Abstract: An array substrate includes a base, an integrated driver chip, multiple data lines, scan lines, first connection lines, second connection lines, and third connection lines. The third connection lines are disposed in a different layer than the scan lines. Two ends of each first connection line are connected to the integrated driver chip the corresponding data line, respectively. Two end of each second connection line are connected to the integrated driver chip and the corresponding scan line, respectively. Two ends of each third connection line are connected to the integrated driver chip and the other end of the corresponding scan line, respectively. Each scan line is connected to one respective second connection line and one respective third connection line. Each second connection line is entirely disposed in the non-display area. Each each third connection line is partially disposed in the fan-out area, and partially disposed in the display area.

Abstract: A display panel includes: a substrate, a pixel defining layer, sub-pixels, and an isolation structure. The pixel defining layer is arranged on a side of the substrate and has pixel openings. Each sub-pixel is arranged in one pixel opening. Each sub-pixel comprises an anode, a light emitting layer and a cathode. The isolation structure surrounds the pixel opening and is electrically connected to the sub-pixel in the pixel opening surrounded by the isolation structure. The light emitting layer and the cathode of the sub-pixel are vapor-deposited sequentially on a surface of the anode. A difference between a vapor-deposition angle of a vapor-deposition material forming the light emitting layer or the cathode in a second direction and a vapor-deposition angle of the vapor-deposition material in a first direction is greater than 10 degrees and less than 40 degrees; and the first and the second directions are perpendicular to each other.

Abstract: A display panel and an electronic device. The display panel includes: a substrate; a plurality of pixel islands, arranged on a side of the substrate; wherein each pixel island comprises at least one sub-pixel; and a plurality of blocking structures; wherein each blocking structure is disposed protruding from the substrate and encloses to form a blocking region; each blocking structure includes a substrate substance filled with spherical particles. A positive projection of each pixel island on the substrate is disposed within a positive projection of a corresponding blocking region on the substrate.

Abstract: A method for manufacturing a light-emitting element, a display panel, and a display panel are disclosed. The manufacturing method includes: forming multiple hollow nanospheres of various weights, the hollow nanospheres being filled with respective light-emitting materials; disposing the hollow nanospheres on a substrate; performing screening so that the hollow nanospheres are stacked in layers on the substrate according to their weights, where the larger the weight of a hollow nanosphere, the closer it is to the substrate; heating the hollow nano-spheres so that the hollow nanospheres sublime, and the light-emitting materials in the hollow nanospheres of different weights are stacked and distributed in layers on the substrate; forming a light-emitting element. The hollow nanospheres of an equal weight are filled with an identical light-emitting material, and the hollow nanospheres of different weights are filled with different light-emitting materials.

Abstract: A manufacturing method includes: forming multiple hollow nanospheres of different sizes, the multiple hollow nanospheres being respectively filled with red light-emitting particles, blue light-emitting particles, and green light-emitting particles; performing screening so that each hollow nanosphere filled with red light-emitting particles is disposed in the respective red sub-pixel area of the substrate, each hollow nanosphere filled with green light-emitting particles is disposed in the respective green sub-pixel area of the substrate, and each hollow nanosphere filled with blue light-emitting particles is disposed in the respective blue sub-pixel area of the substrate; heating all the hollow nanospheres so as to sublimate; and forming a red light-emitting particle layer, a green light-emitting particle layer, and a blue light-emitting particle layer on the substrate. The hollow nanospheres of different sizes are filled with light-emitting particles of different colors.

Abstract: A method for manufacturing a light-emitting element includes: forming multiple hollow nanospheres of various sizes, wherein the hollow nanospheres are each filled with a respective light-emitting material; disposing the hollow nanospheres on a substrate; screening the hollow nanospheres so that they are stacked in layers the substrate according to their sizes, where the smaller the size of a hollow nanosphere, the closer it is to the substrate; heating the hollow nanospheres so that the hollow nanospheres are sublimed, and the respective light-emitting materials in the hollow nanospheres are stacked and distributed in layers on the substrate, thus forming a light-emitting element. The hollow nanospheres of an equal size are filled with an identical light-emitting material, and the hollow nanospheres of different sizes are filled with different light-emitting materials. The light-emitting materials are each an organic light-emitting material.

Abstract: A compensation circuit and a display device. The compensation circuit includes a timing controller, a power management circuit, an operational amplifier circuit, and a delay circuit. The delay circuit is configured to prolong a time duration of the operational amplifier circuit in the operating state in a first stage, and the delay circuit controls the operational amplifier circuit to stop operation when the delay circuit is able to stably output a common voltage to the display panel. A time duration of outputting the common voltage to the display panel is prolonged in a second stage. When the operational amplifier circuit is in the operation state, the delay circuit stops outputting the common voltage to the display panel.

Abstract: A display module includes a display sub-pixel, and the display sub-pixel includes an anode layer, a cathode layer, a light-emitting function layer. The light-emitting function layer is provided between the anode layer and the cathode layer; the pixel define layer is provided around the light-emitting function layer and an aperture region is formed for light emergence; the light-emitting function layer includes a hole injection layer, a hole transport layer, a light-emitting layer, an electron transport layer and an electron injection layer provided sequentially in a direction from the anode layer to the cathode layer. The light-emitting function layer is extended at least partially to a side surface of the pixel define layer.

Abstract: Some embodiments of the present disclosure provide an array substrate and a display pane. Multiple pixel electrode branches in a corresponding one of the pixel regions are divided into a first pixel electrode branch and a second pixel electrode branch by a corresponding one of the metal common electrodes. The first pixel electrode branch and the second pixel electrode branch, which are located in the same pixel regions, are connected to different TFTs. In each pixel region, an end of the first pixel electrode branch close to a corresponding one of the scan lines is connected to a corresponding one of the TFTs, and an end of the second pixel electrode branch close to another corresponding one of the scan lines is connected to another corresponding one of the TFTs.

Abstract: A display panel and a display device. The display panel includes: a driving substrate, a pixel defining layer, and repeating units. Each repeating unit includes: an electrically conductive isolation structure, including a first electrically conductive isolation structure and a second electrically conductive isolation structure; wherein the first electrically conductive isolation structure forms a first pixel holding region and a second pixel holding region; a side of the second electrically conductive isolation structure toward the first electrically conductive isolation structure is formed with a third pixel holding region.

Abstract: The present disclosure provides a display panel, a driving method therefor, and an electronic device. The display panel includes multiple second scan lines, a pixel circuit further includes a second switch unit and a neutralizing capacitor, a control end of the second switch unit is electrically connected to a second scan line, a first terminal of the second switch unit is electrically connected to a second terminal of a first switch unit, and a second terminal of the second switch unit is electrically connected to one terminal of the neutralizing capacitor, and the other end of the neutralizing capacitor is electrically connected to a second common electrode. The control circuit is configured to obtain a display signal, and charges liquid crystal capacitors, storage capacitors, and neutralizing capacitors in each row according to the display signal, to enable the display panel to displays a frame at a first frequency.

Abstract: A display panel and a display device are provided. A hanging portion is defined by a portion of a top structure extending from an upper surface of a body structure. The display panel further includes a supporting layer, a filling layer, and an encapsulation layer. The supporting layer covers a plurality of sub-pixels and an inner side wall of each of a plurality of conductive isolation structures to support the hanging portion and defines a recess. At least part of the filling layer is filled in the recess and is configured to encapsulate the recess and support the hanging portion. A dual support is provided by the supporting layer and the filling layer to the hanging portion and improves an overall strength of the plurality of conductive isolation structures. The encapsulation layer further provides an anti-etching protection to the plurality of sub-pixels.

Abstract: An under-screen camera display screen includes a display area and a non-display area. The display area includes an under-screen camera area. The non-display area includes at least one corner area. The under-screen camera area is disposed close to the corner area. The under-screen camera display screen includes a pixel circuit. The pixel circuit includes a first pixel circuit. The first pixel circuit is configured to drive the light-emitting device corresponding to the under-screen camera area to emit light. The first pixel circuit is disposed in the corner area that is close to the under-screen camera area. A display device is further provided.

Abstract: An under-screen camera display screen includes a display area and a non-display area. The display area includes an under-screen camera area. The non-display area that is located on a side of the display area and close to the under-screen camera area includes a bending area and a wiring area, and the wiring area is located on a side of the bending area away from the display area. After bending the bending area, the wiring area and at least a part of the bending area are attached to a non-display side of the under-screen camera display screen. A first pixel circuit that drives the light-emitting device corresponding to the under-screen camera area to emit light is disposed in the wiring area of the non-display area. A display device is also provided.

Abstract: An array substrate, a display panel, and a display device are provided. The array substrate includes a pixel electrode, a data line, and a conductive unit. The data line is spaced apart from the pixel electrode. The conductive unit includes an accommodating member and multiple conductive particles, where the accommodating member is located between the data line and the pixel electrode, and the accommodating member defines an accommodating cavity. The multiple conductive particles, part of the pixel electrode, and part of the data line are accommodated in the accommodating cavity. The multiple conductive particles are moveable under the control of a control electric-field. The conductive unit is operable in a first state or a second state.

Abstract: A backlight module and a display device are disclosed. The backlight module includes: a light guide plate that provides a surface light surface for the display panel and that has a first surface, a second surface, and a third surface, where the first surface is a light-emitting surface, and where the light incident surface connects the first and second surfaces together; a light source disposed on the light incident surface of the light guide plate and used to provide a linear light source for the light guide plate; a light absorbing and reflecting film layer disposed on the second surface of the light guide plate and used for absorbing light and reflecting blue light; and a first reflective sheet disposed on a side of the light absorbing and reflecting film layer facing away from the light guide plate.

Abstract: The present application relates to the field of a display technology, and provides a drive method and a drive circuit of a display panel, and a display device; the display panel includes a plurality of pixel units, each of the plurality of pixel units corresponds to a storage capacitor and a liquid crystal capacitor; a time required for displaying each frame image through the display panel includes a first sub-field sequence, a second sub-field sequence, and a third sub-field sequence in sequence, and each sub-field sequence comprises a data writing period and a backlight luminescent period in sequence.

Abstract: A display module is provided and includes: a backplane, defining a receiving slot; a light source assembly, arranged at a bottom of the receiving slot; an optical substrate, snapped to an upper portion of the accommodation slot, wherein a sealing cavity is defined between the optical substrate and the optical source assembly; a coolant, received in the sealing cavity; and a self-sealing fixation assembly, rotatably arranged on a slot wall of the receiving slot. In a first state, the optical substrate abuts against the self-sealing fixation assembly in a direction towards the bottom of the receiving slot; and, in a second state, the self-sealing fixation assembly is in an interference fit with the optical substrate, the self-sealing fixation assembly and the optical substrate are locked with each other to cooperatively define the sealing cavity.

Abstract: A pressing mechanism and a display device are disclosed. The pressing mechanism includes a guide rail extending in a direction consistent with a width direction of a flexible cable, a positioning device connected to a side of the guide rail facing towards a printed circuit board, and a pressing device sleeved on the guide rail and operative to move along the guide rail and used to press a junction between the printed circuit board and the flexible cable. The positioning device includes a first and a second positioning piece respectively arranged on both sides of the pressing device. The second positioning piece is movably connected to the guide rail and is operative to move along the guide rail. The first and the second positioning piece are detachably connected to the printed circuit board, and respectively abut against both sides of the flexible cable in the width direction.

Abstract: A connection mechanism for connecting a printed circuit board and a back plate, and a display device are disclosed. The connection mechanism includes a connecting device and a fixing device, the connecting device having one side connected to the back plate, and another side connected to the fixing device. The fixing device is used to fix up the printed circuit board. The connecting device includes multiple locking structures connected end to end. A movable assembly is disposed on a side of a first locking structure facing towards the back plate, and there is further disposed a movable assembly between every two adjacent locking structures, which are rotatably connected together through the respective movable assembly. The multiple locking structures are operative to rotate relative to each other, driving the fixing device to be oriented parallel to the back plate or folded to a back of the back plate.