Abstract: A spliced display screen and a spliced display device are provided. The spliced display screen includes gate driving units arranged within pixel units to drive these pixel units, eliminating the need for binding scan chips. This approach can reduce the number of side wirings and binding terminals, thereby improving the yield of the spliced display screen. Additionally, by placing both scan terminals and data terminals on the same side of the display area, the display panel is designed with connecting terminals on only one side, effectively eliminating a border on one side of a display panel. Moreover, a terminal area of one display panel is arranged corresponding to the display area of another display panel, and therefore, a splicing seam is minimized or even eliminated.

Abstract: A solder-printing stencil and a method of printing solder paste are provided in the present application. A solder-printing stencil is used for printing a solder paste on a substrate in cooperation with a squeegee blade, the solder-printing stencil includes: a stencil body including a first region, a second region, and a third region, wherein the third region is defined between the first region and the second region, the third region is provided with a plurality of mesh holes spaced along a squeegeeing direction of the squeegee blade; and protruding portions are provided on a side of the stencil body facing the substrate, and the protruding portions are provided on both the first region and the second region.

Abstract: A driving backplane and a display panel are provided. The driving backplane includes a substrate, a driving circuit layer, a protective layer, and pads. The driving circuit layer is disposed on a side of the substrate, and its top forms a first height with a bottom of the substrate. The protective layer is disposed on a side of the driving circuit layer facing away from the substrate, and includes first protective layer structures. Each first protective layer structure corresponds to each pad area. The pads are formed on sides of the first protective layer structures facing away from the driving circuit layer, each pad is connected to the driving circuit layer through a via hole in each first protective layer structure, and a top of one first protective layer structure forms a second height with the bottom of the substrate, and the second height is greater than the first height.

Abstract: The present disclosure provides a display device and a manufacturing method thereof. The display device includes: a driving substrate; light-emitting elements electrically connected to the driving substrate through a connecting part, and first intervals formed between two adjacent light-emitting elements; a light-shielding layer filled in the first intervals between the two adjacent light-emitting elements; and an encapsulation substrate disposed corresponding to the light-emitting elements. The encapsulation substrate includes a buffer layer, and a surface of a light-emitting part facing away from the driving substrate is in contact with to the buffer layer.

Abstract: A display panel and a display device are provided. The display panel includes at least two splicing light-emitting units spliced with each other. A first signal line and a second signal line are respectively disposed on a first side surface of the carrier substrate and a second side surface opposite to the first side surface of the carrier substrate. The first signal line is electrically connected to the first connection line, and the second signal line is electrically connected to the second connection line. The present application adds input paths of the first input signal and the second input signal, and improves the problems of brightness difference and uniformity deterioration.

Abstract: A mini light-emitting diode (mini-LED) backlight module, a manufacturing method thereof, and a display panel are provided. A plurality of backlight partitions are defined on a flexible substrate to improve brightness uniformity. A plurality of mini-LEDs arranged in an array in each of the backlight partitions are formed into parallel modules, so that a driving voltage and current of the backlight module can be within an appropriate range. The flexible substrate is further arranged with a first metal pattern, and signals can be independently input to each of the mini-LEDs through each of first sub-metal patterns, reducing metal trace resistance of the backlight module, and further improving brightness uniformity of the backlight module.

Abstract: A display panel, a manufacturing method thereof, and a display device are provided. The display panel includes a driving substrate, a first light-emitting device layer disposed on a side of the driving substrate, and a second light-emitting device layer disposed on a side the driving substrate away from the first light-emitting device layer. The first light-emitting device layer includes a plurality of first light-emitting devices. The second light-emitting device layer includes a plurality of second light-emitting devices. The driving substrate includes a plurality of driving thin-film transistors. A driving thin-film transistor is connected to a first light-emitting device and a second light-emitting device. The first light-emitting device layer and the second light-emitting device layer are respectively disposed on two sides of the driving substrate.

Abstract: A display panel and a manufacturing method thereof, and an electronic terminal are provided and including a driving circuit layer, a planarization layer, an electrode layer, and a light-emitting layer which are stacked from bottom to top. The driving circuit layer includes driving circuits. The planarization layer includes first planarization portions and second planarization portions which are arranged in a same layer. The electrode layer includes electrode groups. The light-emitting layer includes light-emitting devices. The first planarization portion is disposed on a side of the driving circuit close to the electrode layer, and the second planarization portion is disposed on a side of one of the electrode group close to the driving circuit layer. A thickness of the second planarization portion is greater than a thickness of the first planarization portion.

Abstract: The present disclosure provides a display panel and an electronic device, the display panel comprises a substrate and a plurality of light-emitting units, a plurality of power wires, and an auxiliary electrode disposed on the substrate; the power wires extend in a first direction, and are disposed between adjacent light-emitting units, and the power wires are connected to the light-emitting units; and the auxiliary electrode disposed on a surface of the power wires close to or away from the substrate; the power wires comprise a plurality of wire segments, each of the wire segments corresponds to one of the light-emitting units, and each of the wire segments is connected to the auxiliary electrode.

Abstract: The transparent display includes a substrate and a plurality of frame traces. The substrate includes a transparent display region and a frame region defined on a left side, a right side, and an upper side of the transparent display region. The plurality of frame traces are disposed in the frame region, and each frame trace includes a hollow portion and a conductive portion surrounding the hollow portion. B disposing the hollow portion in each frame trace to improve a transmittance of each frame trace, thereby improving a transparency of the frame region, reducing a risk of disconnection, and improving a product yield.

Abstract: A mini light-emitting diode (mini-LED) backlight module, a manufacturing method thereof, and a display panel are provided. A plurality of backlight partitions are defined on a flexible substrate to improve brightness uniformity. A plurality of mini-LEDs arranged in an array in each of the backlight partitions are formed into parallel modules, so that a driving voltage and current of the backlight module can be within an appropriate range. The flexible substrate is further arranged with a first metal pattern, and signals can be independently input to each of the mini-LEDs through each of first sub-metal patterns, reducing metal trace resistance of the backlight module, and further improving brightness uniformity of the backlight module.

Abstract: A method of manufacturing a flexible array substrate, a flexible array substrate, and a flexible display device are disclosed. The method of manufacturing the flexible array substrate is implemented by using silver nanowire to form an electrically conductive pattern on a flexible substrate. In this manner, using the silver nanowire to replace metal or indium tin oxide as conventionally used to form the electrically conductive pattern can reduce trace resistance, increase panel transmittance, improve bending resistance of the flexible array substrate, avoid line breaks in products, improve production yield, and reduce manufacturing costs of products.

Abstract: The present application provides a flexible micro-LED display panel and a manufacturing method thereof. The flexible micro-LED display panel includes a first base substrate, a thin film transistor array layer, a first connecting electrode layer, a second connecting electrode layer, a plurality of micro-LED chips, a flexible encapsulation layer, and a second base substrate, wherein the first base substrate and the second base substrate are flexible substrates, the second base substrate is provided on the flexible encapsulation layer covering the micro-LED chips to make a neutral layer of the panel to be located at the thin film transistor array layer, reducing a risk of wiring disconnection.

Abstract: The present invention discloses an array substrate, a display panel, and a manufacturing method of the display panel. The display panel includes the array substrate and a light-emitting element. The array substrate includes a substrate layer, a driving circuit layer, and a cover layer stacked in order from bottom to top. The cover layer is a gray light-absorbing material for absorbing ambient light and reflected light of the driving circuit layer.

Abstract: A method of manufacturing a flexible array substrate, a flexible array substrate, and a flexible display device are disclosed. The method of manufacturing the flexible array substrate is implemented by using silver nanowire to form an electrically conductive pattern on a flexible substrate. In this manner, using the silver nanowire to replace metal or indium tin oxide as conventionally used to form the electrically conductive pattern can reduce trace resistance, increase panel transmittance, improve bending resistance of the flexible array substrate, avoid line breaks in products, improve production yield, and reduce manufacturing costs of products.

Abstract: The present invention provides a transparent display and a manufacturing method thereof. The transparent display includes a substrate and a plurality of frame traces. The substrate includes a transparent display region and a frame region surrounding the transparent display region. The plurality of frame traces are disposed in the frame region, and each frame trace includes a hollow portion and a conductive portion surrounding the hollow portion. By disposing the hollow portion in each the frame trace to improve a transmittance of each the frame trace, thereby improving a transparency of the frame region, reducing a risk of disconnection, and improving a product yield.

Abstract: The present invention discloses an array substrate, a display panel, and a manufacturing method of the display panel. The display panel includes the array substrate and a light-emitting element. The array substrate includes a substrate layer, a driving circuit layer, and a cover layer stacked in order from bottom to top. The cover layer is a gray light-absorbing material for absorbing ambient light and reflected light of the driving circuit layer.