Abstract: A blending system is provided for displaying information. The blending system may include a display system. The display system may project or display an image on a blending container. The image may be a gradient marking or text relating to a blending process. The display system may contain a projection device capable of projecting an image, a control component operatively controlling the blender display system and at least one sensor operatively evaluating data associated with a blender device to provide feedback to the control component.

Abstract: Apparatuses, systems, and methods for interacting with media items in a virtual reality environment are provided. An apparatus is provided that includes processing circuitry configured to control a display of a virtual reality interface to render representations of media items returned from a query in the virtual reality environment. The processing circuitry is further configured to control the display to render metadata links between the selected metadata attribute and the representations of the media items that have the selected metadata attribute, detect, from a haptic interface, a haptic gesture to bundle and pull the metadata links to a foreground, and control the display to render representations of the media items having the selected metadata attribute in the foreground for selection.

Abstract: An improved eye tracking illumination system is disclosed. The system includes (i) an RGB laser device that is associated with a first collimating optic and (ii) an IR illumination device that is associated with a second collimating optic. The system also includes a DMA that has a MEMS mirror system. The DMA optically combines IR light and RGB light to generate combined light. The combined light is then directed towards a user's eye via a transport medium (e.g., a waveguide). One or more photodetector(s) are positioned to capture reflected light that is reflected off of the user's eye. The photodetectors include an IR detector configured to detect reflected IR light off of the user's eye in order to perform eye tracking.

Abstract: A gate drive circuit, a display device and a driving method are provided. The gate drive circuit includes a scan signal generation circuit and output control circuits in N stages. The scan signal generation circuit includes first output terminals in 2N stages, and is configured to output scan pulse signals in an order at the first output terminals in 2N stages; each of the output control circuits in N stages includes an input terminal, a first control terminal, a second control terminal, a second output terminal, and a bootstrap circuit, and is configured to control the bootstrap circuit, under control of a first control signal received by the first control terminal, an input signal received by the input terminal, and a second control signal received by the second control terminal, to output an output pulse signal with different pulse levels at the second output terminal.

Abstract: A touch display device includes thin film transistors, a first insulating layer, a first transparent conductive layer, a second insulating layer, contact holes, a second transparent conductive layer, and touch signal lines. The first transparent conductive layer includes pixel electrodes, and each pixel electrode is electrically connected to a drain of one of the thin film transistors. The contact holes penetrate the first insulating layer and the second insulating layer. Each contact hole exposes a portion of the pixel electrode and a portion of the drain. The second transparent conductive layer includes touch electrodes and connecting electrodes. Each connecting electrode extends into one of the contact holes, and is in contact with the portion of the pixel electrode and the portion of the drain. Each touch signal line is electrically to a corresponding touch electrode.

Abstract: A controller for a sensor is configured to receive a control signal from an external device, the control signal corresponding to potential interference. The controller adjusts a sensing parameter using the control signal to avoid the potential interference. The potential interference is at least one of an electrical interference and an optical interference. The controller may include a sensor module that includes circuitry configured to acquire resulting signals with sensing elements using the adjusted sensing parameter.

Abstract: A pixel structure disposed on a substrate having a pixel sensor region and a pixel display region disposed beside the pixel sensor region is provided. The pixel structure includes a pixel defining layer, a light-emitting diode, a pixel driving circuit and a sensor device. The pixel defining layer is disposed on the substrate and has a device accommodation portion located in the pixel display region. The light-emitting diode is disposed on the device accommodation portion. The area of the light-emitting diode is smaller than that of the device accommodation portion. The pixel driving circuit is disposed on the substrate, is electrically connected to the light-emitting diode, and includes a pixel electrode by which the device accommodation portion is covered. The light-emitting diode is bonded onto the pixel electrode. The sensor device is disposed between the pixel defining layer and the substrate and located in the pixel sensor region.

Abstract: A display apparatus includes: a display panel; a deformation sensor configured to sense a bending of the display panel; and a controller configured to control the display panel, wherein the controller is configured to: control displaying a plurality of objects on the display panel; detect the bending of the display panel through the deformation sensor; divide the display panel into a first area and a second area with respect to a bending line defined by the bending; divide the objects into a first object corresponding to the first area and a second object corresponding to the second area according to the bending; and move the first and second objects in first and second directions, respectively, according to the bending.

Abstract: A gate drive circuit, a display device and a driving method are provided. The gate drive circuit includes a scan signal generation circuit and output control circuits in N stages. The scan signal generation circuit includes first output terminals in 2N stages, and is configured to output scan pulse signals in an order at the first output terminals in 2N stages; each of the output control circuits in N stages includes an input terminal, a first control terminal, a second control terminal, a second output terminal, and a bootstrap circuit, and is configured to control the bootstrap circuit, under control of a first control signal received by the first control terminal, an input signal received by the input terminal, and a second control signal received by the second control terminal, to output an output pulse signal with different pulse levels at the second output terminal.

Abstract: Provided are a display device including micro protrusions for attachment and detachment control, having supplemented functions, such as control of adhesive strength for attachment and detachment, the prevention of attachment of an alien substance, fingerprint prevention, the easy removal of bubbles, and a smooth application to a curved display when a window or touch screen is attached or detached, and a method of manufacturing the same. In the device and method, the display device including a window and a display and selectively including a touch screen includes an attachment and detachment layer positioned in any one of the window, the touch screen, and the display and having adhesive strength of 0.1 gf/25 mm to 500 gf/25 mm, and an attachment and detachment control layer positioned to face the attachment and detachment layer in any one of the window, the touch screen, and the display and having micro protrusions formed therein.

Abstract: A device (100) for handheld operation is provided. The device comprises a touchscreen (110) and processing means (111) operative to display a plurality of user-interface (UI) elements (121-124) on the touchscreen, wherein each UI element is associated with an action which is performed in response to touching the UI element, determine one or more of the displayed UI elements which a user (150, 151) of the device is likely to touch based on a touch pattern (130), and perform, for at least one of the determined UI elements, the action associated with the UI element. The action may, e.g., comprise pre-fetching content which is likely to be requested by the user from a server (180). Performing an action, such as pre-fetching, based on a touch pattern is advantageous since a touch pattern reflects the relative likelihood that the user touches a specific position, or region, of the touchscreen, thereby reducing latency.

Abstract: There are provided a subpixel structure of a display device and a touch screen-integrated display device, including: a plurality of gate lines; a plurality of data lines configured to define subpixels by intersecting with the gate lines; a thin-film transistor; a pixel electrode disposed in the subpixel area; and a common electrode disposed to be overlapped with the pixel electrode with a protective layer interposed therebetween. The pixel electrode has patterns including a plurality of pixel electrode spaces in an area corresponding to the thin-film transistor so as to suppress a white touch mura defect and also suppress a decrease in transmittance occurring at an interface between an open area and a BM area.

Abstract: This application provides a drive method, includes: calculating average signals of subpixel units in a zone, to obtain a first average signal of the zone, a second average signal of the zone, and a third average signal of the zone; and separately performing first and third gamma adjustments according to a predefined range corresponding to grayscales of the first, the second, the third average signals. In this way, luminance ratios of first and third hues in a large viewing angle to a second hue in a large viewing angle, thereby improving brightness of the second hue in a large viewing angle. In addition, by means of compensation for first and third light source luminance signals, a color viewed in a front viewing angle can be maintained the same as an original color, and performance of the original color is not affected by adjustment of first and third gamma signals.

Abstract: Disclosed is a display device having a substrate, a pixel located over the substrate and including a display element, a touch sensor over the pixel through a first adhesive film, a polarizing plate over the touch sensor, and a sealing material covering a side surface of the polarizing plate and at least one of a part of a top surface and a part of an undersurface of the polarizing plate. The sealing material may further cover a side surface of the touch sensor. The sealing material may have a moisture permeability of equal to or larger than 30 g/m2·24 h and equal to or smaller than 80 g/m2·24 h at a temperature of 40° C. and at a humidity of 90%.

Abstract: A method of operating an electronic device having an openable cover is provided. The method includes activating an application, detecting an opening/closing state of the cover, and transitioning between a plurality of display modes of the activated application in response to the opening/closing state of the cover.

Abstract: An HMD includes an image display section configured to display an image to be visually recognizable through an outside scene. The HMD includes a position detecting section configured to recognize an input and a control section configured to cause the image display section to display information and change the display in the image display section according to the input recognized by the position detecting section.

Abstract: Embodiments of the present disclosure disclose a gate driving circuit, a method for driving the same, and a display apparatus. The gate driving circuit includes N stages of cascaded shift registers, N being an integer greater than or equal to 4. In the N stages of shift registers, an output signal terminal of an nth stage of shift register is connected to an input signal terminal of an (n+I/2)th stage of shift register, and a reset signal terminal of the nth stage of shift register is connected to an output signal terminal of an (n+K)th stage of shift register, wherein n is an integer greater than or equal to 1 and less than (N?I/2), K is an integer greater than I/2 and less than I, and I is a number of clock signal lines connected to the gate driving circuit, which is an even number greater than or equal to 4.

Abstract: Disclosed is a display panel with a robust structure to external static electricity. A sealant is disposed on a side surface and an upper surface of a signal line portion disposed on the outermost circumferential portion of the display panel to increase the distance between the signal line and the outside, and blocks external static elasticity. The signal line portion on the outermost circumferential portion of the display panel is in the form of a bulk electrode or in a mesh pattern comprised of horizontal lines and vertical lines having different structures. Externally introduced static elasticity is easily discharged, and signal lines are prevented from being damaged.

Abstract: A display apparatus and a voltage calibration method are disclosed. The display apparatus includes a ramp voltage generator, a ramp counter and a timing controller. The ramp voltage generator is configured to generate a ramp voltage. The ramp counter is coupled to the ramp voltage generator and configured to start counting when the ramp voltage generator generates the ramp voltage. The timing controller is coupled to the ramp voltage generator and the ramp counter respectively. When the ramp voltage is increased to be equal to a reference voltage, the timing controller compares an instant count value of the ramp counter with a default value and selectively calibrates a rising slope of the ramp voltage generated by the ramp voltage generator according to a comparing result of the instant count value and the default value.

Abstract: The present disclosure provides a method and an apparatus for controlling a flexible screen and an electronic device. The method includes: obtaining a press parameter with respect to a motor drive switch; and controlling a motor to rotate according to the press parameter, to unfold or fold the flexible screen. The flexible screen can be controlled to unfold and fold to obtain a suitable screen size.