Abstract: A system includes a processor of an ID verification node and a memory of a decentralized digital identifier for communication (DsTC) module on which are stored machine-readable instructions that when executed by the processor, cause the processor of the ID verification node to: receive a verifiable credential associated with a user, wherein the verifiable credential is uploaded by a sender; apply artificial intelligence (AI)/machine learning (ML) to scan biometric image data to verify the sender of the verifiable credential corresponds with the user associated with the verifiable credential; verify the authenticity of the verifiable credential with an issuer of the verifiable credential; in response to verifying that the verifiable credential is authentic, generate an intermediate representation to create a secure true digital ID corresponding to the user; and provide role based access for the user based on the secure true digital ID.

Abstract: A system includes a processor of an ID verification node connected to at least one web server node over a network and a memory on which are stored machine-readable instructions that when executed by the processor, cause the processor of the ID verification node connected to at least one node over a network; a memory on which are stored machine-readable instructions that when executed by the processor, cause the processor to: acquire verifiable ID scan image data of all users within a country of residence; receive users' profile data; generate encrypted user profile attributes comprising DNA; execute a transaction to store the encrypted user profiles on a ledger along with corresponding access policies; and generate an intermediate representation for each user based on the verifiable ID scan image data and the encrypted user profile attributes.

Abstract: Disclosed herein are systems and methods that integrate distributed ledger (or blockchain) capabilities in a highly distributed computing environment, such as mobile, Internet of Things (IoT). A platform allows for such integration, supporting blockchain-enabled transactions between IoT and mobile devices. Particularly, the platform is a Distributed Ledger System for e-Transactions (DLSeT). The DLSeT platform includes various blockchain features, such as computing, distributed ledgers (storage), cryptocurrency, and cryptography (homomorphic encryption). Furthermore, the DLSeT platform utilizes a Lattice Face Secret Key Infrastructure (LFSKI) feature that is distinct to the platform. By employing LFSKI, the DLSeT platform realizes advantages over blockchain platforms using n public key infrastructure (PKI), being able to execute secure, efficient, and decentralized e-transactions.

Abstract: The present disclosure provides an industrial internet encryption system for an internet of things (IoT) environment. The present disclosure provides an apparatus, a system, and a method for providing an industrial internet encryption system comprising: accessing an application module; initiating registration with the application module; completing registration with the application module by providing profile attributes; locally encrypting registration profile attributes; authenticating into a networked environment using encrypted registration information; and maintaining registration information for one or more devices.

Abstract: Encryption of communications includes receiving plain text from a computing device and encrypting the plain text with knight's tour encryption. The knight's tour encryption includes generating a knight's tour table based upon a starting position, generating a cipher template by mapping Unicode characters of a standard state table to the knight's tour table, and mapping the plain text to indices of a first cipher template. The knight's tour encryption further includes generating a silent password, mapping the silent password to indices of a second cipher template, and adding the password indices of the first cipher template to the silent password indices of the second cipher template resulting in cipher indices. The knight's tour encryption further includes mapping the cipher indices to the first cipher template, and generating a cipher text string from the Unicode characters associated with the cipher indices mapped to the first cipher template.

Abstract: The present disclosure provides an industrial internet encryption system for an internet of things (IoT) environment. The present disclosure provides an apparatus, a system, and a method for providing an industrial internet encryption system comprising: accessing an application module; initiating registration with the application module; completing registration with the application module by providing profile attributes; locally encrypting registration profile attributes; authenticating into a networked environment using encrypted registration information; and maintaining registration information for one or more devices.

Abstract: The solutions of open knight's tours identified in the Galois's Field (Gf) are used to encrypt any volume of data. The solution meaning all moves of the Knight's Tour which continues to link the next active node bringing about a Knight's Tour Solution within any specified scope of GF elements. A Knight which is a piece on the standard chess board moves 2 squares up or down and 1 square sideways or vice-versa: These moves alone validate an open Knight's tour. We noticed that the numbers derived from the solution of the Knight's tours are cryptographically secure. The permutation of filling up 4*8 grid or squares with any 26 input have upper bounds in the order 1039—with repetition of any 6 inputs. Relatively, the arrangements of known 128 inputs (ASCII) in 8*16 grid or squares present increased upper bounds. The embodiment uses the Knight's Tour Solutions to create a cipher.