Abstract: Embodiments of the present invention provide a system for automatically generating and deploying graphical user interface components based on real-time sketches. The system is configured for determining that a user has accessed a sketch application via a user computing device, allowing the user to create one or more sketches in real-time via a user interface of the sketch application, determining that the user has created at least a first sketch, wherein the first sketch is associated with an application, extracting data from the first sketch, mapping the first sketch with a first user interface component based on the data extracted from the first sketch, generating the first user interface component, integrating a first source code of the first user interface component, testing the first user interface component, determining that testing of the first user interface component is successful, and deploying the first user interface component to a real-time environment.

Abstract: A method includes receiving an application code of a legacy application. The application code is analyzed to generate a plurality of container configurations for a containerized application. Each container configuration includes a plurality of container images and a plurality of application programming interfaces. An initial quantum state is generated from the plurality of container configurations. Each container configuration is simulated. A final quantum state is generated from the initial quantum state. The final quantum state includes performance scores for each container configuration represented using quantum bits. A total performance score is determined for each container configuration based on the performance scores and a rule. A highest total performance score is determined. An improved container configuration is determined from the plurality of container configurations based on the highest total performance score.

Abstract: An entity server receives a request from a user device to perform an interaction. The entity server is configured to receive an interaction data set associated with the interaction from a user device and in response to the request, the entity server retrieves encrypted data from a memory associated with a network node. The entity server compares the interaction data set to the encrypted data set and identifies an anomaly in the interaction data set based on the comparison. Once an anomaly is detected, the entity server denies the request from the user device to perform the interaction.

Abstract: A method and system are provided for autonomously controlling and monitoring automatic teller machines (“ATMs”), leveraging a network of low-orbit satellites, during an ATM distress event. The method and system may include creating, using an ATM distress program in a first ATM, a distress message payload (“DMP”) associated with the first ATM. The method and system may include creating, using a data recovery and purge program in one or more ATMs (“the ATMs”), data recovery and purge payloads (“DRAPPs”) associated with the ATMs. The method and system may further include storing the DRAPPs in low-orbit satellites in a network of low-orbit satellites. The method and system may include running a recovery/purge orchestration engine to identify an optimal pathway for transporting the DRAPPs. The pathway may include low-orbit satellites in the network of low-orbit satellites as carriers for the DRAPPs to a centralized server.

Abstract: An apparatus may comprise a memory communicatively coupled to a processor. The memory may be configured to store user profiles and security information. The processor may be configured to receive a device profile from a user device. Further, the processor may be configured to validate the device profile against a user profile; determine an entitlement associated with the user profile; generate an initial token indicating that the device profile is entitled to access the entitlement; transmit the initial token to a decentralized network; and receive an updated token from the decentralized network. The updated token may indicate a firewall configuration based at least in part upon the initial token. The firewall configuration may be configured to enable the user device to access the entitlement. The processor may be configured to transmit the firewall configuration to the user device to implement a firewall at the user device.

Abstract: Embodiments of the invention are directed to systems, methods, and computer program products for a secure distributed machine learning activity system using distributed ledger technology. The invention comprises an AI-ML model development de-centralized system that provides a secure mechanism which give secure provision to entities to develop AI-ML models in a distributed environment. The system allows the release of AI-ML model components, programs, binary files, and the like in distributed host system infrastructure in secure manner. Therefore, optimizing computer resources for various requirements, such as image processing or the like that may be performed on other secure mechanisms across the secure distributed network. In this way, distributing the AI-ML model across multiple devices across the secure distributed network.

Abstract: An apparatus may comprise a memory communicatively coupled to a processor. The memory may be configured to store a validation profile and service access provider information. The processor may be configured to generate a service token indicating service provider access information for a digital entity in a virtual environment; enable access to at least one service in the service provider via the service token; transmit the service token to the digital entity in the virtual environment; and share the access to the at least one service with the digital entity. Further, the processor may be configured to monitor a value of a token parameter associated with the digital entity in the virtual environment and, in response to determining that the value of the token parameter is outside a predefined threshold range, disable the access to the at least one service in the service provider via the service token.

Abstract: Apparatus and methods for a li-fi payment network are provided. A customer's device may communicate, directly or through intermediate devices and computer systems, over a li-fi network with a point-of-sale terminal. A bill may be transmitted to the customer's device over the li-fi network. The customer may select an option to pay the bill. The selection, along with information to authorize and process the payment, may be transmitted over the li-fi network to the POS terminal. The POS terminal may process the payment and generate a receipt. The receipt may be transmitted to the customer's device over the li-fi network.

Abstract: A computing platform may train, using historical information classification information, an information classification model, which may configure the information classification model to classify information and identify, based on the classification, a storage location. The computing platform may receive, from a user device, a request to store information. The computing platform may identify, using the information classification model, a cloud based storage location for the information. The computing platform may generate an NFT representative of the first cloud based storage location. The computing platform may direct a cloud based storage system to store the information at the cloud based storage location. The computing platform may send, to the user device, the NFT. The computing platform may receive, from the user device, the NFT and a request to access the information. Based on validating the NFT, the computing platform may grant the user device access to the information.

Abstract: The inventive subject matter is directed to pest detection systems that implement infrared emitters with detectors that look for variations in incident light indicative of wingbeats from various pests. Emitters and detectors are placed on one or more printed circuit boards such that infrared light projected from an emitter can be received by one or more detectors. Based on signal generated by a detector, systems of the inventive subject matter can determine whether a pest has flown between an emitter and detector. To save on power, emitter, detectors, or both can be driven by pulse width modulation. Methods of the inventive subject matter are directed to determining pest presence via signal filtering and interpretation.

Abstract: Systems and methods for securing a cryptocurrency asset transfer via a cross-blockchain bridge. Methods may include detecting a request to transfer the asset between blockchains and extracting a set of features such as smart contract bytecode from event logs associated with the blockchains and a blockchain bridge. Methods may include using a photonic quantum processor to use i) a long short-term neural network and ii) a neural network to generate machine learning models based on the extracted features to output i) a security risk threshold and ii) a security risk percentage, respectively. When the security risk percentage is below the security risk threshold, the method may permit the execution of a smart contract to allow transfer of the cryptocurrency asset over the blockchain bridge. When the security risk percentage is above the security risk threshold, the method may involve blocking an execution of a smart contract on the blockchain bridge.

Abstract: The inventive subject matter is directed to pest detection systems that implement infrared emitters with detectors that look for variations in incident light indicative of wingbeats from various pests. Emitters and detectors are placed on one or more printed circuit boards such that infrared light projected from an emitter can be received by one or more detectors. Based on signal generated by a detector, systems of the inventive subject matter can determine whether a pest has flown between an emitter and detector. To save on power, emitter, detectors, or both can be driven by pulse-width modulation. Methods of the inventive subject matter are directed to determining pest presence via signal filtering and interpretation.

Abstract: An electronic bill may be generated, transmitted, and paid remotely at a POS using a UWB-compatible user device. The location of the user device may be detected leveraging UWB technology at the POS. The bill may be pushed to the user device over a MEMS network of sensor nodes at the POS. An optimal route over the sensor nodes may be selected so that the electronic bill is directed to a sensor node in proximity to the user device. The selected route may minimize the number of sensor nodes over which the bill must pass. The route may be dynamically changed when the user device is moved from one location to another at the POS. The customer may specify an electronic payment method in response to receiving the bill or the customer may have pre-specified the payment method. An electronic confirmation of payment may be transmitted to the POS.

Abstract: A system for implementing an interaction session with an entity using intermediate equipment and homomorphic encryption comprises a first communication equipment and a second communication equipment in communication with an entity server via a network. The first communication equipment is communicatively coupled to the second communication equipment via a short-range wireless connection. The first communication equipment communicates an encrypted interaction payload to the second communication equipment which forwards the encrypted interaction payload to an entity server. The entity server sends an encrypted validation message including a security code to the first communication equipment through the second communication equipment to validate an interaction payload object. The first communication equipment receives a user input and communicates an encrypted user input to the second communication equipment which forwards the encrypted user input to the entity server.

Abstract: Arrangements for intelligent provisioning of quantum programs to quantum hardware are provided. In some aspects, a quantum program of a plurality of quantum programs to be executed on target quantum hardware may be received from a digital computing device. The quantum program may be scanned and optimized for minimum quantum bit (qubit) consumption using one or more machine learning models. Based on an accuracy requirement of a quantum program output, a criticality level of the quantum program may be identified. In addition, a qubit count associated with the quantum program, indicating a number of qubits used to perform quantum processing of the quantum program, may be identified. Based on the identified criticality level and qubit count, an allocation of qubits together with target quantum hardware may be assigned for deploying the quantum program. The target quantum hardware may ingest the quantum program and perform quantum processing of the quantum program.

Abstract: A device that is configured to obtain an image of a document and to convert the image into a binary bit string. The device is further configured to iteratively select portions of the binary bit string, to determine a binary bit value for a selected portion of the binary bit string, and to identify a quantum logic gate from an encoding map based on the binary bit value. The encoding map is configured to map binary bit values to quantum logic gates. The device is further configured to add an identifier for the identified quantum logic gate to a set of encoding instructions. The encoding instructions contain commands for applying quantum logic gate operations to qubits. The device is further configured to send the set of encoding instructions to a quantum computing network device that is configured to generate qubits and to transmit qubits.

Abstract: Systems and methods are disclosed for determining a visual indicator for a package based on a delivery address for the package and a location of the delivery address along a delivery route. An optimized delivery route may be created for packages to be delivered at a given time. At the fulfillment center, a delivery system may label a package prior to loading the package on a delivery vehicle. The delivery system may determine the appropriate visual indicator (e.g., color and/or pattern) or the visual indicator may be randomly selected. The delivery system may generate a label having the visual indicator. The package may be deposited into a certain bin with other packages having a delivery address in close proximity. The delivery system may generate a user interface on a user device that indicates that the package has a certain visual indicator to facilitate sorting and identification of the package.

Abstract: Embodiments of the present invention provide a system for automatically generating and deploying graphical user interface components based on real-time sketches. The system is configured for determining that a user has accessed a sketch application via a user computing device, allowing the user to create one or more sketches in real-time via a user interface of the sketch application, determining that the user has created at least a first sketch, wherein the first sketch is associated with an application, extracting data from the first sketch, mapping the first sketch with a first user interface component based on the data extracted from the first sketch, generating the first user interface component, integrating a first source code of the first user interface component, testing the first user interface component, determining that testing of the first user interface component is successful, and deploying the first user interface component to a real-time environment.

Abstract: A system for dynamically analyzing and configuring nodes of a distributed network leveraging photonic quantum computing is provided. In particular, the system may be configured for identifying one or more nodes of a distributed register network, extracting metadata from the one or more nodes, monitoring the one or more nodes to detect changes to the one or more nodes, determining, via a deep learning network, anomalies associated with the one or more nodes based on the changes, determining target metrics and factors associated with the anomalies, creating simulation test scenarios based on the target metrics, factors, and anomalies, wherein the simulation test scenarios are associated with a plurality of configurations of the one or more nodes, executing the simulation test scenarios in parallel, via a quantum computer, and determining an optimal configuration for the one or more nodes from the plurality of configurations based on executing the simulation test scenarios.

Abstract: A card device receives a first sensor data from sensors associated with the card device and extracts a set of user features from the first sensor data, where the user features indicate physical attributes of the user. The card device receives a second sensor data from the sensors. The card device extracts a set of viewer features from the second sensor data, where the viewer features indicate physical attributes of the viewer. The card device compares at least one of the user features with a counterpart feature from among the viewer features. The card device determines that the user is not the viewer. The card device determines a distance between the viewer and the card device. The card device determines that the distance between the viewer and the card device is less than a threshold distance. In response, the card device dynamically masks the information displayed on the card device.