Abstract:
Zur Unterstützung der Fehlerdiagnose einer Industrieanlage (2), die eine Mehrzahl von über ein Rohrleitungssystem (4) verbundenen Anlagenkomponenten (3) aufweist, ist vorgesehen, jede Anlagenkomponente (3) einem von mehreren abstrakten Komponententypen (5, 10-15) zuzuordnen, wobei jedem Komponententyp (5, 10-15) wiederum ein gewichteter, gerichteter Komponentengraph (30, 40, 50, 60, 61, 70, 80, 90, 95, 96) zugeordnet wird. Ein RI-Fließbild (1) der Industrieanlage (2) wird ausgehend von einem Startpunkt entlang eines Rohrleitungssystems (4) komponentenweise abgearbeitet. Dabei wird bei jeder Anlagenkomponente (3) auf deren dem Komponententyp (5, 10-15) nach zugeordneten Komponentengraphen (30, 40, 50, 60, 61, 70, 80, 90, 95, 96) zugegriffen. Die einzelnen Komponentengraphen (30, 40, 50, 60, 61, 70, 80, 90, 95, 96) werden zu einem System von gewichteten, gerichteten Gesamtgraphen (140, 141, 142) der Industrieanlage (2) zusammengefügt, deren Knoten jeweils mehreren einzelnen Anlagenkomponenten (3) zugeordnet sind. Dabei wird der Diagnose-Graph um zusätzliche Knoten (151) für Fehlerursachen und Kanten (152) für deren Auswirkungen ergänzt.
Abstract:
Embodiments include a system for determining cardiovascular information for a patient. The system may include at least one computer system configured to receive patient-specific data regarding a geometry of the patient's heart, and create a three-dimensional model representing at least a portion of the patient's heart based on the patient-specific data. The at least one computer system may be further configured to create a physics-based model relating to a blood flow characteristic of the patient's heart and determine a fractional flow reserve within the patient's heart based on the three-dimensional model and the physics-based model.
Abstract:
Embodiments include a system for determining cardiovascular information for a patient. The system may include at least one computer system configured to receive patient-specific data regarding a geometry of the patient's heart, and create a three-dimensional model representing at least a portion of the patient's heart based on the patient-specific data. The at least one computer system may be further configured to create a physics-based model relating to a blood flow characteristic of the patient's heart and determine a fractional flow reserve within the patient's heart based on the three-dimensional model and the physics-based model.
Abstract:
[Problems to be solved] Improving learning effect. [Means to solve the problems] An alpha calculator 1 includes a memory section 13 which stores an image file 132 having image data 133, coordinate range data 138 indicating a range of an XY coordinate system set in the image thereof, and coordinate value table data 135 indicating XY coordinate values of analysis target points in the image; and a CPU 11 which makes a left side display area 3A display at least a part of an image part of the image of specified image data 133S, sets in the left side display area 3A the XY coordinate system within a range set in the image part in specified coordinate range data 138S, and makes plotted points P displayed at positions indicated by specified coordinate value table data 135S among the coordinate system. The coordinate value table data 135 correlates a coordinate value of T axis with the XY coordinate values. CPU 11 sets TX or TY coordinate system in a right side display area 3B, and makes the plotted points P displayed at positions indicated by the specified coordinate value table data 135S among the set coordinate system.
Abstract:
A method of static graphics rendering in a mobile device. Panning increments are received for panning a previously rendered frame to a panned frame. A rendering region is then determined based on the panning increments. A candidate line segment or polyline is then clipped to create clipped line segments contained within the rendering region. The clipped line segments can then be rendered, and a portion of the previously rendered frame can be copied, to provide the panned frame.
Abstract:
Sub-polygons constituting a smooth three-dimensional shape are generated from a polygon. A Bezier curve used as an interpolating line (B12) for interpolating the portion between vertexes (P1, P2) of a rectangular polygon (P1P2P4P3) is generated from normal vectors (n1, n2), and an interpolating line (B34) for interpolating the portion between vertexes (P3, P4) from normal vectors (n3, n4). Hence interpolating points (P12, P34) are determined on the interpolating lines (B12, B34). Similarly, an interpolating line (B13) for interpolating the portion between the vertexes (P1, P3) and an interpolating line (B24) for interpolating the portion between the vertexes (P2, P4) are generated, and thereby interpolating points (P13, P24) are determined on the interpolating lines (B13, B24). Further similarly, an interpolating line (B1234) for interpolating the portion between the interpolating points (P12, P34) is generated, and hence an interpolating point (P1234) is determined on the interpolating line (B1234). Thus, the rectangular polygon (P1P2P4P3) is divided into four rectangular sub-polygons (P1P12P1234P13, P12P2P24P1234, P1234P24P4P34, P13P1234P34P3). FIG. 15: B1234 ... BEZIER CURVE FOR INTERNAL INTERPOLATION A ... RE-DIVIDED VERTEX B ... METHOD FOR RE-DIVIDING INSIDE OF RECTANGULAR POLYGON
Abstract:
A graphics object can be expressed using procedural language embedded in a markup language document. In a embodiment, a drawing space is specified in markup language. A drawing command to arbitrarily draw a graphics object into the drawing space is specified in procedural language. Interpretation of the markup and procedural language commands results in the rendering of the arbitrary graphics object. In another embodiment, there is a browser comprising a rendering engine, an interpreter, and parser. The rendering engine is configured to interpret a markup language instruction that specifies a drawing space as well as drawing commands in procedural language for drawing an arbitrary graphic object into the drawing space. The parser can then parse the drawing commands and convert them into an execution tree of tree objects.
Abstract:
The invention relates to a method for displaying graphic objects in which the graphic objects are arranged in a virtual surface field, the virtual surface field is larger than a display field, a section of the virtual surface field is displayed in the display field, and graphic objects which are arranged outside the displayed section of the virtual surface field are projected onto the edge of the display field. The projected objects are displayed in a displacing manner such that the projected graphic objects (PGO) displayed do not overlap.
Abstract:
The present invention provides a novel apparatus and method for mapping of urban regions. An apparatus includes the remote sensing equipment that is connected to a computer processor. The remote sensing equipment gathers imaging data about an urban region. The computer processor interprets the imaging data to generate a map of the urban region comprising representations that identify a first set of indicia representing physiographic characteristics, a second set of indicia representing different types of built forms, and a third set of indicia representing patterns of human activity associated with both the physiographic characteristics and the built forms. The map can also include a fourth set of indicia representing an intensity level that at least one of the other types of indicia occurs.
Abstract:
A method and system for editing a brush stroke in a graphics system in which a brush stroke includes a trajectory curve, an envelope curve, and envelope information, comprising: editing a trajectory curve of a brush stroke by sketch-based editing, sketch-based editing comprising receiving a sketch curve as input and modifying the trajectory curve based on the sketch curve; and calculating a new envelope curve for a new brush stroke using the edited trajectory curve and the envelope information of the existing brush stroke.