Abstract: Systems, methods, and other embodiments associated with indicating physical progress of a clinician through patient locations are described. In one embodiment, a method includes accessing a workflow of locations of patients within a clinical care environment that a clinician is to visit on a schedule. The method includes sensing that the clinician is at a current location within the clinical care environment using a location sensor carried by the clinician. The method includes detecting that the current location corresponds to one of the locations in the workflow. The method includes, in response to the detection, generating in a display an indication of physical progress of the clinician through the workflow as of the current location.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces for generating a soundtrack using integrated live data from an information system. In this way, the audio presentation for an organization can be automated utilizing meaningful data that is converted into unique sounds based on defined criteria that results in an almost endless culmination of songs providing a story unique to the organization. To do so, data is aggregated from a number of sources (e.g., analytics data, network activity, and the like). The data is converted into observables that can influence the selection of a base track comprising a measure of notes. A soundtrack is generated by applying the observables to the base track, the observables causing changes in one or more of the measure of notes, scale, tonic, tempo, or volume of the soundtrack.

Abstract: Systems and methods for employing virtual environmental augmentation in clinical care environments to enhance a clinician's in-the-moment knowledge, leverage past experiences of the clinician and others, and improve the quality of patient care are provided. Such virtual environmental augmentation may align with prior-established, evidence-based clinical processes and enhance the clinician's in-the-moment knowledge by extracting relevant data from one or more clinical sources and presenting a virtual representation of at least a portion of the extracted data (or a summary, exemplification, or interpretation thereof) in the clinician's field-of-view while the clinician is present in a clinical care environment and is utilizing an environmental augmentation device. Such environmental augmentation additionally may facilitate real-time documentation enabling more complete clinical records and ultimately improving the quality of patient care.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that generates and renders virtual environments for display using a VR system (e.g., on a display of a VR headset). Virtual reality is leveraged to create immersive experiences that enables users to experience clinical processes, train staff through new protocols, and gain empathy through a variety of complex scenarios. Initially, contextual information is initially received for an event. Based on the contextual information of the event, data collections is triggered from a clinical system and an environment system for data occurring before and after the event. Utilizing the collected data, a three dimensional modeling of a timeline of event, characters associated with the event, and dialogue corresponding to the event can be recreated. After contributing factors are identified and weighted for the event, a virtual simulation of the event can be created.

Abstract: Systems, methods, and computer-readable media for providing tools to validate color contrast are provided. To do so, three discrete color check processes are performed to ensure a user is able to identify when an icon is at risk of being inaccessible by some users. A border score considers each pixel at the edge of an icon compared to the background in which it is placed. An area score considers each discrete pixel of an icon compared to the background in which it is placed. A grid score considers a subdivision of an icon compared to the background in which it is placed. Using each of these three independent process, a summative score is provided. The summative score categories the icon into a risk level. Depending on the risk level, the icon may need to be refined to ensure it becomes more accessible.

Abstract: Systems, methods, and devices in accordance with embodiments automatically provide notifications to clinicians regarding tissue (including organs and fluids) that are eligible or ineligible for donation. In some cases, information about a potential donor is crawled, including from third-party sources, and comprehensive data for a potential donor is automatically analyzed against donor criteria, to provide an alert to remote devices without requiring accessing of full medical records for the potential donor.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that generates and renders virtual environments for display using a VR system (e.g., on a display of a VR headset). Virtual reality is leveraged to create immersive experiences that enables users to experience clinical processes, train staff through new protocols, and gain empathy through a variety of complex scenarios. Initially, contextual information is initially received for an event. Based on the contextual information of the event, data collections is triggered from a clinical system and an environment system for data occurring before and after the event. Utilizing the collected data, a three dimensional modeling of a timeline of event, characters associated with the event, and dialogue corresponding to the event can be recreated. After contributing factors are identified and weighted for the event, a virtual simulation of the event can be created.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that generates and renders virtual environments for display using a VR system (e.g., on a display of a VR headset). Virtual reality is leveraged to create immersive experiences that enables users to experience clinical processes, train staff through new protocols, and gain empathy through a variety of complex scenarios. Initially, contextual information is initially received for an event. Based on the contextual information of the event, data collections is triggered from a clinical system and an environment system for data occurring before and after the event. Utilizing the collected data, a three dimensional modeling of a timeline of event, characters associated with the event, and dialogue corresponding to the event can be recreated. After contributing factors are identified and weighted for the event, a virtual simulation of the event can be created.

Abstract: Systems, methods, and computer-readable media for providing tools to validate color contrast are provided. To do so, three discrete color check processes are performed to ensure a user is able to identify when an icon is at risk of being inaccessible by some users. A border score considers each pixel at the edge of an icon compared to the background in which it is placed. An area score considers each discrete pixel of an icon compared to the background in which it is placed. A grid score considers a subdivision of an icon compared to the background in which it is placed. Using each of these three independent process, a summative score is provided. The summative score categories the icon into a risk level. Depending on the risk level, the icon may need to be refined to ensure it becomes more accessible.

Abstract: Systems and methods for employing virtual environmental augmentation in clinical care environments to enhance a clinician's in-the-moment knowledge, leverage past experiences of the clinician and others, and improve the quality of patient care are provided. Such virtual environmental augmentation may align with prior-established, evidence-based clinical processes and enhance the clinician's in-the-moment knowledge by extracting relevant data from one or more clinical sources and presenting a virtual representation of at least a portion of the extracted data (or a summary, exemplification, or interpretation thereof) in the clinician's field-of-view while the clinician is present in a clinical care environment and is utilizing an environmental augmentation device. Such environmental augmentation additionally may facilitate real-time documentation enabling more complete clinical records and ultimately improving the quality of patient care.

Abstract: Systems, methods, and computer-readable media for providing tools to validate color contrast are provided. To do so, three discrete color check processes are performed to ensure a user is able to identify when an icon is at risk of being inaccessible by some users. A border score considers each pixel at the edge of an icon compared to the background in which it is placed. An area score considers each discrete pixel of an icon compared to the background in which it is placed. A grid score considers a subdivision of an icon compared to the background in which it is placed. Using each of these three independent process, a summative score is provided. The summative score categories the icon into a risk level. Depending on the risk level, the icon may need to be refined to ensure it becomes more accessible.

Abstract: Systems and methods for employing virtual environmental augmentation in clinical care environments to enhance a clinician's in-the-moment knowledge, leverage past experiences of the clinician and others, and improve the quality of patient care are provided. Such virtual environmental augmentation may align with prior-established, evidence-based clinical processes and enhance the clinician's in-the-moment knowledge by extracting relevant data from one or more clinical sources and presenting a virtual representation of at least a portion of the extracted data (or a summary, exemplification, or interpretation thereof) in the clinician's field-of-view while the clinician is present in a clinical care environment and is utilizing an environmental augmentation device. Such environmental augmentation additionally may facilitate real-time documentation enabling more complete clinical records and ultimately improving the quality of patient care.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces that generates and renders virtual environments for display using a VR system (e.g., on a display of a VR headset). Virtual reality is leveraged to create immersive experiences that enables users to experience clinical processes, train staff through new protocols, and gain empathy through a variety of complex scenarios. Initially, contextual information is initially received for an event. Based on the contextual information of the event, data collections is triggered from a clinical system and an environment system for data occurring before and after the event. Utilizing the collected data, a three dimensional modeling of a timeline of event, characters associated with the event, and dialogue corresponding to the event can be recreated. After contributing factors are identified and weighted for the event, a virtual simulation of the event can be created.

Abstract: Embodiments of the present disclosure relate to systems, methods, and user interfaces for generating a soundtrack using integrated live data from an information system. In this way, the audio presentation for an organization can be automated utilizing meaningful data that is converted into unique sounds based on defined criteria that results in an almost endless culmination of songs providing a story unique to the organization. To do so, data is aggregated from a number of sources (e.g., analytics data, network activity, and the like). The data is converted into observables that can influence the selection of a base track comprising a measure of notes. A soundtrack is generated by applying the observables to the base track, the observables causing changes in one or more of the measure of notes, scale, tonic, tempo, or volume of the soundtrack.

Abstract: Systems and methods for employing virtual environmental augmentation in clinical care environments to enhance a clinician's in-the-moment knowledge, leverage past experiences of the clinician and others, and improve the quality of patient care are provided. Such virtual environmental augmentation may align with prior-established, evidence-based clinical processes and enhance the clinician's in-the-moment knowledge by extracting relevant data from one or more clinical sources and presenting a virtual representation of at least a portion of the extracted data (or a summary, exemplification, or interpretation thereof) in the clinician's field-of-view while the clinician is present in a clinical care environment and is utilizing an environmental augmentation device. Such environmental augmentation additionally may facilitate real-time documentation enabling more complete clinical records and ultimately improving the quality of patient care.

Abstract: Systems, methods, and computer-readable media for providing tools to validate color contrast are provided. To do so, three discrete color check processes are performed to ensure a user is able to identify when an icon is at risk of being inaccessible by some users. A border score considers each pixel at the edge of an icon compared to the background in which it is placed. An area score considers each discrete pixel of an icon compared to the background in which it is placed. A grid score considers a subdivision of an icon compared to the background in which it is placed. Using each of these three independent process, a summative score is provided. The summative score categories the icon into a risk level. Depending on the risk level, the icon may need to be refined to ensure it becomes more accessible.

Abstract: Systems, methods, and computer-readable media for providing tools to validate color contrast are provided. To do so, three discrete color check processes are performed to ensure a user is able to identify when an icon is at risk of being inaccessible by some users. A border score considers each pixel at the edge of an icon compared to the background in which it is placed. An area score considers each discrete pixel of an icon compared to the background in which it is placed. A grid score considers a subdivision of an icon compared to the background in which it is placed. Using each of these three independent process, a summative score is provided. The summative score categories the icon into a risk level. Depending on the risk level, the icon may need to be refined to ensure it becomes more accessible.

Abstract: Systems, methods, and computer-readable media for providing tools to validate color contrast are provided. To do so, three discrete color check processes are performed to ensure a user is able to identify when an icon is at risk of being inaccessible by some users. A border score considers each pixel at the edge of an icon compared to the background in which it is placed. An area score considers each discrete pixel of an icon compared to the background in which it is placed. A grid score considers a subdivision of an icon compared to the background in which it is placed. Using each of these three independent process, a summative score is provided. The summative score categories the icon into a risk level. Depending on the risk level, the icon may need to be refined to ensure it becomes more accessible.