Abstract:
Disclosed herein is a flat panel display (FPD) manufacturing apparatus for performing a desired process for a substrate positioned in a chamber after establishing a vacuum atmosphere in the chamber. The vacuum chamber is divided into a chamber body and an upper cover to ensure easy opening/closing operations of the upper cover.
Abstract:
The present invention provides a flat fluorescent lamp. The flat fluorescent lamp comprises a single plate. Consequently, the flat fluorescent lamp is structurally safe, brightness of the flat fluorescent lamp is high, and efficiency of the flat fluorescent lamp is also high without the provision of other additional optical components. The present invention also provides a method of manufacturing such a flat fluorescent lamp.
Abstract:
Disclosed herein is a vacuum processing apparatus for performing a desired process for a substrate after establishing a vacuum atmosphere therein. More particularly, the vacuum processing apparatus includes a vacuum chamber, which is divided into a chamber body and an upper cover. The upper cover is configured to be easily opened away from and closed to the chamber body.
Abstract:
Disclosed herein is a vacuum processing apparatus for performing a desired process for a substrate after establishing a vacuum atmosphere therein. More particularly, the vacuum processing apparatus includes a vacuum chamber, which is divided into a chamber body and an upper cover. The upper cover is configured to be easily opened away from and closed to the chamber body.
Abstract:
A plasma processing apparatus for generating plasma in a chamber maintained in a vacuum state and processing a substrate using the plasma. The plasma processing apparatus includes a refrigerant channel for circulating a refrigerant formed in a shower head, thereby easily controlling the temperature of the shower head and improving the reproducibility of plasma treatment.
Abstract:
An flat-panel display (FPD) manufacturing apparatus is provided. The apparatus is flexibly configured so that it is capable of easily processing large-size substrates while also simplifying manufacturing, transporting, operating, and repair processes.
Abstract:
Disclosed herein is a plasma processing apparatus, which generates plasma within a vacuum chamber to process semiconductor substrates using the plasma. The apparatus comprises a substrate mounting table, an outer lifting bar, and a baffle. The outer lifting bar comprises a driving shaft, and a substrate supporting member coupled perpendicular to an upper end of the driving shaft. The baffle comprises a baffle plate coupled to the upper end of the driving shaft, and a shielding portion coupled to a lower surface of the baffle plate. The substrate supporting member is a foldable substrate supporting member. The baffle and the substrate supporting member are driven up and down at the same time by the driving shaft. As a result, it is possible to protect the substrate supporting member from plasma, and to prevent interference between the baffle and the outer lifting bar during operation of the plasma processing apparatus.
Abstract:
Disclosed herein is a flat panel display (FPD) manufacturing apparatus for performing a desired process for a substrate positioned in a chamber after establishing a vacuum atmosphere in the chamber. The vacuum chamber is divided into a chamber body and an upper cover to ensure easy opening/closing operations of the upper cover.
Abstract:
A DRAM cell capacitor having a high capacitance is obtained by forming a lower capacitor electrode of TiN and a roughened tungsten film on the TiN layer. A high dielectric constant film, such as tantalum pentaoxide, is then provided on the tungsten film and an upper capacitor electrode is deposited on the dielectric film. A method of forming the roughened tungsten film includes the step of depositing tungsten on the TiN layer at a temperature in the range of 200-650° C.
Abstract:
A capacitor structure of a semiconductor device which includes a semiconductor substrate, a first metal layer formed on the substrate, and a second metal layer formed on the first metal layer. The first metal layer has a nitridation-treated film along its outer surface. A tungsten film having a rugged surface is formed on the entire outer surfaces of the first and second metal layers. Because of the nitridation-treated film along the first layer, the tungsten film will be uniformly distributed along the first and second metals. A thin dielectric film is then formed on the surface of the tungsten, followed by a third metal layer formed on the dielectric film.