Abstract:
Links are set among three hierarchical data 170, 172, and 174 and one moving image data 182. When a display area overlaps with a link area 176 while an image is being displayed by using the hierarchical data 170, switching to display by use of the 0-th hierarchical level of the hierarchical data 172 is made (link a). When the display area overlaps with a link area 178 while an image is being displayed by using the hierarchical data 172, switching to display by use of the 0-th hierarchical level of the hierarchical data 174 is made (link b). The link destination of another link area 180 of the hierarchical data 170 is the moving image data 182 (link c) and moving image reproduction is started as a result of zoom-up of this area. The hierarchical data 170 and 172 are held on the client terminal side and the data existing on the other side of a switching boundary 184 are transmitted by a server to the client terminal in a data stream format.
Abstract:
A cardiac ultrasound image display to analyze a heart wall motion, and a method and apparatus for displaying a cardiac ultrasound image. A method of displaying a medical image includes obtaining a characteristic value for each of one or more segments included in an object, generating an image of the object indicating the segment of which the characteristic value is a predetermined value, and displaying the image.
Abstract:
Examples of methods, systems, apparatus, and machine-readable storage media are provided to facilitate access and control of a remote desktop of a remote machine by a web browser at a client device through a transcoding server without installing proprietary plug-ins or protocols on the client device. A transcoding server may translate user input requests from a web browser into input calls compatible with a remote desktop display protocol. The transcoding server may receive remote desktop drawing commands from the remote machine and translate the remote desktop drawing commands into web browser drawing updates compatible with the web browser. A transcoding server may communicate with a web browser via HTTP and communicate with a remote machine via a remote desktop display protocol. A web browser may be an HTML5 browser. A transcoding server may send drawing coordinates to the web browser via an HTTP header and may use long polling.
Abstract:
There is provided an information processing apparatus including a control section which performs control of presenting, in association with each other, actual energy consumption representing an amount of energy consumed by a device in a case where a user performs any one of user actions, the user actions each being capable of being carried out by the user, and estimated energy consumption representing an amount of energy consumed by the device in a case where the user does not perform the user action.
Abstract:
There is provided an information processing device including: a global map acquiring unit that acquires at least a part of a global map representing positions of objects in a real space where a plurality of users are in activity; a local map generating unit that generates a local map representing positions of nearby objects detectable by a device of one user among the plurality of users; and an updating unit that updates the global map based on position data of objects included in the local map.
Abstract:
Methods and devices provide a quick and intuitive method to launch a specific application, dial a number or send a message by drawing a pictorial key, symbol or shape on a computing device touchscreen, touchpad or other touchsurface. A shape drawn on a touchsurface is compared to one or more code shapes stored in memory to determine if there is a match or correlation. If the entered shape correlates to a stored code shape, an application, file, function or keystroke sequence linked to the correlated code shape is implemented. The methods also enable communication involving sending a shape or parameters defining a shape from one computing device to another where the shape is compared to code shapes in memory of the receiving computing device. If the received shape correlates to a stored code shape, an application, file, function or keystroke sequence linked to the correlated code shape is implemented.
Abstract:
A computer-implemented method for generating geocoded user information is disclosed. The method comprises searching user data across multiple different data corpuses for entries having location-related information and determining locations for the location-related information. The method further comprises generating a map showing a current location of a mobile device along with representations of the entries having location-related information, at the determined locations, for entries from the multiple different data corpuses.
Abstract:
A computerized method for providing mapping, data management, and analysis. A user request for creation of a map with a desired Gaussian aggregation and desired color map parameters is received. Vector geographic data is loaded at the server. The vector geographic data comprises location data, and the location data comprises an attribute. The vector geographic data is rasterized to create image data composed of pixels. The image data is converted to a certain scale grayscale image data. A convolution operation is performed on the grayscale image data to provide an aggregation of the data using a kernel radius, wherein the kernel radius is adjusted in accordance with the desired zoom level. Convolution results are applied to a color ramp; the map for the location data is created based on the color ramp and the convolution results, and the map is provided to the user.
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:
The present invention pertains to geographical image processing of time-dependent imagery. Various assets acquired at different times are stored and processing according to acquisition date in order to generate one or more image tiles for a geographical region of interest. The different image tiles are sorted based on asset acquisition date. Multiple image tiles for the same region of interest may be available. In response to a user request for imagery as of a certain date, one or more image tiles associated with assets from prior to that date are used to generate a time-based geographical image for the user.