Abstract: A system provides intelligent gallery management for biometrics. A first gallery is obtained that includes biometric and/or other information on a population of people. An application is identified. A subset of the population of people is identified based on the application. A second gallery is derived from the first gallery by pulling the information for the subset of the population of people without pulling the information for the population of people not in the subset. Biometric identification (such as facial recognition) for the application may then be performed using the second gallery rather than the first gallery. In this way, the system is improved as less time is required for biometric identification, fewer device resources are used, and so on.

Abstract: A method, controller, and non-transitory computer-readable medium of a distributed crypto-ledger network, including receiving an instruction to perform an operation between a first user and a second user, the first user corresponding to a first entity that is a member of the distributed crypto-ledger network, the instruction comprising a destination address corresponding to the second user, querying a top-level name registry with the destination address to determine a second entity associated with the destination address, the second entity being a different member of the crypto-ledger network, and executing the operation between the first user and the second user by transmitting execution instructions to the first entity and the second entity, the execution instructions causing a first entity controller to modify data stored on a first distributed crypto-ledger of the first entity, and causing a second entity controller to modify data stored on the second distributed crypto-ledger of the second entity.

Abstract: Systems and/or methods of the present disclosure enable ledger interoperability using a controller to perform an operation between a first user and a second user on separate entity-specific distributed ledgers, where the separate entity-specific distributed ledgers are both operatively linked to a membered common distributed ledger. The controller burns a first quantity of first entity-specific tokens from the first entity-specific distributed ledger and mints a second quantity of the common tokens on the membered common distributed ledger, where the first quantity of first entity-specific tokens and the second quantity of the common tokens represent an equivalency. The controller moves the second quantity of common tokens from a first encrypted storage to a second encrypted storage of the membered common distributed ledger, burns the second quantity of the common tokens and mints a third quantity of the second entity-specific tokens on the second entity-specific distributed ledger to complete the operation.

Abstract: In biometric ticketing, physical token-less ticketing system using biometrics, a person may be identified using a digital representation of a biometric. Ticketing information may be ascertained based on the identification. The ticketing information may be provided, actions may be performed using the ticketing information, and so on. In some implementations, a checkpoint device receives biometric data from a person. A digital representation of the biometric data is used to obtain an identifier from an identification system. The digital representation of the biometric data may not be included in the identifier. The identifier is used by to obtain ticketing information from a ticketing system. The person may be allowed or denied entry into a ticketed area based on the ticketing information.

Abstract: A controller, method, and computer-readable medium for uninterrupted transmission processing and continuous net transmission among a plurality of clients of the distributed ledger, including receiving instructions to perform transmissions, each transmission having parameters for transfer of a first quantity of first entity-specific tokens corresponding to a first entity to a second quantity of second entity-specific tokens corresponding to a second entity that is a client of the distributed ledger network, writing one or more transmissions in the plurality of transmissions to one or more new blocks on a transmission blockchain of the distributed ledger network, each new block storing at least one transmission in the one or more transmissions, and initiating a net transmission process between a plurality of entities that are clients of the distributed ledger network, the net transmission process corresponding to the one or more transmissions written to the one or more new blocks.

Abstract: A system having at least one processor of a distributed common entity platform, wherein the at least one processor is configured to perform steps to receive a transfer instruction associated with a transfer of a quantity of an asset from a sending entity platform to a receiving entity platform; execute a transfer manager self-executing programming object (SEPO) in response to a first function identifier to execute transfer management operations on a distributed ledger, managed by the distributed common entity platform; wherein the transfer management operations comprise executing an address SEPO in response to a second function identifier of a second instruction to execute address verification operations on the distributed ledger; minting at least one token in a sending wallet associated with the sending wallet address, wherein the at least one token comprises a tokenized version of the quantity of the asset based at least in part on the asset identifier and the quantity value, and transferring the at least o

Abstract: The disclosed systems and methods provide non-native functionality to a distributed network for distributed ledger token verification and event permissioning. The disclosed technology receives a transfer event request from a first node associated with a first token storage, where the transfer event request corresponds to movement of a requested token amount that is associated with at least one token. In response, the transfer event request is inserted into a pending transfer log that is configured to queue pending transfer event requests. A determination is made regarding a first permission based on the currently queued pending transfer event requests, and as a result, the transfer event request is transmitted to the distributed network based on the first permission, where such transfer causes the requested movement of the requested token amount.

Abstract: The disclosed systems and methods provide non-native functionality to a distributed network for events management on a blockchain via locking queued distributed network tokens. The disclosed technology receives a transfer event request from a first node associated with a first token storage, where the transfer event request corresponds to movement of a requested token amount that is associated with at least one token. A pending transfer event log that queues pending transfer event requests is accessed and modified by adding the transfer event request to the queue of pending transfer event requests. This causes the at least one token associated with the transfer event request to be locked, thereby preventing its association with other transfer events. The transfer event request is then transmitted to the distributed network, whereby the distributed network executes the movement of the at least one token.

Abstract: A method, controller, and non-transitory computer-readable medium of a distributed crypto-ledger network, including receiving an instruction to perform an operation between a first user and a second user, the first user corresponding to a first entity that is a member of the distributed crypto-ledger network, the instruction comprising a destination address corresponding to the second user, querying a top-level name registry with the destination address to determine a second entity associated with the destination address, the second entity being a different member of the crypto-ledger network, and executing the operation between the first user and the second user by transmitting execution instructions to the first entity and the second entity, the execution instructions causing a first entity controller to modify data stored on a first distributed crypto-ledger of the first entity, and causing a second entity controller to modify data stored on the second distributed crypto-ledger of the second entity.

Abstract: In biometric ticketing, physical token-less ticketing system using biometrics, a person may be identified using a digital representation of a biometric. Ticketing information may be ascertained based on the identification. The ticketing information may be provided, actions may be performed using the ticketing information, and so on. In some implementations, a checkpoint device receives biometric data from a person. A digital representation of the biometric data is used to obtain an identifier from an identification system. The digital representation of the biometric data may not be included in the identifier. The identifier is used by to obtain ticketing information from a ticketing system. The person may be allowed or denied entry into a ticketed area based on the ticketing information.

Abstract: Systems and/or methods of the present disclosure enable ledger interoperability using a controller to perform an operation between a first user and a second user on separate entity-specific distributed ledgers, where the separate entity-specific distributed ledgers are both operatively linked to a membered common distributed ledger. The controller burns a first quantity of first entity-specific tokens from the first entity-specific distributed ledger and mints a second quantity of the common tokens on the membered common distributed ledger, where the first quantity of first entity-specific tokens and the second quantity of the common tokens represent an equivalency. The controller moves the second quantity of common tokens from a first encrypted storage to a second encrypted storage of the membered common distributed ledger, burns the second quantity of the common tokens and mints a third quantity of the second entity-specific tokens on the second entity-specific distributed ledger to complete the operation.

Abstract: Computer-based systems and computer-based methods of present disclosure, in real-time in response to a transmission instruction, mint a token representing the quantity of the asset in a first encrypted storage on a distributed crypto-ledger, the first encrypted storage being associated with a first segregated data structure in a distributed asset network of segregated data structures. The token is moved into a second encrypted storage associated with a second segregated data structure in the distributed asset network. A net quantity of assets associated with the transmission and additional transmissions is determined that represents assets to be moved between the first entity and the second entity to match a net of the movement of tokens associated with each transmission, and the net transmission is instructed in order to move the net quantity of assets between the first entity and the second entity.

Abstract: Systems and/or methods of the present disclosure enable crypto-ledger interoperability using a controller to perform an operation between a first user and a second user on separate entity-specific distributed crypto-ledgers, where the separate entity-specific distributed crypto-ledgers are both operatively linked to a membered common distributed crypto-ledger. The controller burns a first quantity of first entity-specific crypto-tokens from the first entity-specific distributed crypto-ledger and mints a second quantity of the common crypto-tokens on the membered common distributed crypto-ledger, where the first quantity of first entity-specific crypto-tokens and the second quantity of the common crypto-tokens represent an equivalency.

Abstract: Systems and/or methods of the present disclosure enable ledger interoperability using a controller to perform an operation between a first user and a second user on separate entity-specific distributed ledgers, where the separate entity-specific distributed ledgers are both operatively linked to a membered common distributed ledger. The controller burns a first quantity of first entity-specific tokens from the first entity-specific distributed ledger and mints a second quantity of the common tokens on the membered common distributed ledger, where the first quantity of first entity-specific tokens and the second quantity of the common tokens represent an equivalency. The controller moves the second quantity of common tokens from a first encrypted storage to a second encrypted storage of the membered common distributed ledger, burns the second quantity of the common tokens and mints a third quantity of the second entity-specific tokens on the second entity-specific distributed ledger to complete the operation.

Abstract: In biometric ticketing, physical token-less ticketing system using biometrics, a person may be identified using a digital representation of a biometric. Ticketing information may be ascertained based on the identification. The ticketing information may be provided, actions may be performed using the ticketing information, and so on. In some implementations, a checkpoint device receives biometric data from a person. A digital representation of the biometric data is used to obtain an identifier from an identification system. The digital representation of the biometric data may not be included in the identifier. The identifier is used by to obtain ticketing information from a ticketing system. The person may be allowed or denied entry into a ticketed area based on the ticketing information.

Abstract: In biometric ticketing, physical token-less ticketing system using biometrics, a person may be identified using a digital representation of a biometric. Ticketing information may be ascertained based on the identification. The ticketing information may be provided, actions may be performed using the ticketing information, and so on. In some implementations, a checkpoint device receives biometric data from a person. A digital representation of the biometric data is used to obtain an identifier from an identification system. The digital representation of the biometric data may not be included in the identifier. The identifier is used by to obtain ticketing information from a ticketing system. The person may be allowed or denied entry into a ticketed area based on the ticketing information.

Abstract: The disclosed systems and methods provide non-native functionality to a distributed network for distributed ledger token verification and event permissioning. The disclosed technology receives a transfer event request from a first node associated with a first token storage, where the transfer event request corresponds to movement of a requested token amount that is associated with at least one token. In response, the transfer event request is inserted into a pending transfer log that is configured to queue pending transfer event requests. A determination is made regarding a first permission based on the currently queued pending transfer event requests, and as a result, the transfer event request is transmitted to the distributed network based on the first permission, where such transfer causes the requested movement of the requested token amount.

Abstract: The disclosed systems and methods provide non-native functionality to a distributed network for events management on a blockchain via locking queued distributed network tokens. The disclosed technology receives a transfer event request from a first node associated with a first token storage, where the transfer event request corresponds to movement of a requested token amount that is associated with at least one token. A pending transfer event log that queues pending transfer event requests is accessed and modified by adding the transfer event request to the queue of pending transfer event requests. This causes the at least one token associated with the transfer event request to be locked, thereby preventing its association with other transfer events. The transfer event request is then transmitted to the distributed network, whereby the distributed network executes the movement of the at least one token.

Abstract: The disclosed systems and methods provide non-native functionality to a distributed network for distributed ledger token verification and event permissioning. The disclosed technology receives a transfer event request from a first node associated with a first token storage, where the transfer event request corresponds to movement of a requested token amount that is associated with at least one token. In response, the transfer event request is inserted into a pending transfer log that is configured to queue pending transfer event requests. A determination is made regarding a first permission based on the currently queued pending transfer event requests, and as a result, the transfer event request is transmitted to the distributed network based on the first permission, where such transfer causes the requested movement of the requested token amount.

Abstract: The disclosed systems and methods provide non-native functionality to a distributed network for distributed ledger token verification and event permissioning. The disclosed technology receives a transfer event request from a first node associated with a first token storage, where the transfer event request corresponds to movement of a requested token amount that is associated with at least one token. In response, the transfer event request is inserted into a pending transfer log that is configured to queue pending transfer event requests. A determination is made regarding a first permission based on the currently queued pending transfer event requests, and as a result, the transfer event request is transmitted to the distributed network based on the first permission, where such transfer causes the requested movement of the requested token amount.