Abstract: Example anatomy map-based navigation systems and methods are disclosed and described. An example method includes displaying, via a graphical user interface, markers on an image, the markers corresponding to a plurality of marker types. The example method includes receiving a selection of a selected marker type from the plurality of marker types. The example method includes providing a synopsis overlaid on the image via the graphical user interface, the synopsis generated from historical data based on the selected marker type. The example method includes highlighting a subset of markers of the selected type on the image via the graphical user interface when the markers are included in the synopsis.

Abstract: Example anatomy map-based navigation systems and methods are disclosed and described. An example method includes displaying, via a graphical user interface, markers on an image, the markers corresponding to a plurality of marker types. The example method includes receiving a selection of a selected marker type from the plurality of marker types. The example method includes providing a synopsis overlaid on the image via the graphical user interface, the synopsis generated from historical data based on the selected marker type. The example method includes highlighting a subset of markers of the selected type on the image via the graphical user interface when the markers are included in the synopsis.

Abstract: Example systems and methods provide anatomy map-based navigation and review of current and historical images and associated evidence. A method for navigating current and reference images and associated evidence includes loading a current image and a reference image for review via a navigator interface based on a time entry selection by a user. One or more markers indicating clinical findings or evidence are registered with at least one of the current image and the reference image. The one or more markers are displayed in conjunction with the current image and the reference image. A synopsis of information associated with a selected marker is provided upon selection of the marker by a user. A user can navigate through image and marker data over time by selecting each of a plurality of time entries to display images and associated markers for user review.

Abstract: Methods and apparatus are disclosed for documenting a procedure in a touchless environment. Example methods disclosed herein include identifying a position of one or more of a user's fingertips using a camera of a mobile device and an entropy-based segmentation of an image input, determining a correspondence between user fingertip position and a control interface of the mobile device, including a plurality of functions to be executed based on user input, triggering the mobile device to execute one or more of the plurality of functions based on the user fingertip position during a procedure, and documenting one or more events of the procedure based on the user input for generating a report to be stored in a storage device of the mobile device.

Abstract: Certain examples provide collaboration systems, apparatus, and methods to facilitate automated command recognition and execution in collaborative communication. An example system includes a communication interface to accept a communication input in an electronic collaboration session regarding clinical content. The system also includes a collaboration engine to automatically analyze the input to identify one or more instructions corresponding to the input and to automatically execute the identified one or more instructions with respect to content associated with the collaboration session. The collaboration engine is to provide results of the execution of the identified one or more instructions to at least one collaborator in the collaboration session.

Abstract: Certain examples provide collaboration systems, apparatus, and methods to facilitate display, review, and annotation of image data on a small display. An example method includes determining an initial display resolution by comparing an image dimension at an image display resolution and an available screen dimension of the reduced size display screen. The example method includes, based on a selected region of interest in an image, displaying the selected region of interest at the initial display resolution. The example method includes, using the selected region of interest, displaying image data in the selected region of interest to set a plurality of data points via user interaction with a touchscreen display. The example method includes computing a potential error introduced for a measurement between the plurality of data points based on a tolerance value. The example method includes adjusting the image display resolution and zoom based on the potential error.

Abstract: Certain examples provide systems and methods for mobile virtual colonoscopy. Certain examples provide a mobile device configured to view clinical content. The mobile device includes a data storage to store data including images for a virtual colonoscopy; a user interface to display the images for user viewing and manipulation; and a motion detector to capture movement of the mobile device with respect to a reference plane and to provide movement data. The mobile device includes a processor to receive input via the user interface and provide content, including the images, to the user interface. The processor is to provide a virtual colonoscopy using the images to a user via the user interface. The processor receives the movement data from the motion detector and translates the movement data to navigation commands in the virtual colonoscopy to allow the user to conduct a virtual colonoscopy using the mobile device.

Abstract: Methods and apparatus are disclosed for documenting a procedure in a touchless environment. Example methods disclosed herein include identifying a position of one or more of a user's fingertips using a camera of a mobile device and an entropy-based segmentation of an image input, determining a correspondence between user fingertip position and a control interface of the mobile device, including a plurality of functions to be executed based on user input, triggering the mobile device to execute one or more of the plurality of functions based on the user fingertip position during a procedure, and documenting one or more events of the procedure based on the user input for generating a report to be stored in a storage device of the mobile device.

Abstract: Certain embodiments of the present invention provide systems and methods for mobile access to clinical information. Certain embodiments provide a mobile medical computing device system. The system includes a mobile medical computing device providing for display of, interaction with, and manipulation of medical images and patient data, the mobile medical computing device in communication with a clinical information system to exchange clinical content related to the medical images and patient data.

Abstract: Certain examples provide systems, apparatus, articles of manufacture, and methods for medical device interface overlay. In an example, an article of manufacture includes an overlay for a clinical device touchscreen interface. The overlay includes a background surface formed to contact a touchscreen interface. The overlay also includes a plurality of touch areas formed in the background surface of the overlay device. Each of the plurality of touch areas is to provide a tactile boundary for a corresponding touchscreen interface function. The plurality of touch areas includes at least one of a plurality of openings and a plurality of recessed areas including a material thickness less than the material thickness of the background surface. The plurality of openings and the plurality of recessed areas allow user contact and interaction with the user interface underneath the overlay.

Abstract: Certain examples provide collaboration systems, apparatus, and methods to facilitate display, review, and annotation of image data on a small display. An example method includes determining an initial display resolution by comparing an image dimension at an image display resolution and an available screen dimension of the reduced size display screen. The example method includes, based on a selected region of interest in an image, displaying the selected region of interest at the initial display resolution. The example method includes, using the selected region of interest, displaying image data in the selected region of interest to set a plurality of data points via user interaction with a touchscreen display. The example method includes computing a potential error introduced for a measurement between the plurality of data points based on a tolerance value. The example method includes adjusting the image display resolution and zoom based on the potential error.

Abstract: Certain examples provide collaboration systems, apparatus, and methods to facilitate automated command recognition and execution in collaborative communication. An example system includes a communication interface to accept a communication input in an electronic collaboration session regarding clinical content. The system also includes a collaboration engine to automatically analyze the input to identify one or more instructions corresponding to the input and to automatically execute the identified one or more instructions with respect to content associated with the collaboration session. The collaboration engine is to provide results of the execution of the identified one or more instructions to at least one collaborator in the collaboration session.

Abstract: Example systems and methods provide navigation and review of images within a large data set via a handheld or other mobile device. A computer-implemented method includes providing a clinical data set divided into a plurality of portions. Each portion is associated with a graphical representation and includes a plurality of sub-portions. The graphical representation for each portion is displayed to a user such that the plurality of portions can be viewed on a user interface of the device. User navigation is facilitated at various levels of granularity among the plurality of portions via the user interface. User access is allowed to one or more sub-portions within a portion to locate an item of clinical data within a sub-portion. User selection of an item of clinical data within a sub-portion is enabled for viewing via the user interface. A selected item of clinical data is loaded for viewing via the user interface.

Abstract: Example systems and methods provide anatomy map-based navigation and review of current and historical images and associated evidence. A method for navigating current and reference images and associated evidence includes loading a current image and a reference image for review via a navigator interface based on a time entry selection by a user. One or more markers indicating clinical findings or evidence are registered with at least one of the current image and the reference image. The one or more markers are displayed in conjunction with the current image and the reference image. A synopsis of information associated with a selected marker is provided upon selection of the marker by a user. A user can navigate through image and marker data over time by selecting each of a plurality of time entries to display images and associated markers for user review.

Abstract: Medical conferencing systems and methods are described. An example medical conferencing system includes an access device and a mobile device. The mobile device includes a first data storage to store data including a shared image received from the access device. Additionally, the mobile device includes a first user interface to display the shared image for user viewing, manipulation, annotation, and measuring. The manipulation enabling the shared image to be displayed at the mobile device with different viewing parameters than at the access device. Additionally, the mobile device includes a first processor to receive input via the first user interface and provide content, including the shared image to the first user interface, the processor to receive input via the access device and provide content to the first user interface, the processor to convey input received via the first user interface to the access device.

Abstract: Certain examples provide systems and methods for mobile virtual colonoscopy. Certain examples provide a mobile device configured to view clinical content. The mobile device includes a data storage to store data including images for a virtual colonoscopy; a user interface to display the images for user viewing and manipulation; and a motion detector to capture movement of the mobile device with respect to a reference plane and to provide movement data. The mobile device includes a processor to receive input via the user interface and provide content, including the images, to the user interface. The processor is to provide a virtual colonoscopy using the images to a user via the user interface. The processor receives the movement data from the motion detector and translates the movement data to navigation commands in the virtual colonoscopy to allow the user to conduct a virtual colonoscopy using the mobile device.

Abstract: Certain examples provide systems, apparatus, articles of manufacture, and methods for medical device interface overlay. In an example, an article of manufacture includes an overlay for a clinical device touchscreen interface. The overlay includes a background surface formed to contact a touchscreen interface. The overlay also includes a plurality of touch areas formed in the background surface of the overlay device. Each of the plurality of touch areas is to provide a tactile boundary for a corresponding touchscreen interface function. The plurality of touch areas includes at least one of a plurality of openings and a plurality of recessed areas including a material thickness less than the material thickness of the background surface. The plurality of openings and the plurality of recessed areas allow user contact and interaction with the user interface underneath the overlay.

Abstract: The present technique provides a system and method for dynamic configuration of medical diagnostic systems using distributable multi-component configuration files having extractable component-specific configuration data. The component-specific configuration data is extractable and processable at each component receiving a broadcast of the distributable multi-component configuration file. If a configuration change is desired in the system or in a particular component, then the change is made via the distributable multi-component configuration file. For example, the foregoing distribution and extraction techniques may be performed during operation of the distributed medical diagnostic system in response to a global or application change, such as different medical diagnostic applications. Accordingly, the present technique provides a flexible and architecture-independent mechanism for configuring components of a distributed medical diagnostic system.

Abstract: Interactive healthcare media devices and systems are disclosed herein.

Abstract: Certain embodiments of the present invention provide systems and methods for mobile access to clinical information. Certain embodiments provide a mobile medical computing device system. The system includes a mobile medical computing device providing for display of, interaction with, and manipulation of medical images and patient data, the mobile medical computing device in communication with a clinical information system to exchange clinical content related to the medical images and patient data.