Abstract: An electrophoretic display includes: a plurality of spatially divided cells; and plural types of color substances contained in each of the cells wherein a display color is controlled by controlling electrophoresis of the colored substances within the cells, wherein each of a first cell, a second cell and a third cell included in the plurality of cells includes a first color substance corresponding to a mutually differing one of three primary colors in additive color mixing or subtractive color mixing and a second color substance in a relationship of complementary colors with the first color substance, wherein the first cell is controlled to be in a display state by the first color substance, and the second and third cells are controlled to be in a display state by the second color substance, respectively.

Abstract: A driving method of a liquid crystal display panel having a source line and a counter electrode, includes driving the counter electrode to a first potential, driving the, counter electrode to a second potential being different from the first potential, setting the counter electrode and the source line to a third potential by short-circuiting the counter electrode and the source line to an interconnection having a potential between the first potential and the second potential, and driving the source line to a potential corresponding to an image data. The setting of the counter electrode and the source line to the third potential occurs in a period of one frame.

Abstract: An optical touch panel includes a substrate, a single planar light generator, at least a retro reflector device, and a single photo sensor array. The substrate has a surface. The single planar light generator is disposed outside the surface of the substrate for generating a planar light, where the illuminating range of the planar light covers the range of the surface of the substrate. The retro reflector device is disposed on a side of the substrate for reflecting the planar light. The single photo sensor array is disposed outside the surface of the substrate for sensing the reflected planar light and generating reflected light distribution information.

Abstract: A portable device with a touch screen display detects a finger-in-contact event at a first position on the touch screen display and identifies a user interface object associated with the first position. The portable device determines whether the identified user interface object is moveable across the touch screen display. For an identified object that is determined to be moveable across the touch screen display, the portable device detects a sequence of one or more first finger-dragging, a first finger-out-of-contact, one or more second finger-dragging, and a first finger-out-of-range events and performs a first operation associated with the identified moveable user interface object at least in part in accordance with the first and second finger-dragging events. For an identified not moveable object, the portable device detects a second finger-out-of-contact event and performs a second operation, different from the first operation in response to a second finger-out-of-contact event.

Abstract: Optical touch detection is provided by an interactive display device including an elastomer layer, a reflector configured to transmit light having a first characteristic and to reflect light having a second characteristic, and a display positioned to output modulated light having the first characteristic through the elastomer layer and the reflector as a display image. The interactive display device further comprises a test light source positioned to output light having the second characteristic through the elastomer layer for reflection off of the reflector, and a sensor configured to receive light having the second characteristic reflected from the reflector.

Abstract: An electronic device including an interactive display having an interactive mode and a non-interactive mode. The interactive display includes an image display device that displays a user-interactive imaged keypad in at least a portion of the image display device when the interactive display is in the interactive mode and that displays other image data in the at least a portion of the image display device when the interactive display is in the non-interactive mode, a substantially transparent physical keypad that provides tactile feedback to a user indicating location of keys within the imaged keypad, one or more permanent magnets disposed within the physical keypad, and one or more charged electrical circuit elements oriented so that movement of the one or more permanent magnets relative to the one or more charged electrical circuit elements results in generation of electricity.

Abstract: A display uses x illuminator systems to produce x primary colors and y overlap colors, which are combinations of primary colors, to illuminate a spatial light modulator in a display system. A first set of n duty cycles for the x primary colors over a frame is provided, wherein the display system can select any one of the duty cycles to produce a desired white point. A second set of n duty cycles of x+y colors over a frame corresponding to the first set of duty cycles is determined, where the second set of duty cycles are generated responsive to a specified desired allocation of the frame to the y overlap colors, such that each of the overlap colors can be displayed from a dark shade to a bright shade while maintaining a constant color point.

Abstract: Enhanced camera-based input, in which a detection region surrounding a user is defined in an image of the user within a scene, and a position of an object (such as a hand) within the detection region is detected. Additionally, a control (such as a key of a virtual keyboard) in a user interface is interacted with based on the detected position of the object.

Abstract: An image transfer method for transferring image data to a plurality of projectors from an image supply unit, wherein the image supply unit generates a transmission destination information list showing a transmission destination of the image data and transmits the image data and the transmission destination information list to a transmission destination projector of the image data, the transmission destination projector determined based on the transmission destination information list, and the projector receives the image data and the transmission destination information list from the image supply unit or another projector and transfers the image data to the plurality of projectors by repeating the process for transmitting the image data to one projector which has not received the image data, the one projector determined based on the transmission destination information list.

Abstract: Disclosed is a method for controlling a cartridge of a welding helmet having a function to display a welding operation time, which can protect the welder's face from intense light generated during a welding or cutting operation and also, enable automated light transmittance adjustment and operation time setting on a per operation basis, enabling a welding operation to be more efficiently performed. In the method including welding operation, cutting operation, grinding operation and X-mode operation steps, which are automatically performed in sequence according to preset conditions and a light transmittance and operation time of a liquid crystal screen of the cartridge, a control unit calculates an operation time of the liquid crystal screen indicating how long the liquid crystal screen is kept dark, and the calculated operation time is stored in a memory unit so as to be displayed on a display unit in a life mode step.

Abstract: An optical position detecting unit can be configured at low cost and so as to have lower power consumption.

Abstract: Disclosed herein are a liquid crystal display device which is capable of driving a liquid crystal using image signals supplied to two adjacent data lines, and a driving method thereof. The liquid crystal display device has a plurality of liquid crystal cells formed respectively in pixel areas defined by intersections of n gate lines and m data lines. Each of the liquid crystal cells includes a thin film transistor connected to any one of the gate lines and any one of two data lines adjacent respectively to left and right sides of a corresponding one of the liquid crystal cells, among the data lines, and a liquid crystal capacitor and a storage capacitor each formed between the other one of the two adjacent data lines and the thin film transistor.

Abstract: A signal conversion circuit is disclosed which is suitably used in a multiprimary liquid crystal display device, and a multiprimary liquid crystal display device having such a signal conversion circuit. A signal conversion circuit according to one embodiment of the present invention is for use in a multiprimary liquid crystal display device, and converts an input video signal to a multiprimary signal corresponding to four or more primary colors. When generating a multiprimary signal for displaying dark skin, the signal conversion circuit according to an embodiment of the present invention applies a conversion to the video signal so that a color difference ?u?v?=((u??u60?)2+(v??v60?)2) is 0.03 or less, the color difference ?u?v? being defined by CIE1976 chromaticity coordinates (u?, v?) representing a chromaticity when the pixel is viewed from the frontal direction and CIE1976 chromaticity coordinates (u60?, v60?) representing a chromaticity when the pixel is viewed from a 60° oblique direction.

Abstract: An input device includes a detection unit, a first acquisition unit, a second acquisition unit, and a compensation unit. The detection unit is configured to detect an operation by a user for controlling an electronic device and output an operation signal corresponding to the operation. The first acquisition unit is configured to acquire the detected operation signal and a differential value of the operation signal. The second acquisition unit is configured to acquire a function defined by the differential value to compensate for a delay in response of the operation signal with respect to the operation by the user. The compensation unit is configured to compensate the operation signal with the acquired function.

Abstract: A finger-sensing apparatus (23) and a method with a page detection mechanism (47). The apparatus (23) comprises a finger-sensitive substrate (26) having a plurality of keypads (30), a page detection mechanism (47), a control circuit (31) and a pliable media (25). When a finger (33) of a user is proximate to a keypad (30), the control circuit (31) detects a change in a characteristic at the keypad (30). The page detection mechanism (47) determines a page (24) exposed to the user and sends the information to the control circuit (31). The characteristic is a capacitance.

Abstract: A touch panel includes a first support, a second support, a first resistive layer formed on the first support, a second resistive layer formed on the second support, a first conductor pattern including a first electrode portion that extends in a first direction, and a first end portion and a second end portion opposite thereto, a second conductor pattern including a second electrode portion that extends in a second direction that intersects with the first direction, and a first end portion and a second end portion opposite thereto, a first structure layer that is formed on the first resistive layer adjacently to the first end portion of the first conductor pattern, and has a thickness that is gradually reduced in proportion to a distance from the first end portion, and a bonding layer including a first bonding surface and a second bonding surface.

Abstract: A light sensing circuit capable of enhancing a reliability by lowering a dependency on a temperature change without using a resistor, a backlight control apparatus having the same, and an LCD device having the same. The light sensing circuit includes a first MOS-transistor; and a second MOS-transistor serially connected to the first MOS-transistor between a first power terminal and a ground terminal, in which a second power terminal is connected to each gate terminal of the first MOS-transistor and the second MOS-transistor, and an optical amount detecting terminal is connected to a common connection point between a drain terminal of the first MOS-transistor and a source terminal of the second MOS-transistor.

Abstract: According to one embodiment of the present invention, a method of displaying an image includes alternating an active state of each of a plurality of light sources. The light sources each generate a light beam when active. The alternating includes deactivating an active light source before an output of a light beam from the active light sources falls below a first predetermined threshold. The alternating further includes activating an inactive light source only after an output of the inactive light source reaches a second predetermined threshold. The method further includes receiving each of the light beams at a modulator. The modulator includes an array of micro-mirror devices.

Abstract: A method for executing an application program is disclosed. One or more icons are displayed on a touch panel. If a user's fingerprint is authenticated on the touch panel, an application program is given access to designated personal information. The application program is then executed using the designated personal information, if the detected action is an information-designated start operation.

Abstract: An electrostatic capacitance type touch panel includes: a substrate; a plurality of first electrodes disposed in parallel on the substrate; an insulating film formed so as to cover the plurality of first electrodes; a plurality of second electrodes disposed in parallel to intersect the plurality of first electrodes on the insulating film; a plurality of first drawing wiring lines connected to the plurality of first electrodes to be drawn to a connection terminal; and a plurality of second drawing wiring lines connected to the plurality of second electrodes to be drawn to the connection terminal. The plurality of first drawing wiring lines have different lengths, larger widths as the lengths are shorter, and larger intervals between adjacent two of the plurality of first drawing wiring lines as the lengths are longer.