Abstract: Arrangements for transaction adapter control are provided. In some aspects, a user device may connect to a network in a current geographic location. The user computing device may detect that a change in geographic location has occurred based on the current geographic location. Responsive to detecting that the change in geographic location has occurred, a mobile transaction adapter associated with or unique to the current geographic location may be downloaded to the user computing device. The mobile transaction adapter may be a plug-in component to a mobile payment application on the user computing device. A request to process a transaction may be received via the mobile payment application on the user device. Upon receiving the request to process the transaction, the mobile transaction adapter may be activated and the request may be routed to the mobile transaction adapter. The requested transaction may then be processed via the mobile transaction adapter.

Abstract: A system for integration and interoperability between disparate distributed server technologies is provided. In particular, the system may provide communications functionality between heterogenous distributed register technology networks. In this regard, the system may establish an interoperability layer between the disparate networks to allow cross-network process flows to be executed. The interoperability layer may comprise one or more network services nodes for each distributed register technology to be integrated by the system. Each network services nodes may act as an event handler for internal processes executed within a given distributed register network and be configured to send and receive data from other network services nodes regarding the execution of such processes. The respective network services may then use the data obtained regarding such internal processes to in turn execute its own processes.

Abstract: Various systems, methods, and computer program products are provided for generating and monitoring dynamic identifiers for data processing security. The method includes generating a dynamic identifier for a user request. The dynamic identifier changes based on a receiving node of the dynamic identifier. The method also includes updating the dynamic identifier in an instance in which the user request is transmitted from a first node to a second node. The method further includes generating a dynamic identifier change log. The dynamic identifier change log includes at least one historical dynamic identifier from a previous receiving node. The method still further includes determining whether the dynamic identifier change log matches an expected dynamic identifier change log. The method also includes causing a transmission of a dynamic identifier verification upon determining that the dynamic identifier change log matches the expected dynamic identifier change log.

Abstract: Embodiments of the present invention relate to, in general, combination of temporal resource activity data and resource transmission. Typically, a system configured to concatenate time dependent sequential activity data structures such that resource transmission for an impending resource activity may be performed at an antecedent resource activity associated with the sequential activity data structures, is provided. In some embodiments, based on analyzing a trigger signal, the system is configured to identify a first resource activity initiated by the user. The system may then modify the first resource activity at the first networked device, in order to link a second resource activity with the first resource activity such that the second resource activity is initiated concurrently with the first resource activity prior to the second time interval associated with the second resource activity.

Abstract: Arrangements for intelligent routing of transactions via a transaction adapter are provided. In some aspects, a request for a system selected mobile transaction adapter may be received from a user computing device in a current geographic location. Responsive to receiving the request, a computing platform may generate a plurality of requests for external entity data. The computing platform may receive entity data from the one or more external entities. In some examples, the entity data from the one or more external entities may be analyzed using machine learning. For instance, one or more machine learning models may be executed to identify, based on the data, an optimal or preferred service provider and/or mobile transaction adapter associated with the identified service provider. The identified mobile transaction adapter may then be transmitted to the user computing device for installation.

Abstract: Arrangements for transaction adapter control are provided. In some aspects, a user device may connect to a network in a current geographic location. The user computing device may detect that a change in geographic location has occurred based on the current geographic location. Responsive to detecting that the change in geographic location has occurred, a mobile transaction adapter associated with or unique to the current geographic location may be downloaded to the user computing device. The mobile transaction adapter may be a plug-in component to a mobile payment application on the user computing device. A request to process a transaction may be received via the mobile payment application on the user device. Upon receiving the request to process the transaction, the mobile transaction adapter may be activated and the request may be routed to the mobile transaction adapter. The requested transaction may then be processed via the mobile transaction adapter.

Abstract: Aspects of the disclosure relate to isolating and reinstating nodes in a distributed ledger using proof of innocence. In some embodiments, a first plug-in embedded with the blockchain network may monitor consumer-initiated transactions submitted to an enterprise organization node to determine the legitimacy of each consumer-initiated transaction. The first plug-in may identify consumer-initiated transactions associated with malicious activity and may flag the consumer node for further analysis. A second plug-in may identify and analyze the consumer-initiated transactions associated with the consumer node to determine a proof of innocence value associated with the consumer node. The first plug-in may isolate the consumer node from the distributed ledger if the proof of innocence value exceeds a proof of innocence threshold. Alternatively, the first plug-in may permit the consumer node to remain within the distributed ledger if the proof of innocence value falls below the proof of innocence threshold.

Abstract: Systems, computer program products, and methods are described herein for dynamic deployment of discerner nodes in a non-monitored distributed network. The present invention is configured to deploy the node crawler on the distributed network based on at least receiving the user input; determine, using the node crawler, node-level network behavior of the one or more nodes; determine that the node-level behavior of a first subset of nodes do not meet one or more security controls; generate a discerner node based on at least the node-level network behavior of the one or more nodes; deploy the discerner node on the first subset of nodes; and determine that the node-level behavior of the first subset of nodes meets the one or more security controls based on at least deploying the discerner node.

Abstract: Embodiments of the present invention relate to, in general, combination of temporal resource activity data and resource transmission. Typically, a system configured to concatenate time dependent sequential activity data structures such that resource transmission for an impending resource activity may be performed at an antecedent resource activity associated with the sequential activity data structures, is provided. In some embodiments, based on analyzing a trigger signal, the system is configured to identify a first resource activity initiated by the user. The system may then modify the first resource activity at the first networked device, in order to link a second resource activity with the first resource activity such that the second resource activity is initiated concurrently with the first resource activity prior to the second time interval associated with the second resource activity.

Abstract: Systems and methods for electronic arbitration of a smart contract in response to environmental sensor data are provided. An environmental sensor signal may include an electronic sensor identifier. A signal context matcher may process the sensor signal at the IOT edge and route sensor signal data to a remote electronic arbitrator. The arbitrator may identify a smart contract on a distributed ledger based on the sensor signal data. The arbitrator may identify a smart contract modification based on the sensor signal data. The arbitrator may instruct a smart contract reviser to validate and execute modified smart contract code corresponding to the smart contract modification using DLT protocols.

Abstract: A system for integration and interoperability between disparate distributed server technologies is provided. In particular, the system may provide communications functionality between heterogenous distributed register technology networks. In this regard, the system may establish an interoperability layer between the disparate networks to allow cross-network process flows to be executed. The interoperability layer may comprise one or more network services nodes for each distributed register technology to be integrated by the system. Each network services nodes may act as an event handler for internal processes executed within a given distributed register network and be configured to send and receive data from other network services nodes regarding the execution of such processes. The respective network services may then use the data obtained regarding such internal processes to in turn execute its own processes.

Abstract: A method for generating an image and identifying an account number from the image is provided. The method may include receiving one or more entity data elements at a client onboarding module. The method may include generating the image that corresponds to the entity data elements. The image may be shaped in a predetermined organic shape. The image generation may utilize artificial intelligence. The image generation may be based on the received entity data elements. The method may include generating the account number. The account number may correspond to the entity data elements. The method may include linking the account number to the image. The method may include linking a geographic location of the entity to the image. The method may include transmitting the image to the entity.

Abstract: Embodiments of the present invention relate to, in general, combination of temporal resource activity data and resource transmission. Typically, a system configured to concatenate time dependent sequential activity data structures such that resource transmission for an impending resource activity may be performed at an antecedent resource activity associated with the sequential activity data structures, is provided. In some embodiments, based on analyzing a trigger signal, the system is configured to identify a first resource activity initiated by the user. The system may then modify the first resource activity at the first networked device, in order to link a second resource activity with the first resource activity such that the second resource activity is initiated concurrently with the first resource activity prior to the second time interval associated with the second resource activity.

Abstract: A certificate identification system comprises multiple source devices configured to generate an artifact which comprises features indicating user data and an action, a certificate database configured to store certificates comprising user identity information corresponds to its signatory, and an identity manager in signal communication with the source devices and the certificate database.

Abstract: Embodiments of the invention are directed to a system, method, and computer program product for processing technology resource identifiers and establishing dynamic context-based cross-network communications for resource transfer activities. The system first receives a transmission that a user has requested a resource transfer. The system then determines, based on a universal identifier associated with a second user, an identifier of a resource account associated with the second user. The system then transmits a request for the resource transfer to a resource processing system.

Abstract: Embodiments of the present invention relate to, in general, combination of temporal resource activity data and resource transmission. Typically, a system configured to concatenate time dependent sequential activity data structures such that resource transmission for an impending resource activity may be performed at an antecedent resource activity associated with the sequential activity data structures, is provided. In some embodiments, based on analyzing a trigger signal, the system is configured to identify a first resource activity initiated by the user. The system may then modify the first resource activity at the first networked device, in order to link a second resource activity with the first resource activity such that the second resource activity is initiated concurrently with the first resource activity prior to the second time interval associated with the second resource activity.

Abstract: Systems, computer program products, and methods are described herein for a permissioned ledger for real-time resource distribution reconciliation. The present invention is configured to receive, from a computing device of a user, an indication that the user has executed a resource transfer with a resource distribution entity; receive, from a computing device of the resource distribution entity, an artifact associated with the resource transfer; retrieve, from a repository, a distributed ledger associated with the user, wherein the distributed ledger comprises one or more blocks representing one or more artifacts associated with one or more resource distribution entities with whom the user has executed one or more resource transfers; generate a block associated with the resource transfer for the distributed ledger; and update the distributed ledger with the block associated with the resource transfer.

Abstract: A system for intelligently deploying applications to nodes on a distributed ledger technology (DLT) network may receive requests from authorized users to deploy DLT-based applications to one or more nodes in a DLT network. The system may further identify the DLT network for deploying the application by analyzing a set of characteristics associated with the application with a set of characteristics associated with a DLT network. The system may also generate deployment scripts for the applications that include instructions compatible with the identified DLT network and to be performed by the one or more nodes to implement the application code.

Abstract: A system, computer program product, and computer-implemented method for mining software code and assimilating legacy system functionalities are provided. Embodiments comprise a system configured for installing a mining tool on a first system having a first format, the mining tool being configured to continually capture code stored on the first system; identifying a function on the first system, wherein the function is configurable to be independently executable; pulling the function from the first system; converting the function from the first format to a second format; and deploying the function in the second format onto a second system, wherein the function is stored on the second system in the second format and configured to be called by a program.

Abstract: A system for intelligently provisioning a distributed ledger technology (DLT) network may be configured to receive requests from authorized users to provision a DLT network based on a plurality of preset parameters. The system may further be configured to generate one or more script, using machine learning or other artificial intelligence algorithms, for provisioning the DLT network according to the preset parameters. One or more nodes in the DLT network can then execute the intelligently generated script to provision the DLT network as requested.