Abstract: A display device according to an example can include a display panel including a plurality of sub pixels to display an image, a memory configured to store a look-up table including a gain value, and a deterioration compensating unit configured to compensate the deterioration of the deteriorated sub pixel based on a sensing voltage input from the display panel and update the look-up table by measuring a luminance of the image displayed on the display panel.

Abstract: Disclosed is a an in-cell type display device including a touch screen function which is capable of preventing a luminance from being changed in accordance with a viewing angle, and omitting a process of connecting touch electrodes provided in an upper substrate with Tx driver and Rx driver connected with a lower substrate, wherein the display device includes a lower substrate, a thin film transistor layer including thin film transistors provided on the lower substrate, an encapsulation layer provided on the thin film transistor layer, color filters provided on the encapsulation layer, a black matrix provided between the color filters and provided on the encapsulation layer, and first touch electrodes overlapped with the black matrix.

Abstract: A control device includes: a warm-up determiner which determines, when color calibration of a display device is to be performed, whether a warm-up of a colorimeter is necessary, based on a predetermined condition; a display controller which causes, when the warm-up determiner determines that the warm-up of the colorimeter is necessary, a predetermined image, which indicates an attachment position of the colorimeter onto the display device, to be displayed on the display device; and a warm-up controller which starts, when the colorimeter is determined as being attached at the attachment position, the warm-up of the colorimeter by using the display device.

Abstract: Apparatus, methods and systems are disclosed for interacting with an electronic device, including inputting letters. One embodiment of the apparatus includes buttons and a text output field displayed on a touch-sensitive display screen. Each button is assigned one or more letters. The text output field displays text and tentative letter selection indicators. In one embodiment of the method, the device records button actuations that ambiguously identify letter selections. With each actuation, a tentative letter selection indicator becomes appended to the end of the contents of the text output field. Upon activation of a button such as a spacebar button, or in response to an event such as expiration of a time period, a language algorithm disambiguates the recorded ambiguously identified letter selections and returns a word suggestion. The returned word replaces a sequence of appended tentative letter selection indicators displayed in the text output field.

Abstract: A multi-vision display device includes a timing controller, a plurality of display panels, and a plurality of display driver integrated circuits (ICs). The timing controller is configured to receive source data and timing signals from a host, and generate a data packet comprising image data and control data. The plurality of display driver ICs each is connected to any one of the plurality of display panels. The control data includes a panel identifier indicating a number of display panels of the plurality of display panels connected to the display driver IC prior to a corresponding display panel connected to the display driver IC. Adjacent ones of the plurality of display driver ICs are connected to each other, modulate the panel identifier provided from one among the timing controller and a front end display driver IC, and provide the modulated panel identifier to a rear end display driver IC.

Abstract: A touch sensor includes a substrate, an insulating layer, a sensor, and sensing lines. The substrate includes: a sensing region, and a peripheral region at a periphery of the sensing region. The insulating layer is on the substrate. The insulating layer includes contact holes. The sensor is on the substrate and overlaps the sensing region. The sensing lines are on the substrate and overlap the peripheral region. The sensing lines are connected to the sensor. Each of the sensing lines is formed as a multilayer structure. The multilayer structure includes a first electrically conductive layer on the substrate, and a second electrically conductive layer connected to the first electrically conductive layer via a contact hole among the contact holes. Widths of the sensing lines are different from one another.

Abstract: A sensor system, which detects a stylus and is provided in an electronic apparatus, includes a first integrated circuit, a second integrated circuit, and an integrated circuit connection line that couples the first integrated circuit and the second integrated circuit to each other. The first integrated circuit is connected to a first sensor electrode group, and detects a position of the stylus on a panel face of a first housing. The second integrated circuit is connected to a second sensor electrode group, and detects a position of the stylus on a panel face of a second housing. When the first integrated circuit detects a presence of the stylus, a notification indicative of the detection is issued to the second integrated circuit through the integrated circuit connection line such that transmission of an uplink signal through the second sensor electrode group by the second integrated circuit is stopped.

Abstract: A personal, electronic target vision system renders targets in the field of view of the user in real-time so that the user can visualize where the targets are relative to him, in an orientation analogous to unaided human vision. An electronic vision device exchanges target selection information with a target vision server which returns to the electronic vision device the corresponding selected target location information for rendering selected targets in accordance with the user's changing viewpoint. The target vision server queries a target information server in order to access, filter and provide the real-time target location information required by the electronic vision device. A surveillance system of sensors and target tracking systems provides the target information server with target location information.

Abstract: A head-mounted display includes a display host, a head belt base, a first lateral head belt, a second lateral head belt, an auxiliary head belt, a knob, a first driving component and a second driving component. The head belt base is connected to the display host through the first and second lateral head belts and the auxiliary head belt. The knob is pivoted to the head belt base, and the knob is coupled to the first and second lateral head belts through the first driving component and is coupled to the auxiliary head belt through the second driving component. The knob synchronously drives the first and second driving components, to drive the first and second lateral head belts through the first driving component and drive the auxiliary head belt through the second driving component. Alternatively, the knob drives one of the first driving component and the second driving component.

Abstract: The present disclosure relates to a data processing device, a data driving device, and a system for driving a display device, and more particularly, to a data processing device, a data driving device, and a system for speeding up data communication in a display device.

Abstract: A light-blocker apparatus may include a support element dimensioned to fit a contour of an eyecup of a head-mounted display. Additionally, the light-blocker apparatus may include an attachment feature, defined at a base of the support element, that connects the support element to the eyecup such that, when the support element is attached to the eyecup, the support element moves in conjunction with the eyecup. The light-blocker apparatus may also include an interface extending from the support element and may be dimensioned to interface with an eye area of a user's face to reduce light entering the eyecup from outside of the head-mounted display when worn by a user. Various other apparatuses, systems, and methods are also disclosed.

Abstract: A display system and a display device are provided. The display system includes a host device, a display device and an input device. The display device includes a display controller, a display panel and a USB hub. The display controller processes an image signal provided by the host device with a first processing mode and displays the processed image signal on the display panel. The USB hub is coupled to the host device. The input device is coupled to the USB hub. The input device forms a first signal input path with the host device via the USB hub and a second signal input path with the display controller via a signal line. The input device transmits the control signal via the signal line to cause the display controller to process the image signal with a second processing mode and display the processed image signal on the display panel.

Abstract: A display driving integrated circuit performs an adaptive frame operation. An operation method of the display driving integrated circuit includes outputting current frame data to an external display panel, starting to receive next frame data from an external device after a first time point, the first time point being a time point when a first time period elapses, the first time period immediately following a second time point at which the current frame data are completely output, and generating a vertical synchronization signal at a third time point synchronized with a cycle of an emission control signal, in response to starting to receive the next frame data.

Abstract: A display system has a flexible display screen which has a front side and a back side, and a plurality of haptic elements arranged in an array on the back side of the screen. The display system also has a controller board connected to the plurality of haptic elements and the flexible display screen. The controller board is configured to display a plurality of interactive buttons on the front side of the flexible display screen in locations corresponding to the plurality of haptic elements. The plurality of haptic elements are configured to provide haptic feedback based on touch input provided to the front side of the screen. The haptic feedback includes actuating a haptic element which corresponds to the location of an interactive button selected by the touch input.

Abstract: A display device having a plurality of light emitting regions and a plurality of transparent regions alternately disposed is provided. The display device includes a display module and a reflection element. The display module includes a front pixel and a rear pixel disposed opposite to the front pixel, the front pixel and the rear pixel are disposed in the plurality of light emitting regions, and the front pixel displays a first image in the plurality of light emitting regions. The reflection element is disposed at a side of the display module adjacent to the rear pixel, wherein the reflection element reflects a second image displayed by the rear pixel to form a third image. The first image in the plurality of light emitting regions and the third image in the plurality of transparent regions are combined to show a predetermined image.

Abstract: A head-mounted display includes a front having a display housing and a back having a rear housing. A first member extends between the front and the back and is adjustable via an actuation of a first rotatable actuator and a first cabling mechanism. A second member extends between the front and the back and is adjustable via an actuation of a second rotatable actuator and a second cabling mechanism. A third member extends between the front and the back and is adjustable via the actuation of the second rotatable actuator and a third cabling mechanism.

Abstract: A head-mounted display includes a display unit and a facial interface. The display unit includes a display for displaying graphical content to a user. The facial interface is coupled to the display unit and configured to engage a face of the user to support the display unit thereon. The facial interface includes an upper portion that engages a forehead of the user and side portions that engage temple regions of the user. The facial interface converts forward force applied to the upper portion by the forehead into inward force applied by side portions to the temple regions.

Abstract: A dot array illuminator includes an illumination source that includes one or more source arrays and a microlens array (MLA). A source array is an array of light emitting components. The source arrays are positioned on a substrate according to a geometric configuration. The MLA includes lens arrays that are arranged in a similar geometric configuration. The microlens array are separated from the source arrays by a distance and are substantially parallel to the source arrays. The microlens array overlaps with the source arrays and is of a dimension such that it can receive substantially all light emitted by the illumination source. The illumination source emits light towards the MLA. The MLA receives the light and outputs structured pattern light by interpolating received light.

Abstract: The application discloses an image display device and a control method thereof. The control method for the image display device includes: receiving a first image signal from a host and displaying a frame, a first frame data of the first image signal having a first frequency; determining that the image display device enters a Motion Blur Reduction (MBR) mode and writing a double frequency of a vertical synchronous signal into a storage unit; and informing the host to read the storage unit and alternatively outputting a second frame data and a black-insertion frame data from the host, the second frame data having a second frequency higher than the first frequency.

Abstract: A display driving integrated circuit (DDIC) driving a display device and including; a host interface configured to receive image data from a host device, an interface monitor configured to generate a mode signal indicating a still image mode or a video mode by detecting whether the image data from the host device is transferred through the host interface, a processing circuit configured to generate processed data by processing the image data, a conversion circuit configured to perform data conversion on the processed data to generate display data driving a display panel, and a path controller configured to store the processed data in a frame buffer and transfer the processed data stored in the frame buffer to the conversion circuit in the still image mode, and further configured to transfer the processed data to the conversion circuit without storing the processed data in the frame buffer in the video mode.