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.

Abstract: Aspects of the present disclosure relate to haptic effect management. A haptic effect that is captured using a vibration sensor can be obtained, the haptic effect defined by a waveform. The haptic effect can be saved to a haptic effect library, the haptic effect library containing a plurality of captured haptic effects. The haptic effect can be mapped to at least one software feature, wherein the haptic effect is generated in response to the at least one software feature being activated.

Abstract: A computer-implemented method for displaying an augmented reality (AR) object is disclosed. The computer-implemented method includes identifying a physical object of interest in a user's AR field of view (FOV), determining an amount of time required for the physical object of interest to be displayed within the user's AR FOV, based on the user's relative position and movement with respect to the physical object of interest, determining the physical object of interest is no longer in the user's physical FOV prior to an expiration of the determined amount of time required for the physical object to be displayed within the user's AR FOV, and displaying a digital object corresponding to the physical object of interest in the users AR FOV until the determined amount of time required for the physical object to be displayed within the user's AR FOV has expired.

Abstract: In an approach to improve risk assessment and management, embodiments monitor a predetermined area by collecting, by one or more sensing devices, data related to environmental conditions and spatial relationships between one or more objects in the predetermined area. Further, embodiments determine, based on a model and the monitoring, that an accidental event is likely to occur within a predetermined distance or within the predetermined area. Additionally, embodiments identify a predetermined mitigation action from a knowledge corpus to apply to the accidental event; and proactively implementing the identified mitigation action to prevent or manage the accidental event.

Abstract: One or more environmental vibrations that originate from a vibration source are detected by a wearable display device. The wearable display device is worn by a user. The vibration source is located in an environment that is proximate to the wearable display device. An alert condition related to the vibration source is identified, based on the one or more environmental vibrations. An augmented notification for the wearable display device is generated in response to the alert condition. The augmented notification provided, by the wearable display device, to the user.

Abstract: Aspects of the present disclosure relate to zoom action based image presentation. A zoom action on a first image can be received on a user device, the zoom action defined by a set of zoom action parameters. The first image can be analyzed to determine image properties of the first image. A second image depicting a different structural level of the first image can be searched for based on the zoom action parameters of the zoom action and the image properties of the first image. The second image can be presented to the user as a response to the received zoom action.

Abstract: The present invention may include a processor that monitors location of a robot in an environment. The processor captures the environment with one or more environment sensors. The processor analyzes the captured environment to determine an exit location. The processor validates an exit route based on historical data and the exit location and communicates the exit route to the robot.

Abstract: According to one embodiment, a method, computer system, and computer program product for recovering power from haptic feedback is provided. The present invention may include identifying one or more haptic devices and one or more power recovery devices associated with a user; dynamically monitoring a position and distance of the one or more haptic devices and the one or more power recovery devices; predicting how much power can be recovered by the one or more power recovery devices from haptic feedback generated by the one or more haptic devices based on the position and distance; and change a direction of haptic feedback based on the prediction, position, and distance.

Abstract: Aspects of the present disclosure relate to in-air control regions. Communication between an electronic pen and a device can be established. Two or more in-air control regions above the device can be defined, each in-air control region specifying a set of functions that can be performed by the electronic pen. A determination can be made that the electronic pen is within a first in-air control region of the two or more in-air control regions, the first in-air control region specifying a first set of functions that can be performed by the electronic pen. In response to input received from the electronic pen within the first in-air control region, at least one function of the first set of functions can be executed.

Abstract: Aspects of the present disclosure relate to gesture-based one-time password (OTP) authentication for transactions. Initiation of a transaction can be detected. Contextual information associated with the transaction can be received. In response to detecting the initiation of the transaction and based on the contextual information associated with the transaction, a one-time password (OTP) comprising one or more gestures to be performed by a user can be generated. A command can be transmitted to display the one or more gestures to be performed on an extended reality (XR) device worn by the user. In response to validating user performance of the one or more gestures displayed via the XR device, the transaction can be authorized.

Abstract: An approach for moving materials from one location to another is disclosed. The approach includes a mobility platform comprising of a lower construct comprising of mechanism for locomotion, a platform dispose on top of and adjacent to the lower construct and an upper construct dispose and adjacent to the platform, wherein the upper construct comprising of a mechanism for securing materials. Furthermore, the approach includes loading one or more materials onto the mobility platform from a first location, moving the mobility platform from the first location to a second location and unloading the one or more materials from the mobility platform at the second location.

Abstract: In an approach to providing contextual justification for a virtual assistant response, one or more computer processors receive a first voice command from a user. One or more computer processors determine one or more boundary conditions associated with the first voice command. Based on the one or more boundary conditions, one or more computer processors determine a first response to the first voice command and a contextual justification of the first response. One or more computer processors respond to the user with the response to the first voice command and the contextual justification of the response.

Abstract: According to one embodiment, a method, computer system, and computer program product for synchronizing a physical environment with a virtual environment is provided. The present invention may include analyzing a virtual environment to determine one or more physical movements required for a user to navigate within the virtual environment; scanning, with one or more sensors, a physical environment to identify one or more physical movements required for the user to navigate within the physical environment; responsive to determining that the one or more physical movements required for a user to navigate within the virtual environment do not match the one or more physical movements required for a user to navigate within the physical environment, identifying how the physical environment must be modified to incorporate the physical movements of the virtual environment; and communicating the identified modifications to the physical environment to the user.

Abstract: A computer-implemented method, a computer program product, and a computer system for design adaptation. One or more computing devices receive images provided by a user, receive form a designer one or more designer provided what-if scenarios of a design related to the images, receive form the user one or more user selected what-if scenarios from the one or more designer provided what-if scenarios, and retrieve information about influencing factors form an artificial intelligence (AI) knowledge corpus, where the influencing factors affect qualities of the images. One or more computing devices input the retrieved information into a generative adversarial network (GAN) module. One or more computing devices change the images by the GAN module to generate adapted images for the one or more user selected what-if scenarios, based on the retrieved information.

Abstract: Ink saturation for a print job varies according to prioritized elements identified within a given document or print job. Elements are prioritized according to pre-defined values according to document type and identified elements within the document type. High priority elements of a document are assigned greater ink saturation than lower priority elements of the same document. Automated prioritization is made possible by a crowd-sourced knowledge corpus including pre-defined document types and corresponding elements of the documents. Historic configurations accepted by a user drive a learning process using a feedback loop for refined decision-making as print jobs are submitted for printing.

Abstract: Disclosed are techniques for dynamic compression of audio-visual data, including a method for reducing a size of media content, comprising identifying a scene to be captured by a capture device, wherein the scene comprises a plurality of objects, and determining whether at least one of: (i) an available storage in the capture device to store a digital media file associated with the scene; and (ii) an available network bandwidth to transfer the digital media file is below an associated threshold. In response to the threshold determination, some embodiments may further comprise analyzing the plurality of objects to determine which objects can be redeveloped by a GAN regeneration module to a threshold quality level and which objects cannot be redeveloped with the GAN regeneration module to the threshold quality level, generating an optimized capture plan based on the analyzing, and encoding the scene pursuant to the optimized capture plan.

Abstract: Disclosed are techniques for dynamic compression of audio-visual data, including a method for reducing a size of media content, comprising identifying a scene to be captured by a capture device, wherein the scene comprises a plurality of objects, and determining whether at least one of: (i) an available storage in the capture device to store a digital media file associated with the scene; and (ii) an available network bandwidth to transfer the digital media file is below an associated threshold. In response to the threshold determination, some embodiments may further comprise analyzing the plurality of objects to determine which objects can be redeveloped by a GAN regeneration module to a threshold quality level and which objects cannot be redeveloped with the GAN regeneration module to the threshold quality level, generating an optimized capture plan based on the analyzing, and encoding the scene pursuant to the optimized capture plan.

Abstract: A method includes deploying a first robotic system in an area with at least limited network connectivity for communications with a plurality of robotic systems, where in the first robotic system is assigned to perform a task in the area. The method includes recording findings in a subarea of the area, wherein the findings include environmental data and operational data associated with the first robotic system. In response to determining a QR code is present for the subarea of the area, the method includes comparing stored findings associated with a second robotic system from the plurality of robotic system for the QR code present in the subarea of the area. In response to determining the recording findings include new findings compared to the stored findings, the method includes updating, via the QR code, the stored findings with the recordings finds by replacing with the new findings and a timestamp.

Abstract: A processor may receive workflow data associated with an environment having one or more smart devices. A processor may analyze the workflow data to identify one or more activities associated with the environment. A processor may generate an intelligent environment for one or more users using one or more intelligent environment (IE) devices. The one or more IE devices may be configured to collect user feedback from one or more users. A processor may modify at least one of the one or more activities in the environment based, at least in part, on the user feedback.

Abstract: A computer-implemented method displays a media file below a distraction threshold. The method includes identifying a driver of a vehicle, where the vehicle includes an augmented reality system, and the vehicle is at least partially automated. The method also includes determining, a driving mode for the vehicle and calculating a focus score. The method includes requesting, from a media repository, a media file, where the media repository contains a plurality of media files, and each media file has an associated distractions score. The method includes receiving from the media repository, a first media file to display, where a first distraction score of the first media file combined with the focus score is below a safety threshold. The method also includes displaying the first media file by the AR system. Further aspects of the present disclosure are directed to computer program products containing functionality consistent with the method described above.