Abstract: Refining an ecological niche model (ENM) associated with a geospatial location includes developing a fluid dynamics model based on measurements generated by a device deployed into fluid flows of the geospatial location. The measurements include temperature and velocity field, depth and particle transport measurements. The refining further includes refining and running the fluid dynamics model using measurements regenerated from the device being redeployed into the fluid flows to produce an output. This output is descriptive of fluid dynamics at the geospatial location and input into the ENM. The ENM is run to produce a baseline ENM output descriptive of a probability of a species existing at the geospatial location. In addition, the ENM is run with a limnologic modification to produce a predictive ENM output descriptive of a predictive probability of the species existing at the geospatial location that is comparable to the baseline ENM output.

Abstract: A computer-implemented method, system and computer program product for pruning quantum calculational results. The results of quantum calculations performed by a quantum circuit of a quantum computer are received, such as for each shot. A measured state of a quantum bit of a result of the quantum calculation is then compared with an expected value. If the compared measured state of the quantum bit of the result of the quantum calculation matches the expected value, then the result of the quantum calculation is not discarded. If, however, the measured state of the quantum bit of the result of the quantum calculation does not match the expected value, then the result of the quantum calculation is discarded. In this manner, the size of the full result (compilation of multiple shot results) is reduced thereby reducing the amount of classical data that needs to be stored, interpreted and transported.

Abstract: A method and quantum computing device for preempting a quantum program. A first quantum circuit is executed by a quantum processor to process a first job of the quantum program for a number of shots, where the number of shots defines how many times a quantum circuit is to be repeatedly executed. The execution of the first quantum circuit to process the first job is then preempted, such as to allow a higher priority and/or shorter-running job to be processed. Upon preempting the execution of the first quantum circuit, the quantum processor executes a second quantum circuit to process a second job (e.g., higher priority and/or shorter-running job to be processed). Upon completion or preemption of the execution of the second quantum circuit to process the second job, the quantum processor completes the execution of the first quantum circuit to process the first job.

Abstract: Techniques facilitating quick waveform revisions following quantum system calibrations. In one example, a system can comprise a processor that executes computer executable components stored in memory. The computer executable components comprise: a calibration component; and a regeneration component. The calibration component can identify a parameter of a directed graph changed by a calibration of a quantum system that occurs after generation of the directed graph. The regeneration component can revise the directed graph based on the identified parameter to generate an updated directed graph.

Abstract: One or more systems, devices, computer program products and/or computer-implemented methods of use provided herein relate to usage maximization of a physical qubit layout of a quantum computer. A system can comprise a memory that stores computer executable components, and a processor that executes the computer executable components stored in the memory, wherein the computer executable components can comprise an identification component that identifies a quantum circuit, and a scheduler component that maps the quantum circuit to a physical qubit layout. In an embodiment, the scheduler component can combine plural quantum circuits, including the quantum circuit into a composite circuit, and map the composite circuit to the physical qubit layout. In an embodiment, an obtaining component can assign the quantum circuit to a temporary storage bucket and can identify whether the temporary storage bucket meets a threshold where the scheduler component can proceed to analyze the quantum circuit.

Abstract: Techniques facilitating quick waveform revisions following quantum system calibrations. In one example, a system can comprise a processor that executes computer executable components stored in memory. The computer executable components comprise: a calibration component; and a regeneration component. The calibration component can identify a parameter of a directed graph changed by a calibration of a quantum system that occurs after generation of the directed graph. The regeneration component can revise the directed graph based on the identified parameter to generate an updated directed graph.

Abstract: Embodiments of the invention are directed to computer-implemented methods, computer systems, and computer program products for remote monitoring of devices. The method includes causing a launch of an unmanned aerial vehicle (UAV). The UAV is instructed to fly a path that is optimized to read optical signals from a set of one or more devices. Data is received from the UAV, the data corresponding to the optical signals read from the set of one or more devices.

Abstract: Embodiments are directed to a computer-implemented method, computer system, and computer program product for analyzing image data to create a reference. The method includes receiving a first image data. The image data is saved in a database. The image data is analyzed to determine a source of the first image data. A reference is created based on the analyzing.

Abstract: A system and method to dynamically control a configuration of parallax barriers includes performing skeletal tracking, using a skeletal tracking system, to determine a position of each viewer of content displayed by an image source. One of the parallax barriers among the parallax barriers is determined as being most closely associated with a viewing angle of each viewer, and the one of the parallax barriers is adjusted as needed to display the content as a three-dimensional image to one or more of the viewers with the viewing angle that is the most closely associated.

Abstract: Refining an ecological niche model (ENM) associated with a geospatial location includes developing a fluid dynamics model based on measurements generated by a device deployed into fluid flows of the geospatial location. The measurements include temperature and velocity field, depth and particle transport measurements. The refining further includes refining and running the fluid dynamics model using measurements regenerated from the device being redeployed into the fluid flows to produce an output. This output is descriptive of fluid dynamics at the geospatial location and input into the ENM. The ENM is run to produce a baseline ENM output descriptive of a probability of a species existing at the geospatial location. In addition, the ENM is run with a limnologic modification to produce a predictive ENM output descriptive of a predictive probability of the species existing at the geospatial location that is comparable to the baseline ENM output.

Abstract: Refining an ecological niche model (ENM) associated with a geospatial location includes developing a fluid dynamics model based on measurements generated by a device deployed into fluid flows of the geospatial location. The measurements include temperature and velocity field, depth and particle transport measurements. The refining further includes refining and running the fluid dynamics model using measurements regenerated from the device being redeployed into the fluid flows to produce an output. This output is descriptive of fluid dynamics at the geospatial location and input into the ENM. The ENM is run to produce a baseline ENM output descriptive of a probability of a species existing at the geospatial location. In addition, the ENM is run with a limnologic modification to produce a predictive ENM output descriptive of a predictive probability of the species existing at the geospatial location that is comparable to the baseline ENM output.

Abstract: Audio information of audio content being listened to by a user is received. An aspect of a listening environment of the user is identified. A volume preset, based on the audio information and the aspect of the listening environment, is determined to be available. A first volume of the audio content being listened to by the user is determined to be different from the volume preset. The first volume of the audio content is adjusted to a second volume.

Abstract: Examples of techniques for enhanced teleconferencing are disclosed. Aspects include establishing, by a teleconference system, a teleconference having an attendance criteria and determining, by the teleconference system, attendees on the teleconference. Aspects also include determining, by the teleconference system, whether the attendance criteria is being met by the attendees on the teleconference. Based on a determination that the attendance criteria is not being met, aspects include rescheduling, by the teleconference system, the teleconference based on an availability of required attendees for the teleconference.

Abstract: Aspects relate to computer implemented methods and systems for monitoring a user's hearing and comprehension. The methods and systems include receiving, by an audio capture device, a first audio input, receiving, by the audio capture device, a second audio input, converting the first and second audio inputs into respective first and second audio signals, transcribing the first and second audio signals into respective first and second transcriptions, analyzing, by a processor of the remote resource, the first and second transcriptions to determine if a content of the second transcription is related to a content of the first transcription to determine degradation of hearing of the user.

Abstract: Aspects relate to computer implemented methods and systems for monitoring a user's hearing and comprehension. The methods and systems include receiving, by an audio capture device, a first audio input, receiving, by the audio capture device, a second audio input, converting the first and second audio inputs into respective first and second audio signals, transcribing the first and second audio signals into respective first and second transcriptions, analyzing, by a processor of the remote resource, the first and second transcriptions to determine if a content of the second transcription is related to a content of the first transcription to determine degradation of hearing of the user.

Abstract: Aspects relate to computer implemented methods and systems for monitoring a user's hearing and comprehension. The methods and systems include receiving, by an audio capture device, a first audio input, receiving, by the audio capture device, a second audio input, converting the first and second audio inputs into respective first and second audio signals, transmitting said first and second audio signals to a remote resource, transcribing the first and second audio signals into respective first and second transcriptions, analyzing, by a processor of the remote resource, the first and second transcriptions to determine if a content of the second transcription is related to a content of the first transcription, and recording the analysis to track a hearing and comprehension ability of the user.

Abstract: Audio information of audio content being listened to by a user is received. An aspect of a listening environment of the user is identified. A volume preset, based on the audio information and the aspect of the listening environment, is determined to be available. A first volume of the audio content being listened to by the user is determined to be different from the volume preset. The first volume of the audio content is adjusted to a second volume.

Abstract: A computer-implemented method for asynchronous duplexing between two computing devices includes obtaining a task for execution by a first computing device and executing the task. A first computing task completion identifier is assigned upon execution of the task. The task with the assigned first computing task completion identifier is transferred to a second computing device and executed. A second computing task completion identifier is assigned upon execution of the task. The first computing task completion identifier and the second computing task identifier are logged into a task management log for facilitating the recovery of the first computing device by comparing the first computing task completion identifier and the second computing task identifier for identifying tasks executed by the first computing device and requiring execution by the second computing device.

Abstract: Audio information of audio content being listened to by a user is received. An aspect of a listening environment of the user is identified. A volume preset, based on the audio information and the aspect of the listening environment, is determined to be available. A first volume of the audio content being listened to by the user is determined to be different from the volume preset. The first volume of the audio content is adjusted to a second volume.

Abstract: A system and method to dynamically control a configuration of parallax barriers includes performing skeletal tracking, using a skeletal tracking system, to determine a position of each viewer of content displayed by an image source. One of the parallax barriers among the parallax barriers is determined as being most closely associated with a viewing angle of each viewer, and the one of the parallax barriers is adjusted as needed to display the content as a three-dimensional image to one or more of the viewers with the viewing angle that is the most closely associated.