Abstract:
An electronic device is disclosed. The electronic device may comprise: a first processor which performs rendering stages on the basis of graphics data to generate frames; a memory in which an application for acquiring information corresponding to the first processor is stored; a display; and a second processor which is electrically connected to the first processor, the memory, and the display. The second processor may: execute the application; acquire rendering stage information corresponding to the frames through the executed application; extract, from the acquired rendering stage information, first rendering stage information corresponding to a first frame among the frames; process the extracted first rendering stage information; and control the display to display a UI screen containing the processed first rendering stage information.
Abstract:
This application discloses a map and a map generation method and apparatus. The method includes: generating first information, where the first information indicates that a first event in a first tile is associated with a second tile, the first event is a dynamic event in a map, and the first tile and the second tile are two different tiles in the map; and storing the first information. Through implementation of this application, quick indexing of an event in a map and quick indexing of a map tile associated with the event can be implemented.
Abstract:
Disclosed are a method of modeling a haptic signal (HS) from a haptic object (10), a display apparatus, and a driving method thereof, which realize a tactile sense having a shape and texture of a haptic object (10). The method includes obtaining measurement data corresponding to a shape of a texture object (11) while moving a sensor unit (170) with respect to a haptic object (10) including the texture object (11), obtaining force measurement data corresponding to a level of pressure applied to the haptic object (10), calculating shape modeling data and impulse modeling data corresponding to the texture object (11), based on the measurement data, calculating friction force modeling data corresponding to the texture object (11), based on the force measurement data, generating setting information of a haptic signal (HS) corresponding to the haptic object (10), based on the shape modeling data, the impulse modeling data, and the friction force modeling data, and storing the setting information of the haptic signal (HS).
Abstract:
Systems and methods that dynamically render etching inputs are provided, and include a touch surface having a sensor and configured to detect user input, and a non-transitory memory, wherein the non-transitory memory includes instructions for capturing an etching input that is applied to an image or video file, determining a haptic effect that corresponds to the etching input, the haptic effect depending on a type of etching input, and transmitting a modified image or modified video file that includes the etching input and the haptic effect.
Abstract:
An image following a movement of a head of a user who observes an image is generated. At a drawing device 300, posture angle data to be received at a certain time after a time series of posture angle data that have already been received are predicted, and rendering processing is performed on an image based on the predicted posture angle data. A prediction algorithm for the posture angle data is roughly divided into two steps: (1) estimating a predicted time to receive the posture angle data; and (2) predicting the posture angle data at the predicted time. By rendering the image at the predicted time from the predicted posture angle data, a sense of delay felt when the image following the movement of the head of the user is presented is reduced.
Abstract:
Disclosed herein are planning, navigation and simulation systems and methods for minimally invasive therapy in which the planning method and system uses patient specific pre-operative images. The planning system allows for multiple paths to be developed from the pre-operative images, and scores the paths depending on desired surgical outcome of the surgery and the navigation systems allow for minimally invasive port based surgical procedures, as well as craniotomies in the particular case of brain surgery.
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:
Provided is an information processing device including: an acquisition unit configured to acquire a content of a handwritten input on a touch panel; and a display control unit configured to control display of a shaped figure which is obtained by shaping a figure recognized from the handwritten input, according to the content of the handwritten input.
Abstract:
A sensor output data acquisition unit (42) of an image data generation unit (30) in an image processing device (20) acquires layered image information data from a sensor group (12). A slice image generation unit (44) generates two-dimensional image data for each slice plane for which a distribution has been acquired. An image axis transformation unit (50) generates the same type of two-dimensional image data for multiple planes perpendicular to an axis different from a sensor axis. In accordance with properties such as viewing position, a slice image management unit (52) of a display process unit (32) manages slice images to be used for drawing. A drawing memory unit (56) successively stores the image data needed for drawing. An additional object image storage unit (58) stores image data for an object to be additionally displayed, such as a cursor. An image drawing unit (54) draws a three-dimensional object using the data for the slice images.
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.