Abstract: A system including: a sensor module having an inertial measurement unit and attached to the head of a user. The sensor module is initially calibrated to measure its orientation relative a reference pose. To recalibrate the sensor module according to a calibration pose, a camera of the sensor module is used to capture an image of at least one optical mark (e.g., configured on devices held in hands in the calibration pose in front of the user). A direction identified from the image is rotated according to the rotational transformation between the reference pose and the calibration pose measured by the sensor module and then projected on to a horizontal plane relative to the reference pose. The angle in the horizontal plane between the projected direction and the front facing direction is used for the calibration of the subsequent orientation measurements of the sensor module.

Abstract: In some implementations, a computing device may include a first display device and a second display device. An embedded controller may determine a first perceived brightness of the first display based on a first current and a first amount of ambient light associated with the first display device, determine a second perceived brightness of the second display device based on a second current and a second amount of ambient light associated with the second display device, and determine a ratio of the first perceived brightness to the second perceived brightness. The embedded controller may modify, based at least in part on the ratio, the second current to create a second modified amount of current associated with the second display device that modifies the second perceived brightness of the second display device to create a modified second perceived brightness of the second display device.

Abstract: A method and apparatus are provided for controlling a display device to generate a colour image for viewing by a user on a display, the colour image being formed by one or more colour components each of a colour selected from two or more different colours to be displayed with predetermined relative timings. Received image data define one or more colour components of a feature to be displayed as an element in the colour image. Rate data are received, e.g. from an associated tracker system, indicative of a rate of change in orientation of the display relative to a direction of gaze of an eye of the user. The received rate data are used to determine a position on the display for displaying each of the one or more colour components of the feature including determining any respective adjustment required to a determined position for the colour component according to its respective colour, the received rate data and the predetermined relative timings.

Abstract: A display device includes a plurality of pixels arranged in a first direction and a second direction intersecting the first direction, a first wiring extending along a pixel arranged in the first direction among the plurality of pixels, and a second wiring extending along a pixel arranged in the second direction intersecting the first direction among the plurality of pixels, wherein at least of the first wiring and the second wiring includes a first conducting layer arranged contacting an insulating surface, a second conducting layer arranged above the first conducting layer, and a third conducting layer arranged contacting an upper surface and side surface of the second conducting layer and contacting a side surface of the first conducting layer, an end part of the third conducting layer being arranged on the insulating surface.

Abstract: A touch panel including a touch region, a border region, a signal transmission device, and a light transmission pattern is provided. The border region is disposed on at least one side of the touch region. The signal transmission device is disposed in the border region. The light transmission pattern is disposed in the border region. The light transmission pattern partially overlaps the signal transmission device along a vertical projection direction. The signal transmission device includes at least one transparent conducting line. The transparent conducting line overlaps partial the light transmission pattern in the vertical projection direction.

Abstract: Embodiments described herein is able to provide a touch display device, an active pen, a touch system, a touch circuit, and a pen recognition method capable of efficiently providing a display function, a touch-sensing function, and a pen-touch-sensing function.

Abstract: A response control method and an electronic device are provided according to the disclosure. The response control method includes: acquiring a first operation input by an operator to an input apparatus of the electronic device, wherein the input apparatus corresponds to a display screen of the electronic device; determining an input position of the first operation based on the first operation; acquiring a motion parameter of the input apparatus relative to the electronic device, in the case where the input position of the first operation is maintained, wherein at least a one-dimensional motion is supported for the input apparatus relative to the electronic device; and determining and responding to an executive instruction based on the input position and the motion parameter, wherein different motion parameters correspond to different executive instructions.

Abstract: A shift register, a gate driving circuit, a display device and a driving method. The shift register includes: a driving unit, configured to supply a gate line signal to a corresponding pixel unit group; and a compensation circuit provided corresponding to the driving unit; where the compensation circuit is configured to compensate for one or more threshold voltage offsets of one or more transistors in the driving unit.

Abstract: A driving method of scan lines in a display panel and a driving device thereof are described. The driving method of scan lines includes the steps of dividing a plurality of frames into a first frame set and a second frame set, and turning on the scan lines of each frame in the first frame set by using a forward scan direction and turning on the scan lines in the second frame set by a backward scan direction.

Abstract: Integrated light-emitting diode (LED) arrays based devices or systems and methods of forming the integrated LED arrays based devices or systems are provided. In one aspect, an integrated active-matrix LED display includes a silicon substrate including a first side and a second side, an array of active-matrix LED pixels formed on the first side, each LED pixel including at least one LED and at least one non-volatile memory coupled to the at least one LED, display drivers formed on the first side and coupled to the LED pixels, integrated circuits formed on the second side, and conductive electrodes penetrating through the silicon substrate and coupling the display drivers to the integrated circuits. The integrated circuits transmit image/video data to the display drivers via the conductive electrodes, and the display drivers select particular LED pixels and control the particular LED pixels to emit light based on the image/video data.

Abstract: According to one embodiment, a display device which includes a plurality of signal line drivers which drive a display area of a display panel by dividing the display area into a plurality of division display areas is provided. The plurality of signal line drivers include a master signal line driver and a slave signal line diver. Each of the master signal line driver and the slave signal line driver drives at least one of the division display areas. An outward path outputs a direct-current voltage from the master signal line driver to the slave signal line driver. A return path is electrically connected to and is contiguous with the outward path, and returns the direct-current voltage to the master signal line driver.

Abstract: Second light emitting elements and third light emitting elements are disposed at common grid-points that are adjacent in four directions to each grid-point where a first light emitting element is disposed. The controller circuit samples input data at each grid-point to generate display data to illuminate each light emitting element; controls first light emitting element illumination based on first light emitting element color information contained in first display data, which are display data sampled at each grid-point where a first light emitting element is disposed; controls second light emitting element illumination based on second light emitting element color information contained in second display data, which are display data sampled at each grid-point where a second and third light emitting element is disposed; and controls third light emitting element illumination based on third light emitting element color information contained in the second display data.

Abstract: A client device is configured with a test administration application for conducting self-administered tests. A user interface of the test administration application includes motion restriction regions configured to prevent select types of body motion during particular segments of self-administered tests, and testing regions configured to receive a touch input performed by a specific digit of the user. For example, a touch input involves touching, holding, or tapping a single digit within the bounds of a testing region in accordance with instructions provided by the test administration application. The test administration module records motion data comprising one or more touch events, each touch event describing a touch input performed by the user. Undesired touch inputs that may obscure or degrade the reliability of biomechanical data are identified.

Abstract: A method for performing multi-touch (MT) data fusion is disclosed in which multiple touch inputs occurring at about the same time are received to generating first touch data. Secondary sense data can then be combined with the first touch data to perform operations on an electronic device. The first touch data and the secondary sense data can be time-aligned and interpreted in a time-coherent manner. The first touch data can be refined in accordance with the secondary sense data, or alternatively, the secondary sense data can be interpreted in accordance with the first touch data. Additionally, the first touch data and the secondary sense data can be combined to create a new command.

Abstract: An input device includes first electrodes, second electrodes, a switch, and a control device. The first electrodes are spaced from one another in the vertical direction on the substrate. The second electrodes are spaced from one another in the lateral direction on the substrate. The switch switches at least some of the first electrodes between an electrically connected state and an electrically disconnected state. A contact location detector of the control device detects a contact location of a user in accordance with on a change of capacitance of each of the first electrodes and each of the second electrodes. A proximity detector of the control device detects approach of the user in accordance with a change of capacitance of at least some of the first electrodes.

Abstract: An array substrate, a display panel and a driving method thereof. The array substrate includes a plurality of right-angled triangular subpixels. Each subpixel and another adjacent subpixel form a corresponding rectangular virtual pixel, and the plurality of subpixels form a plurality of virtual pixels arranged in an array. Every four adjacent subpixels which belong to different virtual pixels respectively form a corresponding diamond-shaped physical pixel.

Abstract: Disclosed herein are a mobile terminal and a method of controlling the same. Embodiments of the present invention provide a mobile terminal and a method of controlling the same, which are capable of simply controlling an object placed at the back of a transparent display by controlling the distance between the transparent display and the object in the state in which the object has been reflected in the transparent display.

Abstract: A three-dimensional curved touch panel includes a light-transmissivity substrate and a touch-sensing module. The light-transmissivity substrate has a three-dimensional curved surface. The three-dimensional curved surface is defined with a sensing area and a surrounding area surrounding the sensing area. The touch-sensing module is bonded to the sensing area and the surrounding area of the three-dimensional curved surface. The touch-sensing module is provided with two indentations which are opposite to each other at an edge thereof. The indentations are located in the surrounding area, and the sensing area is located between the indentations.

Abstract: An electroluminescent device includes a lower structure including an emission area and a peripheral area, a flexible encapsulating multilayer, and a touch panel including a touch electrode. The emission area includes an electroluminescent unit including a lower electrode disposed directly on an insulating film, an intermediate film, and an upper electrode disposed on the intermediate film. The peripheral area includes an inorganic surface portion substantially surrounding the emission area, various terminals, and wires. A lower surface of the flexible encapsulating multilayer and an upper surface of the inorganic surface portion each include only one or more inorganic materials in direct contact with each other.

Abstract: A display panel is disclosed. The display panel includes a first display substrate, where the first display substrate includes a substrate and a flexible thin film, where the flexible thin film includes a first area covering the substrate entirely, and a second area beyond the substrate. In addition, a first circuit is disposed on the first area, and a second circuit is disposed on the second area. By covering the first display substrate with the flexible thin film, the second circuit on the flexible thin film could be bent, so that the border of the display screen could be narrowed without being limited by the requisite size of the peripheral circuit, thus narrowing the border of the display screen and improving the ration in area of the display screen to thereby accommodate the consumer demand for a wider liquid crystal display screen.