Abstract:
A display device and a method of manufacturing the display device are provided. Moisture may be prevented from penetrating into the display device. The display device includes a substrate including a pixel area. A thin film transistor is formed on the substrate. A pixel electrode is connected to the thin film transistor and formed in the pixel area. A roof layer is formed on the pixel electrode. The roof layer is separated from the pixel electrode via a microcavity. A liquid crystal layer fills the microcavity. A liquid crystal injection hole is formed in the roof layer and exposes a portion of the microcavity. An encapsulation layer is formed on the roof layer. The encapsulation layer covers the liquid crystal injection hole and seals the microcavity for the pixel area. The encapsulation layer includes a multilayer structure.
Abstract:
An electro-optical device includes a first substrate, a second substrate and a liquid crystal, and has a display region and a peripheral region. The peripheral region of the first substrate has a peripheral electrode and a first orientation film covering the peripheral electrode. Then, since the density of first orientation film in the display region is different from the density of the first orientation film in the peripheral region, it is possible to efficiently capture ionic impurities present in the liquid crystal.
Abstract:
A method of manufacturing liquid crystal display devices according to the present invention includes: forming a protective film on a first base substrate; forming a circuit element part on the first base substrate and/or the protective film; bonding a second base substrate to the first base substrate to form bonded substrates including both substrates, the circuit element part being therebetween; forming a first incision on a outer surface of the first base substrate on which the protective film is formed, at a location overlapping with the protective film; wet-etching the formed first incision to make the incision deeper; forming a second incision on an outer surface of the second base substrate at a location overlapping the first incision, and dividing the bonded substrates along the first incision and the second incision, thereby forming a plurality of individual bonded substrates.
Abstract:
Provided are a conductive film and a method of manufacturing the same. The conductive film includes a substrate, a first conductive layer formed on the substrate, and a patterned second conductive layer formed on the first conductive layer. Here, oxide layers are formed on top and side surfaces of the second conductive layer. The conductive film may prevent defects of the conductive layer caused by rapid oxidation or damage to the substrate, and increase emission uniformity.
Abstract:
A display includes: a display substrate including a liquid crystal layer; a driving substrate driving the display substrate; and a damp-proof layer continuously provided along a top face and side faces of the display substrate, and a top face of the driving substrate.
Abstract:
A color electronic paper device and manufacturing method thereof are provided. The device includes: a front panel; a color filter layer, placed over the front panel; a color protection layer, being a thermoplastic transparent layer placed over the color filter layer; an adhesive layer, placed over the color protection layer; and a cover, placed over the adhesive layer.
Abstract:
The image display device according to the present invention is an image display device where a pixel unit and an external connection terminal unit are provided on a substrate (SUB), and the pixel unit and the external connection terminal unit are connected by an aluminum wire (LN), having; an organic protective film (OPAS) directly covering the aluminum wire, except a contact hole (CH) of the external connection terminal unit and part of the pixel unit; and an ITO film (ITO) provided on the upper side of the organic protective film so as to cover the aluminum wire, including the external connection terminal unit and reaching to the pixel unit.
Abstract:
Disclosed is an electrode film which does not exfoliate from, or diffuse into, an oxide semiconductor or an oxide thin film. An electrode layer comprises a highly adhesive barrier film being a Cu—Mg—Al thin film and a copper thin film; and an oxide semiconductor and an oxide thin film contact with the highly adhesive barrier film. With the highly adhesive barrier film having magnesium in a range of at least 0.5 at % but at most 5 at % and aluminum at least 5 at % but at most 15 at % when the total number of atoms of copper, magnesium, and aluminum is 100 at %, the highly adhesive barrier film has both adhesion and barrier properties. The electrode layer is suitable because a source electrode layer and a drain electrode layer contact the oxide semiconductor layer. A stopper layer having an oxide may be provided on a layer under the electrode layer.
Abstract:
A package structure of flexible display device includes a flexible opto-electronic display panel, a first barrier layer and a second barrier layer. The flexible opto-electronic display panel includes a backplane, a flexible frontplane, and a display media layer. The display media layer is disposed between the flexible frontplane and the backplane, where the display media layer is substantially corresponding to a display region of the backplane, and at least one side of the display media layer aligns with one corresponding side of the backplane. The first barrier layer is disposed on a first surface of the flexible frontplane, where the flexible frontplane, the display media layer and the first barrier layer expose a bonding region of the backplane. The second barrier layer is disposed on a second surface of the backplane.
Abstract:
The embodiment of the invention provides a liquid crystal panel, comprising a color filter substrate, an array substrate and a layer of liquid crystal molecules interposed between the color filter substrate and the array substrate. The color filter substrate includes a black matrix, color filters, a protection layer and a common electrode formed a substrate, and cut-off patterns used to decrease motion speeds of impurity ions are formed in the common electrode so as to suppress image sticking.