Abstract:
A touch screen device and an operating method are provided in which only a specific position on a touch screen is activated to receive signals. The touch screen device includes a screen including a display configured to display menu images thereon and a detector configured to detect a screen touch, and a controller configured to control operations of the device according to the screen touch detected by the detector. The controller may cause the detector to be divided into an execution area configured to execute a menu when the menu placed on the execution area is touched, and a selection area configured to sequentially move the menu images to the execution area when the selection area is touched. Alternatively, the controller may cause the detector to be divided into a moving area configured to move a menu from a touch point along a drag line while the menu is dragged, and an execution area configured to execute the relevant menu when the touch on the execution area is released. With a touch screen device so configured, the menus are executed only in a limited execution area.
Abstract:
A touch screen device and a method of operation are provided. The device and method allow for scrolling and selection of files from a file list, and for skipping or reversing an execution order of the selected files simply by performing a drag on a touch screen. The method of selecting files on the touch screen device includes detecting a diagonal drag on a screen, selecting file(s) included within a corresponding range, and skipping file(s) within the range. The method may also include changing an execution order of the selected file(s) when a drag with a return trajectory is detected. The method may also include scrolling through the file list in accordance with a direction and speed of the drag. The device and method allows a plurality of files to be selected and skipped at a time, and a desired file to be rapidly and easily located.
Abstract:
A touch screen device and method of displaying images using display windows and selecting execution menus displayed on the display windows in a touch screen device are provided. The touch screen device includes a screen, a display configured to display images thereon and a detector configured to detect a touch on the screen, and a controller configured to control operation of the touch screen device in accordance with the screen touch detected by the detector. The controller causes two or more display windows to be displayed in an overlapped manner. Further, if the touch is detected on an underlying display window covered by an overlying display window, the controller causes a display form to be changed in response to the touch. That is, if a touch is detected on the display window covered by the overlying display window, the touched display window is displayed as an overlying display window
Abstract:
A web pad includes an LCD module having an LCD and a touch screen; a main board driving the LCD module; a case unit containing the LCD module and the main board therein; fixing bosses formed on the case unit fixing the LCD module; nuts, each of which is inserted into a corresponding fixing boss, providing reinforcement of the fixing bosses preventing damage to the fixing bosses due to impact; and screws connecting the LCD module to the nuts. The web pad prevents damage to internal components, including the LCD panel installed in the web pad, due to breakage of the fixing bosses from external impact.
Abstract:
A polymer composite material includes metal (oxide) nanoparticles adsorbed on the surface of a rubber-modified graft copolymer. Some embodiments may additionally comprise a thermoplastic resin in which the nanoparticles and rubber-modified graft copolymer are dispersed. In some embodiments, the composite materials have improved impact strength, tensile strength, heat resistance, and flexural modulus.
Abstract:
In a method of manufacturing a ferroelectric capacitor, a lower electrode layer is formed on a substrate. The lower electrode layer includes at least one lower electrode film. A ferroelectric layer is formed on the lower electrode layer, and then an upper electrode layer is formed on the ferroelectric layer. A hard mask structure is formed on the upper electrode layer. The hard mask structure includes a first hard mask and a second hard mask. An upper electrode, a ferroelectric layer pattern and a lower electrode are formed by partially etching the upper electrode layer, the ferroelectric layer and the lower electrode layer using the hard mask structure. The hard mask structure may prevent damage to the ferroelectric layer and may enlarge an effective area of the ferroelectric capacitor so that the ferroelectric capacitor may have enhanced electrical and ferroelectric characteristics.
Abstract:
A phase-changeable memory device may include a substrate, an insulating layer on the substrate, first and second electrodes, and a pattern of a phase-changeable material between the first and second electrodes. More particularly, the insulating layer may have a hole therein, and the first electrode may be in the hole in the insulating layer. Moreover, portions of the second electrode may extend beyond an edge of the pattern of phase-changeable material. Related methods are also discussed.
Abstract:
Disclosed is a refrigerator having a cool air dispersing device capable of dispersing cool air vertically. In a duct of a cooling compartment are installed many vertical dispersing blades of planar plate shape for dispersing cool air flowing thereinto vertically. A vertical shaft is installed in the duct. Many horizontal dispersing blades of planar shape are installed on the shaft. The shaft is rotated by a motor, and a cam is installed on the shaft. The cam converts a rotational movement of the motor to an elevational/de-elevational movement of the vertical dispersing blades. Thus, the cool air is dispersed horizontally and vertically in the compartment, and the temperature in the compartment is maintained uniform. Further, if the blades are stopped, the cool air can be concentrated on a specific area.
Abstract:
A MOS transistor employing a titanium-carbon-nitride (TiCN) gate electrode is provided. The MOS transistor has a gate insulating film, a gate electrode, and a source/drain region on a semiconductor substrate. The gate electrode is formed of a single TiCN film or a double film having a TiCN film and a low-resistant metal film formed thereon. The TiCN gate electrode exhibits a low resistance of about 80-100 .mu..OMEGA.-cm and can control variations in Fermi energy level.
Abstract:
A touch screen device and an operating method are provided in which only a specific position on a touch screen is activated to receive signals. The touch screen device includes a screen including a display configured to display menu images thereon and a detector configured to detect a screen touch, and a controller configured to control operations of the device according to the screen touch detected by the detector. The controller may cause the detector to be divided into an execution area configured to execute a menu when the menu placed on the execution area is touched, and a selection area configured to sequentially move the menu images to the execution area when the selection area is touched. Alternatively, the controller may cause the detector to be divided into a moving area configured to move a menu from a touch point along a drag line while the menu is dragged, and an execution area configured to execute the relevant menu when the touch on the execution area is released. With a touch screen device so configured, the menus are executed only in a limited execution area.