Abstract: The present disclosure provides a display panel, a display apparatus and a method for manufacturing the display panel. The display panel includes a driving circuit, a light-emitting device, and a fingerprint recognition unit. The light-emitting device includes a first electrode, a second electrode, and an organic function layer disposed between the first and second electrodes, and the first electrode is a reflective electrode. The driving circuit includes a light-emitting control transistor and a first initialization transistor that are connected to the first electrode via the first through-hole. The driving circuit includes at least a first driving circuit, and a minimum distance between the first through-hole of the first driving circuit and a first gate signal line connected to the first initialization transistor is smaller than a minimum distance between the first through-hole and a second gate signal line connected to the light-emitting control transistor.

Abstract: The disclosed embodiments provide a system for performing on/off detection in a wearable electronic device. Upon detecting a set of measurements indicating unfolding of one or more arms in the wearable electronic device, the system initiates a power-on sequence comprising a powering of electronic components in the wearable electronic device from a battery in the wearable electronic device. Upon detecting a first set of subsequent measurements indicating placement of the wearable electronic device on a head of a user, the system generates output indicating a powered state in the wearable electronic device.

Abstract: A display apparatus may be provided that includes a plurality of pixels; a plurality of pixel memories which drive a corresponding pixel in accordance with a column signal when a scanning line selection signal and an enable signal are both selected; and a controller which generates the scanning line selection signal, the enable signal, and the column signal such that each of the pixels is driven in a turn-on time occupation ratio corresponding to a data value for each of the pixels, and then applies the signals to a corresponding pixel memory. According to the embodiment, in a display apparatus which requires high resolution, high frame rate per pixel, and high gray scale representation capability, the change of the signal which is applied to the pixel for each time slot is relatively reduced, so that consumption of power for driving the pixel can be reduced.

Abstract: A display device and a method for driving the same are provided. The display device includes an array substrate and a data driving circuit, the array substrate includes a plurality of data lines divided into multiple groups, each group includes at least two data lines, first ends of the data lines in each group are connected together by the data driving circuit during a first charge sharing phase of each scanning period, the array substrate further includes a plurality of switches; the display device further includes a control circuit configured to output a control signal during a second charge sharing phase of each scanning period, each switch is turned on according to the control signal to connect second ends of corresponding data lines in corresponding group; in each scanning period, the first charge sharing phase and the second charge sharing phase are at least partially overlapped with each other.

Abstract: People use their mobile devices anywhere and anytime to run various apps, and the information shown on their device screens can be seen by nearby unauthorized parties, referred to as shoulder surfers. To mitigate this privacy threat, techniques have been developed utilizing human vision and optical system properties to hide the users' on-screen information from the shoulder surfers. Specifically, the proposed techniques discretize the device screen into grid patterns to neutralize the low-frequency components so that the on-screen information will “blend into” the background when viewed from the outside of the designed visible range.

Abstract: A manufacturing method of touch sensors is provided. A flexible touch sensing component can be formed on a first substrate by a release layer. Next, the flexible touch sensing component is transferred to a second substrate after a releasing step. Furthermore, by the support of the second substrate, the flexible touch sensing component can be processed and then adhered a desired cover. After releasing the second substrate from the flexible touch sensing component, the touch sensor is formed.

Abstract: The present disclosure provides a driving circuit and driving method for a display panel and a display device, an output scanning signal is controlled through a scanning signal control circuit, such that a first-array-substrate-row driving circuit on a first lateral side of the display panel outputs a scanning signal according to a first enabling control signal, and a second-array-substrate-row driving circuit on a second lateral side of the display panel outputs a scanning signal according to a second enabling control signal, and driving of one side or two sides of the display panel is implemented.

Abstract: An electronic device which may be put onto the head of a user is provided. The electronic device includes a housing including an upper surface, a lower surface including an opening, and a rear surface; a bracket including a first surface facing an open front portion of the housing, and a second surface extending rearward from the first surface and facing the opening, and interposed between the upper surface and the lower surface; a camera module disposed on the first surface of the bracket to face forward; and an image output module having at least a portion inserted into the opening, and including a light output member, a semi-transparent lens facing an eyeball of a user, and a light transmitting member optically connecting the light output member with the semi-transparent lens and including at least one of a lens or a mirror.

Abstract: A touchpad device is fixed to a chassis. The touchpad device includes a base plate. The base plate is fixed to the chassis. The base plate includes a body portion and fixed portions. The body portion has holes. Each of the fixed portions is connected to the body portion and extends into a corresponding one of the holes. Each of the fixed portions includes a fixed segment and at least one connecting arm. The fixed segment is fixed to the chassis. The connecting arm is connected between the fixed segment and the body portion.

Abstract: A light emitting element display device with a narrow frame and high light emission efficiency is provided even when high definition is achieved. The light emitting element display device includes: a light emitting element which emits light at each of a plurality of subpixels forming one pixel; a drive transistor in which one of a source and a drain is connected to an anode of the light emitting element; and an output control circuit which selectively sets the other of the source and the drain of the drive transistor into one of a state of being connected to a power-supply voltage, a state of being connected to a reset voltage that is a lower voltage than the power-supply voltage, and a high-impedance state of not being connected to any of these voltages.

Abstract: The present disclosure generally relates to a method for controlling a medical device. The method may comprise tracking movement of a foot with a hands-free device and processing movement of the foot to move a cursor, wherein the cursor is disposed on a display screen of the medical device. The method may further comprise receiving a selection of at least one icon with the cursor through the hands-free device. A system for controlling a medical device may comprise a console and a display screen coupled to the console and may be configured to display a cursor. The system may further comprise a hands-free device. The hands-free device may be communicatively coupled to the console and may be operable to track movement within a tracking area and generate an output. The system may further comprise a medical device connected to the console and a processor configured to execute instructions.

Abstract: A display may have rows and columns of pixels. Gate lines may be used to supply gate signals to rows of the pixels. Data lines may be used to supply data signals to columns of the pixels. The data lines may include alternating even and odd data lines. Data lines may be organized in pairs each of which includes one of the odd data lines and an adjacent one of the even data lines. Demultiplexer circuitry may be configured dynamically during data loading and pixel sensing operations. During data loading, data from display driver circuitry may be supplied, alternately to odd pairs of the data lines and even pairs of the data lines. During sensing, the demultiplexer circuitry may couple a pair of the even data lines to sensing circuitry in the display driver circuitry and then may couple a pair of the odd data lines to the sensing circuitry.

Abstract: A display device is provided. The display device includes a display panel, a backlight unit, and a rear chassis. The display panel is configured to display an image. The backlight unit is provided on a rear surface of the display panel. The rear chassis includes a protruding region, a vibration plate, and at least one acoustic element. The protruding region is protruded in a rear direction. The at least one acoustic element is provided in the vibration plate and includes a pair of electrodes and a vibration material layer provided therebetween. The protruding region and the vibration plate are made of different materials.

Abstract: A touch display panel, a fingerprint recognition device and a display device are provided. The touch display panel includes: a waveguide plate (001) and a first substrate (003), a liquid crystal layer (004) and an electrode structure (005) between the waveguide plate (001) and the first substrate (003); a reflective layer (006) at a first side of the first substrate (003) facing toward the liquid crystal layer (004), and photosensitive units (007) at the first side, or at a second side of the waveguide plate (001) facing toward the liquid crystal layer (004), the electrode structure (005) controls a refractive index of the liquid crystal layer (004), to allow light to be emitted out from a first surface (001A) of the waveguide plate (001) closer to the liquid crystal layer (004), or allow light to be totally reflected inside the waveguide plate (001), thereby achieving an optical-type touch recognition.

Abstract: A multi-functional human interface device includes a control unit and a first multi-functional input button. The first multi-functional input button includes a cover unit configured to receive a touch input of a user's finger, an electrode unit including a transmitter and a receiver to form an electric field, an elastic unit configured to move from a first height to a second height when a first pressure is applied from the cover unit and configured to move back to the first height when the first pressure from the cover unit is released, and a switch unit configured to generate an electric signal representing an input of a predetermined letter.

Abstract: A gate driver on array (GOA) circuit and a thin film transistor (TFT) substrate are provided. The GOA circuit includes a pull-up control module, a pull-up module, a pull-down module, a pull-down maintaining module, and a switch module. The switch module is configured to be turned off after a preset time delay when the pull-up module outputs a current-level scan signal at a high potential. The bootstrap module is configured to maintain a pull-up control signal at a high potential within the preset time delay of the switch module, and when the switch module is turned off, the bootstrap module cuts off a connection with the current-level scan signal.

Abstract: A touch sensor includes a first sensing layer, a second sensing layer and an insulative layer therebetween. Each of the first sensing layer and the second sensing layer has capacitive sensing strings and electromagnetic antenna strings. Each capacitive sensing string is composed of capacitive sensing units. The electromagnetic antenna strings are arranged. Each of the capacitive sensing strings and the electromagnetic antenna strings is connected with a tiny wire. The capacitive sensing strings on the first sensing layer are crossed with the second capacitive sensing strings on the second sensing layer to form complementary patterns. The capacitive sensing units on the first sensing layer and the second capacitive sensing units on the second sensing layer form a grid-shaped capacitive sensing unit matrix. The electromagnetic antenna strings on the first sensing layer are crossed with the electromagnetic antenna strings on the second sensing layer to form a grid-shaped electromagnetic antenna matrix.

Abstract: A user terminal device is provided. The user terminal device includes a display, a first sensor provided on a front surface of the user terminal device and configured to detect a front illumination, a second sensor provided on a rear surface of the user terminal device and configured to detect a rear illumination, and a controller configured to adjust a luminance of the display based on the front illumination detected by the first sensor and the rear illumination detected by the second sensor.

Abstract: Disclosed is a GOA circuit, including GOA units, which are cascade coupled. An nth stage GOA unit charges nth stage, n+1th stage and n+2th stage horizontal scanning lines. The nth stage GOA unit includes a pull-up control circuit, receiving a start signal CT and outputting a pull-up control signal Q(n); a pull-up circuit, receiving Q(n), an nth stage clock signal CK(n), an n+1th stage clock signal CK(n+1) and an n+2th stage clock signal CK(n+2), and outputting an nth stage transfer signal ST(n), an nth stage scan driving signal G(n), an n+1th stage scan driving signal G(n+1) and an n+2th stage scan driving signal G(n+2); a pull-down circuit, receiving an n+6th stage scan driving signal G(n+6) and a first direct current low voltage signal VSSQ1 to enable Q(n) in an off state. Three stages scan driving signals can be outputted through one stage GOA unit.

Abstract: The present disclosure relates to a method and device for transmitting a signal in a display device. The display device comprises a timing controller and a source driver. The method is applied to any of a plurality of transmitting units of the timing controller. The plurality of transmitting units correspond to a plurality of receiving units of the source driver in a one-to-one relationship. The method comprises: obtaining a scrambled signal by scrambling, via a scrambler of the transmitting unit, a non-identification signal in a signal to be transmitted, the scrambled signal comprising an identification signal and a scrambled non-identification signal; and transmitting the scrambled signal to a corresponding receiving unit. A signal obtained by scrambling a signal X via the scrambler is X16+X5+X4+X3+1, X24+X4+X3+X+1 or X32+X7+X5+X3+X2+X+1. The present disclosure reduces distortion of an image displayed on a display panel.