Abstract:
(과제) 반송 아암(arm) 표면의 이물질을 제거하는 수단을 갖는 기판 처리 장치로서, 장치 구성을 간소화함과 함께 이물질 제거에 의해 장치의 스루풋(throughput)이 저하되지 않는 기판 처리 장치를 제공한다. (해결 수단) 기판 처리 장치(11)는, 반도체 웨이퍼(W)에 처리를 행하는 적어도 1개의 처리실(21)과, 처리실(21)에 인접하는 반송실(14)과, 반송실(14)의 내부를 감압하는 진공 펌프(16)와, 반송실(14) 및 처리실(21)의 사이에서 반도체 웨이퍼(W)를 반송하는 반송 장치(15)와, 반송 장치(15)에 부착한 이물질을 반송실(14) 내에서 제거하는 이물질 제거 수단을 구비한다. 이물질 제거, 반송 장치, 기판 처리
Abstract:
(과제) 반송 아암의 상면(上面)에 대한 코팅재의 전사를 방지할 수 있는 플라즈마 처리 시스템을 제공한다. (해결 수단) 처리 용기(30) 내에 공급된 처리 가스를 플라즈마화시킴으로써, 처리 용기(30) 내에 있어서 기판(W)을 처리하는 플라즈마 처리 장치(5)와, 플라즈마 처리 장치(5)의 처리 용기(30) 내에 대하여 기판(W)을 반입, 반출시키는 반송 아암(11)을 구비한 처리 시스템(1)으로서, 처리 용기(30) 내에는, 기판(W)을 상면에 올려놓는 재치대(31)가 형성되고, 재치대(31)의 상면에는, 반송 아암(11)에 의한 기판(W)의 지지 위치에 대응하는 개소에, 오목부(33)가 형성되어 있다. 반송 아암(11)에 의한 기판(W)의 지지 위치에 대응하는 개소에 있어서는, 재치대(31)의 상면으로부터 기판(W)의 이면(裏面)에 대하여 코팅재가 전사되는 일이 없다. 이 때문에, 반송 아암(11)의 상면에도 코팅재가 전사되지 않게 된다. 플라즈마, 반송 아암, 재치대, 전사
Abstract:
실리콘 화합물 가스, 산화 가스, 및 희가스가 플라즈마 처리 장치(1)의 챔버(2) 내로 공급된다. 마이크로파가 챔버(2) 내로 공급되고, 마이크로파에 의해 발생된 플라즈마를 이용하여 피처리체 기판 상에 실리콘 산화막이 형성된다. 희가스의 분압비는 실리콘 화합물 가스, 산화 가스, 및 희가스의 전체 가스압의 10% 이상이며, 실리콘 화합물 가스와 산화 가스의 유효 흐름비(산화 가스/실리콘 화합물 가스)는 3 이상 11 이하이다.
Abstract:
A method for fabricating a semiconductor device includes the steps of (a) forming a plasma of a gas having carbon and fluorine, and forming an internal insulation film provided with a fluorine-doped carbon film formed on a substrate using the plasma; (b) forming a metal film on the internal insulation film; (c) etching the metal film according to a pattern to form a hard mask; (d) forming a concave part in the fluorine-doped carbon film by etching the fluorine-doped carbon film using the hard mask; (e) forming a film formation of a wiring material on the substrate for filling the concave part with the wiring material; (f) removing an excess part of the wiring material and the hard mask on the fluorine-doped carbon film for exposing a surface of the fluorine-doped carbon film; and (g) removing an oxide formed on the surface of the fluorine-doped film.
Abstract:
PURPOSE: A substrate processing apparatus is provided to prevent leakage of the poisonous gas generated in a process by performing cleaning in the transfer chamber. CONSTITUTION: At least one process chambers(21a,21b,21c,21d) is to carry out the processing of the processed substrate. The transfer chamber(14) is adjacent to the process chamber. The vacuum pump(16) depresses the inside of the transfer chamber and loadlock chamber(12a,12b). The transfer system(15) transfers the processed substrate to a space between the transfer chamber and process chamber. The debris removal means removes the foreign material adhered to the transfer chamber. The debris removal means includes the illuminating unit which irradiates the light to the transfer system.
Abstract:
Provided is an etching method wherein a fluorine-added carbon film formed on a substrate is etched by plasma. The method includes a first step of performing etching with plasma of an oxygen-containing treatment gas, and a second step of performing etching with plasma of a fluorine-containing treatment gas.
Abstract:
A plasma processing apparatus is provided to polish the upper side of the loading table with the state removing the ring member by processing the upper side of the loading table flat. The process gas supplied to a process chamber(20) becomes plasma. A loading table(21) loading a substrate on the upper side is installed within the process chamber. The positioning pin positioning the peripheral part of substrate is protruded from the plural number portion on the upper side of the loading table. The positioning pin(25) is inserted into the concave part(26) formed on the upper side of the loading table. An electrode(23) absorbing the substrate replaced on the upper side of loading table.
Abstract:
A temperature control device and a process apparatus using the same are provided to perform a control of high precision by non-interfering a control between each channel. A process apparatus performs a predetermined process about a substrate loaded inside a process vessel. A temperature control unit(50) performs a temperature control about a predetermined part of the process vessel or a predetermined member. The temperature control unit includes a heater unit(51), a feeding part(52), a temperature sensor(53), and a controller(54). The heater unit heats a control object. The feeding part feeds a power to the heater unit. The temperature sensor measures temperature of the control object. The controller controls the feeding part based on a signal of the temperature sensor through ILQ control.
Abstract:
[PROBLEMS] To provide a film forming system, which eliminates mutual contamination of layers formed in a manufacturing process of an organic EL element and the like, and furthermore, has a small footprint and a high productivity. [MEANS FOR SOLVING PROBLEMS] A film forming apparatus (13) for forming a film on a substrate (G) has a first film forming mechanism (35) for forming a first layer, and a second film forming mechanism (36) for forming a second layer, in a processing chamber (30). The first film forming mechanism (35) is provided with a nozzle (34), which is arranged inside the processing chamber (30) and supplies the substrate with vapor of a film forming material; a vapor generating section (45), which is arranged outside the processing chamber and generates the vapor of the film forming material; and a piping (46) for supplying the vapor of the film forming material generated by the vapor generating section (45) to the nozzle (34).
Abstract:
A microwave introduction device includes a microwave generator for generating microwaves of a predetermined frequency, a mode converter for converting the microwaves into a predetermined amplitude mode, a flat antenna member arranged toward a predetermined space, and a coaxial waveguide connecting the mode converter and the flat antenna member for propagation of the microwaves. The coaxial waveguide has a central conductor formed into a cylindrical shape having an inner diameter D1 not smaller than a first predetermined value and an outer conductor also formed into a cylindrical form. The ratio r1/r2 of the radius r1 of the inner diameter of the outer conductor against the radius r2 of the outer diameter of the central conductor is maintained at a second predetermined value. The outer conductor has an inner diameter D2 not greater than the a third predetermined value.