Abstract: A touch structure includes a base substrate, an insulating layer disposed thereon, a first touch electrode and a second touch electrode intersecting each other, and a first signal transmission structure electrically connected with the first touch electrode. The insulating layer includes a first section that is disposed at the intersecting position of the first touch electrode and the second touch electrode and is located between the first touch electrode and the second touch electrode to insulate same from each other, and a second section that is disposed at the same layer as the first section and covers the first signal transmission structure.

Abstract: A circuit includes an electroluminescent (EL) device, a transistor, a first capacitor and a second capacitor. The transistor, coupled between a supply voltage and the EL device, includes a gate coupled to a first node and a first terminal coupled to a second node. The first capacitor, coupled between the first node and the second node, is configured to reset the gate of the transistor to the supply voltage in response to a first control signal. The second capacitor, including a first end coupled to the second node and a second end to receive a second control signal, is configured to establish at the first terminal of the transistor a compensation voltage associated with a threshold voltage of the transistor in response to the second control signal. The transistor is configured to pass a current through the EL device. The current has a magnitude independent of the threshold voltage of the transistor.

Abstract: Disclosed is a display apparatus. The display apparatus includes a mirror display, a sensor, a storage which stores transmission and reflection characteristics information of the mirror display, identify and a processor configured to a threshold and to output an image corresponding to the image signal on the mirror display based on the transmission characteristics information, reflection characteristics information, and an amount of external light sensed through the sensor, to adjust a luminance of a image signal based on whether a grayscale of the image signal is less than or equal to the threshold.

Abstract: A display device is provided in which a configuration of first electrodes (4) in a first area (R1) that overlaps a display area (AA) of a touch panel (2), and a configuration of first electrodes (6) in a second area (R2) outside the first area, are different from each other. In the second area (R2), at least one electrode pad (6-1a, 6-2a) of the first electrodes (6) is arranged so as to be opposed to one second electrode (7a).

Abstract: A hand-held terminal such as a smart phone comprised of 2 components—a front face and a back face. A touch screen display is embedded in the front face entirely occupying said front face; said front face to have no visible components in its top and bottom strips including the home button, speakers, microphone, sensors, and front camera (“Components”). The back face contains the relocated Components as well as substantially all the other smart phone elements. The intent is to achieve a true full panel display that covers the entire face of the device. Disclosed are embodiments to make the Components fully accessible and functional, including an integrated back panel slider mechanism, a built-in spring loaded module, and an integrated flip component. The front panel display space now includes the top and bottom strip areas and becomes a true full screen display covering the entire face of the device.

Abstract: Disclosed is a cover glass capable of preventing malfunction of an electrostatic touch screen and expressing a design characteristic of unique texture. The cover glass used for an electrostatic touch screen in an electronic device includes: a glass substrate provided with finely curved parts; and a window decoration made of a metallic material and provided on one surface of the glass substrate so as to correspond to the finely curved parts, wherein the window decoration comprises a plurality of metallic thin film figures electrically insulated from each other.

Abstract: Implementations described herein generally relate to the use of display screens. More specifically, implementations generally relate to a large format transmissive and self-emissive display screen where the display screen includes multiple screens coupled together using transparent adhesive tape. Implementations described herein minimize internal reflections visible to screen viewers when an edge of the adhesive layer is scanned by a beam spot produced by a scanning beam in a scanning beam system having multiple screens held together by the adhesive layer to form a seamless viewing screen. In some implementations, the internal reflections are minimized by applying the adhesive layer between horizontal and vertical seams between each screen of the multiple screens wherein the adhesive layer has non-straight edges so as to minimize the total surface area of the edge of the adhesive layer that falls within the beam spot produced by the scanning beam.

Abstract: An electronic device is provided. The electronic device outputs a user interface (UI) including at least one object, receives a pressure input of a specified level or more for selecting the object, verifies information associated with an object selected by the pressure input, outputs vibration feedback of a first frequency or first amplitude if the information associated with the object is less than a first criterion, and outputs vibration feedback of a second frequency relatively lower than the first frequency or second amplitude higher than the first amplitude if the information associated with the object is greater than or equal to the first criterion.

Abstract: Backlights are disclosed. More particularly, temporally multiplexed backlights utilizing asymmetric turning films are disclosed. The disclosed backlights are capable of displaying a primary image to on-axis viewers while simultaneously providing a secondary image to off-axis viewers.

Abstract: A mutual-capacitive touch sensing circuit includes an operational amplifier, an internal capacitor, a first switch˜a third switch. A first input terminal and a second input terminal of operational amplifier are coupled to a capacitor and ground respectively and an output terminal of operational amplifier outputs an output voltage. The internal capacitor is coupled to output terminal and first input terminal. The first switch is coupled to a first external charging voltage, capacitor and first input terminal. The second switch is coupled to a second external charging voltage and the capacitor. The third switch is coupled to a third external charging voltage, the second switch and capacitor. The second external charging voltage and third external charging voltage have same magnitude but opposite polarities. The first switch, second switch and third switch are switched in a specific order to selectively charge the capacitor with different external charging voltages.

Abstract: Disclosed are a GOA drive unit and a GOA drive circuit. The GOA drive unit includes a bidirectional selection unit. The bidirectional selection unit is activated under an action of a first control signal and a second control signal which are complementary to each other in timing sequence, and outputs a first selection signal. The bidirectional selection unit is activated under an action of a third control signal and a fourth control signal which are complementary to each other in timing sequence, and outputs a second selection signal. The GOA drive unit can reduce the influence of stress and improve the reliability of the GOA drive circuit.

Abstract: A display device includes: a first substrate; a second substrate opposed to the first substrate; a display functional layer arranged between the first substrate and the second substrate to display an image in a display region; a first electrode layer that is arranged in the display region and includes a plurality of first electrodes for detecting contact or proximity of an external object; a second electrode arranged between the first substrate and the second substrate to be opposed to the first electrodes; a plurality of third electrodes that are arranged between the first substrate and the second substrate and receive a pixel signal; and an insulating layer covering the first electrode layer. In the insulating layer, a relative dielectric constant of a portion superimposed on the first electrodes is different from a relative dielectric constant of a portion not superimposed on the first electrodes at least in the display region.

Abstract: A display device and a data compensating method thereof are disclosed. The display device includes: a liquid crystal display panel having a plurality of pixels; a color temperature compensation unit configured to determine a color temperature at each position of a light guide plate using a thermal conductivity of the light guide plate and a color temperature at a reference position of the light guide plate, and determine a color temperature compensation value at positions of the light guide plate using the color temperature; and a timing controller configured to correct at least one of an R gain value and a B gain value of the image data using the color temperature compensation value.

Abstract: The present disclosure relates to a liquid crystal display panel and a liquid crystal display device including red, white, blue, and green liquid crystal cells in regions where two or more data lines and two or more gate lines intersect each other. In at least a portion of the liquid crystal display panel, an arrangement of the liquid crystal cells in the data line direction and the gate line direction is repeated.

Abstract: A medical monitoring system includes one or more electronic processors and one or more display devices. The one or more electronic processors are configured to receive vital signs of each a plurality of patients and dynamically configure in real-time a display of the received vital signs which includes for each patient an individually assigned patient sector display sized from available space for the display based on a priority order. The one or more display devices display the configured display of the plurality of patient sector displays.

Abstract: A method for controlling image display is provided. The method includes determining a target image display scheme based on at least one of a currently displayed image or a user operation, and processing and displaying a to-be-displayed image based on the target image display scheme. The target image display scheme may contain one or more parameters related to image display effects.

Abstract: There is provided a control device. An operation detecting unit configured to detect an operation of a user on an operation surface of a panel. A drive unit configured to drive a vibrating element attached to the panel, thereby vibrating the panel. If the operation detecting unit detects the operation, the drive unit drives the vibrating element while switching between a first vibration mode and a second mode different in at least some vibration frequencies, thereby sequentially giving different types of vibration different in at least some frequencies to the panel.

Abstract: An electronic device receives a screen size of at least one external display device adjacent to the electronic device from the at least one external display device, determines a target screen size on the basis of the screen size of the electronic device and the screen size of the at least one external display device, and changes a display configuration parameter of the electronic device such that the screen size of the electronic device corresponds to the target screen size, thereby generating display data for sharing a screen with the at least one external display device.

Abstract: The present application discloses a bilateral driving device and a tablet display. The bilateral driving device includes a first source driver, a second source driver and at least two driving signal lines connected to the first source driver, a second source driver, wherein the connection of the middle site of the at least two driving signal lines is not parallel to the specific edge of the display panel. By adapting the embodiment of the present application can utilize the visual characteristics of the human eye, the connection of the middle site of the at least two driving signal lines is not parallel to the edge of the display panel to confuse the dark spots and bright spots, to enhance brightness uniformity of the display panel, and improve the display quality.

Abstract: An organic light emitting diode (OLED) display device includes an OLED display panel having gate lines, data lines intersecting the gate lines, and a plurality of pixels connected to the gate lines and the data lines. A timing controller receives an image signal of a plurality of frames and outputs image data based on the plurality of frames. A data driver generates a data signal voltage corresponding to the image data output from the timing controller. When the image signal includes a black image signal to one pixel of the plurality of pixels that continues for at least a predetermined plurality of frames, the timing controller outputs a first image data in which the black image signal has been converted to a first gray level value that is greater than a gray level value of the black image signal.