Abstract: Disclosed is a GOA driving circuit including multistage cascaded GOA units. A current-stage GOA unit includes a pull-up control module, a pull-up module, a pull-down module, and a pull-down holding module. The pull-down holding module is configured to hold the pull-up control signal and the line-scanning signal of the current-stage GOA unit at a low level according to a second clock signal, during a scan cycle of pixel units not in a current line. The GOA driving circuit simplifies a structure of a GOA driving circuit and is conducive to a narrow-bezel design.

Abstract: The present disclosure provides a method for controlling a display device, a control apparatus for a display device, and a display device comprising the control apparatus. The method for controlling a display device may comprise the steps of: determining whether or not to perform peak driving for respective backlight sub-regions of the display device, the backlight sub-regions corresponding to sub-display areas of the display device; and performing, in response to a result of the above determining step, data signal compensation at least for sub-display areas whose average luminance values are lower than a preset first luminance threshold among the sub-display areas to which the backlight sub-regions that are determined to be subjected to peak driving correspond.

Abstract: A touch control panel assembly defining a plurality of touch buttons each adapted to control at least one function of at least one associated load. The touch control panel assembly comprises a front panel assembly adapted to removably attach to a rear panel assembly. The rear panel assembly comprises a user interface board comprising a plurality of touch sensing fields disposed at locations corresponding to the plurality of touch buttons to detect user input through the front panel. The user interface also comprises a plurality of light sources to provide backlighting to the touch buttons. The front panel assembly comprises a front panel and a frame comprising a frame wall attached to a rear surface of the front panel. The frame wall comprises a plurality of openings extending therethrough at locations corresponding to the touch buttons that define a plurality of label compartments.

Abstract: The present invention relates to a head mounted display (HMD) capable of receiving an image through a camera. An HMD according to an embodiment of the present invention comprises: a main body configured to be worn on a user's head; a camera equipped in the main body; a sensing unit configured to measure the distance between the main body and a subject corresponding to the image received through the camera; and a control unit which determines a plurality of feature points satisfying preset conditions in the image, measured, by means of the sensing unit, the distance between the main body and the subject corresponding to at least one of the plurality of feature points, and determines the movement of the main body on the basis of at least one of the plurality of feature points and the measured distance.

Abstract: Head-worn displays are disclosed. A head-worn display may include at least one processor configured to determine a location of the head-worn display with respect to a real-world environment and to generate a conformal indicator conforming to an element in the real-world environment. The at least one processor may also be configured to generate a non-conformal indicator unconstrained by elements in the real-world environment. The head-worn display may include at least one display in communication with the at least one processor. The at least one display may be configured to display the conformal indicator and/or the non-conformal indicator generated by the at least one processor to a user.

Abstract: A display device includes a display panel, a first flexible film, and a second flexible film. The display panel includes a non-display area outside a display area. The first flexible film is attached to a first side surface of the display panel. The second flexible film is attached to a second side surface of the display panel. The display panel includes a signal line, a pad electrode, and a side surface connection electrode. The signal line is in the display area and connects the first and second flexible films. The pad electrode extends from the signal line. The side surface connection electrode is on the first and second side surfaces and directly contacts the pad electrode. The first flexible film and the second flexible film are coupled to the side surface connection electrode and are electrically connected to the signal line.

Abstract: A display device with a touch detection function including a plurality of touch detection electrodes arranged in parallel to extend in one direction, formed with a predetermined electrode pattern including an electrode portion and aperture portions, and each outputting a detection signal based on a change of an electrostatic capacitance in response to an external proximity object, a plurality of display elements formed in a layer different from a layer provided with the touch detection electrodes, and arranged by a predetermined number in a width direction in a region corresponding to the touch detection electrode, and a plurality of dummy electrodes arranged in an inter-detection-electrode region of the plurality of touch detection electrodes. The aperture portions are provided to allow an arrangement area ratio of the touch detection electrode to be almost equal to an arrangement area ratio of the dummy electrodes in the inter-detection-electrode region.

Abstract: The present inventive concept relates to a display device improving a bright difference. An exemplary embodiment of the inventive concept provides a display device, including a panel including a plurality of pixel areas having different widths, and a data driver supplying data signals having different voltages to the plurality of pixel areas in response to a same grayscale.

Abstract: A system for calibrating an organic light emitting diode (OLED) display is presented. The calibration system includes a series of photodiodes coupled to at least a portion of illumination elements of the OLED display, a controller, and a driver circuit. The series of photodiodes is configured to measure, for one or more illumination elements, illumination latencies and time delays associated with different brightness levels. The controller obtains, for each illumination element, information about brightness levels associated with image light emitted from that illumination element for at least two consecutive video frames. Based on the measured latencies, the time delays and the information about brightness levels, the controller determines a driving signal for a driver circuit for each illumination element. The driver circuit applies the determined driving signal to that illumination element to calibrate the OLED display.

Abstract: An interactive touch system comprising: a touchpad, an electronic assembly linked electronically to the touchpad and comprising communication means able to receive data to be displayed on a screen of the touchpad and program updates, a card for converting control signals of the touchpad, linked to the touchpad, being linked to an electrical generator and also linked and driven by the electronic assembly, an electronic card able to control the lighting up of the back lighting system, being linked to the electrical generator and also linked and driven by the electronic assembly, a touch controller linked to the touchpad connected to the electronic assembly. The electronic system, the control card for the lighting up of the backlighting system, the card for converting the video signals and the touch controller are incorporated in the back of said touchpad and are linked by an action facility.

Abstract: A Predictive, Foveated Virtual Reality System may capture views of the world around a user using multiple resolutions. The Predictive, Foveated Virtual Reality System may include one or more cameras configured to capture lower resolution image data for a peripheral field of view while capturing higher resolution image data for a narrow field of view corresponding to a user's line of sight. Additionally, the Predictive, Foveated Virtual Reality System may also include one or more sensors or other mechanisms, such as gaze tracking modules or accelerometers, to detect or track motion. A Predictive, Foveated Virtual Reality System may also predict, based on a user's head and eye motion, the user's future line of sight and may capture image data corresponding to a predicted line of sight. When the user subsequently looks in that direction the system may display the previously captured (and augmented) view.

Abstract: A mobile terminal and a method for determining a scrolling speed are provided. The mobile terminal includes: a flexible screen configured to display an application icon on an application icon presentation interface; at least two accelerometers located in different positions on the flexible screen, the at least two accelerometers being configured to detect accelerations on the flexible screen; and a processing module configured to calculate a bending speed of the flexible screen according to the accelerations detected by the at least two accelerometers, and determine a scrolling speed of the application icon on the application icon presentation interface according to the bending speed, wherein the bending speed is a changing speed of a bending angle of the flexible screen.

Abstract: Disclosed is a system and method for a capacitive sensing device. The method includes transmitting a stimulation signal to a driving channel of the capacitive sensing device. The stimulation signal includes a plurality of sub-stimulation signals. Each of the sub-stimulation signals is characterized by an amplitude and a frequency. The frequencies of the sub-stimulation signals are orthogonal. The method further includes receiving a charge signal from a sensing channel of the capacitive sensing device. The charge signal is generated from the stimulation signal through a capacitance between the driving channel and the sensing channel. The method further includes detecting, from the charge signal, a plurality of sub-charge signal amplitudes at the frequencies of the sub-stimulation signals, and reporting a value about the capacitance from the sub-charge signal amplitudes. The method benefits the capacitive sensing device for increased noise immunity, reduced dynamic range, and reduced power consumption.

Abstract: A display device according includes a display panel configured to display an image, a first flexible printed circuit film, and a second flexible printed circuit film. The display panel has a first pad area and a second pad area, the first flexible printed circuit film has a third pad area and a fourth pad area, and the second flexible printed circuit film has a fifth pad area and a sixth pad area. The third pad area is bonded to the first pad area, the sixth pad area is bonded to the second pad area, and the fifth pad area is bonded to the fourth pad area. An integrated circuit chip is mounted on the first flexible printed circuit film.

Abstract: Examples are disclosed herein that are related to eye tracking using scanned beam imaging and multiple photodetectors. One example provides an eye tracking system, comprising an infrared light source, scanning optics configured to scan light from the infrared light source across a region comprising a user's cornea, and a plurality of photodetectors, each photodetector being configured to detect infrared light reflected from the user's cornea at a corresponding angle.

Abstract: In certain embodiments, a touch sensor includes a first electrode and a second electrode. The second electrode is interleaved with the first electrode. The touch sensor further includes a third electrode. The third electrode surrounds the first electrode and the second electrode. The first, second, and third electrodes of the touch sensor form a capacitive node.

Abstract: The present invention reliably and sufficiently corrects a voltage variation in data signal lines in a display device resulting when sampling analog video signals, while suppressing increase in layout area. In a data signal line drive circuit of an active matrix liquid crystal display device, a video signal Svi is sampled by an Nch transistor (SWk) which has a parasitic capacitance (Cgd) that causes a voltage drop in a data signal line SL3(i?1)+k (i=1 through n; k=1, 2, 3). To correct this, an inversion delayer (342) makes logical inversion of the transistor (SWk)'s control signal Sck and delays the inverted signal for a predetermined time to generate an inversion delayed signal Srdk, and applies this inversion delayed signal Srd to the data signal line 3(i?1)+k via a correction capacitance element (Cc). The inversion delayer (342) makes the inversion delayed signal Srdk start its change from an L level voltage to a H level voltage after the Nch transistor (SWk) has assumed an OFF state.

Abstract: In a liquid crystal display (LCD) device having a touch panel function, power consumption is reduced in the standby state. The display section is divided into blocks each of which is formed of a plurality of display lines. The counter electrode is disposed for each block. A driving circuit selectively supplies, to the counter electrode of each block, the voltage used for the liquid crystal display and the voltage used for the touch panel scanning. The driving circuit has a source amplifier that supplies the video voltages to the video lines. The driving circuit reduces the current in the source amplifier, such that the current is lower than current at the time of a normal operation, to lower the power consumption, and stops the operation of the source amplifier and supplies the GND voltage to the video lines to further lower the power consumption.

Abstract: An apparatus includes a plurality of capacitive sensors arranged in a matrix on a substrate. A measuring circuitry measures the capacitance of each of a plurality of row lines and a plurality of column lines in the matrix coupled to the capacitive sensors. A first electrode is on the substrate on a first edge of the matrix and is proximal to a first corner of the matrix. The first electrode is coupled to the measuring circuitry. A second electrode is on the substrate on the first edge of the matrix and is proximal to a second corner of the matrix, the second corner opposing the first corner on the first edge. The second electrode is coupled to the measuring circuitry. The measuring circuitry determines the positions of two touches to the touch pad. Methods are disclosed.

Abstract: A HMD system including a visor mounted on a head of a user. The visor includes adjustable light transmission layer activated by activation radiation of at least a visible activation waveband and an Ultra Violet (UV) activation waveband. The visor defines a Line Of sight (LOS) projecting from a point on the visor and further defines a Field Of View (FOV) projecting from at least a section of the visor that surrounds the point on the visor. The visor is configured to admit an outside scene image. The HMD system further includes a luminosity sensor configured to detect luminosity within the FOV and a UV activation radiation source configured to selectively irradiate at least a portion of the visor with activation UV light included in the UV activation waveband according to luminosity detected by the luminosity sensor, thereby activating the adjustable light transmission layer.