Abstract: A navigation instruction of an autonomous vehicle is detected. The autonomous vehicle is in an environment. The autonomous vehicle is communicatively coupled to a plurality of sensors configured to capture environmental information of the environment. An anomalous sensor status of a first sensor of the plurality of sensors is determined based on the plurality of sensors. An air measurement is identified in response to the anomalous sensor status and based on a second sensor of the plurality of sensors. The air measurement is adjacent to the autonomous vehicle. Autonomous movement operation of the autonomous vehicle is directed in response to the movement instruction and based on the air measurement.

Abstract: A reference architecture document and a legacy application are provided. An artificial intelligence enabled application compares the legacy application to the reference architecture document to recommend steps and sequences of operations to align the legacy application with the reference architecture document. The legacy application is updated to conform to requirements indicated in the reference architecture document, based on the recommended steps and sequences of operations.

Abstract: Computer technology that each edge computing device has appropriate security software, and associated configuration thereof, to be included in edge computing system deployment having a predetermined security level. The types of security software may include encryption/decryption software, encryption/decryption key handling software and/or security load sharing software. The edge computing devices may include unmanned aerial vehicles and/or other unmanned transport vehicles (for example, wheeled ground vehicles) to transport the respective edge computing devices into physical proximity with the client device that will be using the edge computing system deployment.

Abstract: According to one embodiment, a method, computer system, and computer program product for wireless network communication. The embodiment may include identifying a workflow among multiple industrial machines within an activity area. Performance of the workflow requires wireless communication among the multiple industrial machines. The embodiment may include identifying communication requirements and communication capabilities of the multiple industrial machines. In response to determining a wireless network is not available within the activity area, the embodiment may include deploying one or more relay computing devices to deployment locations within the activity area based on the workflow, the communication requirements, and the communication capabilities. The embodiment may include instructing the one or more relay computing devices to create a wireless network which enables wireless communication among the multiple industrial machines.

Abstract: In an approach for lightweight application virtualization based on policies defined by overlaying geofence for an edge computing architecture, a processor collects real-time data of one or more geofences of a specified geospatial area. A processor determines a hierarchy of the one or more geofences based on the collected real-time data. A processor determines applicable set of geofence policies based, at least in part, on the hierarchy of the one or more geofences. A processor generates edge-based policies for an edge device based on the applicable set of geofence policies. A processor creates corresponding orchestration protocols on the edge device based on the edge-based policies.

Abstract: A method for collaborative data sharing for data anomalies includes identifying an anomaly with data for a first system on a first vehicle. In response to determining the data associated with the anomaly is capturable by other vehicles, the method further includes identifying a second vehicle in the vicinity in the first vehicle, wherein the vicinity is defined by an operational distance of the first system on the first vehicle. The method further includes capturing, by a second system on the second vehicle, the data associated with the anomaly. In response to determining captured data by the second system on the second vehicle requires transformation to conform to the first vehicle, the method further includes transforming the captured data by the second system on the second vehicle to conform to the first vehicle.

Abstract: The present inventive concept provided for a method for identifying a natural solution to solve a problem. The method includes identifying the problem in environmental multimedia of an environment; identifying the natural solution to the identified problem and required capabilities thereof based on a mapping; and generating a machine-based solution based on the natural solution.

Abstract: A method, computer system, and a computer program product for insuring an asset is provided. The present invention may include receiving a plurality of data for an asset. The present invention may include generating a digital representation for the based on the received plurality of data. The present invention may include simulating the digital representation in a plurality of conditions. The present invention may include generating an insurance policy for the asset based on the simulations of the digital representation in the plurality of conditions.

Abstract: According to one embodiment, a method, computer system, and computer program product for digital-twin-assisted orthodontic treatment is provided. The present invention may include gathering real-time sensor data on an orthodontic arrangement of a patient; updating an orthodontic digital twin corresponding with the orthodontic arrangement with the sensor data; alerting a user of a complication, compliance with an alignment regimen, or suggested orthodontic procedure based on the orthodontic digital twin; and controlling remote elements to adjust forces acting on the orthodontic arrangement.

Abstract: A computer-implemented method for transferring a knowledge corpus from a first machine to a second machine. The method compares a digital twin model of the first machine with the second machine and identifies whether the knowledge corpus transfer is possible, based on the comparison. If the knowledge corpus transfer is possible, the method maps the knowledge corpus of the first machine with input and output systems of the second machine. If the knowledge corpus transfer is not possible, the method identifies how functionalities of the first machine and the second machine are being executed and controlled. The method then creates a hierarchical functional digital twin model of the first machine and the second machine, based on the identified functionalities. The method further transfers the mapped knowledge corpus of the first machine with the input and output systems of the second machine.

Abstract: A processor may receive a geofence perimeter of a geospatial region. The processor may analyze one or more objects within the geofence perimeter. The processor may generate a digital twin ecosystem. The digital twin ecosystem may include digital copies of the one or more objects. The processor may present a simulation of the digital twin ecosystem to a user.

Abstract: Computer technology that each edge computing device has appropriate security software, and associated configuration thereof, to be included in edge computing system deployment having a predetermined security level. The types of security software may include encryption/decryption software, encryption/decryption key handling software and/or security load sharing software. The edge computing devices may include unmanned aerial vehicles and/or other unmanned transport vehicles (for example, wheeled ground vehicles) to transport the respective edge computing devices into physical proximity with the client device that will be using the edge computing system deployment.

Abstract: A processor may analyze a physical environment. One or more portions of the physical environment may have an edge computing resource requirement. The processor may determine, based on the analyzing, one or more additional edge computing resources to be placed in a surrounding area associated with the one or more portions of the physical environment. The processor may situate, automatically, the one or more additional edge computing resources on a material handling device in the surrounding area and that is directed toward the one or more portions of the physical environment.

Abstract: A method, computer system, and a computer program product for track creation are provided. A computer receives a notification of at least one object to be moved. The at least one object is disposed at a first position. The computer receives a determination of a second position for the at least one object. The computer generates a track plan for a first track for transporting the at least one object from the first position to the second position. The computer transmits a first instruction message to a first robot. The instruction message instructs the first robot to build a track according to the track plan.

Abstract: Determining a name for a given file using file naming convention techniques based upon the context of the given file. The given file can include digital data and media content. In some instances, the context of the digital data and media content can be determined by using Natural Language Processing (NLP) to extract the substantive content of the digital data and Artificial Intelligence (AI) to properly classify the substantive content.

Abstract: Provided are a computer program product, system, and method for using a predictive model to determine virtual usages of storage spaces in a storage infrastructure. Information on the storage infrastructure indicates storage spaces in the storage infrastructure, including physical boundaries and usages of the storage spaces and a predictive model used to determine storage spaces for items to store in the storage spaces. The predictive model receives as inputs physical boundaries and usages of a selected storage space. The predictive model processes the inputs to output a virtual usage of the selected storage space within the physical boundaries of the selected storage space. The virtual usage is defined by coordinates in the physical boundaries of the selected storage space. Augmented reality representation overlaying the virtual usage at the coordinates within a view of the selected storage space are generated in a computer display.

Abstract: A processor may receive environment data associated with a smart environment having one or more intelligent environment device. A processor may analyze the environment data and intelligent environment device information, wherein the intelligent environment device information is associated with the intelligent environment device. A processor may generate a simulation based, at least in part on, the environment data and the intelligent environment data. A processor may identify one or more hazards in the smart environment from the simulation, wherein the one or more hazards are associated with the one or more intelligent environment devices.

Abstract: A method for introducing a new IoT device into an existing ecosystem with multiple IoT devices includes identifying existing IoT devices at a location and generating a digital twin model for each existing IoT device. The method also includes identifying tasks performed by each existing IoT devices at the location and receiving a selection for a new IoT device for introduction with the existing IoT devices based on the tasks performed by each of the existing IoT devices and the generated digital twin models for the plurality of existing IoT devices. In response to determining the new IoT device is suitable for the introduction to the location with the existing IoT devices, the method also includes performing a configuration for the new IoT device based on the tasks performable by the new IoT device.

Abstract: An embodiment for managing finger movement with haptic feedback is provided. The embodiment may include receiving historical data regarding a navigation pattern of a user on a device. The embodiment may also include identifying a context of a current interaction of the user with content displayed on a touchscreen of the device. The embodiment may further include predicting an action required of the user. The embodiment may also include identifying a target location on the touchscreen of the device where the action is required. The embodiment may further include in response to determining a finger of the user is not at the target location, generating one or more haptic feedback vectors that guide the finger of the user to the target location. The embodiment may also include prompting the user to touch the touchscreen of the device at the target location.

Abstract: The present specification describes a computer-implemented method. According to the method, user-specific tags are generated for a virtual reality (VR) object displayed within a VR environment. The user-specific tags are generated based on an interaction of a first user with the VR object. Role-based access rights are assigned to the user-specific tags. A role of a second user accessing the VR environment is determined and the user-specific tags are presented to the second user, alongside the VR object, based on a comparison of the role of the second user and the role-based access rights.