Abstract: A flexible device includes two opposite sides and a flexible functional element. Each side includes a movable element having a top portion. The flexible functional element includes a flexible functional screen and a support plate supporting the flexible functional screen. The support plate includes a plate body and fixing sheets extending from the plate body. The plate body separably abuts against the top portions of the movable elements, and the fixing sheets fix to the movable elements.

Abstract: The present invention relates to a repairable GOA drive system, a driving method for a GOA circuit, and a display panel, which are used to improve the yield of display panels in a manufacturing process. The display panel includes a display area and a pixel circuit arranged in the display area, and the repairable GOA drive system includes a GOA circuit, a repair circuit, and a driver IC. The GOA circuit is connected to a driving signal output end of the driver IC; and the repair circuit is arranged between the driver IC and the pixel circuit and configured to replace at least one abnormal GOA unit in the GOA circuit to output a driving signal to the corresponding pixel circuit when the at least one GOA unit is abnormal. The implementation of the present invention can greatly improve repairability of backplane circuits with a GOA and increase the screen yield in mass production.

Abstract: The present disclosure provides an electronic device, including a housing and a flexible display apparatus. The housing includes a first frame, a second frame, and a hinge connected between the first frame and the second frame. The flexible display apparatus is arranged on the first frame, the second frame, and the hinge. The flexible display apparatus includes a supporting piece and a flexible display screen arranged on the supporting piece. The flexible display screen includes a bendable area, and an elastic adhesive is arranged between a back surface of the flexible display screen in the bendable area and the supporting piece, and the elastic adhesive is located at or near a position between an outer side of the flexible display screen and a corresponding outer side of the supporting piece. The present disclosure also provides a flexible display apparatus of the electronic device.

Abstract: A conducting thin film and preparation method therefor, a touch panel, and a display device are provided by the present disclosure. The conducting thin film includes a substrate, a conducting layer arranged on the substrate, a protecting layer arranged on the conducting layer, and an electricity conducting adhesive. The conducting layer includes a conducting net formed of conducting material. The protecting layer defines a plurality of openings for exposing the conducting material. The electricity conducting adhesive is formed on the protecting layer such that the electricity conducting adhesive passes through the plurality of openings in contact with the conducting material, and is filled in the plurality of openings. The protecting layer formed before the electricity conducting adhesive, thus reducing the problem of the conducting net breaking caused by the exposed conducting material being oxidized and vulmayized, and the thereby improving the conductivity of the conducting thin film.

Abstract: The present disclosure provides an electronic device, which comprises a first frame, a second frame, a bendable hinge located between the first frame and the second frame, and a flexible member covering the first frame, the second frame, and the bendable hinge. Wherein, the electronic device further comprises a sliding member located on one side of the bendable hinge, and a supporting member connecting the sliding member and the first frame. The flexible member connects the first frame and the second frame. When the bendable hinge is bent, the supporting member can drive the sliding member to slide relative to the bendable hinge, and the flexible member can drive the second frame to slide relative to the bendable hinge.

Abstract: A trigger device is provided. The trigger device includes a controller, a screen assembly, an extendible support assembly operable to support the screen assembly, and a drive assembly operable to drive the support assembly. The drive assembly is provided with a first contact, and the support assembly is provided with a second contact movable relative to the second contact. During retraction or extension of the support assembly, the first contact and the second contact move relative to each other between a contacting state and a separating state. The controller determines whether the support assembly is in the retraction state or the extension state according to the contacting state or the separating state of the first contact and the second contact, so as to control display of the screen assembly. A smart bracelet is further provided.

Abstract: The present disclosure relates to an EOA circuit, a display panel, and a terminal. The EOA circuit includes an output module and a control module; wherein the output module is configured to generate an output signal according to a first scanning signal and a clock signal, and the output module is further configured to reset the output signal from a high level to a low level within a period where the first scanning signal is an active level and a period where the clock signal is an inactive level; and the control module is configured to restore the output signal from the low level to the high level according to a second scanning signal within a period where the first scanning signal is at the inactive level.

Abstract: The GOA circuit includes a plurality of GOA units independent of each other, wherein each of the plurality of GOA units comprises an enable module and a drive module disposed corresponding to the enable module; wherein the enable module includes a row address signal input terminal configured to receive a row address signal, and an enable signal output terminal configured to output an enable signal based on the row address signal; and the drive module includes an enable signal input terminal configured to receive the enable signal output by the enable signal output terminal, and a drive signal output terminal configured to output a drive signal based on the enable signal, wherein the drive signal output terminal is connected to a gate line of a row disposed corresponding to the drive module to transmit the drive signal to the gate line of the row and gate the row.

Abstract: A bendable device is provided according to the present disclosure. The bendable device includes a bendable flexible screen, a supporting sheet assembly, and a housing assembly. The flexible screen includes a display surface and a rear surface opposite to the display surface. The supporting sheet assembly is sandwiched between the rear surface of the flexible screen and the housing assembly. The flexible screen is connected to the housing assembly via the supporting sheet assembly. The flexible screen is connected to the supporting sheet assembly, such that when disassembling the bendable device, only the supporting sheet assembly needs to be disassembled from the housing, thereby improving reliability of disassembly.

Abstract: A GOA circuit is provided according to implementations of the disclosure. The GOA circuit includes multiple cascaded GOA units. Each GOA unit includes a first pull-down control module, a second pull-down control module, and a pull-down holding module. A type of at least one thin film transistor (TFT) in at least one of the first pull-down control module or the second pull-down control module is different from that of a TFT in the pull-down holding module. A display panel and an electronic device are further provided according to implementations of the disclosure.

Abstract: A pixel scan drive circuit including a switch unit, a pull-up output unit and a pull-down output unit is provided. In a scan signal output phase of a scanning cycle, the pull-down output unit outputs a first reference voltage in a scan signal to an output end according to a clock signal. In a maintenance phase of the scanning cycle, the switch unit controls the voltage of a pull-down node according to a switch control signal, thereby controlling the pull-down output unit to stop outputting the first reference voltage. In the maintenance phase, the pull-up output unit outputs a second reference voltage in the scan signal. The second reference voltage controls the pixel units to stop receiving the image data. Transistors in the switch unit are of different types from transistors in the pull-up output unit and the pull-down output unit. An array substrate and a display terminal are provided.

Abstract: A substrate is provided. The substrate includes a bottom plate and at least one bonding portion disposed on the bottom plate, where each bonding portion takes a shape that is a part of an Archimedean spiral. An electronic device, a bonding structure, and a bonding method for the bonding structure are further provided.

Abstract: The present application discloses an OLED display structure, including pixels. The pixels include a first sub-pixel, a second sub-pixel and a third sub-pixel. The first sub-pixel includes a first storage capacitor, a first auxiliary capacitor and a first light emitting area. The second sub-pixel includes a second storage capacitor, a second auxiliary capacitor and a second light emitting area. The third sub-pixel includes a third storage capacitor, a third auxiliary capacitor and a third light emitting area. The areas of the first light emitting area, the second light emitting area and the third light emitting area are respectively defined as S (1), S (2) and S (3); the capacitance values of the first auxiliary capacitor, the second auxiliary capacitor and the third auxiliary capacitor are respectively defined as C2(1), C2(2) and C2(3). S(1)<S(2)<S(3), and C2(1)>C2(2)>C2(3).

Abstract: A method for fabricating a flexible electronic device, including the steps of: providing channels on a rigid substrate; adhering a flexible substrate to the rigid substrate with an adhesive; fabricating an electronic device on the flexible substrate; injecting a chemical substance into the channels; and reacting the chemical substance with the adhesive and peeling the flexible substrate from the rigid substrate. The rigid substrate comprises a first surface, a second surface opposite the first surface, and a side wall extending between the first surface and the second surface. The channels are provided on the first surface of the rigid substrate. The channels are in communication with an injection port, the injection port is located on the side wall of the rigid substrate, and a portion of the side wall is located between the injection port and the first surface.

Abstract: A support assembly includes a left support frame, a right support frame, and a bracket. The left support frame and the right support frame are both slidably connected to the bracket. The bracket defines receiving grooves. The left support frame includes a first tooth portion. The right support frame includes a second tooth portion. When the support assembly is in a folded state, teeth of the first tooth portion and teeth of the second tooth portion are received in the receiving grooves to support the screen assembly in a retracted state; when the support assembly is in an unfolded state, the teeth of the first tooth portion and the teeth of the second tooth portion extend out of the receiving grooves to support the screen assembly in an extension state. A dial plate and a smart bracelet are further provided.

Abstract: A display panel and an image data compensation method thereof are provided. The display panel includes a first data driving module and a second data driving module. The first data driving module is configured to provide image data signals for a first display area and perform De-Mura compensation. The second data driving module is configured to provide image data signals for a second display area and perform De-Mura compensation. The first data driving module is configured to obtain image data of the second display area after De-Mura compensation, and adjust image data of a first compensation area adjacent to the second display area in the first display area. The second data driving module is configured to obtain image data of the first display area after De-Mura compensation, and adjust image data of a second compensation area adjacent to the first display area in the second display area.

Abstract: A method for driving touch display and a touch display screen are provided. The touch display screen includes a plurality of continuous work time periods. Each work time period includes a display time period and a touch time period. In the display time period, a plurality of second signal lines are configured to cooperate with a plurality of third signal lines to perform image-signal transmission for image display. The touch time period includes a detection time period and a sensing time period. In the detection time period, at least one second signal line of the plurality of the second signal lines is provided with a touch driving signal, a detection signal is received from a plurality of first signal lines, the detection signal is compared with a preset signal to obtain a comparison result, the touch time period is prolonged or shortened according to the comparison result.

Abstract: A touch panel including a flexible substrate, a thin film transistor layer, an anode layer, a light emitting layer, and a cathode layer which are stacked in sequence. The thin film transistor layer includes a drain. The anode layer is electrically connected with the drain. The cathode layer includes multiple touch electrodes arranged in matrix. The touch electrodes are insulated from one another at intervals, and each touch electrode is electrically connected with a signal transmission line. Time for displaying each frame in the touch panel includes display time and touch detection time. A method for manufacturing the touch panel is also provided.

Abstract: A liquid crystal display (LCD) panel and an emission D-IC on array (EOA) module (10?) thereof are provided. The EOA module includes a high-level generating unit, a resetting unit, and a restoring unit. The high-level generating unit is configured to generate an output signal, where the output signal is at high level when a first clock signal (CLK) is at high level. The resetting unit is configured to reset the output signal from high level to low level when a second clock signal (CLKB) and a scan signal (Gn) of a current stage are simultaneously at high level. The restoring unit is configured to restore the output signal from low level to high level when a scan signal (Gn+1) of a subsequent stage is at high level.

Abstract: A GOA circuit including a number of GOA units in cascade. Each GOA unit is configured to work in a pre-charge stage, a bootstrap output stage, an output decreasing stage, a reset stage, a first holding stage, a second holding stage and a load-mitigating stage, and includes an enable input terminal configured to receive an enable input signal, a clock signal terminal configured to receive a clock signal, and an output terminal configured to output the scanning pulse signal according to the enable input signal and the clock signal when the GOA unit is in the pre-charge stage, the bootstrap output stage and the output decreasing stage, and configured to cut off outputting the scanning pulse signal when the GOA unit is in the reset stage, the first holding stage, the second holding stage and the load-mitigating stage.