storing the digitally encrypted image of the user in a blockchain as part of a user profile of the user, generating (using the digitally encrypted image of the user) an identifier of the user, and storing the identifier of the user in the blockchain as part of the user profile of the user. Subsequently, the user is authenticated. The authentication process includes retrieving the digitally encrypted image of the user from the blockchain (using the identifier of the user to retrieve the digitally encrypted image of the user) and decrypting the digitally encrypted image of the user using a decryption token.

Abstract: Systems, methods, and computer-readable media for computer-implemented authentication platforms are described herein. In an example approach, a user is enrolled in a computer-implemented authentication platform. The enrollment process includes digitally encrypting an image of a user, storing the digitally encrypted image of the user in a blockchain as part of a user profile of the user, generating (using the digitally encrypted image of the user) an identifier of the user, and storing the identifier of the user in the blockchain as part of the user profile of the user. Subsequently, the user is authenticated. The authentication process includes retrieving the digitally encrypted image of the user from the blockchain (using the identifier of the user to retrieve the digitally encrypted image of the user) and decrypting the digitally encrypted image of the user using a decryption token.

Abstract: Systems, methods, and computer media for authenticating transactions, storing transaction information, communicating with users, and providing proof of transactions using text messages (e.g., text messaging on a feature phone) and a distributed ledger are described herein. A text-messaging communication session can be established between a user's mobile device and a distributed ledger. In the communication session, transaction information for a transaction associated with the user can be transmitted from the mobile device to the distributed ledger via text message. A geolocation of the mobile device can be extracted from the text message(s). The transaction information can be encrypted and stored, along with the geolocation of the mobile device, directly in the distributed ledger in association with the user. Upon receiving a request for proof of the transaction, the encrypted transaction information stored directly in the distributed ledger can be decrypted and provided and as proof of the transaction.

Abstract: Systems, methods, and computer media implementing blockchain-based identity and transaction platforms are described herein. Identity information, such as a photo, for a person can be encrypted and stored in a blockchain as part of enrolling the person as a user in a blockchain-based identity and transaction platform. Trust relationships can be formed between the user and other users, and records of the trust relationships can also be stored in the blockchain. Transactions between the user and other users with whom the user has formed a trust relationship can also be stored in the blockchain. The transactions can be authorized, for example, through a multi-stage verification process that accesses information stored on the blockchain. The transactions and identity information, along with other information, contribute to an economic identity of the person.

Abstract: An energy and steel recovery system has a suspension column and a plurality of suspension supports operably disposed therein wherein the supports are spaced from one another along the length of thereof. The suspension column includes a mechanism for receiving tires and other wastes with an energy value onto one of the supports and feeding the tires to an adjacent downwardly disposed support to further gasify the same under low oxygen to preclude combustion. The column is configured to provide for a number of zones including heating, drying, volatizing, and fixed carbon formation which are collectively referred to herein as a “fractionation process.

Abstract: An energy and steel recovery system has a suspension column and a plurality of suspension supports operably disposed therein wherein the supports are spaced from one another along the length of thereof. The suspension column includes a mechanism for receiving tires and other wastes with an energy value onto one of the supports and feeding the tires to an adjacent downwardly disposed support to further gasify the same under low oxygen to preclude combustion. The column is configured to provide for a number of zones including heating, drying, volatizing, and fixed carbon formation which are collectively referred to herein as a “fractionation process.

Abstract: An energy and steel recovery system has a suspension column and a plurality of suspension burners operably disposed therein wherein the burners are spaced from one another along the length of thereof. The suspension column includes a mechanism for receiving tires onto one of the burners and feeding the tires to an adjacent downwardly disposed burner to further combust the same. The column is configured to provide for a number of zones including heating, drying, volatizing, combusting and ashing which are collectively referred to herein as a “fractionation process.” A first conduit includes a first end communicably connected to the suspension column and a second end communicably connected to a boiler wherein air flow passes from the boiler to the suspension column. A second conduit includes a first end communicably connected to the suspension column and a second end communicably connected to the boiler wherein air flow passes from the suspension column to the return air flow path of the boiler.