Abstract: An embodiment for decontaminating transportation vehicles is provided. The embodiment may include receiving GPS data and real-time and historical data relating to contamination. The embodiment may also include identifying a route and location of the transportation vehicle. The embodiment may further include predicting one or more target areas to decontaminate. The embodiment may also include placing one or more decontamination devices at the target areas. The embodiment may further include identifying one or more parts of the transportation vehicle requiring decontamination. The embodiment may also include in response to determining at least one type of contamination is airborne, activating the one or more decontamination devices to increase air pressure inside the transportation vehicle and releasing the air pressure when a door is opened.

Abstract: A computer-implemented method according to one embodiment includes establishing a handshake between a security and compliance center (SCC) and a first operator of a first cluster via a manager component therebetween. An operand mapping of the SCC is updated, and the established handshake is used to cause the update to be communicated to the first operator of the first cluster. A computer program product according to another embodiment includes a computer readable storage medium having program instructions embodied therewith. The program instructions are readable and/or executable by a computer to cause the computer to perform the foregoing method. A system according to another embodiment includes a processor, and logic integrated with the processor, executable by the processor, or integrated with and executable by the processor. The logic is configured to perform the foregoing method.

Abstract: A computer-implemented method, a computer system and a computer program product adapt a vehicle communication network range based on an awareness of vehicle speed. The method includes identifying a plurality of devices within a recommended range of a vehicle. The method also includes obtaining a current driving environment from the plurality of devices. In addition, the method includes calculating a required range for a communications network based on the current driving environment and determining required devices within the required range. Lastly, the method includes dynamically creating the communications network when the required range is greater than the recommended range, where the communications network includes the vehicle, the plurality of devices within the recommended range and the required devices.

Abstract: According to one embodiment, a method, computer system, and computer program product for static balancing of a cargo transport through digital twin simulation is provided. The embodiment may include capturing a plurality of property data related to a transport. The embodiment may further include capturing a plurality of property data related to a plurality of cargo items. The embodiment may also include generating a digital twin simulation of the transport and each cargo item. The embodiment may further include generating a loading plan of each cargo item onto the transport based on the generated digital twin simulation.

Abstract: In an approach for optimizing the enhancement of media content using a Generative Adversarial Network (GAN), a processor identifies a degree of enhancement to be performed on the media content to attain the defined quality. A processor calculates a length of time required to enhance the media content to the degree of enhancement identified considering one or more factors. A processor identifies a buffer required to enhance the media content to the degree of enhancement identified, wherein the buffer prevents an interruption in the media content. A processor identifies a distribution to enhance the media content between a cloud hosted server and a user computing device. A processor enhances the media content according to the distribution identified.

Abstract: An embodiment for creating an avatar of an online viewer during a live video broadcast is provided. The embodiment may include receiving a number of in-person viewers at an event. The embodiment may also include identifying a number of online viewers watching the event remotely. The embodiment may further include in response to determining the number of in-person viewers at the event is below a threshold, identifying a location of the in-person viewers at the event. The embodiment may also include analyzing reactions of the online viewers to scenarios of the event. The embodiment may further include creating an avatar for each of the online viewers. The embodiment may also include populating each empty seat at the event with the created avatar for each online viewer. The embodiment may further include displaying the created avatars occupying the empty seats to the online viewers.

Abstract: Provided are techniques for thermally efficient route selection. A request is received for a route for a vehicle to travel from a first geographic location to a second geographic location. Route data is retrieved for each of a plurality of routes, where the route data includes, for each portion of each route at a given time and day, air temperature adjacent to a road surface. Vehicle data is retrieved for the vehicle, where the vehicle data includes a desired temperature of an item being carried and a desired inlet air temperature. The route from the first geographic location to the second geographic location is determined using the route data and the vehicle data, where the route is thermally efficient. The vehicle is directed along the route, where the route specifies a lane from a plurality of lanes of a road for each portion of the route.

Abstract: A processor may identify that an apparatus is to be disposed. The apparatus may be composed of one or more hardware components. The processor may analyze the apparatus. The processor may generate a respective digital twin for each of the one or more hardware components. The processor may analyze the respective digital twin for each of the one or more hardware components. The processor may determine a condition of each of the one or more hardware components based on the respective digital twin for each of the one or more hardware components.

Abstract: A 3D printing system comprising, an extendable body, a material delivery system, a first wall adhesion device, and a second wall adhesion device.

Abstract: A computer-implemented method, in accordance with one embodiment, includes generating, using data defining physical characteristics and security characteristics of a physical environment, a digital twin of the physical environment. A set of test conditions are simulated within the digital twin of the physical environment to test the security characteristics. The simulation of the set of test conditions are analyzed for evaluating the security characteristics. A result of the evaluation is output.

Abstract: Pairing of multiple devices is initiated using a computer in an artificial intelligence (AI) ecosystem. A command is received at a computer to perform a user activity at a location which includes pairing a user device to a selectable device at the location. The context of the command is analyzed including a historical corpus regarding previous pairings and connection preferences. A device at the location is selected based on the analysis and the determining of the user activity. Pairing is automatically initiated for the user device to the selected device at the location based on the analysis of the context of the command. The automatic initiation includes adjusting settings on the user device based on the analysis of the context of the command. The user device is automatically paired to the selected device at the location to perform the user activity.

Abstract: Embodiments for intelligent mitigation of concentration conflicts by a processor. A concentration level of a user required for one or more primary activities may be determined from one or more data sources. A distraction level indicating a possible impact to the concentration level caused by one or more secondary objects may be determined. One or more actions may be provided to mitigate the possible impact to the concentration level.

Abstract: Robotic processor embodiments determine via graphical image analysis physical attributes of an engagement area of a work-piece that a specified tool physically engages to execute a specific action. The processors identify a model set plurality of alternate substitute tools that are each available within a physical environment of the engagement area and have a body portion with physical dimensions that conform to physical dimensions of the work-piece engagement area, and thereby select a substitute tool that has a body portion that best conforms to the physical dimensions of the work-piece engagement area and meets constraints for substitute tool selection for executing the specific action.

Abstract: A method, system, and computer program product for workflow-based dynamic screen sharing in a multi-screen presentation environment are provided. The method identifies a presentation schema for a multi-screen presentation. A set of presenters are identified for the multi-screen presentation. The method determines a presentation rate of the multi-screen presentation during the multi-screen presentation. A workflow visualization is generated for the multi-screen presentation based on the presentation schema and the presentation rate. The method dynamically transitions between presenters of the set of presenters during the multi-screen presentation based on the presentation schema, the presentation rate, and the workflow visualization.

Abstract: An embodiment includes accessing captured video of a first physical object in a physical environment. The embodiment also includes detecting a feature of the first physical object in a first frame of the video. The embodiment encodes a first qubit with a first quantum state based on a first value of the feature of the first physical object, and then entangles the first qubit with a second qubit forming an entangled qubit pair. The embodiment detects a second quantum state of the second qubit of the entangled qubit pair and renders computer-generated content of a virtual environment that includes a computer-generated first virtual object that corresponds to the first physical object, where the rendering comprises determining a property of the first virtual object based on the detected second quantum state.

Abstract: Described are techniques for reference implementation of cloud computing resources. The techniques include receiving specifications for a computing resource flow to implement a computing solution in a cloud computing environment. The computing resource flow comprises a set of computing resources and computing resource relationships that implement the computing solution. The techniques further include identifying a reference architecture that corresponds to at least a part of the computing resource flow for the computing solution and obtaining a reference template for the reference architecture from a reference code repository. The techniques further include generating a solution template that is based in part on the reference template, and the solution template provisions the computing resource flow in the cloud computing environment to implement the computing solution.

Abstract: Video of a plurality of fields of view of a scene is captured, each field of view comprising data of the scene from a different vantage point. An excitement level is determined by analyzing a portion of the captured video. Using the excitement level, a time series of future excitement levels is forecast. Using the time series of future excitement levels, a virtual field of view path of the scene is forecast. An insert image is determined to be included in the virtual field of view path. Captured data from at least two video cameras in the plurality of video cameras is composited into a virtual field of view of the scene. A rendering of the insert image is inserted into the virtual field of view.

Abstract: A valid combination of products is constructed from a set of products identified by a retailing backend system. The valid combination satisfies a condition of an offer. A product in the combination of product is a physical product located in a physical store. A social sentiment towards the product in social media data of a shopper is evaluated, and a rating of the product is computed using the evaluation. A location of the product in the store is obtained from the retailing backend system. The location of the product is overlaid on a view of the store, where the view is from a perspective of a location of the shopper, the shopper being physically situated in the store.

Abstract: A tool for dynamically booking, from an autonomous transportation vehicle, a secondary transportation vehicle. The tool identifies a route for the autonomous transportation vehicle transporting one or more products from a first location to a second location. The tool publishes the one or more products online as available for purchase. The tool identifies a customer order for the one or more products. The tool requests a secondary transportation vehicle to deliver the one or more products to fulfill the customer order. The tool instructs the secondary transportation vehicle to retrieve the one or more products to fulfill the customer order from the autonomous transportation vehicle. The tool instructs the secondary transportation vehicle to deliver the one or more products from the autonomous transportation vehicle to a delivery location to fulfill the customer order.

Abstract: A computer-implemented method, a computer program product, and a computer system for dynamically altering a code execution workflow using augmented reality (AR). A computer receives, from an AR device of a user, virtual modification of a source code, where the user virtually alters the source code on the augmented realty device. A computer generates an altered execution workflow, based on a virtually altered source code created in the virtual modification. A computer overlays the altered execution workflow on the AR device. A computer executes the altered execution workflow, in response to receiving from the AR device a user request for testing the virtually altered source code. A computer displays on the augmented realty device a result of executing the altered execution workflow. A computer physically alters the source code according to the virtually altered source code, in response to receiving from the AR device satisfactory user feedback about the result.