Abstract: Example implementations also include a method of generating a diagnostic model and user interface presentation based on individual anatomical features, by generating a distance associated with a subset of anatomical features, characterizing the anatomical features based on one or more feature metrics, generating one or more diagnostic language objects based on one or more diagnostic language metrics, segmenting one or more of the anatomical features based on a diagnostic template, embedding one or more of the segments anatomical features in the diagnostic template, and modifying at least one of the diagnostic language objects, in response to a determination that the diagnostic language object is associated with a separate branch of the tree from another one of the diagnostic language objects.

Abstract: Example implementations include a method of mapping and segmenting a physical object by obtaining a plurality of two-dimensional images of a physical object, generating a three-dimensional object model of the physical object based at least partially on one or more of the two-dimensional images, obtaining a plurality of landmarks associated with the object model, one or more of the landmarks being respectively associated with corresponding three-dimensional coordinates and object plane identifiers, and generating at least one landmark plane at the object model including one or more of the landmarks including the object plane identifiers.

Abstract: Systems and methods are disclosed which employ a centralized selection context having selection states spread across user interface elements. Methods are described in which the binding between widgets and data storage is isolated using the centralized selection context paradigm for a majority of data items represented within a user interface. This selection context is fully accessible by methods that access data while considering the current selection context. The centralized selection context simplifies event-handling logic by having selection context readily available thus removing the need to query individual widgets for their state.

Abstract: In general, embodiments of the invention comprise systems and methods for performing image segmentation from image data. According to certain aspects, methods of the invention include constructing a fragment tree representation of image data. An image is segmented into regions of pixels having similar image characteristics, called fragments, each fragment (region) is then compared to its neighbors to determine a graph or hierarchical relationship among all regions. Groups of fragments can be selected by an operator or automatically to define a signature of an object. This signature can then be used to search or traverse a fragment tree any image in order to identify similar objects either automatically or manually.

Abstract: Systems and methods are disclosed which employ a centralized selection context having selection states spread across user interface elements. Methods are described in which the binding between widgets and data storage is isolated using the centralized selection context paradigm for a majority of data items represented within a user interface. This selection context is fully accessible by methods that access data while considering the current selection context. The centralized selection context simplifies event-handling logic by having selection context readily available thus removing the need to query individual widgets for their state.

Abstract: In general, embodiments of the invention comprise systems and methods for delineating objects from imaging scans. According to certain aspects, methods of the invention include aggregating homologous objects from multiple scans into categories, developing profiles or characteristics for these categories, matching newly identified objects to these pre-existing categories for object identification, and red-flagging, or visualization of identified objects.

Abstract: Systems and methods are described for positioning graphical objects and elements of graphical objects including widgets. At least two source layouts are selected, each source layout proportioning elements of the graphical object to be positioned. An interpolated layout is generated from the source layouts whereby the graphical object is positioned based on the interpolated layout. Multiple elements may be processed so. Elements of the graphical object can be proportioned differently from one another and the source layouts may be selected based on their relationship in size to the size of a desired runtime layout. The elements can include widget regions and content within the widget regions may be scaled independently of the positioning of the widget regions. The methods may be incorporated in a machine readable medium as data and executable instructions.

Abstract: Systems and methods for delineating anatomical boundaries from two- and three-dimensional image data are described. A template shape is used to examine new image element (e.g. pixel and/or voxel) locations and determine boundary intersection based on characteristics determined from the plurality of image elements contained within this template. The result is a polyline/surface delineation of the desired anatomy, which can be used for morphometric/shape analysis, patient specific output, and knowledge-based queries.

Abstract: Systems and methods are disclosed which employ a centralized selection context having selection states spread across user interface elements. Methods are described in which the binding between widgets and data storage is isolated using the centralized selection context paradigm for a majority of data items represented within a user interface. This selection context is fully accessible by methods that access data while considering the current selection context. The centralized selection context simplifies event-handling logic by having selection context readily available thus removing the need to query individual widgets for their state.

Abstract: Systems and methods are described for positioning graphical objects and elements of graphical objects including widgets. At least two source layouts are selected, each source layout proportioning elements of the graphical object to be positioned. An interpolated layout is generated from the source layouts whereby the graphical object is positioned based on the interpolated layout. Multiple elements may be processed so. Elements of the graphical object can be proportioned differently from one another and the source layouts may be selected based on their relationship in size to the size of a desired runtime layout. The elements can include widget regions and content within the widget regions may be scaled independently of the positioning of the widget regions. The methods may be incorporated in a machine readable medium as data and executable instructions.