Abstract: Provided are a gas injector and a film deposition apparatus having the same. The gas injector includes a body, a supply hole, an injection hole, and a distribution plate. The body is configured to provide an inner space therein. The supply hole is formed in an upper surface of the body to communicate with the inner space and receive a raw material. The injection hole is formed in a lower surface of the body to communicate with the inner space and inject the raw material. The distribution plate is disposed in the inner space of the body. A through hole is formed in the distribution plate. The distribution plate is disposed to be inclined at a predetermined angle with respect to a horizontal plane. The gas injector can uniformly inject the raw material and improve vaporization efficiency of the raw material having a powder form.

Abstract: Provided are a method for manufacturing a transparent electrode pattern and a method for manufacturing an electro-optic device having the transparent electrode pattern. The method for manufacturing the transparent electrode pattern includes forming a transparent electrode on a light-transmissive substrate, patterning the transparent electrode by removing a portion of the transparent electrode, and forming an insulating protective layer in an edge region of the patterned transparent electrode through a printing process. In accordance with the method, the insulating protective layer is formed in the edge region of the patterned transparent electrode through the printing process so that an apparatus and method for manufacturing the insulating protective layer can be simplified, resulting in a decrease in manufacturing cost.

Abstract: An electro-optic device includes a substrate a metal thin film pattern formed on the substrate, and a transparent electrode pattern formed to cover the metal thin film pattern, wherein one side of the metal thin film pattern is formed to be exposed to the outside of the transparent electrode pattern. Therefore, a uniform current can flow through the transparent electrode pattern by providing a supply voltage to the metal thin film pattern and thus it is possible to manufacture the electro-optic device having uniform luminance.

Abstract: A gas injection unit and a thin film deposition apparatus having the gas injection unit are provided. Since a variety of different kinds of organic materials can be sequentially vaporized and injected by a single injection unit, a variety of different kinds of thin films can be deposited in a single chamber. Furthermore, the gas injection structure of the injector unit can be easily controlled. Therefore, even when the process conditions such as the size of the substrate, the process temperature of the chamber, and the like are altered, it becomes possible to actively response to the altered process conditions by simply replacing some parts without replacing the whole injector unit.

Abstract: Provided are a gas injector and a film deposition apparatus having the same. The gas injector includes a body, a supply hole, an injection hole, and a distribution plate. The body is configured to provide an inner space therein. The supply hole is formed in an upper surface of the body to communicate with the inner space and receive a raw material. The injection hole is formed in a lower surface of the body to communicate with the inner space and inject the raw material. The distribution plate is disposed in the inner space of the body. A through hole is formed in the distribution plate. The distribution plate is disposed to be inclined at a predetermined angle with respect to a horizontal plane. The gas injector can uniformly inject the raw material and improve vaporization efficiency of the raw material having a powder form.

Abstract: Provided are an organic light emitting diode (OLED) and a method for manufacturing the same. The method for manufacturing the OLED includes forming a first electrode on a substrate using a metal paste, forming an organic thin film on the first electrode, and depositing a second electrode on the organic thin film. Herein, the second electrode includes a transparent conductive oxide.

Abstract: Provided are a method for manufacturing a transparent electrode pattern and a method for manufacturing an electro-optic device having the transparent electrode pattern. The method for manufacturing the transparent electrode pattern includes forming a transparent electrode on a light-transmissive substrate, patterning the transparent electrode by removing a portion of the transparent electrode, and forming an insulating protective layer in an edge region of the patterned transparent electrode through a printing process. In accordance with the method, the insulating protective layer is formed in the edge region of the patterned transparent electrode through the printing process so that an apparatus and method for manufacturing the insulating protective layer can be simplified, resulting in a decrease in manufacturing cost.

Abstract: Provided are a display device including a fluid buffer layer and a method for manufacturing the same. The display device includes a display device layer, a passivation layer, an encapsulation layer, and a fluid buffer layer. The display device layer is disposed on one surface of a substrate. The passivation layer is disposed on the display device layer. The encapsulation layer has a cup-shaped internal space to protect the display device layer. The fluid buffer layer is formed on at least one of the top and the side of the passivation layer formed on the display device layer. Because the fluid buffer layer is formed on the display device layer, oxygen and moisture are prevented from flowing into the display device layer, thus suppressing the device lifetime reduction. Also, an external physical impact is absorbed by the fluid buffer layer, thus minimizing the damage to the display device.

Abstract: A deposition material supplying module includes a canister configured to define a storage space in which a deposition material is stored, a material flow controller provided with at least one groove receiving the deposition material supplied from the canister and adapted to rotate, and a carrier gas supplying unit configured to supply carrier gas to the material flow controller. The deposition material is filled in the groove and a fixed amount of the deposition material is supplied into the process chamber using the deposition material flow controller. Therefore, it is easy to control an amount of the deposition material supplied to the process chamber and the reliability on the fixed-quantity supply can be improved.

Abstract: Actuation system for opening and closing a two-part mold that includes first and second mold parts movably mounted to each other. The actuation system includes a carriage which can move in each of two directions, a first pivoting part coupled to the first mold part, a second pivoting part coupled to the second mold part, and at least one actuating member connected to each of the carriage and at least one of the first and second pivoting parts. This abstract is not intended to define the invention disclosed in the specification, nor intended to limit the scope of the invention in any way.

Abstract: Method and apparatus for transferring components which includes a wheel which can rotate between an arrival station and a discharge station, each station being located adjacent a periphery of the wheel. A plurality of independent peripheral teeth are pivotally mounted to the wheel via mounting spindles. The teeth are designed to carry along at least one component during a rotation of the wheel in a transfer direction. Each of the teeth can pivot in a direction opposite to the transfer direction, such that each tooth can release a component when there is resistance to rotation of the wheel.

Abstract: A machine for manufacturing hollow bodies by blow molding thermoplastic preforms includes at least one preform heating apparatus and an assembly of molding stations fixedly arranged in an arc of a circle. The molding stations each further include a finished product ejector. A rotary transfer device is provided between the heating apparatus and the molding stations to transfer the heated preforms. The transfer device preferably has the shape of a wheel coaxial with an arc of a circle on which the molding stations are arranged. The wheel includes a carrier distributed uniformly along a circle to take heated preforms and deposit them into receptors on the molding stations.