Abstract:
A liquid crystal display panel and a manufacturing method thereof, and a motherboard of a liquid crystal display panel are provided. According to the embodiments of the present disclosure, in one aspect, identification patterns are formed in different unit display panel regions of the same exposure region of a motherboard of an array substrate by designing a mask of the array substrate of a liquid crystal display panel, to distinguish the unit display panels exposed in the same batch; in another aspect, the unit display panels exposed in different batches are distinguished through the arrangement modes of the color filters in the unit display panel regions of a motherboard of a color filter substrate, to realize marking of all unit display panels on a same motherboard glass.
Abstract:
Embodiments of the present disclosure relate to the field of display technology, and particularly, to a liquid crystal display device and a method for manufacturing the same, which effectively improve accuracy and effectiveness of checking affixation of the polarizing sheets. The liquid crystal display device comprises a color filter substrate, an array substrate, an upper polarizing sheet and a lower polarizing sheet. The color filter substrate comprises a first graduated scale and a second graduated scale, the array substrate comprises a third graduated scale and a fourth graduated scale, and the first graduated scale, the second graduated scale, the third graduated scale and the fourth graduated scale are arranged within a non-display region. The first graduated scale is used to measure a distance of at least one first edge of first edges parallel with each other of the upper polarizing sheet to an edge of the color filter substrate closer to the at least one first edge; and the second graduated scale is used to measure a distance of at least one second edge of second edges parallel with each other of the upper polarizing sheet to an edge of the color filter substrate closer to the at least one second edge; and the third graduated scale is used to measure a distance of at least one third edge of third edges parallel with each other of the lower polarizing sheet to an edge of the array substrate closer to the at least one third edge; and, the fourth graduated scale is used to measure a distance of at least one fourth edge of fourth edges parallel with each other of the lower polarizing sheet to an edge of the array substrate closer to the at least one fourth edge.
Abstract:
The present disclosure provides a display apparatus, comprising an array substrate and a color filter substrate, wherein a black matrix and an alignment film are coated sequentially on a part of an inner surface of the color filter substrate, and wherein another alignment film is coated on a part of an inner surface of the array substrate, and wherein the inner surface of the array substrate has an edge which is adhered by a sealant to an edge of the inner surface of the color filter substrate, and wherein a first marker region for marking unitary display screens in the same batch of exposure is arranged on the inner surface of the array substrate at a source end at the bottom of the display apparatus, and wherein a second marker region for marking unitary display screens in different batches of exposure is arranged inside the bottom of the sealant perpendicular to the array substrate and the color filter substrate and between the array substrate and the color filter substrate. The present disclosure also provides a method for producing a display apparatus. The present invention solves a problem that Panel ID marking process limits the capacity of production and the Panel ID occupies large space in the peripheral regions of the display screens. It improves the capacity of production in the production line efficiently while optimizing the design spaces of the peripheral regions of the display screens.
Abstract:
The invention provides an OLED display panel and the production process thereof, which relates to the technical field of display, may improve the surface flatness and the water-oxygen permeation resistance of the flexible base substrate, improve the light output ratio of the display panel, and may control the center wavelength of the electroluminescence spectrum. The display panel comprises an anode and a cathode provided on a flexible base substrate, and an organic material functional layer situated between the anode and the cathode, and it further comprises a reticular light output coupling layer provided on the flexible base substrate and contacting the flexible base substrate; the anode, the cathode, the organic material functional layer are all provided on the reticular light output coupling layer; the reticular light output coupling layer, the anode and the cathode, and the organic material functional layer compose a micro-cavity; the micro-cavity is used for controlling the center wavelength of the electroluminescence spectrum and the light output ratio. The material of the reticular light output coupling layer is a reticular high molecular material having a high refractive index and a low absorptivity in the visible light range; and it is used for the production of the flexible OLED display panel.
Abstract:
An electroluminescent device, comprising: a substrate; a first electrode and a second electrode disposed on the substrate; and an electroluminescent layer sandwiched between the first electrode and the second electrode, wherein at least one of the first and second electrodes is configured to have a grating structure; and wherein the grating structure has a grating period within a range of 0.9˜1.1 times of a wavelength of a light wave generated in the electroluminescent layer.