Abstract:
A system or a method may be provided that may detect a movement or activity of a user via the user's mobile and/or wearable devices. The system may adjust the display interface based on the user's detected movement or activity. When a user is very active (biking or jogging), the user may have very limited amount of time or attention to interact with a display interface. The movement or activity of the user may be detected by a motion detection device installed on the mobile device or on the wearable device. When the user is active, the display interface may adjust to enlarge the information to make it easier for the user to view, read, or interact with. The system may also select and display important information, without other peripheral information (less important information) when the user is active.
Abstract:
Disclosed is a method of controlling content by using line interaction. The method includes displaying a play bar region, representing a reproduction state of the content, on a touch screen, displaying an object, representing a function associated with reproduction of the content, near a reproduction time of the reproduction bar region, receiving a user input with respect to the play bar region through the touch screen, determining control information about the content, based on the received user input, and controlling the content according to the determined control information.
Abstract:
One or more techniques and/or systems are provided for kinetic mapping. A spatial interface, such as a map, may represent information according to an overview scale. If the spatial interface comprises a substantial amount of uninteresting content, such as a 100 mile stretch of highway, compared to interesting content, such as a 1 mile complex detour after the highway, then the interesting content may not be displayed at an adequate level of detail due to being displayed at the same overview scale as the 100 mile stretch of highway. Accordingly, points of interest within the spatial interface may be identified and encapsulated to create portals representing such information at relatively higher levels of detail. A kinetic geospatial interface comprising the portals (e.g., the detour) at a focused scale and non-portal information (e.g., the highway) at a collapsed scale (e.g., a lower level of detail than the focused scale) is generated.
Abstract:
A mobile terminal and controlling method thereof are disclosed, by which a holography user interface is provided. The present invention includes a controller, a holography storing medium configured to record an interference pattern generated by interference of light, and a holography output module configured to output a holography image attributed to diffraction between the light applied to the holography storing medium and the interference pattern in accordance with at least one preset holography type among a plurality of holography types under the control of the controller, wherein a plurality of the holography types comprise a default type, a holography background type and a holography pattern type, wherein if the default type is set, the controller controls the generated holography image to be outputted intactly, wherein if the holography background type is set, the controller controls the holography image to be outputted in a manner of being included in a 1st region within a preset holography background, and wherein if the holography pattern type is set, the controller controls the holography image to be outputted in accordance with the preset at least one holography pattern.
Abstract:
The invention relates to a method that enables flexible configuration of display menus including video text pages and which uses conventional serial control characters. This is achieved by introducing window areas and window control characters which are valid for the entire window area. The window control characters are stored in registers, which are switched inside the window control characters. The invention also relates to a circuit for the implementation of the inventive method. The invention is particularly suitable for TV sets with on-screen displays (OSD).
Abstract:
An electrically controlled birifringence type liquid crystal display panel has a pictograph (picto) display area and character display areas. Character codes are stored in a DDRAM (301) and color attribute data indicating the display colors of characters are stored in a CCRAM (302), both in one-to-one association with the character display areas. Character patterns for character codes stored in the DDRAM (301) are read from a character generator (303), and, simultaneously color attribute data in the CCRAM (304) is read out. A segment driver (407) controls voltages to be applied to the liquid crystal display panel based on the character pattern and the color attribute data, for displaying the characters in arbitrary colors. Color attribute data which specifies the display color of each of pixels constituting a pictograph is set in a picto RAM (302). The color attribute data of the individual segments are read from the picto RAM (302) at the timing for displaying a pictograph, and the segment driver (407) controls voltages to be applied to the liquid crystal display panel in accordance with this color attribute data, for displaying pictograph on the pictograph display area.
Abstract:
ユーザの視線から注視エリアを特定し、その注視エリアと提示情報取得部3により取得された提示情報が示す表示エリアとが重なっている時間である注視時間Tを計測する注視時間計測部4と、その提示情報が示す提示対象の種類から、提示対象の内容の把握に最低必要な時間である把握最低必要時間T min を特定する把握最低必要時間特定部6と、その注視時間Tと把握最低必要時間T min を比較し、その比較結果から提示対象に対するユーザの認識度を判定するユーザ認識度判定部7とを設け、提示形態選択部8が、ユーザ認識度判定部7により判定された認識度に対応する提示形態で、提示対象を提示する。
Abstract:
Methods, apparatuses, and devices for rendering indoor maps on a display device of, for example, a mobile device, are presented. In one example, a processor of a mobile device may receive identifiers, such as alphanumeric identifiers, for points of interest (POI) and map at least portions of the identifiers to colors within a suitable color space, such as a RGB color space.