Abstract: A pixel includes a driving transistor connected to an organic light emitting diode. The circuit places the driving transistor in an on-biased state based on first and second scan signals which at least partially overlap during a time when an organic light emitting diode does not emit light. The first and scan signals are received from different scan lines. The scan lines may be adjacent scan lines.

Abstract: Disclosed is a display device including a light emission driver configured to sequentially generate a plurality of light emission signals having a disable level during a first period; and a scan driver configured to generate a plurality of shift outputs each having two enable pulses, and each outputting two scan signals, in response to two light emission signals among the plurality of light emission signals, by dividing the two enable pulses of a first shift output among the plurality of shift outputs, which correspond to the two light emission signals among the plurality of light emission signals, from each other.

Abstract: An image processing part includes an edge enhancing part, an artifact detecting part and a compensating part. The edge enhancing part emphasizes an edge portion of an object in input image data. The artifact detecting part detects a corner outlier artifact at an area adjacent to the edge portion of the object. The compensating part compensates the corner outlier artifact. Accordingly, the edge portion of the object may be enhanced and the corner outlier artifact is decreased so that the display quality may be improved.

Abstract: A processing system comprises a sensor module and a determination module. The sensor module comprises sensing circuitry coupled to sensor electrodes of a sensor electrode pattern. The sensor module is configured to: drive a modulated signal onto a first sensor electrode of the sensor electrode pattern; receive first resulting signals from the first sensor electrode; and receive second resulting signals from a second sensor electrode of the sensor electrode pattern. The second resulting signals comprise effects corresponding to the modulated signal, and the first resulting signals and the second resulting signals are simultaneously received. The determination module configured to determine a change in capacitive coupling between an input object and the first sensor electrode based on the first resulting signals and a change in capacitive coupling between the first and second sensor electrodes based on the second resulting signals.

Abstract: For detecting a signal based on driving of a pen point of a stylus pen satisfactorily, a stylus pen (15) includes a changeover switch (34) having a grip portion terminal (35) of a grip portion (28), a pen point terminal (36) of a pen point (38), and a ground terminal (37) of a ground, the changeover switch (34) switching connection of the grip portion terminal (35) to either the pen point terminal (36) or the ground terminal (37).

Abstract: A stylus comprises a barrel having a scribing nib disposed at one end thereof. The barrel supports at least one multi-level force-sensitive user interface. A control circuit operably couples to this control surface and responds differently to each of at least two different levels of applied force as applied to that control surface. For example, the control circuit can respond to one level of applied force by causing the transmission of a first signal to influence in a first way the scribing interaction between the stylus and the scribing surface and can respond to a second, different level of applied force by causing the transmission of a second, different signal to influence in a second, different way the scribing interaction between the stylus and the scribing surface.

Abstract: A configuration of a touch panel having a terminal structure that enables stable connection between lines and terminals is obtained. A touch panel includes: an insulating substrate (10); a first electrode that is formed on the substrate (10) and extends in a first direction; a second electrode that is formed on the substrate (10) and extends in a second direction that crosses the first direction; a first insulating film (15) that insulates the first electrode and the second electrode from each other; a terminal (18) formed on the substrate (10); and a line (14) that electrically connects a respective one of the first and second electrodes with the terminal (18).

Abstract: The present invention discloses a touch panel, a liquid crystal display device and a scanning method thereof. The touch panel includes an array substrate including a common electrode layer, wherein the common electrode layer includes an electromagnetic-capacitive composite structure configured to identify touch signals; wherein, the electromagnetic-capacitive composite structure includes a capacitive touch structure and an electromagnetic touch structure. The electromagnetic touch structure and the capacitive touch structure are integrated on the array substrate, so that the thickness and the cost and complexity of the manufacturing of the touch panel and the liquid crystal display device are effectively reduced.

Abstract: A portable terminal includes a body, and an input part on a side of the body, the input part having a changeable position.

Abstract: A method of controlling a dimming operation is disclosed. In one aspect, the method includes determining the brightness of an input image frame based on input image data, determining an input dimming value based on the brightness of the input image frame, selectively performing the dimming operation is based on a comparison of an absolute value of a difference between the input dimming value and a current output dimming value against a predetermined threshold value, where a value generated by adjusting the current output dimming value by a predetermined adjustment value is output as a next output dimming value when performing the dimming operation, and the input dimming value is output as the next output dimming value when not performing the dimming operation.

Abstract: The invention discloses a thin film transistor drive circuit and a drive method thereof and a liquid crystal display device. The thin film transistor drive circuit includes a plurality of scan lines, a scan signal output port configured to sequentially apply a scan signal to each of the scan lines, and a plurality of logic circuits. Each of the logic circuits is connected with one of the scan lines and a control signal line. The logic circuits are added to a drive circuit, and an input control signal corresponding to a truth table of the logic circuit is input for a preset duration by using a logic relationship of the logic circuit, so that an output control signal output to a scan line can be obtained to improve a scan signal on the scan line, to improve a delay distortion at the time of being turned off.

Abstract: Systems, methods and computer program products for providing a text sensitive backspace key for bi-directional content are disclosed. Such systems, methods and computer program products provide a multi-stage text flow identification approach that combines desirable aspects of tracking a chronological position of typed characters as well as a cursor within bi-directional content. A directional orientation of a backspace key is thereafter manipulated on a keyboard that is both reliable and intuitive for users of a computing system. Thus, when a last-typed character, chronologically positioned immediately before the cursor, is a left-to-right (LTR) character (e.g., English language text), the backspace key is displayed in a first direction. When the last-typed character is a right-to-left (RTL) character (e.g., Hebrew language text), the backspace key is displayed in a second direction. Advantageously, the user visually learns which character will be deleted when the backspace key is pressed on the keyboard.

Abstract: A display screen arrangement is disclosed herein. The arrangement includes, but is not limited to a concealable feature adapted to be mounted to an interior surface of a vehicle. The arrangement further includes, but is not limited to, a display screen that is adapted to be mounted to the interior surface of the vehicle proximate the concealable feature. The display screen has a first end and a second end and is configured to move between a retracted position and a deployed position. The first end and the second end are disposed in a first position relative to one another when the display screen is in the deployed position and the first end and the second end are disposed in a second position relative to one another when the display screen is in the retracted position and/or when the display screen transitions between the deployed position and the retracted position.

Abstract: An information processing apparatus includes a pressure detecting unit for detecting a magnitude of a contacting pressure of a contacted object with respect to an input device operated when physically contacted by the contacted object; and a changing unit for changing a display region displayed on a display device of predetermined information to be displayed on the display device according to an output signal output from the input device at a speed corresponding to the magnitude of the contacting pressure detected by the pressure detecting unit.

Abstract: A method of providing a user defined user key pad and a mobile terminal supporting the same are provided. The method includes displaying guide information when entering a user key pad setting mode, determining a designation range for the user key pad according to a user interaction inputted based on the guide information, computing a key arrangement of the user key pad in response to the determined range, and configuring the user key pad according to the computed key arrangement.

Abstract: This disclosure relates to a touch screen panel for a display device. The touch screen panel includes a base layer, a plurality of first electrode strings, a plurality of second electrode strings, a plurality of first routing wires, a plurality of second routing wires; a third wire formed between the first routing wires and the second routing wires, an insulation layer that covers the first and second routing wires and the third wires and has contact holes exposing a part of the third wire, and a shield pattern that is formed on the insulation layer contacts the third wires through the contact holes, and overlaps either the first routing wires or the second routing wires.

Abstract: A multi-primary-color liquid crystal panel driver (100) according to the present invention includes: a multi-primary-color converter (110) which performs a multi-primary-color conversion to convert the grayscale levels of an input video signal in each of a plurality of vertical scanning periods into grayscale levels of four or more primary colors; and an overdrive circuit (120) which sets, based on the grayscale levels that have been subjected to the multi-primary-color conversion in one vertical scanning period and on the grayscale levels that have been subjected to the multi-primary-color conversion in another vertical scanning period that is earlier than the one vertical scanning period by at least one period, the grayscale levels of the four or more primary colors in that one vertical scanning period. The present invention provides a multi-primary-color liquid crystal panel that can improve the display quality even when the input video signal has varying grayscale levels.

Abstract: A driving circuit for a liquid crystal display device includes a liquid crystal panel comprising a plurality of pixel areas to display an image; a data driver configured to drive data lines of the liquid crystal panel; a gate driver configured to drive gate lines of the liquid crystal panel; and a timing controller configured to generate an internal enable signal in an initial driving where an external power is applied, to control the gate and data drivers, and configured to control the gate and data drivers based on synchronization signals, after controlling the driving of the gate driver to be stopped for one frame period when at least one synchronization signals are input from outside.

Abstract: A method for detecting a single-finger rotation gesture and a gesture detecting circuit thereof are provided. The gesture detecting circuit comprises a quadrant dividing unit, a register, a control unit, a comparing unit, and an outputting unit. The quadrant dividing unit, according to the center point, divides a touch panel into at least three quadrants and sets a plurality of data codes respectively corresponding to the quadrants. Within a predetermined time, the control unit controls the register to sequentially record the data codes respectively corresponding to the touched quadrants. When the predetermined time is reached, the comparing unit compares to judge whether the temporary data buffered in the register is the same with the default data. If the temporary data is the same with the default data, then the outputting unit outputs a rotation gesture signal.

Abstract: A touch panel includes a transparent panel, a transparent electrode which is formed in a transparent input region on a first surface of the transparent panel, a decorative layer which is formed in a decorative region on the first surface, a wiring layer which is formed on a surface of the decorative layer, and a transparent conductive connection layer which electrically connects the wiring layer and the transparent electrode.