Abstract: An object is to provide a touch panel with high-accuracy and high-speed operation. A touch panel includes a plurality of pixels each including a display element and a photo sensor, a photo sensor reading circuit to which an output signal of the photo sensor is provided, a display element select circuit which provides an image signal to the display element, a plurality of edge sensitive latches provided in series, and a logic circuit. The logic circuit generates a signal by performing a logic operation on an output signal of the plurality of edge sensitive latches and provides the generated signal to the photo sensor reading circuit.

Abstract: A computer program product (CPP) for controlling a liquid crystal display (LCD) includes code for applying a test voltage to each liquid crystal element (LCE) disposed in an addressable array forming the LCD, and code for detecting an amount of light received by photosensors while applying the test voltage to the LCEs, wherein each photosensor is aligned behind and logically associated with one of the LCEs. The CPP further includes code for applying selected voltage levels to each LCE to display an image, and code for controlling an amount of backlight produced by backlighting elements in an addressable array while the image is displayed. Each backlighting element is aligned behind and logically associated with one LCE, and at least one backlighting element is controlled to compensate for a difference between the amount of light detected by the photosensor logically associated with at least one LCE and the other photosensors.

Abstract: The invention discloses an LCD driving module, an LCD device, and a method for driving an LCD. The LCD driving module includes a data driving module and a timing control circuit. The data driving module is provided with a data interface via which to connect with the timing control circuit; a programmable Gamma calibration sub-module is integrated in the data driving module; an input end of the programmable Gamma calibration sub-module is connected to the data interface. The invention saves the PCB space, simplifies the circuit, thereby favoring the acceleration of the development progress and saving the development cost.

Abstract: Embodiments described herein synchronize a switching frequency of switched power supplies with timing events associated with updating a display screen or performing touch sensing. For example, a touch event may be the time needed for a touch controller to scan a plurality of sensing electrodes. Because noise is introduced each time switched power supplies switch between different stages, the touch controller may instruct a power management controller to switch between the stages (i.e., adjust the switching frequency) at the same time during each touch event. Even though the switched power supplies are permitted to introduce noise into the touch system, the noise happens at the same time during each touch event. Accordingly, the effect of the noise is the same for each touch event and is cancelled out. A similar process may be used for synchronizing the switching frequency to display events.

Abstract: A display apparatus includes gate lines, data lines insulated from the gate lines while crossing the gate lines, and pixels each including sub-pixels in two successive rows by three successive columns. Among the sub-pixels in the two rows by the three columns, the sub-pixels in one of the three columns are respectively connected to a pair of different gate lines among three gate lines, and the sub-pixels in a different one of the three columns are connected to a remaining gate line among the three gate lines. The sub-pixels in the one and the different one of the three columns includes the same color filter and are applied with a gate signal transmitted in the same direction along pixel rows.

Abstract: A mobile imaging system includes an erasable medium and an imaging device. The erasable medium can be a UV imageable photochromic medium. The imaging device includes an input for generating imageable content in the device, a sensor for detecting and interpreting interaction of the device with respect to an imageable surface of the erasable medium, and an imaging component, responsive to the sensor, for outputting the generated content onto the imageable surface of the erasable medium.

Abstract: A processing system includes a transmitter module, a receiver module, and a determination module. The transmitter module is configured to drive a first contact, a second contact, and a third contact of a first transmitter electrode, wherein the first contact is disposed between the second contact and the third contact. This produces a first voltage gradient between the first contact and the second contact, and produces a second voltage gradient between the first contact and the third contact. The receiver module receives, with a first receiver electrode, a first resulting signal including effects of the first voltage gradient, and to receive, with a second receiver electrode, a second resulting signal comprising effects of the second voltage gradient. The determination module determines positional information for an input object located within a sensing region based on the first resulting signal and the second resulting signal.

Abstract: Touch regions in a diamond configuration in a touch sensitive device are disclosed. Touch regions can include drive regions of display pixels to receive stimulation signals and sense regions of display pixels to send touch signals based on a touch or near touch. The drive regions and sense regions can be disposed diagonally adjacent to each other to form a diamond configuration. In an example diamond configuration, diagonal drive regions can be separate and unconnected from each other, while diagonal sense regions can be electrically connected to each other via their sense lines. The diagonal sense region connections can be in a forward diagonal direction, a backward diagonal direction, or a combination thereof. In an alternate example diamond configuration, diagonal drive regions can be electrically connected to each other via their drive lines, while diagonal sense regions can be electrically connected to each other via their sense lines.

Abstract: Systems and methods for gesture recognition for input device applications are described. In one embodiment, a system for gesture recognition includes a pair of IR LED emitters, an imaging module such as a camera or other imaging device, an LED emitter control module and a processing module. The IR LEDs generate IR light to highlight a target from one or more angles, and the received images are processed to identify target position and/or motion to provide output data based on the determined target position and/or motion.

Abstract: DAC includes a decoder that receives N number of reference voltages and an n-bit digital signal (n 4) to select first to third voltages, and an operational amplifier to output (first voltage+second voltage+2 third voltage)/4 voltage. The operational amplifier is able to output, for respective 2^n combinations of the n-bit digital signal, voltage levels from an Ath level, as a base level, to an (A?1+2^n)th level. The N number of reference voltages include Ath level, (A+4)th level, (A?4+2^n) and (A+2^n), and an at most {?4+2^(n?2)} reference voltages obtained by decimating a pre-set at least one reference voltage from {?3+2^(n?2)} reference voltages that are other than the four number of reference voltages from the {1+2^(n?2)} reference voltages corresponding to the voltage levels spaced each other at an interval of 4 levels from the Ath level. N is not less than 4 and not more than 2^(n?2).

Abstract: A head-mounted display device includes: an image display unit including an image-light generating unit that generates image light representing an image and emits the image light and a light guide unit that guides the emitted image light to the eye of a user, the image display unit being for causing the user to visually recognize a virtual image; and a control unit that includes an operation surface, is connected to the image display unit, and controls image display by the image display unit. When it is assumed that the user shifts the user's attention from the virtual image, the control unit adjusts the luminance of the image-light generating unit or adjusts the image light generated by the image-light generating unit to reduce the visibility of the virtual image.

Abstract: A display device with a touch sensor includes: plural display pixel electrodes; a common electrode arranged opposite to the display pixel electrodes; a display function layer having an image display function; a display control circuit performing image display control so as to fulfill the display function of the display function layer by applying a voltage for display between the display pixel electrodes and the common electrode based on an image signal; and a touch detection electrode provided opposite to the common electrode and forming capacitance between the touch detection electrode and the common electrode, wherein a drive voltage for display applied to the common electrode by the display control circuit is used as a drive signal for the touch sensor, and a gate potential of TFT circuits included in the display pixel electrodes is increased during a period when the drive signal for the touch sensor is applied.

Abstract: A display device includes a pixel array. The pixel array includes multiple pixel elements. At least one pixel element includes an OLED, a first transistor, a second transistor, a third transistor, a first capacitor and a second capacitor. The first transistor has a first terminal coupled to an anode of the OLED for driving the OLED. The second transistor is coupled between a second terminal of the first transistor and a reset voltage and has a control terminal receiving a reset signal. The third transistor is coupled between the anode of the OLED and a control terminal of the first transistor and has a control terminal receiving a compensation signal. The first capacitor is coupled between the control terminal of the first transistor and the anode of the OLED. The second capacitor is coupled to the first capacitor and the control terminal of the first transistor.

Abstract: A touch panel includes first sensing pads, first bridge lines, second sensing pads, adjusting electrodes, second bridge lines and third bridge lines. The first sensing pad has a first opening. The first sensing pads and the first bridge lines are arranged alternately along a first direction and electrically connected to each other. The second sensing pads and the second bridge lines are arranged alternately along a second direction and electrically connected to each other. The adjusting electrodes are disposed in the first openings and the second openings, and the adjusting electrodes are electrically disconnected from the first sensing pads and the second sensing pads. Adjacent adjusting electrodes are electrically connected through the third bridge line. The first sensing pads, the second sensing pads and the adjusting electrodes are made of a same patterned conductive layer.

Abstract: The present invention includes, in addition to transistors each (Mm,n) provided at the intersection of a gate bus line (GLn) with a data bus line (DLm): block potential applying transistors (DMn) connected to respective ends of gate bus lines (GLn) which ends are not connected to a gate driver (11); a potential supply line (VLL) connected to the gate bus lines (GLn) via the block potential applying transistors (DMn); and a blocking signal supplying section (131) for, immediately after the gate driver (11) supplies a first conduction signal for bringing the transistors (Mm,n) into conduction, supplying to the block potential applying transistors (DMn), a second conduction signal for bringing the block potential applying transistors (DMn) into conduction.

Abstract: A transmission interface has a quick burst motion readout mechanism and is configured to be used between a master device and a slave device. The transmission interface includes a trigger channel configured to allow the master device to transmit a trigger signal to the slave device before transmission of data, and includes a data transmission channel provided to the slave device to transmit readable data to the master device after the slave device receives the trigger signal. The master and slave devices are adapted to a predetermined data transmission protocol by which the readable data can be directly transmitted and not accompanied by address data related to the readable data.

Abstract: A method for multi-touch control and associated apparatus is provided. The method includes indentifying two peak sensing values from a plurality of sensing values of a touch panel, providing a threshold according to intrinsic characteristics of the touch panel and features of the sensing values, comparing whether the sensing values between the two peak sensing values are lower than the threshold, and selectively reporting multi-touch events.

Abstract: An input terminal device of one example includes a CPU, and the CPU transmits operation data to a game apparatus executing game processing in response to an operation by a user. Furthermore, when a TV remote control button provided to the input terminal device is operated, the CPU sets a TV control mode capable of operating a television, to thereby display a TV remote controller image on an LCD of the input terminal device. By using this image, the user inputs operation data of the television.

Abstract: An optical data recording medium, in which irradiation of a light beam is used for recording and/or reproducing data includes (i) a substrate having an a rise and/or a recess which are a light-incident surface, (ii) a reflective layer, provided on the light-incident surface of the substrate, for reflecting the light beam, (iii) a light absorption layer for converting, to heat, a light of the light beam to heat on the surface of the reflective layer, (iv) a reproducing layer, provided on the surface of the heat-light converting layer, having a transmittance that changes in accordance with a light intensity distribution of the light beam. The optical data recording medium is excellent in super-resolution property, and enables reproduction of a shorter mark length.

Abstract: A display panel includes, for each pixel, a self light emitting device and a pixel circuit driving the self light emitting device. The pixel circuit has a retention capacitor, a first transistor writing a voltage corresponding to a video signal in the retention capacitor, and a second transistor driving the self light emitting device based on the voltage of the retention capacitor, and the display panel has a light exit face discharging a light emitted from the self light emitting device to outside and also has a light blocking layer blocking an external light introduced from the light exit face to the first transistor.