摘要:
A method for forming a porous insulating film includes an insulating film forming step and a hole forming step. During the insulating film forming step, plasma processing of an organic siloxane group compound and an organic compound having a polar group forms an insulating film having a siloxane structure. Molecules of the organic compound having a polar group are contained within this siloxane structure. During the hole forming step, excitation gas removes molecules of the organic compound having a polar group to provide holes in the insulating film. According to this method, an insulating film with a predetermined thickness and holes formed uniformly in the thickness direction can be obtained.
摘要:
With a stopper layer 19 as an etching stopper, a second groove 14a and a contact hole 13a are formed. Copper is buried inside the second groove 14a and the contact hole 13a, thereby forming a plug layer 22 and an overlying wiring layer 21 connected to an underlying wiring layer 17 via the plug layer 22. The stopper layer 19 is comprised of Si, C and N as essential components. First and second cap layers 18 and 23 are also comprised of Si, C and N as essential components.
摘要:
That surface of an electrode plate 20 which is opposite to a susceptor 10 has a projection shape. The electrode plate 20 is fitted in an opening 26a of shield ring 26 at a projection 20a. At this time, the thickness of the projection 20a is approximately the same as the thickness of the shield ring 26. Accordingly, the electrode plate 20 and the shield ring 26 form substantially the same plane. The major surface of the projection 20a has a diameter 1.2 to 1.5 times the diameter of a wafer W. The electrode plate 20 is formed of, for example, SiC.
摘要:
That surface of an electrode plate 20 which is opposite to a susceptor 10 has a projection shape. The electrode plate 20 is fitted in an opening 26a of shield ring 26 at a projection 20a. At this time, die thickness of the projection 20a is approximately the same as the thickness of the shield ring 26. Accordingly, the electrode plate 20 and the shield ring 26 form substantially the same plane. The major surface of the projection 20a has a diameter 1.2 to 1.5 times the diameter of a wafer W. The electrode plate 20 is formed of, for example, SiC.
摘要:
The present invention is a plasma processing method for forming a film on a substrate, the method including the steps of processing a first material gas with plasma having an electron density W and an electron temperature X, processing a second material gas with plasma having an electron density Y, which is different from the electron density W, and an electron temperature Z, which is different from the electron temperature X, and forming the film on the substrate by reacting the processed first material gas and the processed second material gas.
摘要:
A wiring structure of a semiconductor device or the like includes an interlayer insulating film having a fluorocarbon film formed on an underlayer, and a conductor buried in the interlayer insulating film. The fluorocarbon film contains nitrogen and is low in dielectric constant, excellent in reproducibility and stable.
摘要:
Provided is an amorphous carbon film having a high elastic modulus and a low thermal contraction rate with a suppressed low dielectric constant, a semiconductor device including the amorphous carbon film and a technology for forming the amorphous carbon film. Since the amorphous carbon film is formed by controlling an additive amount of Si (silicon) during film formation, it is possible to form the amorphous carbon film having a high elastic modulus and a low thermal contraction rate with a suppressed dielectric constant as low as 3.3 or less. Accordingly, when the amorphous carbon film is used as a film in the semiconductor device, troubles such as a film peeling can be suppressed.
摘要:
A modacrylic shrinkable fiber according to the present invention is containing a polymer composition obtained by mixing 50 to 99 parts by weight of a polymer (A) containing 40 wt % to 80 wt % of acrylonitrile, 20 wt % to 60 wt % of a halogen-ontaining monomer and 0 wt % to 5 wt % of a sulfonic-acid-containing monomer, and 1 to 50 parts by weight of a polymer (B) containing 5 wt % to 70 wt % of acrylonitrile, 20 wt % to 94 wt % of an acrylic ester and 1 wt % to 40 wt % of a sulfonic-acid-containing monomer containing a methallylsulfonic acid or metal salts thereof or amine salts thereof, in which a total amount of the polymer (A) and the polymer (B) is 100 parts by weight. In this way, a modacrylic shrinkable fiber that has a favorable color development property after dyeing and a high shrinkage ratio even after dyeing is obtained.
摘要:
A microwave is radiated into a processing chamber (1) from a planar antenna member of an antenna (7) through a dielectric plate (6). With this, a C5F8 gas supplied into the processing chamber (1) from a gas supply member (3) is changed (activated) into a plasma so as to form a fluorine-containing carbon film of a certain thickness on a semiconductor wafer (W). Each time a film forming process of forming a film on one wafer is carried out, a cleaning process and a pre-coating process are carried out. In the cleaning process, the inside of the processing chamber is cleaned with a plasma of an oxygen gas and a hydrogen gas. In the pre-coating process, the C5F8 gas is changed into a plasma, and a pre-coat film of fluorine-containing carbon thinner than the fluorine-containing carbon film formed in the film forming process is formed.
摘要翻译:通过电介质板(6)将微波从天线(7)的平面天线部件辐射到处理室(1)中。 由此,从气体供给构件(3)供给到处理室(1)中的C 5 C 8 C 8气体被变更(激活)为等离子体,从而 在半导体晶片(W)上形成一定厚度的含氟碳膜。 每次进行在一个晶片上形成膜的成膜工艺时,进行清洗处理和预涂工序。 在清洁过程中,用氧气和氢气的等离子体清洁处理室的内部。 在预涂布过程中,将C 5 F 8 N气体变成等离子体,并且含氟碳的预涂膜比含氟 形成在成膜工艺中形成的碳膜。
摘要:
A film fabrication method for forming a film over a substrate in a processing chamber includes a first film formation process and a second film formation process. In the first film formation process, (a) a first step of supplying a first source gas containing a metal-organic compound and without containing a halogen element into the chamber and then removing the first source gas from the chamber, and (b) a second step of supplying a second source gas containing hydrogen or a hydrogen compound into the chamber and then removing the second source gas from the chamber, are repeated a predetermined number of times. In the second film formation process, (c) a third step of supplying a third source gas containing a metal halide compound into the chamber and then removing the third gas from the chamber, and (d) a fourth step of supplying a plasma-activated fourth source gas containing hydrogen or a hydrogen compound into the chamber and then removing the fourth source gas from the chamber, are repeated a predetermined number of times.