Abstract: Insulating films 34 through 38 (of which insulating films 34, 36, 38 are silicon nitride films and insulating films 35, 38 are silicon oxide films) are sequentially formed on the wires 33 of the fourth wiring layer and groove pattern 40 is transferred into the insulating film 38 by means of photolithography. An anti-reflection film 41 is formed to fill the grooves 40 of the insulating film 38 and then a resist film 42 carrying a hole pattern 43 is formed. The films are subjected to an etching operation in the presence of the resist film 42 to transfer the hole pattern into the insulating films 38, 37, 36 and part of the insulating film 35. Subsequently, the resist film 42 and the anti-reflection film 41 are removed and the groove pattern 40 and the hole pattern 43 are transferred respectively into the insulating film 37 and the insulating film 35 by using the insulating film 38 as mask.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: The invention provides a water supplying apparatus and method thereof which has a high capacity of peeling and removing a disused material such as a resist film and the like, and can efficiently use water vapor. A water supplying apparatus for executing a washing process, a cleaning process and a working process of a subject, is provided with a water vapor body supplying means for supplying a water vapor body, and a water mist body supplying means for supplying a water mist body containing liquid water fine particles, and the structure is made such that said water vapor body and said water mist body are supplied to the subject by independently controlling said two means.

Abstract: Insulating films 34 through 38 (of which insulating films 34, 36, 38 are silicon nitride films and insulating films 35, 38 are silicon oxide films) are sequentially formed on the wires 33 of the fourth wiring layer and groove pattern 40 is transferred into the insulating film 38 by means of photolithography. An anti-reflection film 41 is formed to fill the grooves 40 of the insulating film 38 and then a resist film 42 carrying a hole pattern 43 is formed. The films are subjected to an etching operation in the presence of the resist film 42 to transfer the hole pattern into the insulating films 38, 37, 36 and part of the insulating film 35. Subsequently, the resist film 42 and the anti-reflection film 41 are removed and the groove pattern 40 and the hole pattern 43 are transferred respectively into the insulating film 37 and the insulating film 35 by using the insulating film 38 as mask.

Abstract: Described is a manufacturing method of an integrated circuit which uses a thin film such as platinum or BST as a hard mask upon patterning ruthenium or the like, thereby making it possible to form a device without removing the hard mask. In addition, the invention method makes it possible to interpose a protecting film such as platinum in order to prevent, upon removing a resist used for the patterning of the hard mask, an underlying ruthenium film or the like from being damaged.

Abstract: Insulating films 34 through 38 (of which insulating films 34, 36, 38 are silicon nitride films and insulating films 35, 38 are silicon oxide films) are sequentially formed on the wires 33 of the fourth wiring layer and groove pattern 40 is transferred into the insulating film 38 by means of photolithography. An anti-reflection film 41 is formed to fill the grooves 40 of the insulating film 38 and then a resist film 42 carrying a hole pattern 43 is formed. The films are subjected to an etching operation in the presence of the resist film 42 to transfer the hole pattern into the insulating films 38, 37, 36 and part of the insulating film 35. Subsequently, the resist film 42 and the anti-reflection film 41 are removed and the groove pattern 40 and the hole pattern 43 are transferred respectively into the insulating film 37 and the insulating film 35 by using the insulating film 38 as mask.

Abstract: Fine etching of ruthenium or ruthenium oxide is suited for a ferroelectric and high dielectric film such as BST. Over a silicon oxide film 46 and a plug 49, a titanium nitride film 50, ruthenium film 51, ruthenium dioxide film 52 and silicon oxide film 53 are stacked successively. After patterning the silicon oxide film 53 with a resist film, the resist film is removed. In the presence of the patterned silicon oxide film 53, the ruthenium dioxide film 52 and ruthenium film 51 are etched under processing pressure of 15 mTorr, plasma source power of 500 W, RF bias power of 200 W, oxygen flow of 715 sccm, chlorine flow of 80 sccm, total flow of about 800 sccm, gas residence time of 49.3 msec, and over etching of 100%.

Abstract: Insulating films 34 through 38 (of which insulating films 34, 36, 38 are silicon nitride films and insulating films 35, 38 are silicon oxide films) are sequentially formed on the wires 33 of the fourth wiring layer and groove pattern 40 is transferred into the insulating film 38 by means of photolithography. An anti-reflection film 41 is formed to fill the grooves 40 of the insulating film 38 and then a resist film 42 carrying a hole pattern 43 is formed. The films are subjected to an etching operation in the presence of the resist film 42 to transfer the hole pattern into the insulating films 38, 37, 36 and part of the insulating film 35. Subsequently, the resist film 42 and the anti-reflection film 41 are removed and the groove pattern 40 and the hole pattern 43 are transferred respectively into the insulating film 37 and the insulating film 35 by using the insulating film 38 as mask.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: Insulating films 34 through 38 (of which insulating films 34, 36, 38 are silicon nitride films and insulating films 35, 38 are silicon oxide films) are sequentially formed on the wires 33 of the fourth wiring layer and groove pattern 40 is transferred into the insulating film 38 by means of photolithography. An anti-reflection film 41 is formed to fill the grooves 40 of the insulating film 38 and then a resist film 42 carrying a hole pattern 43 is formed. The films are subjected to an etching operation in the presence of the resist film 42 to transfer the hole pattern into the insulating films 38, 37, 36 and part of the insulating film 35. Subsequently, the resist film 42 and the anti-reflection film 41 are removed and the groove pattern 40 and the hole pattern 43 are transferred respectively into the insulating film 37 and the insulating film 35 by using the insulating film 38 as mask.

Abstract: Described is a manufacturing method of an integrated circuit which uses a thin film such as platinum or BST as a hard mask upon patterning ruthenium or the like, thereby making it possible to form a device without removing the hard mask. In addition, the invention method makes it possible to interpose a protecting film such as platinum in order to prevent, upon removing a resist used for the patterning of the hard mask, an underlying ruthenium film or the like from being damaged.

Abstract: With a view to providing a technique for highly-selective etching of Ru (ruthenium) with a photoresist as an etching mask, an Ru film, which is an lower electrode material deposited on the side walls and bottom surface of a hole, is covered with a photoresist film, followed by isotropic dry etching in a gas atmosphere containing an ozone gas, whereby a portion of the Ru film outside of the hole is removed.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus), (b) for removing residual corrosive compounds formed by the sample treatment, (c) for wet-processing of the samples and (d) for dry-processing the samples. A plurality of wet-processing treatments of a sample can be performed. The wet-processing apparatus can include a plurality of wet-processing stations. The samples can either be passed in series through the plurality of wet-processing stations, or can be passed in parallel through the wet-processing stations.

Abstract: In order to provide a method of treating a multilayer including metal and polysilicon for use in a conductor or a gate electrode of a semiconductor device with high accuracy at a high selectivity, the temperature of a sample is maintained at 100° C. or higher at the time of etching a metal film to increase the etch rate of the metal film. In order to suppress the etch rate of a polysilicon film and prevent side etching, an oxygen gas is added to a gas containing a halogen element. In order to suppress the etch rate of a silicon oxide film at the time of etching the polysilicon film, the etching is performed with etch parameters which are divided into those for the metal film and those for the polysilicon film. In the etching performed to the multilayer containing metal and polysilicon, by etching the metal film at a high temperature of 100° C. or higher, the etch rate of the metal film becomes high. Consequently, there is no partial etch residue of the metal film and a barrier film.

Abstract: Providing a dry cleaning method capable of removing deposition films which adhere to the inner walls of a semiconductor manufacturing apparatus-that is, removing dust production sources therefrom. To this end, the dry cleaning process is supplemented by a step of removing either ion sputtered matter or products of the internal member materials of the apparatus or chemical compounds of such apparatus internal member materials and of an etching gas, in addition to a step of removing etching reaction products. It thus becomes possible to eliminate dust generation due to pealing off of deposition films with an increase in the number of wafers being processed, which in turn increases the manufacturing yield and working efficiency of the manufacturing apparatus.

Abstract: Disclosed is apparatus for treating samples, and a method of using the apparatus. The apparatus includes processing apparatus (a) for treating the samples (e.g., plasma etching apparatus, the samples being selectively etched through use of a resist mask), (b) for removing (ashing) the resist mask, (c) for wet-processing of the samples and (d) for dry-processing the samples. Samples are passed sequentially from a supply cassette (containing a plurality of samples) to the plasma etching apparatus, through the other apparatus and to a discharge cassette (which can hold a plurality of the samples). At least two of the samples can be processed simultaneously in a path from (and including), the plasma etching apparatus to (and including) the wet-processing structure.