Abstract: A portable electronic device includes a first flexible display. The first flexible display includes a display area, a non-display area, and a first fold such that at least part of the non-display area is non-coplanar with the display area. Information is displayable near the first fold.

Abstract: An electronic binoculars includes: first and second imaging units with a predetermined horizontal distance therebetween disposed in a housing; optical members that guide image light beams to the first and second imaging units; a sensor that detects angular acceleration or acceleration acting on the housing; an image processor that processes image signals produced by the first and second imaging units and corrects the image signals in terms of the change in motion of the housing in accordance with the angular acceleration or acceleration detected by the sensor; and first and second displays with a horizontal distance therebetween disposed in the housing, the first and second displays displaying the image signals processed by the image processor.

Abstract: Disclosed herein is a pointer detection apparatus, including: a conductor pattern including a plurality of first conductors disposed in a first direction and a plurality of second conductors disposed in a second direction; a multi-frequency signal production circuit configured to produce a plurality of signals of different frequencies; a first conductor selection circuit configured to selectively supply the signals of different frequencies to those first conductors, between which N ones of the first conductors are interposed, N being a predetermined integer equal to or greater than 0; a second conductor selection circuit configured to selectively receive detection signals from the second conductors; and a signal detection circuit configured to obtain signals of individual frequencies, corresponding to the signals of different frequencies produced by the multi-frequency signal production circuit, which are representative of coupling states at cross points between the first conductors and the second conductors

Abstract: An image display apparatus includes a pixel array section and a drive section configured to drive the pixel array section. The pixel array section is a pixel-circuit matrix with pixel circuits each serving as a matrix element. The drive section has at least a write scanner for supplying the control signal to each of the scan lines in order to carry out a sequential scanning operation on the scan lines for every field and a signal selector for supplying a video signal to each of the signal lines with a timing adjusted to the sequential scanning operation. Each of the pixel circuits employs at least a sampling transistor, a drive transistor, a signal holding capacitor and a light emitting device.

Abstract: In a method for driving a liquid crystal display (LCD) device, an array substrate, a method of manufacturing the array substrate and the LCD device having the same, data signals are boosted by a first and a second boost signals up to a first and a second pixel voltages, respectively. The first and the second pixel voltages are applied to a transmissive electrode and a reflective electrode, respectively. As a result, the retardation of light passing through a liquid crystal layer on the transmissive electrode and the retardation of light of the liquid crystal layer on the reflective electrode may be controlled to be substantially equal to each other. Thus, the LCD device is driven in a transflective mode with a mono-cell gap so that the yield of the LCD device may be increased.

Abstract: An input device is disclosed. An input device comprises a display unit, an input unit, a load detection unit and a control unit. The display unit displays an object of a folder with a hierarchical structure. The input unit receives pressing inputs with respect to the display unit. The load detection unit detects a pressing load with respect to the input unit. The control unit opens and closes folders based on a change in the pressing load.

Abstract: Provided are a mobile terminal and a method of controlling the mobile terminal in which various operations performed by the mobile terminal can be controlled based on a vibration-indicator image representing the intensity, pattern and frequency of vibration generated by the mobile terminal. Therefore, it is possible for a user to identify the vibration generated by the mobile terminal not only with his or her sense of touch but also with his or her sense of touch. In addition, it is possible to display a vibration-indicator image representing vibration generated upon the detection of an entity near and approaching the mobile terminal and change the vibration-indicator image according to the distance between the entity and the mobile terminal. Thus, it is possible to easily determine the state of the entity.

Abstract: A sensing floor to locate people and devices is described. In an embodiment, the sensing floor (or sensing surface), is formed from a flexible substrate on which a number of distributed sensing elements and connections between sensing elements are formed in a conductive material. In an example, these elements and connections may be printed onto the flexible substrate. The sensing floor operates in one or more modes in order to detect people in proximity to the floor. In passive mode, the floor detects signals from the environment, such as electric hum, which are coupled into a sensing element when a person stands on the sensing element. In active mode, one sensing element transmits a signal which is detected in another sensing element when a person bridges those two elements. In hybrid mode, the floor switches between passive and active mode, for example, on detection of a person in passive mode.

Abstract: A display device includes a plurality of gate lines, data lines, first external gate tracking lines, and second external gate tracking lines. The first external gate tracking lines are substantially disposed in a border region of a substrate, and electrically connected with corresponding gate lines. The second external gate tracking lines are substantially disposed in the border region of the substrate, and electrically connected with corresponding gate lines. One of the first external gate tracking lines and a corresponding second external gate tracking line at least partially overlap with each other.

Abstract: A transmission type display device includes an image formation unit that forms an image of image light, a display unit that transmits ambient light to an image extraction area, and a control unit that determines a first mode in which alight intensity determination value that is a value for determining a light intensity of an image formed by the image formation unit is fixed, and a second mode in which the light intensity determination value is variably set, wherein in the first mode, the control unit fixes the light intensity determination value, and controls the transmittance of the shade, and wherein in the second mode, the control unit variably sets the light intensity determination value, and controls the transmittance of the shade.

Abstract: A laser-based display device includes a plurality of ultraviolet lasers configured to excite a phosphor-containing display screen in order to produce visible light. The laser-based display device also includes a reference laser used for calibration operations. A control system within the laser-based display device causes the reference laser beam to scan across one or more calibration features, and adjusts optical components of the laser-based display device, including activation timing of the ultraviolet lasers, based on feedback patterns generated by the calibration features, to compensate for drift effects. The calibration features may be disposed off-screen or on-screen.

Abstract: A rechargeable touch sensor equipped device (102) is adapted to identify (1008) each of multiple external charging devices (118, 120, 122, 602) by an ID or other information received through an interface (230, 630) or to infer the identity (1020) based on location information derived from received wireless signals, the time and/or day. The rechargeable touch sensor equipped device (102) determines (1026) and records (1028) a touch screen operating frequency to be used when coupled to each external charging device (118, 120, 122, 602) at each battery charge state (or other indication of power draw) and in this way mitigates the adverse effect of variable charger generated noise on the operation of the touch screen.

Abstract: An LCD driving circuit includes a first buffer configured to have a terminal for a first voltage, a terminal for a second voltage and a terminal for an intermediate voltage between the first voltage and the second voltage, and be driven in a range from the first voltage to the intermediate voltage; and a second buffer configured to have a terminal for the first voltage, a terminal for the second voltage and a terminal for the intermediate voltage, and be driven in a range from the intermediate voltage to the second voltage. The terminal for the intermediate voltage of the first buffer and the terminal for the intermediate voltage of the second buffer are connected with each other, and the first voltage is a highest voltage, the second voltage is a lowest voltage, and the intermediate voltage is in a range from the first voltage to the second voltage.

Abstract: A display device includes: a display section having a plurality of pixel electrodes; and a plurality of drive electrodes extending in a first direction and arranged side-by-side in a second direction. Each of the drive electrodes has a width in the second direction corresponding to a size of the two or more pixel electrodes, and has one or more slits extending in the first direction.

Abstract: An touch input electronic device includes: a touch input device; a clock generation circuit, generating a first clock and a second clock; a touch sensing circuit, coupled to the touch input device, the touch sensing circuit operated under the first clock; a logic circuit, receiving a sensing output signal from the touch sensing circuit, the logic circuit operated under the second clock; and a conversion circuit, outputting an output voltage under control of the logic circuit, the output voltage coupled to the touch sensing circuit, the conversion circuit operated under the second clock. In response to the sensing output signal from the touch sensing circuit, the logic circuit controls the conversion circuit to adjust the output voltage to detect a capacitance variance of the touch input device.

Abstract: A liquid crystal display has touch a sensing layer disposed above an image forming part.

Abstract: A touch detecting method comprises: enabling a sample signal in a period between driving a previous gate line and a previous two gate line before a corresponding gate line of a sense unit, and sampling a readout signal in a corresponding readout line during a sample period corresponding to the enabled sample signal by a readout unit; using the sampled readout signal during the sample period by the readout unit as a sample reference signal; enabling a sense readout signal in a period between driving the corresponding gate line of the sense unit and a next gate line, and reading out the readout signal during a sense readout period corresponding to the enabled sense readout signal; using the readout signal during the sense readout period as a sense signal; and judging whether the sense unit is touched according to the sample reference signal and the sense signal.

Abstract: A display controller driver and a testing method thereof are provided. The display controller driver includes an image data memory, a timing control circuit, and a data line driving circuit. The image data memory stores display data. The timing control circuit obtains the display data from the image data memory. The data line driving circuit is coupled to the timing control circuit. The data line driving circuit receives the display data and outputs a grayscale voltage signal corresponding to the display data through at least one data-line output terminal of the display controller driver. In a test operation mode, the timing control circuit further transmits the display data from the image data memory to at least one test output port of the display controller driver.

Abstract: An apparatus is provided that includes a graphic overlay or display for a touch-sensitive surface with which an object comes into contact. The touch-sensitive surface is divided into a plurality of regions each of a number of which is associated with a distinct set of one or more of the plurality of gestures, where the plurality of gestures are associated with a respective plurality of functions of a software application operable by a processor. According to this aspect, the graphic overlay or display visibly depicts the regions and a layout of the regions into which the touch-sensitive surface is divided. The apparatus may further include a touch-feedback interface configured to provide touch feedback indicative of the gesture associated with the respective region within which the touch-feedback interface is disposed.

Abstract: An image display device employs an interface protocol wherein integrated image plus control data is transmitted from a signal controller circuit to each of a plurality of master data driving circuits. The integrated image plus control data includes display control data as well as image-defining data. The signal controller circuit determines which of a plurality of data driving circuits is to function as a master data driving chip and which as a slave data driving chip. The signal controller circuit directly transmits respective integrated image plus control data signals to corresponding ones of the master data driving chips. Each master data driving chip then forwards part of the received integrated image plus control signal to its corresponding slave data driving chip.