Abstract: A drive circuit includes a drive unit coupling with data lines for receiving at least one clock signal and a first enable signal to generate a drive signal to drive data lines, and a delay unit electrically coupled with the drive unit for receiving the clock signal and the first enable signal and generating a second enable signal falling subsequent to the first enable signal in a predetermined time interval.

Abstract: A bezel positionable adjacent the outer periphery of a computer touch screen is provided. The bezel includes an elongated rim having a first side adjacent the computer screen and a surface. An identification marker positioned on the surface of the rim and identifying a predetermined area of the touch screen. A tactile indicium structure is on the surface at a location between the identification marker and the predetermined area of the touch screen. The tactile indicium structure includes an upper surface having tactile indicium thereon.

Abstract: A sensor is disclosed. The sensor may be a touch sensor. The sensor may be incorporated into a water delivery system.

Abstract: A 3D image display device includes a display panel, a barrier, a controller, and a barrier driver. The barrier includes: a first substrate; a plurality of first electrodes disposed on the first substrate and extended in a first direction; a plurality of second electrodes respectively disposed between adjacent first electrodes; a second substrate opposing the first substrate; a plurality of third electrodes disposed on the second substrate and extended in a second direction crossing the first direction; a plurality of fourth electrodes respectively disposed between adjacent third electrodes; and a liquid crystal layer disposed between the first and second substrates. The barrier driver receives a barrier control signal from the controller, and applies a reference voltage to the first electrodes, the second electrodes, the third electrodes, and/or the fourth electrodes, and applies a liquid crystal driving voltage to one or more other ones of the first to fourth electrodes.

Abstract: A liquid crystal display (“LCD”) includes a plurality of pixels, each including first and second liquid crystal capacitors, a first storage capacitor including a first terminal connected to the second liquid crystal capacitor and a second terminal applied with a first storage electrode signal, a second storage capacitor including a first terminal connected to the second liquid crystal capacitor and a second terminal applied with a second storage electrode signal having an opposite phase to the first storage electrode signal, and a third storage capacitor including a first terminal connected to the first liquid crystal capacitor and a second terminal applied with the first or second storage electrode signal. A driving method of the LCD improves transmittance and visibility and increases an aperture ratio thereof.

Abstract: A display device comprises a display panel comprising high brightness subpixel repeating groups—for example, RGBW display panels. Displays comprise subpixel repeating groups that include first and second primary color stripes and third and fourth primary color subpixels that are disposed on a checkerboard pattern. A subpixel rendering operation includes, or is followed by, a white subpixel adjustment operation that adjusts the brightness of the white subpixels in the areas of the displayed image that contain high spatial frequency features such as lines and text, in order to improve image quality such as image contrast.

Abstract: A haptic sense rendering apparatus is disclosed that includes a haptic sense rendering unit, a magnet, a coil that magnetically interacts with the magnet and drives the haptic sense rendering unit, and a drive circuit that generates a drive signal for driving the haptic sense rendering unit to emphasize at least one of a drive starting operation and a drive terminating operation and supplies the generated drive signal to the coil.

Abstract: A liquid crystal display panel includes n-number of gate lines, (m+1)-number of data lines and (m×n)-number of pixels, wherein the ‘n’ and ‘m’ are natural numbers. The gate lines are extended in a first direction. The data lines are extended in a second direction that is substantially perpendicular to the first direction. The first and last data lines are electrically connected to each other. The pixels are arranged in a matrix shape. M-number of the pixels is arranged along the first direction, and n-number of the pixels is arranged along the second direction. A pixel electrode of the pixels arranged in the second direction are electrically connected to left and right data lines alternately to enhance a display quality and reduce power consumption.

Abstract: A system/method to store and compare computer generated vector lines through an insecure or a secure communication channel. Using an input device (i.e. computer Keyboard, finger, soft keypad, or any other input from body movements, electrical current, or impulses, or input from human or mechanical sound waves) to a physical machine, or through a token (i.e. credit card, USB token, which can be carried around by user), a user enters and sends their unique identifier and reference code (i.e. PIN, password, other secret code) to the physical machine by making a contact or contact-less to the computer system. As part of the enrollment process the user inscribes a pre-determined set of continuous vector lines (CVLs). The CVLs include data points that are collected from any computer pointing device in a specific format, using a push down anatomical technique and are sent to local active content (i.e. a library, or a program, or an add-on to the internet browser i.e.

Abstract: Among other things, on a wireless handheld device that has a display and keys, an interface is provided that enables a user to control aspects of presentation of video material on a display of the handheld device, the interface including presentation on the display of visible tokens that are associated with respective keys.

Abstract: A display device includes a body including a stationary portion and an extendible portion movable relative to the stationary portion, an expandable display portion having a display area, an adjustable resistor, and a controlling unit. The first end of the expandable display is engaged in the stationary portion, and an opposite second end of the expandable display is engaged in the extendible portion. The adjustable resistor has a resistance varying with a distance between the stationary portion and the extendible portion. The controlling unit is configured for adjusting a size of the display area according to the resistance of the adjustable resistor.

Abstract: A touch sensor is provided that includes an array of discrete electrodes disposed over a touch sensitive area, the electrodes being elongated in a first direction and having a variable width measured in a second direction that is perpendicular to the first direction. A touch location can be determined by simultaneously applying an electrical signal to a plurality of positions on the touch sensor, the touch location along the first direction being determined by comparing a capacitive coupling between the touch implement and the plurality of positions in the touch sensor, and the touch location along the second direction being determined by comparing a resistive coupling between the touch implement and the plurality of positions in the touch sensor.

Abstract: A display substrate includes source lines, gate lines, an output pad part, a fan-out part and a first voltage line part. The source lines are in a display area. The gate lines cross the source lines. The output pad part is in a peripheral area surrounding the display area and is electrically connected to output terminals of a driving chip. The fan-out part is electrically connected between the output pad part and the source lines. The first voltage line part is inclined with respect to a central line of a chip area in which the driving chip is mounted toward opposite sides of the chip area to cross the fan-out part. Therefore, the line reactance of the fan-out part is decreased and the uniformity of the line resistance of the fan-out part is increased to improve image display quality.

Abstract: The present invention relates to a display device comprising an outer display stacked with an inner display and being arranged to be operable in a first, multiple view mode and a second, single view mode. An idea of the invention is to arrange an electrophoretic display on top of an emissive display. The display device may be operated in two modes; a first mode being a multiple or dual view mode and a second mode being a single view mode. In order to activate the single view mode, the outer display is set in a transparent state and the inner display is turned on, such that it displays desired objects. In the multiple view mode, the outer display is functioning as a 3D-barrier. Hence, some of the picture elements of the outer display are set in a transparent state while others are set in an opaque state. The viewer sees a different picture with each respective eye, and will accordingly experience a multiple view picture of an object that is displayed on the inner display.

Abstract: A touch sensor and a signal generation method thereof are provided.

Abstract: The efficient incorporation of RFID circuitry within touch sensor panel circuitry is disclosed. The RFID antenna can be placed in the touch sensor panel, such that the touch sensor panel can now additionally function as an RFID transponder. No separate space-consuming RFID antenna is necessary. Loops (single or multiple) forming the loop antenna of the RFID circuit (for either reader or tag applications) can be formed from metal on the same layer as metal traces formed in the borders of a substrate. Forming loops from metal on the same layer as the metal traces are advantageous in that the loops can be formed during the same processing step as the metal traces, without requiring a separate metal layer.

Abstract: Systems for controlling pixels are provided. A representative system comprises a scan driver comprises: a data signal line operative to provide data to the pixel; and a scan driver operative to control illumination of the pixel during sequential time periods such that, if data provided by the data signal line is different between a first time period and a second time period, brightness of the pixel differs during a third time period and a sequential fourth time period. The pixel is illuminated during the third time period and the fourth time period.

Abstract: In a current driving display device, a first operation in which pixel circuits in odd rows are sequentially scanned to set a current supplied to display elements and a second operation in which pixel circuits in even rows are sequentially scanned to set a current supplied to display elements are alternately repeated. The current set in the pixel circuits is supplied to the display elements in parallel with the first and second operations, and the number of times in the period is twice or more than the number of times in which the pixel circuit sets a current supplied to the display element.

Abstract: A method and apparatus for correcting video data signals for addressing an active matrix electroluminescent display device wherein input video signals are modified in accordance with stored electrical characteristic parameter values for each drive transistor (20) employed to control the current through a respective display element (11). The stored values are continually updated to ensure accurate data signal correction which counteracts variations in the electrical characteristics of each drive transistor such as threshold voltage drift, for example. A power line (10) supplies current to n display elements (11). Thus, n sets of data relating to the current through the power line are collected during normal operation of the display, for example. The data is used to calculate updated characteristic parameter values for each drive transistor (20).

Abstract: Provided is a display device of a mobile phone with a sub memory. The display device includes a display panel for displaying application data and state display data corresponding to a main image data signal used to display various application data and a sub image data signal including state display data and picture control signals, a sub memory for storing state display data and picture control signals for outputting state display data and picture control signals to the display panel, and a display driver which drives images or data to be displayed on the display panel.