Abstract: A display panel, comprising a plurality of sub-pixels of at least one color provided corresponding to a display area. The peripheral sub-pixels of the sub-pixels provided along the edge of the display area are edge sub-pixels, and the remaining sub-pixels surrounded by the edge sub-pixels and located in the display area are internal sub-pixels; a portion of the plurality of sub-pixels in the display area is a display pixel portion, and the edge contour of the display pixel portion is formed by the edge sub-pixels; the shape of the edge sub-pixels in the plurality of sub-pixels is different from that of the internal sub-pixels of the same color; the edge sub-pixels in the plurality of sub-pixels fill an area between the internal sub-pixels and the edge of the display area, so that the edge contour shape of the display pixel portion is consistent with that of the display area.

Abstract: The present disclosure provides a display panel and a display device. The display panel includes a functional region and a peripheral region surrounding the functional region, wherein the functional region is provided with peripheral working wiring adjacent to the peripheral region, and the peripheral region is provided with anti-crack wiring including a plurality of wiring sub-units that are disconnected from each other. The display device includes the above display panel.

Abstract: A display panel, comprising a plurality of sub-pixels of at least one color provided corresponding to a display area. The peripheral sub-pixels of the sub-pixels provided along the edge of the display area are edge sub-pixels, and the remaining sub-pixels surrounded by the edge sub-pixels and located in the display area are internal sub-pixels; a portion of the plurality of sub-pixels in the display area is a display pixel portion, and the edge contour of the display pixel portion is formed by the edge sub-pixels; the shape of the edge sub-pixels in the plurality of sub-pixels is different from that of the internal sub-pixels of the same color; the edge sub-pixels in the plurality of sub-pixels fill an area between the internal sub-pixels and the edge of the display area, so that the edge contour shape of the display pixel portion is consistent with that of the display area.

Abstract: The present disclosure provides a display panel and a display device. The display panel includes a functional region and a peripheral region surrounding the functional region, wherein the functional region is provided with peripheral working wiring adjacent to the peripheral region, and the peripheral region is provided with anti-crack wiring including a plurality of wiring sub-units that are disconnected from each other. The display device includes the above display panel.

Abstract: A method of cutting a flexible substrate includes providing a flexible substrate pre-configured with a cutting area, providing an obstruction covering a non-cutting area of the flexible substrate to expose the cutting area of the flexible substrate, and performing a dry etching to the flexible substrate to decompose the cutting area of the flexible substrate, such that internal components of the flexible substrate can be protected during a flexible substrate cutting process.

Abstract: A dielectric film layer structure and a fabricating method thereof are provided. The dielectric film layer structure at least has a first capacitor electrode, a dielectric layer, and a second capacitor electrode, wherein the dielectric layer includes two materials of SiNx and SiOx. In a place where voltage drop is relatively large, the dielectric layer is mainly made of SiNx, and in a place where the voltage drop is relatively small, the dielectric layer is mainly made of SiOx, thereby changing current for charging thin film transistors, reducing influence of the voltage drop, and improving uniformity of panel voltage output.

Abstract: A method of cutting a flexible substrate includes providing a flexible substrate pre-configured with a cutting area, providing an obstruction covering a non-cutting area of the flexible substrate to expose the cutting area of the flexible substrate, and performing a dry etching to the flexible substrate to decompose the cutting area of the flexible substrate, such that internal components of the flexible substrate can be protected during a flexible substrate cutting process.

Abstract: An OLED display panel and a photomask are provided. The OLED display panel includes a plurality of pixel areas arranged in a matrix on a plane. Each of the pixel areas is defined by an electrode and an organic light emitting material. The pixel areas increase in size along a first direction and the pixel areas increase in size along a second direction perpendicular to the first direction. The application solves the problem of non-uniformity in displaying images, caused by a feed-through effect in existing arts.

Abstract: Disclosed is a correction system for an alignment film printing plate, including: a roller and a printing plate mounted as a sleeve outside of the roller, wherein a first end portion of the printing plate is provided thereon with a plurality of columns of buckle groups, and a second end portion of the printing plate is provided thereon with a plurality of columns of slot groups engaged with the buckle groups. The correction system for the alignment film printing plate further includes an image controller used for measuring a deviation value between an actual position and a preset position for printing of an alignment film on a substrate. The correcting system of the alignment film printing plate has a simple structure and is capable of realizing different stretching degrees of an alignment film pattern at different positions on the printing plate, so as to improve a correction effect of the printing plate.

Abstract: A vapor deposition structure of a display panel includes a display panel, a plurality of magnets distributed on one side of the display panel, a mask disposed on another side of the display panel, a plurality of support columns supported between the mask and the display panel, and a vapor deposition source having a vapor deposition side facing the mask. Each of the support columns corresponds to one of the magnets. In the vapor deposition structure of the display panel, by adding the support columns in corresponding regions of the mask and the magnets, a deformation issue caused by an uneven distribution of an adsorption force generated by the magnets is effectively prevented. This ensures a uniform thickness of each light emitting layer structure after vapor deposition, which reduces a defect rate displayed on the display panel.

Abstract: An OLED display panel includes subpixels, scanning lines, data lines, a scanning signal output unit, and a data signal output unit. Each subpixel includes a storage capacitor. In the same row of subpixels, the farther a distance away from the scanning signal output unit is, the greater a capacitance value of the storage capacitor in the subpixel is. In the same column of subpixels, the farther a distance away from the data signal output unit is, the greater a capacitance value of the storage capacitor in the subpixel is. The capacitance value of the storage capacitor of the subpixel farther from the data signal output unit is greater in the same column of subpixels. The voltage change caused by the voltage drop is balanced by changing the capacitance value of the storage capacitor, thereby improving the uniformity of the display screen.

Abstract: A dielectric film layer structure and a fabricating method thereof are provided. The dielectric film layer structure at least has a first capacitor electrode, a dielectric layer, and a second capacitor electrode, wherein the dielectric layer includes two materials of SiNx and SiOx. In a place where voltage drop is relatively large, the dielectric layer is mainly made of SiNx, and in a place where the voltage drop is relatively small, the dielectric layer is mainly made of SiOx, thereby changing current for charging thin film transistors, reducing influence of the voltage drop, and improving uniformity of panel voltage output.

Abstract: An OLED display panel and a photomask are provided. The OLED display panel includes a plurality of pixel areas arranged in a matrix on a plane. Each of the pixel areas is defined by an electrode and an organic light emitting material. The pixel areas increase in size along a first direction and the pixel areas increase in size along a second direction perpendicular to the first direction. The application solves the problem of non-uniformity in displaying images, caused by a feed-through effect in existing arts.

Abstract: Provided is an array substrate, a photomask, and a display device. The array substrate includes a substrate, a common electrode layer on which a plurality of first via holes are provided at predetermined positions, a passivation layer having a plurality of second via holes disposed concentrically with the first via holes, and a pixel electrode layer having a plurality of pixel electrodes. Areas of the first via holes are configured to gradually decrease in the direction from an output proximal end to an output distal end of a gate line.

Abstract: Disclosed is a mask for curing of a sealant, and the mask comprises a support plate. The support plate has a flat structure, which includes a first plane and a second plane. The first plane is provided with a shielding layer thereon. When the mask is used, it is placed in parallel with a liquid crystal panel coated with the sealant to be cured, and light for curing the sealant transmits through the mask and irradiates the liquid display panel. The support plate is transparent, and the shielding layer allows part of light to transmit through. Under a condition that a frame of a display panel becomes narrower, the mask for curing of the sealant according to the present disclosure can have a good performance, and thus incomplete curing of the sealant and decomposition of liquid crystal can be avoided.

Abstract: A method forming an alignment layer for a liquid crystal display device including: attaching a transfer film on a printing roll, the transfer film including a convex portion having first-sized halftone dots and second-sized halftone dots; positioning a substrate on a printing table; providing aligning solution on an anilox roll using a doctor roll; and transferring the aligning solution on the anilox roll to the transfer film while moving the printing table and rotating the printing roll, and then coating the aligning solution on the substrate to thereby form an alignment layer on the substrate.

Abstract: Disclosed is a display panel and a display device. The display panel includes an array substrate, a color filter substrate and a liquid crystal layer. A plurality of parallel gate lines is disposed on the array substrate. The liquid crystal layer is disposed between the array substrate and the color filter substrate. The liquid crystal layer has a thickness gradually decreasing along a direction from an output near-end to an output far-end of the gate line. Display uniformity of a panel can be improved by the display panel and the display device.

Abstract: The present invention provides a pixel structure and a liquid crystal display panel. Based on the theory of color, the pixel structure includes, in each of pixel units, a first sub-pixel (P1), a second sub-pixel (P2), a third sub-pixel (P3), a the fourth sub-pixel (P4) arranged sequentially in a line. The first sub-pixel (P1) and the fourth sub-pixel (P4) are respectively arranged at two sides of the second sub-pixel (P2) and the third sub-pixel (P3). The second sub-pixel (P2) and the third sub-pixel (P3) have areas that are identical. The first sub-pixel (P1) and the fourth sub-pixel (P4) have color resists having the same color. The first sub-pixel (P1) and the fourth sub-pixel (P4) have areas that are one half of the area of the second sub-pixel (P2).

Abstract: The present invention provides an alignment film printing plate and a manufacturing method thereof. The alignment film printing plate includes a backing protection layer (1) and a bottom sheet (2). The bottom sheet (2) includes a plurality of first circular bumps (21) formed on and distributed in a circumferential edge portion thereof and a plurality of second circular bumps (22) formed on and arranged in a central portion of the bottom sheet (2) and surrounded by the plurality of first circular bumps (21). The first circular bumps (21) have a diameter smaller than a diameter of the second circular bumps (22).

Abstract: Provided is an array substrate, a photomask, and a display device. The array substrate includes a substrate, a common electrode layer on which a plurality of first via holes are provided at predetermined positions, a passivation layer having a plurality of second via holes disposed concentrically with the first via holes, and a pixel electrode layer having a plurality of pixel electrodes. Areas of the first via holes are configured to gradually decrease in the direction from an output proximal end to an output distal end of a gate line.